DNA BASED IDENTIFICATION OF SEAFOOD SPECIES IN SAMPLES

Abstract

A method for identifying seafood species in a sample, comprising the steps of a) isolating DNA from the sample, b) amplifying fragments of the isolated DNA with one or more primer sets, selected from the group of ps 1 for identifying seafood species of the family of Crustacean, ps 2 for identifying seafood species of the family of Cephalopods, ps 3 for identifying seafood species of the family of Gastropoda, ps 4 for identifying seafood species of the family of Veneridae, ps 5 for identifying seafood species of the family of Ostreidae, ps 6 for identifying seafood species of the family of Pectinidae, and ps 7 for identifying seafood species of the family of Mytilidae, c) sequencing the amplified DNA fragments of step b), and d) identifying the seafood species by comparison of the sequences obtained by steps a) to c) with reference sequences of seafood species. Further provided is a primer library and a kit.

Description

FIELD OF THE INVENTION

The present invention relates to the technical field of DNA barcoding, particularly to a method for the identification of seafood species in samples comprising the steps of isolating DNA from a sample, amplifying fragments of the isolated DNA using specific primers, sequencing of the amplified DNA fragments, and identifying the seafood species through sequence comparison with reference sequences. Further provided herein is a primer library and a kit.

BACKGROUND OF THE INVENTION

Food adulteration is a worldwide problem in various food products, e.g., in farm animal, wild animal, seafood, and also plant products. The term of food adulteration is not uniformly defined but in general, it describes misdeclaration of food intending to gain an economic benefit without limits (Robson, K. et al, 2021). Seafood has a high risk of fraud and seafood products are often mislabelled. According to Pardo, M. et al. (2016), up to 27% of the seafood is mislabelled worldwide. Food adulteration includes, but is not limited to, replacement (a (valuable) ingredient is replaced by one of a lower value), relabelled or incorrectly labelled food. Incorrect labelling can result when different local names are used for the same species, when the same name is used for different species, or due to translation errors.

However, correct labelling of seafood products is important for traceability issues, protection of endangered species, mitigation of illegal fishing, and for individual reasons of end consumers (Rodriguez, E. M. and Ortea, I., 2017).

Correct declaration of seafood is regulated in the European Union. Thereby, international and national regulations exist to ensure legal trade in seafood and seafood products. The EU directive 1379/2013 regulates market organization of fishery and aquaculture products, including correct declaration of seafood. To comply with legal regulations, labels must include both the local trade name in the official language(s) and the correct scientific Latin name (Regulation (EU) No 1379/2013; Regulation (EU) No 1169/2011).

Regardless of clear and strict requirements for species declaration, incorrect labelling of e.g., bivalve products, has repeatedly been detected in Europe (Naumann, G. et al., 2012; Fernandes, T. et al., 2020). In German and Swiss studies, more than half of the products declared to contain “Jakobsmuschel” (or “Jacobsmuschel”) were labelled incorrectly. Although the German name “Jakobsmuschel” (or “Jacobsmuschel”) may only be used for scallop species of the genus Pecten, species of other genera (particularly Placopecten and Mizuhopecten) were identified in these products (Naumann, G. et al., 2012; Stephan, R. et al., 2014).

Compliance with regulations is especially important since seafood is gaining importance in human nutrition. In 2019, 107.6 billion US $ were made with the marketing of seafood (crustaceans and molluscs), compared to 8.1 billion US $30 years ago. In 2019, 1.03 million tons of mussels, scallops, and oysters were caught in nature and more than 10 million tons were cultivated in aquaculture, earning a profit of millions of US dollars. Worldwide, 6.1 million tonnes of crustaceans were caught and 10.5 million tonnes were cultivated in 2019. In the same year, 6.4 million tonnes of molluscs were caught and 17.6 million tonnes were cultivated.

Crustaceans and molluscs are divided into numerous genera comprising a high number of species with a worldwide distribution. A class of molluscs are for example bivalves, wherein Mytilidae (mussels), Pectinidae (scallops), and Ostreidae (oysters) are the most important bivalve species for human consumption. Each of these bivalve species is divided into several genera comprising a high number of species which makes correct identification of seafood species difficult using known methods.

In the case of seafood, especially for bivalves, morphological characteristics such as shell, colour and size may allow correct species classification. However, after shell removal or mechanical processing, classification by morphology may be hampered or even be impossible (Espiheira, M. et al., 2009; Fernandez, A. et al., 2000).

Recently, matrix-assisted laser desorption ionization time of flight mass spectrometry (MALDI-TOF MS) has been shown to be suitable for accurate species identification of scallops (Stephan, R. et al., 2014). However, MALDI-TOF MS instruments are expensive and do not allow high throughput analysis. Therefore, this methodology is less applicable for routine analyses and for the fast identification of several seafood species.

DNA metabarcoding methods have been recently developed for the identification of mammalian and poultry species in food (Dobrovolny S. et al., 2019).

JP 2010004890 discloses primers and methods for detecting mackerel, salmon, abalone, squid, crab, and shrimp.

Marin A. et al. (2015) disclose the use of Pectinidae family-specific primers for amplifying a partial region at the 5′ end of the 16S rRNA gene as a barcoding tool for scallops.

Marin A. et al. (2017) disclose a decaplex PCR assay for the detection of scallop species with species-specific primers targeting the variable 5′ end of the 16S rRNA gene.

Wen J. et al. (2017) discuss the species characterization of cephalopod products by DNA barcoding and phylogenetic analysis using CO/and 16SrRNA genes.

Spielmann G. et al. (2019) disclose the comparison of three DNA marker regions for their suitability to identify food relevant crustaceans of the order Decapoda.

Sun S. et al. (2021) describe the application of DNA barcoding for the identification of dried shellfish products such as scallop, squid, octopus, and cuttlefish.

Klapper R. et al. (2021) disclose the identification of commercial scallop species through multiplex real-time PCR.

Gense K. et al. (2021) disclose a DNA metabarcoding method for the identification of bivalve species in seafood products.

However, methods which provide comprehensive information on the plurality of seafood species which are present in a food sample are still missing. Thus, there is an urgent need in the field for improved means of identifying several different seafood species in complex and processed foodstuffs suitable for food authentication in routine analysis.

SUMMARY OF THE INVENTION

It is the objective of the present invention to provide improved means and methods for the identification of several different seafood species in food samples.

The objective is solved by the subject matter of the present invention.

The present invention provides a method which is highly suitable for the identification of seafood species of different origin and processing degree in complex food samples. The inventors of the present invention surprisingly discovered a library of primers which can be incorporated in a fast and reliable metabarcoding method for the identification of a plurality of seafood species in food samples. Thereby, the specific primer sequences of the library are found particularly suitable for combining the primers in the amplification step since they are suitable for amplification at similar conditions such as at similar or even identical temperatures. Temperatures used in a PCR reaction highly depend on the specific characteristics of the primer sequences used in the reaction and may vary even for slightly altered primer sequences. For example, primers with different melting temperatures can hardly be combined successfully in one PCR reaction as the annealing temperature of the PCR reaction depends on the melting temperature of the used primers. Another advantage of the invention described herein is that the method is highly specific based on the specific primer sequences and the length of the primers. This invention successfully identifies seafood species with a low number of PCR cycles, even in highly processed food. The low PCR cycles decrease unspecific PCR results and thus lead to highly reliable results, especially by preventing false positive results.

According to the invention, there is provided a method for identifying seafood species in a sample, comprising the steps of

• • a) isolating DNA from the sample,
  • b) amplifying fragments of said DNA with one or more primer sets (ps) selected from the group of
    • i. ps 1 for identifying seafood species of the family of Crustacean comprising one or more primer pairs of one forward primer selected from any one of SEQ ID NOs: 1 and 2, and the reverse primer SEQ ID NO: 15 and/or the reverse complement sequences of the primer sequences;
    • ii. ps 2 for identifying seafood species of the family of Cephalopods comprising one or more primer pairs of one forward primer selected from any one of SEQ ID NOs: 3 to 5, and the reverse primer SEQ ID NO: 16 and/or reverse complement sequences of the primer sequences;
    • iii. ps 3 for identifying seafood species of the family of Gastropoda comprising one or more primer pairs of the forward primer SEQ ID NO: 6, and one reverse primer selected from any one of SEQ ID NOs: 17 to 18 and/or reverse complement sequences of the primer sequences;
    • iv. ps 4 for identifying seafood species of the family of Veneridae comprising one or more primer pairs of one forward primer selected from any one of SEQ ID NOs: 7 to 11, and one reverse primer selected from any one of SEQ ID NOs: 19 to 21 and/or reverse complement sequences of the primer sequences;
    • v. ps 5 for identifying seafood species of the family of Ostreidae comprising the forward primer SEQ ID NO: 12 and the reverse primer SEQ ID NO: 22 and/or reverse complement sequences of the primer sequences;
    • vi. ps 6 for identifying seafood species of the family of Pectinidae comprising the forward primer SEQ ID NO: 13 and the reverse primer SEQ ID NO: 23 and/or reverse complement sequences of the primer sequences; and
    • vii. ps 7 for identifying seafood species of the family of Mytilidae comprising one or more primer pairs of the forward primer SEQ ID NO: 14, and one reverse primer selected from any one of SEQ ID NOs: 24 to 25 and/or reverse complement sequences of the primer sequences,
  • c) sequencing the amplified DNA fragments of step b), and
  • d) identifying the seafood species by comparison of the sequences obtained by steps a) to c) with reference sequences of seafood species.

Specifically, amplifying of fragments of DNA in step b) is performed by a polymerase chain reaction (PCR), preferably by a PCR comprising 25-30 cycles, more preferably by 25 cycles, and preferably at an annealing temperature of 60-65° C., more preferably at an annealing temperature of 62° C.

Specifically, amplifying fragments of the DNA in step b) is performed with at least 1, 2, 3, 4, 5, 6, or 7 primer sets.

Specifically, the amplified DNA fragments of step b) are 16S rDNA fragments, preferably the amplified DNA fragments comprise 120 bp-220 bp of the 16S rDNA.

Specifically, the reference sequences of seafood species comprise the DNA sequence of the 16S rDNA of said seafood species.

More specifically, the reference sequences are any one of SEQ ID NOs: 28 to 1153, or any combinations thereof.

Specifically, the identified species of the family of Crustacean are selected from the following Group 1: Varuna litterata, Hemisquilla ensigera, Gonodactylus smithii, Pullosquilla thomassini, Chorisquilla trigibbosa, Telmessus acutidens, Lithodes aequispinus, Panulirus echinatus, Jasus paulensis, Jasus caveorum, Parastacus pilimanus, Parastacus brasiliensis, Parastacus defossus, Parastacus nicoleti, Gonodactylus graphurus, Jasus lalandii, Lopholithodes mandtii, Lithodes spp., Lithodes maja, Jasus edwardsii, Panulirus regius, Panulirus pascuensis, Panulirus laevicauda, Panulirus gracilis, Panulirus guttatus, Panulirus femoristriga, Chionoecetes spp., Paralomis granulosa, Panulirus spp., Scyllarus arctus, Palinurus elephas, Episesarma mederi, Austropotamobius torrentium, Cycloachelous granulatus, Eriocheir recta, Cervimunida johni, Achelous floridanus, Portunus sayi, Portunus anceps, Palinurus mauritanicus, Palinurus charlestoni, Pseudosquilla ciliata, Pleuroncodes monodon, Portunus ventralis, Achelous spinicarpus, Callinectes toxotes, Callinectes danae, Callinectes ornatus, Callinectes marginatus, Callinectes affinis, Callinectes rathbunae, Callinectes bocourti, Callinectes similis, Callinectes bellicosus, Callinectes arcuatus, Metanephrops armatus, Metanephrops mozambicus, Metanephrops japonicus, Metanephrops spp., Metanephrops binghami, Parastacus pugnax, Paranephrops zealandicus, Callinectes exasperatus, Palinurus spp., Sagmariasus verreauxi, Metanephrops rubellus, Metanephrops challengeri, Metanephrops neptunus, Metanephrops australiensis, Metanephrops arafurensis, Metanephrops boschmai, Metanephrops formosanus, Metanephrops sinensis, Lithodes ferox, Oratosquillina interrupta, Odontodactylus japonicus, Miyakella nepa, Erugosquilla woodmasoni, Clorida decorata, Dictyosquilla foveolata, Anchisquilla fasciata, Scyllarides herklotsii, Astacus astacus, Portunus hastatus, Achelous ordwayi, Carcinus maenas, Portunus inaequalis, Astacoides madagascariensis, Erimacrus isenbecki, Hemisquilla australiensis, Austrosquilla tsangi, Fallosquilla fallax, Echinosquilla guerinii, Coronis scolopendra, Chorisquilla tweediei, Chorisquilla hystrix, Chorisquilla excavate, Busquilla plantei, Alima pacifica, Alima orientalis, Alachosquilla vicina, Gonodactylellus espinosus, Gonodactylellus affinis, Kempella mikado, Hemisquilla californiensis, Haptosquilla trispinosa, Haptosquilla glyptocercus, Gonodactylus platysoma, Gonodactylaceus falcatus, Gonodactylus childi, Gonodactylellus annularis, Odontodactylus scyllarus, Odontodactylus latirostris, Odontodactylus havanensis, Odontodactylus cultrifer, Neogonodactylus oerstedii, Neogonodactylus bredini, Neogonodactylus bahiahondensis, Lysiosquillina sulcata, Squilla rugosa, Raoulserenea spp., Raoulserenea oxyrhyncha, Pseudosquillopsis marmorata, Raoulserenea komaii, Protosquilla folini, Ibacus alticrenatus, Scyllarides nodifer, Scyllarides haanii, Scyllarides brasiliensis, Taku spinosocarinatus, Jasus frontalis, Procambarus paeninsulanus, Puerulus sewelli, Panulirus polyphagus, Panulirus longipes., Panulirus interruptus, Panulirus marginatus, Ibacus peronii, Ibacus chacei, Faxonella clypeata, Fallicambarus kountzeae, Arenaeus mexicanus, Cambarus tartarus, Chionoecetes tanneri, Thenus unimaculatus, Thenus indicus, Haptosquilla hamifera, Lithodes turritus, Bouchardina robisoni, Troglocambarus maclanei, Hobbseus yalobushensis, Hobbseus prominens, Charybdis spp., Hobbseus petilus, Faxonella creaseri, Thranita danae., Monomia petrea, Neogonodactylus wennerae, Xiphonectes pseudohastatoides, Gonodactylellus viridis, Gonodactylaceus ternatensis, Belosquilla laevis, Procambarus okaloosae, Procambarus morrisi, Procambarus milleri, Procambarus mancus, Procambarus lunzi, Hobbseus cristatus, Procambarus acutissimus, Faxonius pagei, Manningia pilaensis, Pontastacus leptodactylus, Procambarus zonangulus, Procambarus youngi, Procambarus seminolae, Procambarus pycnogonopodus, Procambarus orcinus, Procambarus pallidus, Alima maxima, Scyllarides deceptor, Monomia argentata, Xiphonectes pulchricristatus, Paralithodes platypus, Lopholithodes foraminatus, Faughnia formosae, Faughnia profunda, Bathysquilla crassispinosa, Eriocheir sinensis, Harpiosquilla harpax, Callinectes sapidus, Squilla mantis, Portunus trituberculatus, Panulirus japonicus, Cancer pagurus, Chionoecetes japonicus, Scylla tranquebarica, Scylla serrata, Eriocheir japonica, Eriocheir hepuensis, Cherax destructor, Squilla empusa, Lysiosquillina maculata, Gonodactylus chiragra, Panulirus homarus, Homarus americanus, Panulirus ornatus, Oratosquilla oratoria, Panulirus stimpsoni, Charybdis japonica, Scylla paramamosain, Scylla olivacea, Cherax quadricarinatus, Cherax cainii, Paralithodes brevipes, Paralithodes camtschaticus, Scyllarides latus, Procambarus clarkii, Procambarus fallax, Homarus gammarus, Thenus orientalis, Lithodes nintokuae, Cherax cairnsensis, Cherax dispar, Cherax quinquecarinatus, Cherax robustus, Cherax monticola, Cherax glaber, Cherax holthuisi, Astacopsis gouldi, Portunus pelagicus, Paranephrops planifrons, Nephrops norvegicus, Ibacus ciliatus, Charybdis feriata, Metanephrops sibogae, Panulirus cygnus, Metanephrops thomsoni, Faxonius limosus, Squilloides leptosquilla, Cherax bicarinatus, Austropotamobius pallipes, Cherax tenuimanus, Cherax boesemani, Charybdis (Charybdis) natator, Procambarus acutus, Pacifastacus leniusculus, Munida gregaria, Panulirus versicolor, Faxonius rusticus, Portunus sanguinolentus, Procambarus alleni, Metacarcinus magister, Puerulus angulatus, Lupocycloporus gracilimanus, Monomia gladiator, Varuna yui, Panulirus argus, Munida isos, Scyllarides squammosus, Cambaroides similis, Charybdis bimaculata, Cambarus robustus, Thalamita sima, Thranita crenata, Orconectes luteus, Orconectes punctimanus, Orconectes sanbornii, Cherax spp., Cherax crassimanus, Cherax preissii, Munida spinosa, Munida asprosoma, Munida leagora, Munida alonsoi, Munida taenia, Munida gordoae, Munida zebra, Munida distiza, Munida psamathe, Munida thoe, Munida guttata, Munida stia, Munida ommata, Munida roshanei, Munida compressa, Munida clinata, Munida chydaea, Munida compacta, Munida eclepsis, Munida tyche, Munida philippinensis, Munida armilla, Munida mesembria, Munida spilota, Munida benguela, Munida endeavourae, Munida agave, Munida idyia, Munida militaris, Munida flinti, Munida congesta, Munida rubridigitalis, Munida iris, Munida microphthalma, Munida rufiantennulata, Munida pusilla, Munida remota, Munida leptosyne, Munida rosula, Munida munin, Munida valida, Munida proto, Enriquea leviantennata, Munida multilineata, Munida pagesi, Munida stomifera, Munida quadrispina, Munida tiresias, Munida psylla, Munida heteracantha, Paralomis formosa, Paralomis spinosissima, Paralomis birsteini, Paralomis hirtella, Scyllarus subarctus, Scyllarus pygmaeus, Scyllarus chacei, Scyllarus caparti, Scyllarus americanus, Episesarma palawanense, Episesarma singaporense, Austropotamobius fulcisianus orientalis, Achelous tumidulus, Achelous asper, Achelous sebae, Portunus acuminatus, Achelous tuberculatus, Achelous iridescens, Portunus xantusii, Achelous depressifrons, Achelous rufiremus, Achelous gibbesii, Portunus minimus, Achelous stanfordi, Achelous brevimanus, Portunus affinis, Achelous angustus, Achelous binoculus, Oratosquillina inornata, Oratosquillina asiatica, Oratosquillina anomala, Oratosquillina perpensa, Erugosquilla graham, Busquilla quadraticauda, Kempella stridulans, Gonodactylaceus graphurus, Gonodactylaceus randalli, Carcinus aestuarii, Menippe rumphii, Menippe nodifrons, Menippe spp., Procambarus liberorum, Procambarus toltecae, Procambarus curdi, Procambarus digueti, Procambarus nigrocinctus, Procambarus versutus, Procambarus gibbus, Cambarus pecki, Procambarus geminus, Charybdis acuta, Creaserinus fodiens, Fallicambarus jeanae, Creaserinus gordoni, Creaserinus caesius, Fallicambarus dissitus, Creaserinus danielae, Fallicambarus oryktes, Fallicambarus byersi, Creaserinus burrisi, Creaserinus gilpini, Fallicambarus harpi, Fallicambarus macneesei, Fallicambarus petilicarpus, Fallicambarus wallsi, Fallicambarus strawni, Fallicambarus devastator, Fallicambarus houstonensis, Fallicambarus hortoni, Arenaeus cribrarius, Cambarus spp., Cambarus deweesae, Cambarus striatus, Cambarus graysoni, Cambarus monongalensis, Cambarus pyronotus, Cambarus maculatus, Cambarus latimanus, Cambarus strigosus, Cambarus parrishi, Cambarus bouchardi, Cambarus fasciatus, Cambarus harti, Cambarus nerterius, Cambarus setosus, Cambarus batchi, Cambarus halli, Cambarus unestami, Cambarus reburrus, Cambarus gentry, Cambarus hubbsi, Cambarus friaufi, Cambarus obeyensis, Cambarus cracens, Cambarus asperimanus, Cambarus hobbsorum, Cambarus williami, Cambarus howardi, Cambarus obstipus, Cambarus girardianus, Cambarus cryptodytes, Cambarus sciotensis, Cambarus georgiae, Cambarus pristinus, Cambarus aculabrum, Cambarus englishi, Cambarus brachydactylus, Cambarus cumberlandensis, Cambarus dubius, Cambarus reflexus, Cambarus scotti, Cambarus longirostris, Cambarus hubrichti, Monomia lucida, Faughnia serenei, Harpiosquilla melanoura, Harpiosquilla annandalei, Cherax cuspidatus, Cherax paniaicus, Cherax lorentzi, Cherax albertisii, Cherax rotundus, Cherax leckii, Cherax murido, Cherax wasselli, Cherax parvus, Cherax pallidus, Cherax cartalacoolah, Cherax rhynchotus, Cherax pulcher, Cherax peknyi, Cherax setosus, Cherax misolicus, Cherax warsamsonicus, Cherax snowden, Cherax boschmai, Cherax nucifraga, Cherax barrette, Oratosquilla fabricii, Astacopsis tricornis, Thalamita admete, Faxonius virilis, Thranita prymna, Astacopsis franklinii, Cambaroides schrenckii, Orconectes australis, Thalamita chaptalii, Zygita longifrons, Thalamita picta, Thalamita seurati, Thranita pelsarti, Orconectes barri, Faxonius ronaldi, Faxonius neglectus, Orconectes compressus, Orconectes forceps, Orconectes pellucidus, Neoeriocheir leptognathus, Penaeus kerathurus, Penaeus marginatus, Penaeus longistylus, Penaeus plebejus, Metapenaeopsis liui, Metapenaeopsis lamellata, Metapenaeopsis acclivis, Metapenaeopsis commensalis, Atypopenaeus stenodactylus, Aristeus antillensis, Solenocera vioscai, Penaeus chinensis, Penaeus spp., Metapenaeopsis barbata, Penaeus esculentus, Heteropenaeus longimanus, Atypopenaeus dearmatus, Funchalia taaningi, Xiphopenaeus kroyeri, Trachypenaeopsis mobilispinis, Rimapenaeus similis, Parapenaeus politus, Solenocera membranacea, Alcockpenaeopsis hungerfordii, Batepenaeopsis tenella, Pandalus platyceros, Metapenaeus moyebi, Metapenaeus joyneri, Pandalus montagui, Penaeus brasiliensis, Aristeus antennatus, Heterocarpus laevigatus, Heterocarpus lepidus, Funchalia villosa, Hemipenaeus carpenter, Mesopenaeus tropicalis, Pelagopenaeus balboae, Penaeus hathor, Metapenaeopsis provocatoria, Aristeus virilis, Aristeus alcock, Penaeus aztecus, Heterocarpus abulbus, Penaeus setiferus, Cerataspis monstrosus, Pleoticus robustus, Aristaeopsis edwardsiana, Solenocera necopina, Parapenaeus cayrei, Parapenaeus fissurus, Parapenaeus investigatoris, Parapenaeus fissuroides, Parapenaeus americanus, Heterocarpus ensifer, Kishinouyepenaeopsis cornuta, Parapenaeus perezfarfantae, Parapenaeus murrayi, Parapenaeus longipes, Parapenaeus spp., Heterocarpus chani, Heterocarpus sibogae, Heterocarpus dorsalis, Metapenaeopsis andamanensis, Metapenaeopsis coniger, Macrobrachium idella, Trachysalambria brevisuturae, Trachysalambria aspera, Trachysalambria albicoma, Euphausia superba, Solenocera hextii, Hymenopenaeus equalis, Rimapenaeus constrictus, Crangon crangon, Trachypenaeus anchoralis, Megokris spp., Trachysalambria longipes, Trachysalambria starobogatovi, Trachysalambria nansei, Trachysalambria malaiana, Trachysalambria spp., Trachysalambria parvispina, Crangon uritai, Pandalus borealis, Metapenaeus monoceros, Pandalus nipponensis, Hadropenaeus lucasii, Ganjampenaeopsis uncta, Solenocera annectens, Solenocera melantho, Parapenaeopsis stylifera, Penaeus japonicus, Penaeus brevirostris, Penaeus notialis, Penaeus duorarum, Penaeus schmitti, Artemesia longinaris, Penaeus subtilis, Penaeus stylirostris, Penaeus vannamei, Macrobrachium rosenbergii, Penaeus monodon, Pandalus hypsinotus, Heterocarpus spp., Pandalus jordani, Macrobrachium bullatum, Penaeus merguiensis, Metapenaeus ensis, Acetes chinensis, Macrobrachium nipponense, Penaeus californiensis, Macrobrachium lanchesteri, Pleoticus muelleri, Metapenaeus affinis, Hymenopenaeus neptunus, Penaeus indicus, Aristaeomorpha foliacea, Solenocera spp., Mierspenaeopsis hardwickii, Penaeus latisulcatus, Penaeus semisulcatus, Penaeus isabelae, Sicyonia lancifer, Metapenaeopsis dalei, Metapenaeopsis gerardoi, Parapenaeus longirostris, Pandalus eous, Pandalus miyakei, Pandalus japonicas, Pandalus glabrus, Pandalus teraoi, Pandalus ivanovi, Pandalus coccinatus, Pandalus formosanus, Pandalus chani, Pandalus spp., Pandalus longirostris, Pandalus latirostris, Metapenaeus spp., Palaemon spp., Palaemon serratus, Macrobrachium nipponense, 15 Palaemon capensis, Palaemon sinensis, Palaemon annandalei, Palaemon gravieri, Palaemon serenus, Palaemon carinicauda, Palaemon pugio, Palaemon pandaliformis, Palaemon elegans, Palaemon longirostris, Palaemon peringueyi, Palaemon debilis, Palaemon carteri, Palaemon ritteri, Palaemon orientis, Macrobrachium gracilirostre, Palaemon vulgaris, Palaemon serrifer, Palaemon varians, Palaemon macrodactylus, Palaemon tonkinensis, Palaemon xiphias, Palaemon ivonicus, Palaemon pacificus, Palaemon atrinubes, Palaemon intermedius, Palaemon concinnus, Palaemon yuna, Palaemon antennarius, Palaemon dolospinus, Palaemon gracilis, Palaemon mundusnovus, Palaemon suttkusi, Palaemon zariquieyi, Macrobrachium australiense, Palaemon semmelinkii, Palaemon litoreus, Palaemon septemtrionalis, Palaemon guangdongensis, Palaemon hancocki, Palaemon vietnamicus, Palaemon texanus, Palaemon ortmanni, Palaemon turcorum, Palaemon kadiakensis, Macrobrachium asperulum, Macrobrachium australe, Macrobrachium olfersii, Macrobrachium jelskii, Macrobrachium villosimanus, Macrobrachium equidens, Macrobrachium potiuna, Macrobrachium malcolmsonii, Macrobrachium superbum, Macrobrachium striatum, Macrobrachium latidactylus, Macrobrachium hancocki, Macrobrachium acanthurus, Macrobrachium inflatum, Macrobrachium crenulatum, Macrobrachium carcinus, Macrobrachium americanum, Macrobrachium latimanus, Macrobrachium mammillodactylus, Macrobrachium faustinum, Macrobrachium heterochirus, Macrobrachium scabriculum, Macrobrachium digueti, Macrobrachium tenellum, Macrobrachium idae, Macrobrachium formosense, Macrobrachium dienbienphuense, Macrobrachium placidulum, Macrobrachium sintangense, Macrobrachium niphanae, Macrobrachium totonacum, Macrobrachium tuxtlaense, Macrobrachium vicconi, Macrobrachium villalobosi, Macrobrachium amazonicum, Macrobrachium canarae, Macrobrachium tratense, Macrobrachium forcipatum, Macrobrachium hirsutimanus, Macrobrachium borellii, Macrobrachium brasiliense, Macrobrachium aemulum, Macrobrachium handschini, Macrobrachium horstii, Macrobrachium ferreirai, Macrobrachium lanatum, Macrobrachium novaehollandiae, Macrobrachium tolmerum, Macrobrachium iheringi, Macrobrachium saigonense, Macrobrachium nattereri, Macrobrachium aracamuni, Macrobrachium inpa, Macrobrachium depressimanum, Macrobrachium surinamicum, Macrobrachium denticulatum, Macrobrachium pilimanus, Macrobrachium ohione, Macrobrachium hainanense, Macrobrachium lepidactyloides, Macrobrachium jaroense, Macrobrachium esculentum, Macrobrachium maculatum, Macrobrachium edentatum, Macrobrachium grandimanus, Macrobrachium malayanum, Macrobrachium meridionale, Macrobrachium neglectum, Macrobrachium platycheles, Macrobrachium naso, Macrobrachium placidum, Macrobrachium yui, Macrobrachium shokitai, Macrobrachium sundaicum, Macrobrachium rude, Macrobrachium lamarrei, Macrobrachium sankolli, Macrobrachium gangeticum, Trachysalambria palaestinensis, Euphausia pacifica, Euphausia lucens, Euphausia vallentini, Euphausia triacantha, Euphausia longirostris, Euphausia similis, Euphausia recurve, Euphausia krohni, Euphausia frigida, Euphausia gibboides, Euphausia eximia, Euphausia americana, Euphausia tenera, Euphausia pseudogibba, Euphausia hemigibba, Euphausia brevis, Hymenopenaeus debilis and Nematopalaemon tenuipes (Group 1).

More specifically, the identified species of the family of Crustacean are selected from Group 1 and are listed in Group 1A: Jasus edwardsii, Metanephrops japonicus, Astacus astacus, Eriocheir sinensis, Cancer pagurus, Chionoecetes opilio, Cherax destructor, Homarus americanus, Paralithodes camtschaticus, Procambarus clarkii, Homarus gammarus, Nephrops norvegicus, Panulirus argus, Penaeus setiferus, Aristaeopsis edwardsiana, Crangon, Pandalus borealis, Metapenaeus monoceros, Penaeus notialis, Penaeus duorarum, Penaeus vannamei, Macrobrachium rosenbergii, Penaeus monodon, Penaeus californiensis, Pleoticus muelleri, Penaeus indicus, and Monomia gladiator.

More specifically, the identified species of the family of Crustacean are selected from Group 1 and are listed in Group 1B: Cancer pagurus, Chionoecetes opilio, Homarus americanus, Paralithodes camtschaticus, Procambarus clarkii, Homarus gammarus, Nephrops norvegicus, Panulirus argus, Crangon, Pandalus borealis, Metapenaeus monoceros, Penaeus vannamei, Macrobrachium rosenbergii, Penaeus monodon, and Pleoticus muelleri.

Specifically, the identified species of the family of Cephalopods are selected from the following Group 2: Loligo forbesii, Nototodarus sloanii, Sepia spp., Sepia lorigera, Sepia pardex, Rossia pacifica, Berryteuthis magister, Eledone massyae, Sepia robsoni, Loligo reynaudii, Doryteuthis (Amerigo) pealeii, Doryteuthis (Amerigo) gahi, Sepiola rondeletii, Adinaefiola ligulata, Sepia smithi, Sepia elliptica, Eledone palari, Eledone moschata, Rossia palpebrosa, Gonatus madokai, Gonatus kamtschaticus, Eledone cirrhosa, Sepia elegans, Rossia bipillata, Sepiola atlantica, Lolliguncula (Lolliguncula) panamensis, Octopus maya, Illex illecebrosus, Nototodarus gouldi, Gonatopsis octopedatus, Illex coindetii, Berryteuthis anonychus, Gonatus fabricii, Lusepiola birostrata, Octopus tetricus, Uroteuthis (Photololigo) sibogae, Doryteuthis (Doryteuthis) pleii, Doryteuthis sanpaulensis, Doryteuthis (Amerigo) surinamensis, Octopus hubbsorum, Macrotritopus defilippi, Octopus insularis, Loliolus (Nipponololigo) sumatrensis, Sepia recurvirostra, Sepia madokai, Sepia kobiensis, Amphioctopus aegina, Sepia officinalis, Sepioteuthis lessoniana, Todarodes pacificus, Octopus vulgaris, Heterololigo bleekeri, Octopus sinensis, Octopus americanus, Narrowteuthis nesisi, Ommastrephes bartramii, Sepiella japonica, Uroteuthis (Photololigo) edulis, Doryteuthis (Amerigo) opalescens, Architeuthis dux, Dosidicus gigas, Sepia esculenta, Amphioctopus fangsiao, Loligo vulgaris, Sepiola spp., Octopus mimus, Octopus spp., Octopus bimaculoides, Uroteuthis (Photololigo) chinensis, Uroteuthis (Photololigo) duvaucelii, Illex argentinus, Sepia aculeata, Sepiella inermis, Sepia lycidas, Sepia latimanus, Sepia apama, Sepia pharaonis, Loliolus (Nipponololigo) beka, Alloteuthis subulata, Nototodarus hawaiiensis, Sepia orbignyana, Sepia papuensis, Rossia macrosoma, Lolliguncula (Lolliguncula) brevis, Lolliguncula (Loliolopsis) diomedeae, Afrololigo mercatoris, Octopus bimaculatus, Octopus cyanea, Callistoctopus ornatus, Enteroctopus megalocyathus, Sasakiopus salebrosus, Octopus berrima, Amphioctopus marginatus, Octopus maorum, Octopus fitchi, Amphioctopus neglectus, Loliolus (Nipponololigo) uyii, Loliolus (Nipponololigo) japonica, Bathyteuthis abyssicola, Semirossia patagonica, Cistopus taiwanicus, Sthenoteuthis oualaniensis, Watasenia scintillans, Gonatopsis okutanii, Uroteuthis (Aestuariolus) noctiluca, Sepioteuthis australis, Sepioteuthis sepioidea, Amphioctopus kagoshimensis, Amphioctopus membranaceus, Amphioctopus exannulatus, Amphioctopus rex and Sepia peterseni (Group 2).

More specifically, the identified species of the family of Cephalopods are selected from Group 2 and are listed in Group 2A: Doryteuthis (Amerigo) gahi, Eledone moschata, Octopus maya, Doryteuthis (Doryteuthis) pleii, Amphioctopus aegina, Sepia officinalis, Octopus vulgaris, Sepiella japonica, Uroteuthis (Photololigo) edulis, Doryteuthis (Amerigo) opalescens, Dosidicus gigas, Loligo vulgaris, Uroteuthis (Photololigo) chinensis, Uroteuthis (Photololigo) duvaucelii, Sepiella inermis, Sepia pharaonis, and Amphioctopus membranaceus.

More specifically, the identified species of the family of Cephalopods are selected from Group 2 and are listed in Group 2B: Doryteuthis (Amerigo) gahi, Doryteuthis (Doryteuthis) pleii, Sepia officinalis, Octopus vulgaris, Sepiella japonica, Uroteuthis (Photololigo) edulis, Dosidicus gigas, Loligo vulgaris, Uroteuthis (Photololigo) chinensis, and Uroteuthis (Photololigo) duvaucelii.

Specifically, the identified species of the family of Gastropoda are selected from the following Group 3: Helix pomatia, Achatina fulica, Helix aspersa, Helix aspersa maxima, Helix thessalica, Helix lucorum, Helix nicaeensis, Achatina reticulata, Helix aperta, Helix albescens, Tyrrhenaria ceratina, Helix vladika, Helix spp., Pleurodonte discolor, Pleurodonte lychnuchus, Erctella mazzullii, Erctella cephalaeditana, Pleurodonte formosa, Helix christophi, Helix nordmanni, Pleurodonte nucleola, Pleurodonte parilis, Gonostomopsis auridens, Caracolus caracollus, Lacteoluna selenina, Cernuella cisalpine, Cochlicella acuta, Disculella maderensis, Dialeuca nemoraloides, Monadenia fidelis, Cepaea nemoralis, Sphincterochila candidissima, Microphysula ingersolli, Helicodonta obvoluta and Cernuella virgata (Group 3).

More specifically, the identified species of the family of Gastropoda are selected from Group 3 and are listed in Group 3A: Helix pomatia, Achatina fulica, Helix aspersa, Helix aspersa maxima, Helix lucorum, and Achatina reticulata.

More specifically, the identified species of the family of Gastropoda are selected from Group 3 and are listed in Group 3B: Helix pomatia and Achatina reticulata.

Specifically, the identified species of the family of Veneridae are selected from the following Group 4: Tridacna mbalavuana, Siliqua alta, Megangulus zyonoensis, Megangulus venulosus, Donax faba, Donax cuneatus, Donax kiusiuensis, Mactra quadrangularis, Ensis ensis, Chamelea gallina, Spisula subtruncata, Polititapes rhomboides, Callista chione, Venerupis corrugata, Polititapes aureus, Venus crebrisulca, Mercenaria campechiensis, Antigona lamellaris, Ameghinomya antiqua, Ameghinomya spp., Callista erycina, Venerupis aspera, Paphia philippiana, Venus casina, Ensis spp., Mactra stultorum, Ensis macha, Siliqua minima, Ensis leei, Polititapes durus, Cerastoderma glaucum, Tridacna spp., Donax longissimus, Solen 5 vaginoides, Venus verrucosa, Ezocallista brevisiphonata, Procardium indicum, Cardium maxicostatum, Cardium costatum, Acanthocardia paucicostata, Acanthocardia echinata, Acanthocardia aculeata, Solen spp., Ruditapes philippinarum, Corculum cardissa, Spisula solida, Scrobicularia plana, Mactra spp., Chamelea striatula, Ensis siliqua, Serripes groenlandicus, Tridacna elongatissima, Tridacna rosewateri, Meretrix lamarckii, Meretrix lusoria, Paphia euglypta, Meretrix spp., Acanthocardia tuberculata, Tridacna maxima, Lutraria rhynchaena, Meretrix lyrata, Arctica islandica, Solen strictus, Paratapes undulatus, Paratapes textilis, Paphia amabilis, Solen grandis, Lutraria maxima, Donax vittatus, Donax variegatus, Donax trunculus, Donax semistriatus, Ruditapes decussatus, Cerastoderma edule, Tridacna squamosa, Mactra chinensis and Mercenaria mercenaria (Group 4).

More specifically, the identified species of the family of Veneridae are selected from Group 4 and are listed in Group 4A: Ensis ensis, Chamelea gallina, Callista chione, Venus verrucosa, Ruditapes philippinarum, Ensis siliqua, Meretrix lyrata, Donax trunculus, and Cerastoderma edule.

More specifically, the identified species of the family of Veneridae are selected from Group 4 and are listed in Group 4B: Ensis ensis, Callista chione, Ruditapes philippinarum, Meretrix lyrata, and Cerastoderma edule.

Specifically, the identified species of the family of Ostreidae are selected from the following Group 5: Magallana bilineata, Magallana gigas, Crassostrea virginica, Magallana spp., Magallana angulata, Magallana sikamea, Magallana ariakensis, Ostrea denselamellosa, Magallana nippona, Ostrea edulis, Crassostrea spp., Crassostrea tulipa, Ostrea angasi, Magallana belcheri, Crassostrea rhizophorae, Talonostrea talonata, Crassostrea corteziensis, Ostrea spp., Ostrea chilensis, Ostrea algoensis, Ostrea megodon, Saccostrea cuccullata, Saccostrea palmula, Saccostrea malabonensis, Saccostrea scyphophilla, Saccostrea kegaki, and Saccostrea spp. (Group 5).

More specifically, the identified species of the family of Ostreidae are selected from Group 5 and are listed in Group 5A: Magallana gigas, Crassostrea virginica, and Ostrea edulis.

Specifically, the identified species of the family of Pectinidae are selected from the following Group 6: Euvola spp., Mimachlamys crassicostata, Gloripallium pallium, Flexopecten glaber, Aequipecten opercularis, Nodipecten nodosus, Scaeochlamys livida, Pecten spp., Talochlamys multistriata, Patinopecten caurinus, Chlamys behringiana, Placopecten septemradiatus, Pecten maximus, Zygochlamys delicatula, Chlamys hastata, Ylistrum japonicum, Talochlamys gemmulata, Zygochlamys patagonica, Argopecten purpuratus, Argopecten irradians, Azumapecten farreri, Mizuhopecten yessoensi, Placopecten magellanicus, Chlamys islandica, Argopecten ventricosus, Mimachlamys varia, Amusium pleuronectes, Mimachlamys sanguinea, Talochlamys dichroa, Mimachlamys gloriosa, Mimachlamys cloacata, Mimachlamys asperrima, Annachlamys striatula, Decatopecten radula, Bractechlamys vexillum, Aequipecten glyptus, Scaeochlamys lemniscata, Chlamys rubida, Karnekampia sulcata, Crassadoma gigantea, and Ylistrum balloti (Group 6).

More specifically, the identified species of the family of Pectinidae are selected from Group 6 and are listed in Group 6A: Aequipecten opercularis, Pecten maximus, Pecten jacobaeus, Zygochlamys patagonica, Argopecten purpuratus, Mizuhopecten yessoensi, and Placopecten magellanicus.

Specifically, the identified species of the family of Mytilidae are selected from the following Group 7: Mytilus spp., Perna perna, Mytilus unguiculatus, Perna viridis, Mytilus californianus, Mytilus trossulus, Mytilus galloprovincialis, Mytilus edulis and Perna canaliculus (Group 7).

More specifically, the identified species of the family of Mytilidae are selected from Group 7 and are listed in Group 7A: Perna perna Mytilus californianus, Mytilus trossulus, Mytilus galloprovincialis, Mytilus edulis and Perna canaliculus.

More specifically, the identified species of the family of Mytilidae are selected from Group 7 and are listed in Group 7B: Mytilus galloprovincialis, Mytilus edulis and Perna canaliculus.

Further provided herein is a kit for identifying seafood species in a sample, comprising one or more primer sets selected from the group of

• • i. ps 1 for identifying seafood species of the family of Crustacean comprising one or more primer pairs of one forward primer selected from any one of SEQ ID NOs: 1 and 2, and the reverse primer SEQ ID NO: 15 and/or the reverse complement sequences of the primer sequences;
  • ii. ps 2 for identifying seafood species of the family of Cephalopods comprising one or more primer pairs of one forward primer selected from any one of SEQ ID NOs: 3 to 5, and the reverse primer SEQ ID NO: 16 and/or reverse complement sequences of the primer sequences;
  • iii. ps 3 for identifying seafood species of the family of Gastropoda comprising one or more primer pairs of the forward primer SEQ ID NO: 6, and one reverse primer selected from any one of SEQ ID NOs: 17 to 18 and/or reverse complement sequences of the primer sequences;
  • iv. ps 4 for identifying seafood species of the family of Veneridae comprising one or more primer pairs of one forward primer selected from any one of SEQ ID NOs: 7 to 11, and one reverse primer selected from any one of SEQ ID NOs: 19 to 21 and/or reverse complement sequences of the primer sequences;
  • v. ps 5 for identifying seafood species of the family of Ostreidae comprising the forward primer SEQ ID NO: 12 and the reverse primer SEQ ID NO: 22 and/or reverse complement sequences of the primer sequences;
  • vi. ps 6 for identifying seafood species of the family of Pectinidae comprising the forward primer SEQ ID NO: 13 and the reverse primer SEQ ID NO: 23 and/or reverse complement sequences of the primer sequences; and
  • vii. ps 7 for identifying seafood species of the family of Mytilidae comprising one or more primer pairs of the forward primer SEQ ID NO: 14, and one reverse primer selected from any one of SEQ ID NOs: 24 to 25 and/or reverse complement sequences of the primer sequences, optionally further comprising PCR components, buffers, reagents and/or an instruction manual.

Further provided herein is a library of primer sequences comprising any one of SEQ ID NOs: 1 to 25, or any combinations of SEQ ID NOs: 1 to 25.

DETAILED DESCRIPTION

Unless indicated or defined otherwise, all terms used herein have their usual meaning in the art, which will be clear to the skilled person. Reference is for example made to the standard handbooks, such as Sambrook et al, “Molecular Cloning: A Laboratory Manual” (4th Ed.), Vols. 1-3, Cold Spring Harbor Laboratory Press (2012); Krebs et al., “Lewin's Genes XI”, Jones & Bartlett Learning, (2017); Berg et al, “Stryer Biochemie” Springer Verlag, 2018; and Murphy & Weaver, “Janeway's Immunobiology” (9th Ed., or more recent editions), Taylor & Francis Inc, 2017.

The subject matter of the claims specifically refers to artificial products or methods employing or producing such artificial products, which may be variants of native (wild-type) products. Though there can be a certain degree of sequence identity to the native structure, it is well understood that the materials, methods and uses of the invention, e.g., specifically referring to isolated nucleic acid sequences, amino acid sequences, expression constructs, transformed host cells and modified proteins and enzymes, are “man-made” or synthetic, and are therefore not considered as a result of “laws of nature”.

The terms “comprise”, “contain”, “have” and “include” as used herein can be used synonymously and shall be understood as an open definition, allowing further members or parts or elements. “Consisting” is considered as a closest definition without further elements of the consisting definition feature. Thus “comprising” is broader and contains the “consisting” definition.

The term “about” as used herein refers to the same value or a value differing by +/−5% of the given value.

As used herein and in the claims, the singular form, for example “a”, “an” and “the” includes the plural, unless the context clearly dictates otherwise.

The method of the present invention relates to the field of DNA barcoding. Compared with existing morphological identification methods, the method of the present invention is not affected by the experience of inspectors or the morphological changes after processing, which greatly improves the feasibility of sample detection. Compared with the existing DNA barcoding techniques, the present invention solves the problem of false negative results in highly processed foods caused by the difficulty in amplifying DNA of bivalve organisms by the existing DNA barcodes. Therefore, the DNA barcode and its application method established by the present invention are important supplements to the existing DNA barcoding techniques, and can be used to simultaneously identify a plurality of seafood species of the family of Crustacean, Cephalopods, Gastropoda, Veneridae, Ostreidae, Pectinidae, and Mytilidae even if present in very low amounts.

The DNA barcoding identification technique is mainly used for species identification by using relatively short DNA fragments in the organism with sufficient variation that can represent and map this species by means of PCR amplification, sequencing and alignment, etc. DNA barcoding aims at detecting a broad range of species by using universal primer systems. DNA metabarcoding allows the identification of multiple species in food samples in one and the same sequencing run.

DNA barcodes commonly contain conserved regions at both ends, serving as binding sites for universal primers, and a variable part in between the primer binding sites, for differentiation between the species of interest. Due to its high copy number and robustness, mitochondrial DNA (mtDNA) is preferred over genomic DNA. The mtDNA regions most commonly used for species identification are cytochrome c oxidase subunit I (COI), cytochrome b (cyt b), and 16S ribosomal DNA (16S rDNA).

According to the invention, seafood species are identified based on a barcoding method. The term “seafood species” refers to species of the following families: Crustacean, Cephalopods, Gastropoda, Veneridae, Ostreidae, Pectinidae, and Mytilidae. In biological classification, the taxonomic rank is the relative level of a group of organisms in a taxonomic hierarchy. As used herein, the following taxonomic ranks are referred to as according to their relative level of a group of organisms in descending taxonomic hierarchy: family, genus, species. As an example, the species Pecten jacobaeus and Placopecten magellanicus belong to the genus Pecten and the genus Pecten belongs to the family of Pectinidae.

According to a specific embodiment, the seafood species identified according to the invention are the species described herein selected from the group of families of Crustacean, Cephalopods, Gastropoda (snails), Veneridae (venus clams), Ostreidae (oysters), Pectinidae (scallops), and Mytilidae (mussels).

The term “sample” refers to samples which may be taken from different seafood, foodstuff, different origin of the foodstuff and various processing degrees of the food. For example, the sample is taken from sauces, soups, seafood mix, chips, pastes, seafood in cans e.g. mussels in various sauces, raw or frozen seafood, or raw or frozen seafood ingredients.

According to one embodiment of the invention, DNA is isolated from a sample. DNA can be isolated from a sample e.g., by using special kits for DNA isolation/extraction or by using the CTAB (ionic detergent cetyltrimethylammonium bromide)-method. The method for isolating DNA according to the invention enables the isolation of DNA from different samples, specifically from food samples.

According to one embodiment of the invention, the amplification of DNA fragments of isolated DNA is performed by PCR (polymerase chain reaction). Variations of PCR may be used, e.g. real time PCR with intercalating dyes.

In another embodiment, in order to improve the PCR amplification according to the invention, concentrations of compounds commonly used in PCR technology may be adapted. For example, the concentration of magnesium chloride, commonly used in PCR amplification assays, may be increased or decreased depending on the specific setup.

In yet another embodiment, PCR methods rely commonly on thermal cycling, wherein the DNA is replicated by repeated cycles of heating and cooling permitting different temperature-dependent reactions. In general, one PCR-cycle comprises the steps of denaturation, annealing, and extension. Accordingly, the PCR method according to the invention comprises 25-30 cycles for the amplification of DNA fragments. Specifically, the PCR method according to the invention comprises 25, 26, 27, 28, 29, or 30 cycles.

In yet another specific embodiment, the PCR method according to the invention comprises an annealing temperature of 60-65° C., specifically 60, 61, 62, 63, 64, or 65° C. More specifically, the annealing temperature is 62° C.

According to one embodiment, in the PCR assay of the invention, DNA fragments of different seafood species are amplified in one single PCR assay due to the usage of multiple primer pairs. Thereby, a primer pair is consisting of one forward and one reverse primer. Multiplex PCR is enabled since multiple primer pairs are used within a single PCR mixture to produce amplicons of different DNA sequences. Thereby, several different DNA sequences can be amplified simultaneously. By amplifying multiple different DNA fragments at once, additional information is gained from a single test-run.

According to one embodiment of the invention, fragments of the 16S rDNA of the mtDNA region are amplified from isolated DNA samples. Thus, the mtDNA region used for seafood species identification is the 16S rDNA.

In a specific embodiment, the 16S rDNA fragments comprise 130 bp to 220 bp. The length of 16S rDNA fragments vary among the seafood species to be identified. The 16S rDNA fragments comprise 190 bp to 220 bp, 150 bp to 160 bp, or 130 bp to 150 bp. Specifically, for species of the family of Crustacean, the 16S rDNA fragments comprise 198-220 bp. Specifically, for species of the family of Cephalopods, the 16S rDNA fragments comprise 194-220 bp. Specifically, for species of the family of Gastropoda, the 16S rDNA fragments comprise 154-157 bp. Specifically, for species of the family of Veneridae, the 16S rDNA fragments comprise 128-149 bp. Specifically, for species of the families of Ostreidae, Pectinidae, and Mytilidae, the 16S rDNA fragments comprise 133-148 bp.

According to the invention, a primer pair consisting of one forward primer and one reverse primer binds to a conserved region at both ends of the 16S rDNA fragment which is targeted to be amplified by PCR. In order to identify the seafood species according to the invention, a PCR product has to be obtained for the species to be identified. Due to high sequence variability between closely related seafood species of certain families, more than one primer pair is needed to obtain a PCR product for all the species of the family.

Specifically, the term “primer set” as used herein refers to the set of all the primer pairs which are needed for the identification of seafood species of a specific family, wherein the families are the following: Crustacean, Cephalopods, Gastropoda, Veneridae, Ostreidae, Pectinidae, and Mytilidae. As an example, three primer sets are needed for the identification of seafood species belonging the three families, Pectinidae, Ostreidae, and Mytilidae and each primer set is specific for one of the families.

More specifically, depending on the specific family, the primer set comprises one primer pair consisting of one forward primer and one reverse primer or comprises more than one primer pair. In the case that the primer set comprises more than one primer pair, each of the primer sequences of the primer set can be used to form multiple primer pairs. For example, if one primer set comprises two forward primer sequences and one reverse primer sequence, two primer pairs are formed. These two primer pairs are formed by selecting one forward primer from the two forward primer sequences and combining the forward primer sequence with the reverse primer sequence.

The herein described primers enable a simultaneous use in one single PCR reaction because of their specific characteristics such as their sequence length. For a simultaneous PCR reaction using different primers and primer pairs, it is important that all primers are suitable for the selected PCR conditions. For example, slight variations of the sequence of a primer (or primer pair) can result in an altered melting temperature which can ultimately lead to an unsuccessful PCR reaction if the annealing temperature of the PCR reaction is not adjusted. For example, using other primers known in the art, such as the primers disclosed in JP 2010004890, could possibly result in no PCR products since such primers are possibly not compatible with the primers described herein concerning e.g., their length, melting temperature or during the following sequencing.

According to one embodiment of the invention, the primers sequences of the primer sets specific for the identification of seafood species of the families Crustacean, Cephalopods, Gastropoda, Veneridae, Ostreidae, Pectinidae, and Mytilidae are given in Table 1. The forward primer SEQ ID NOs: 1 to 14 and reverse primer SEQ ID NOs: 15 to 25 are given in 5′-3′ direction. The reverse complement of the primer sequences can also be used in the method provided herein.

Specifically, primer set (ps) 1 is used for the identification of species of the family of Crustacean. In ps 1, one or more, specifically one or two primer pairs are formed by selecting a forward primer from forward primer sequences SEQ ID NOs: 1 and 2 and combining the selected forward primer with the reverse primer given in reverse primer sequence SEQ ID NO: 15. The primer set for the identification of Crustacean comprises SEQ ID NOs: 1, 2, and 15.

Specifically, ps 2 is used for the identification of species of the family of Cephalopods. In ps 2, one or more, specifically one, two, or three primer pairs are formed by selecting a forward primer from SEQ ID NOs: 3 to 5 and combining the selected forward primer with the reverse primer given in reverse primer sequence SEQ ID NO: 16. The primer set for the identification of Cephalopods comprises SEQ ID NOs: 3, 4, 5, and 16.

Specifically, ps 3 is used for the identification of species of the family of Gastropoda. In ps 3, one or more, specifically one or two primer pairs are formed by forward primer from SEQ ID NO: 6 and combining the forward primer with one reverse primer selected from reverse primer sequences SEQ ID NOs: 17 to 18. The primer set for the identification of Gastropoda comprises SEQ ID NOs: 6, 17, and 18.

Specifically, ps 4 is used for the identification of species of the family of Veneridae. In ps 4, one or more, specifically one, two, three, four, or five primer pairs are formed by selecting a forward primer from SEQ ID NOs: 7 to 11 and combining the selected forward primer with one reverse primer selected from reverse primer sequences SEQ ID NOs: 19 to 21. The primer set for the identification of Veneridae comprises SEQ ID NOs: 7, 8, 9, 10, 11, 19, 20, and 21.

Specifically, ps 5 is used for the identification of species of the family of Ostreidae. In ps 5, one primer pair is formed by the forward primer SEQ ID NO: 12 and reverse primer sequence SEQ ID NO: 22. The primer set for the identification of Ostreidae comprises SEQ ID NOs: 12 and 22.

Specifically, ps 6 is used for the identification of species of the family of Pectinidae. In ps 6, one primer pair is formed by the forward primer SEQ ID NO: 13 and reverse primer sequence SEQ ID NO: 23. The primer set for the identification of Pectinidae comprises SEQ ID NOs: 13 and 23.

Specifically, ps 7 is used for the identification of species of the family of Mytilidae. In ps 7, one or more, specifically one or two primer pairs are formed by the forward primer SEQ ID NO: 14 and combining the forward primer with one reverse primer sequence selected from reverse primer sequences SEQ ID NOs: 24 to 25. The primer set for the identification of Mytilidae comprises SEQ ID NOs: 14, 24, and 25.

Specifically, the amplification of DNA fragments according to the invention is performed with at least 1, 2, 3, 4, 5, 6, or 7 primer sets.

In one embodiment, the concentrations of the primers may be adapted to the specific combination of forward and reverse primers in a primer set for a single species. For example, if the PCR amplification of Mytilidae is performed with two primer pairs, namely primer pair 1 being SEQ ID NO: 14 and SEQ ID NO: 24, and primer pair 2 being SEQ ID NO: 14 and SEQ ID NO: 25, then the concentration in the PCR assay of SEQ ID NO: 14 may be twice as high as the concentration of each SEQ ID NO: 24 and SEQ ID NO: 25.

According to the invention, the amplified sequences are sequenced in order to determine the nucleotide sequence of the amplified 16S rDNA fragment. Specifically, Sanger sequencing or next generation sequencing (NGS) is applied as sequencing technology.

According to the invention, the sequenced DNA fragments are identified based on a comparison with reference sequences of the respective species. Specifically, the variable part in between the primer binding sites is used for differentiation between the species of interest. Methods for sequence comparison are commonly known in the art. Specifically, BLASTn provided by NCBI (National Center for Biotechnology Information) can be used for sequence comparison of a sequenced DNA fragment with a reference sequence database in order to identify the seafood species in the sample. More specifically, the sequences DNA fragments obtained by the method of the invention are compared to reference sequences comprising the 16S rDNA sequence of the targeted seafood species.

According to a specific embodiment, the reference sequences of the invention are selected from any one of SEQ ID NOs: 28 to 1153. More specifically, the sequenced DNA fragments are identified based on a comparison with a database or a library comprising reference sequences of the species identified according to the invention. In this case, the library of reference sequences comprises one or more of SEQ ID NOs: 28 to 1153, or all of SEQ ID NOs: 28 to 1153, or any combinations thereof.

According to one embodiment of the invention, a library of primer sequences is provided herein comprising SEQ ID NOs: 1 to 25 and/or the reverse complement sequences thereof. The sequences of said primer sequences (SEQ ID NOs: 1 to 25) are given in the Table 1. The primer library of the invention may comprise all primers listed in Table 1. Alternatively, the primer library comprises primers of primer set 1, 2, 3, 4, 5, 6, and/or 7.

As used herein, the term “Fwd” refers to a forward and the term “Rev” refers to a reverse primer. Alternatively, also the term “For” may be used as abbreviation for a forward primer.

The nomenclature of the nucleotide sequences of the invention follows the general guidelines of the IUPAC nucleotide code. Specifically, nucleotide code A refers to adenine, C refers to cytosine, G refers to guanine, T refers to thymine, and W refers to A or T.

According to a specific embodiment, if a primer sequence comprises a “W” at a specific position in the nucleotide sequence, said primer is used as a mixture of two sequences, wherein one primer has an adenine at the specific position and the other primer has thymine at the specific position.

TABLE 1
				SEQ
				ID
Species	Type	Name	Sequence 5′-3′	NO
Crustacean	Fwd	For_Ga1	5′ GGGGGACGATAAGACCCTATAAA 3′	1
Crustacean	Fwd	For_Ga4	5′ AATGGGAAGACAAGACCCTATAAA 3′	2
Crustacean	Rev	Rev_Kr45	5′ ATTACGCTGTTATCCCTAAAGTAACTT 3′	15
Cephalopods	Fwd	For_Ti1+2	5′ GGGACGAGAAGACCCTAWTGA 3′	3
Cephalopods	Fwd	For_Ti1+2_A	5′ GGGACGAGAAGACCCTAATGA 3′	4
Cephalopods	Fwd	For_Ti1+2_T	5′ GGGACGAGAAGACCCTATTGA 3′	5
Cephalopods	Rev	Rev_Ti5	5′ ATTACGCTGTTATCCCTATGGTAACT 3′	16
Gastropoda	Fwd	For_Sc6	5′ TGACTGTGCAAAGGTAGCATAAT 3′	6
Gastropoda	Rev	Rev_Sc7	5′ AAGTTTCTAGGGTCTTCTCGTCT 3′	17
Gastropoda	Rev	Rev_Sc8	5′ AAACTCTAAGGGTCTTCTCGTCT 3′	18
Veneridae	Fwd	For_Mu1	5′ TTGGCCTTTAATTGGGGTCC 3′	7
Veneridae	Fwd	For_Mu2	5′ GGTAGCGCGATAATTTGTCTCTTAA 3′	8
Veneridae	Fwd	For_Mu4	5′ CTTAATTGGAGAAGGGTATGAATGG 3′	9
Veneridae	Fwd	For_Mu7	5′ GTTTAACGGCCGCAGTTGTC 3′	10
Veneridae	Fwd	For_Mu15	5′ TACCGCAGGGATAACAGCG 3′	11
Veneridae	Rev	Rev_Mu8	5′ GCTCGACAGGGTCTTCTCGTCT 3′	19
Veneridae	Rev	Rev_Mu13	5′ CAAAAATTCAGGTTTTTTCACTTG 3′	20
Veneridae	Rev	Rev_Mu40	5′ TCATGTAAGAAATTAAAAAACGAACAG 3′	21
Ostreidae	Fwd	For_Mu25	5′ GGTAGCGAAATTCCTTGCCTT 3′	12
Ostreidae	Rev	Rev_Mu26	5′ AAAGTTGCACGGGGTCTT 3′	22
Pectinidae	Fwd	For_Mu21	5′ TGCTAAGGTAGCTAAATTATGGCC 3′	13
Pectinidae	Rev	Rev_Mu23	5′ CTTCACGGGGTCTTCTCGTC 3′	23
Mytilidae	Fwd	For_Mu27	5′ CCTTTTGCATAAGGGTTTTTCAAG 3′	14
Mytilidae	Rev	Rev_Mu29	5′ CGAATAGTATCTAGCCGCCATTC 3′	24
Mytilidae	Rev	Rev_Mu30	5′ GCAAATAGCATATCACTTTCACCTC 3′	25

According to one embodiment of the invention, a kit for identifying seafood species in a sample is provided, wherein the kit comprises the primer library of the invention. Specifically, the kit comprises primer sequences of one or more of the primer sets selected from primer set 1, primer set 2, primer set 3, primer set 4, primer set 5, primer set 6, and primer set 7. More specifically, the kit comprises at least 1, 2, 3, 4, 5, 6, or 7 of the primer sets according to the invention. The kit may also comprise the reverse complement sequences of the primer sequences.

Said kit may further comprise PCR components, buffers, reagents and/or an instruction manual. Specifically, the kit may comprise as PCR components a polymerase, a master mix, and/or magnesium chloride.

Examples

The examples described herein are illustrative of the present invention and are not intended to be limitations thereon. Many modifications and variations may be made to the techniques described and illustrated herein without departing from scope of the invention. Accordingly, it should be understood that the examples are illustrative only and are not limiting upon the scope of the invention.

Example 1—Pectinidae, Ostreidae, and Mytilidae

In Example 1, the identification of seafood species of the family of Pectinidae, Ostreidae, and Mytilidae (together known as “bivalves”) in raw and processed food products is described. The method was developed on the Illumina MiSeq® and iSeq® platforms.

Materials and Methods

Sample Collection and Storage

86 commercial food products were collected from regional supermarkets, fish markets, and delicacy shops (Table 2). Table 2 shows the declaration, origin and processing condition of the 86 commercial food products. Samples were either fresh, deep-frozen, or in processed condition. Each sample was given a specific ID number, with the letter “0” referring to oysters, “S” to scallops, “M” to mussels, and “Mi” to mixed-species seafood. Samples were stored at −20° C. until DNA extraction.

	TABLE 2
	Declaration on the product	*
Sample	Scientific/Latin	Product	Product	Purchase
ID	name	description	origin	origin	Treatment
O1	Crassostrea gigas	Giant Oyster	France	delicacy shops	raw
O2	Ostrea edulis	Oyster	Denmark	fish market	raw
O3	Crassostrea gigas	Oyster/Gillardeau	Denmark	fish market	raw
O4	not declared	Oyster	Pacific *	delicacy shops	raw
O5	Crassostrea gigas	Oyster in	Korea	delicacy shops	processed
		sunflower oil
O6	Crassostrea gigas	Oyster in	Korea	regional	processed
		sunflower oil		supermarket
O7	Crassostrea gigas	Oyster in water	Korea	delicacy shops	processed
O8	not declared	Oyster sauce	Thailand	regional	processed
				supermarket
O9	not declared	Oyster sauce	Thailand	delicacy shops	processed
O10	not declared	Oyster sauce	China	delicacy shops	processed
M11	Mytilus edulis	Mussel	Spain	delicacy shops	processed
M12	Mytilus	Blue Mussel	Spain	regional	frozen
	galloprovincialis			supermarket
M13	Perna canaliculus	New Zealand	New Zealand	delicacy shops	frozen
		green-lipped
		mussel
M14	Mytilus spp.	Blue Mussel	not declared	not declared	frozen
M15	Mytilus edulis	Blue Mussel	North Atlantic *	delicacy shops	raw
M16	Mytilus edulis	Bouchot mussel	France	fish market	raw
M17	not declared	Grilled blue	Italy	delicacy shops	processed
		mussel
M18	Mytilus chilensis	Blue Mussel	Spain	delicacy shops	frozen
M19	not declared	Blue Mussel	not declared	fish market	raw
M20	Mytilus spp.	Blue Mussel	not declared	fish market	raw
M21	Mytilus edulis	Mussel	Denmark	delicacy shops	processed
M22	Mytilus	Blue Mussel	Italy	delicacy shops	processed
	galloprovincialis
M23	not declared	Mussel with	Spain	delicacy shops	processed
		sherry vinegar
M24	Mytilus chilensis	Blue Mussel in	Denmark	regional	processed
		tomato sauce		supermarket
M25	not declared	Mussel in	Spain	regional	processed
		marinade sauce		supermarket
M26	not declared	Grilled blue	Italy	regional	processed
		mussel		supermarket
M27	Mytilus chilensis	Mussel in	Spain	regional	processed
		marinade		supermarket
M28	not declared	Dry cat food with	Germany	delicacy shops	processed
		green lipped
		mussel
M29	Mytilus	Blue mussel in	Spain	regional	processed
	galloprovincialis	tomato sauce		supermarket
M30	Mytilus	Blue mussel a la	Spain	regional	processed
	galloprovincialis	mariniere		supermarket
M31	not declared	Blue mussel in	Germany	delicacy shops	processed
		organic marinade
M32	not declared	Marinated blue	Spain	delicacy shops	processed
		mussels
M33	Mytilus chilensis	Mussel in	Denmark	delicacy shops	processed
		Escabeche
M34	Mytilus chilensis	Mussel	Denmark	delicacy shops	processed
M35	Mytilus chilensis	Mussel in tomato	Denmark	delicacy shops	processed
		sauce
M36	Mytilus	Blue mussel	Germany	delicacy shops	processed
	galloprovincialis	marinated
M37	Mytilus edulis	Mussel in honey	Denmark	delicacy shops	processed
		mustard sauce
M38	not declared	Blue mussel in	Spain	delicacy shops	processed
		marinade
M39	Mytilus chilensis	Blue mussel	Germany	not declared	processed
M40	Mytilus edulis	Blue mussel	Netherlands	not declared	raw
S41	Placopecten	Deep-sea scallop	France	regional	cooled
	magellanicus			supermarket
S42	Mizuhopecten	Yesso scallop	North Atlantic	fish market	cooled
	yessoensis
S43	Pecten maximus	Great scallop	Pacific *	delicacy shops	cooled
S44	Pecten spp.	Great scallop	not declared	not declared	frozen
S45	Placopecten	Deep-sea scallop	not declared	not declared	frozen
	magellanicus
S46	Pecten jacobaeus	Great scallop	Croatia	delicacy shops	frozen
S47	Zygochlamys	Scallop “á la	France	delicacy shops	processed
	patagonica	Bretonne”
S48	Patinopecten	Great scallop/	Pacific *	fish market	cooled
	yessoensis	Yesso scallop
S49	Placopecten	Great scallop	Pacific *	delicacy shops	cooled
	magellanicus
S50	Argopecten	Pacific scallop	Peru	delicacy shops	frozen
	purpuratus
S51	not declared	Great scallop	not declared	fish market	cooled
S52	Patinopecten	Great scallop	Pacific *	delicacy shops	cooled
	yessoensis
S53	Pecten sp.	Great scallop	not declared	fish market	cooled
S54	Placopecten	Great scallop	Pacific *	delicacy shops	cooled
	magellanicus
S55	Aequipecten	Scallop in sauce	Spain	delicacy shops	processed
	opercularis
S56	not declared	Great scallop	not declared	restaurant	processed
S57	Placopecten	Great scallop	Austria	fish market	cooled
	magellanicus
S58	not declared	Rillettes de	France	delicacy shops	processed
		Saint-Jacques
S59	not declared	Small scallop in	Spain	delicacy shops	processed
		galician sauce
S60	not declared	Deep-sea scallop	Germany	not declared	frozen
S61	Patinopecten	Great scallop	Pacific *	delicacy shops	cooled
	yessoensis
Mi62	Mytilus chilensis	Seafood mix	France	regional	frozen
				supermarket
Mi63	not declared	Sauce with	Italy	regional	processed
		seafood		supermarket
Mi64	Mytilus chilensis,	Seafood mix	Germany	delicacy shops	processed
	Mytilus edulis
Mi65	not declared	Bouillabaise	Germany	delicacy shops	processed
		Marsille
Mi66	Mytilus chilensis	Seafood mix	France	regional	processed
				supermarket
Mi67	Mytilus spp.	Seafood mix	Chile	regional	processed
				supermarket
Mi68	Mytilus	Sea fruit salad in	Italy	regional	processed
	galloprovincialis	sunflower oil		supermarket
Mi69	Mytilus chilensis	Seafood mix	France	delicacy shops	processed
Mi70	not declared	Sea fruit salad	Italy	regional	processed
		fantasy		supermarket
Mi71	not declared	Seafood mix	Italy	regional	processed
				supermarket
Mi72	Mytilus chilensis	Seafood mix	Croatia	delicacy shops	processed
Mi73	not declared	Seafood mix	not declared	not declared	unknown
Mi74	not declared	Seafood mix	not declared	not declared	unknown
Mi75	not declared	Pizza Frutti	Austria	restaurant	processed
		di mare
Mi76	not declared	Paella	Germany	delicacy shops	processed
Mi77	Mytilus edulis,	Paella	Germany	regional	processed
	Mytilus chilensis			supermarket
Mi78	Mytilus chilensis	Seafood all'Olio	France	regional	processed
				supermarket
Mi79	Mytilus chilensis	Seafood mix	Spain	delicacy shops	processed
Mi80	Mytilus chilensis	Seafood mix	Austria	delicacy shops	processed
Mi81	not declared	Sea fruit salad	Italy	delicacy shops	processed
Mi82	Zygochlamys	Scallop terrine	France	delicacy shops	processed
	patagonica,
	Chlamys
	opercularis
Mi83	not declared	Terrine of salmon	Austria	delicacy shops	processed
		and great scallop
Mi84	Mytilus chilensis	Seafood mix	Germany	delicacy shops	processed
Mi85	not declared	Instant noodle	Korea	delicacy shops	processed
		seafood, mild
Mi86	not declared	Instant noodle	Korea	delicacy shops	processed
		seafood, spicy
* In case the country of production was unknown, the fishing region was specified

Eleven out of the 86 samples (“reference samples”), comprising three mussel, six scallop, and two oyster species, were used for method development. Table 3 shows the bivalve species used for development of the DNA metabarcoding method. Identity of bivalve species in these reference samples (samples M12, M13 and M27 for mussels; samples S42, S46, S47, S49, S50, and S55 for scallops; samples 02 and 03 for oysters; Table 2) was verified by subjecting DNA extracts to Sanger sequencing (Microsynth, Balgach, Switzerland) and matching the sequences against the public databases provided by the National Center for Biotechnology Information (NCBI).

TABLE 3
Scientific name	Commercial name (German)	Commercial name (English)
Mytilidae	Miesmuscheln	mussels
Mytilus edulis	Gemeine Miesmuschel	Blue mussel
Mytilus galloprovincialis	Mittelmeer-Miesmuschel	Mediterranean mussel
Perna canaliculus	Neuseeland-Miesmuschel	New Zealand green-lipped mussel
Pectinidae	Kammmuscheln	scallops
Placopecten magellanicus	Atlantischer Tiefseescallop	Atlantic deep-sea scallop
Mizuhopecten yessoensis	Japanische Kammmuschel	Yesso scallop
Pecten jacobaeus	Jakobsmuschel	Great scallop
Zygochlamys patagonica	Patagonische Kammmuschel	Patagonian scallop
Argopecten purpuratus	Purpur-Kammmuschel	Purple scallop
Aequipecten opercularis	Kleine Pilgermuschel	Queen scallop
Ostreidae	Austern	oysters
Magallana gigas	Pazifische Felsenauster	Pacific oyster
Ostrea edulis	Europäische Auster	European flat oyster

DNA Extraction and Quantification

Raw material was cut into smaller pieces or homogenized. To 2.0 gram of each sample, 10 mL of a hexadecyltrimethylammonium bromide (CTAB) buffer was added. After addition of 80 μL proteinase K, the mixture was incubated on an Intelli-Mixer™ RM2 (LTF Labortechnik) overnight at 50° C.

For DNA isolation, a commercial kit (Maxwell® 16 FFS Nucleic Acid Extraction System Custom-Kit, Promega, Madison, USA) was used according to the manufacturer's instruction. DNA concentration was determined fluorometrically (Qubit® 2.0 fluorometer, Thermo Fisher Scientific, Oregon, USA). For higher concentrations, the Qubit® dsDNA broad range assay kit (2 to 1000 ng) and for lower concentrations, the Qubit® dsDNA high sensitivity assay kit (0.2 to 100 ng) was used. DNA purity was assessed from the ratio of the absorbance at 260 nm and 280 nm (QlAxpert spectrophotometer, software version 2.2.0.21, Qiagen, Hilden, Germany). DNA extracts were stored at −20° C. until further use.

DNA Extract Mixtures

Ternary DNA extract mixtures were prepared by mixing DNA extracts (DNA concentration 5 ng/mL) from Pecten spp., Magallana gigas and Mytilus galloprovincialis, representing the three bivalve species Pectinidae, Ostreidae, and Mytilidae, respectively. Individual DNA extracts were mixed in a ratio of 98.0:1.5:0.5 (v/v/v).

In addition, DNA extract mixtures consisting of DNA from species belonging to one bivalve species were prepared. In these mixtures, DNA from one species was present as the main component, DNA from the other species as minor components (1.0% each). Since only two oyster species were available, the DNA extract mixture representing the bivalve species Ostreidae contained the closely related scallop (Placopecten magellanicus) as major component (98.0%) and DNA from the two oyster species as minor components (1.0% each).

In addition to mixtures consisting of DNA from bivalve species only, a DNA extract mixture containing another mollusc species was prepared. DNA extract from a squid species (Sepiella inermis) was chosen as the main component (97.0%) and DNA from the bivalve species Placopecten magellanicus, Ostrea edulis and Perna canaliculus were present as minor components (1.0% each).

Reference Sequences

A 150 bp fragment of the mitochondrial 16S rDNA gene was used as DNA barcode. Reference sequences for commonly consumed bivalve species and some exotic seafood species, that are permitted for consumption in Austria (“Codex Alimentarius Austriacus” chapter B35, (see Bundesministerium für Arbeit, Soziales, Gesundheit und Konsumentenschutz, Codexkapitel/B 35/Fische, Krebse, Weichtiere und daraus hergestellte Erzeugnisse: BMGF-75210/0026-II/B/13/2017, 2007), were downloaded from the NCBI databases by using CLC Genomics Workbench 10.1.1 (Qiagen). If available, complete reference sequences from the RefSeq database were preferentially downloaded due to their reliability. In case complete reference sequences were not available, all DNA sequences of the mitochondrial 16S rDNA available for one and the same species, submitted by individual scientists, were aligned and checked for similarity and unidentified nucleotides. Subsequently, the DNA sequence with the highest quality (e.g. without unknown nucleotides, full-length of the DNA barcode) was chosen as a reference sequence.

The reference sequences according to the invention are given in Table 4. This list of sequences comprises all reference sequences used for the identification of all seafood species of the invention and thus, does not only comprise the sequences for example 1 but for the seafood species identified according to the invention.

TABLE 4
Acces-			SEQ
sion			ID
No.	Species	Sequence (nucleotide)	NO
NC_03	Mytilus	CCTTTTGCATAAGGGTTTTTCAAGATCAATTTAAGAATTT	28
0633	chilensis	AATTTTCCCGAATAAAAGAGAGTTATTTTTTGGAGTTAGG
		AAATCGTGGTAGAGATTTGATTAAACTAAAGAATGGCGGC
		TAGATACTATTCG
NC_02	Perna	CCTTTTGCATAAGGGTTTTTCAAGAAAATTTACTTATGTA	29
6288	perna	TTTTCCCGAAAAGGAAGAAGCTATCGTTGTGAGTGTGAAT
		ACCGTGGTAAAGTTATGACCAACTATACGATAAAAGCTAG
		ATACTAATTGCCT
NC_02	Mytilus	CCTTTTGCATAAGGGTTTTTCAAGATAAATTTAAGCATTT	30
4733	unguiculatus	AAATTTCCCGAATAAAAGAGAGTTATTCTTTTGAGTTAAA
		AAATCGTGGTAGAGATTAATATAAACTAAAGAATGGCGGC
		TAGATACTATTCG
NC_01	Perna	CCTTTTGTATAAGGGTTTTTTTAGAAAATGAGTGTATAAC	31
8362	viridis	TGTTTCCCGAAAAAAGATAAGTTACTTGAATTTAATTTAT
		TTTTCGTGGTAAAGAAAAATAAAAAAATCAAGTAAAAGTG
		ATATGCTATTTG
NC_01	Mytilus	CCTTTTGCATAAGGGTTTTTCAAGATAAATTTAAATATTT	32
5993	californianus	AAATTTCCCGAATAAAAAAGAGTTATTCCTTTGAGTTAAA
		AAATCGTGGTAGAGATTTATATAAACTAAGGAATAGCGGC
		TAGATACTATTCG
NC_00	Mytilus	CCTTTTGCATAAGGGTTTTTCAAGACAAGTTTAAGAATTT	33
7687	trossulus	AATTTTCCCGAATAAAAGAGAGTTATTTTTTTGAGTTAAG
		AAATCGTGGCAGAGATTTAATTAAACTAAAGAATAGCGGC
		TAGATACTATTCG
NC_00	Mytilus	CCTTTTGCATAAGGGTTTTTCAAGATAAATTTAAGAATTT	34
6886	galloprovincialis	AATTTTCCCGAATAAAAGAGAGTTATTTTTTTGAGTTAGG
		AAATCGTGGTAGAGATTTGATTAAACTAAAGAATGGCGGC
		TAGATACTATTCG
NC_00	Mytilusedulis	CCTTTTGCATAAGGGTTTTTCAAGATCAATTTAAGAATTT	35
6161		AATTTTCCCGAATAAAAGAGAGTTATTTTTTTGAGTTAGG
		AAATCGTGGTAGAGATTTGATTAAACTAAAGAATGGCGGC
		TAGATACTATTCG
NC_05	Perna	CCTTTTGTATAAGGGTTTTTCAAGAAACAAAACGTATGTT	36
4242	canaliculus	TGTATCCCGAAAAAAATAAAAGTTACTTTTTTTCTTATAT
		TTAACGTGGCAAAGTTAAATTATAAAAAGAGGTGAAAGTG
		ATATGCTATTTGC
KP100	Mytilus	CCTTTTGCATAAGGGTTTTTCAAGATCAATTTAAGAATTT	37
301	platensis	AATTTTCCCGAATAAAAGAGAGTTATTTTTTGGAGTTAGG
		AAATCGTGGTAGAGATTTGATTAAACTAAAGAATGGCGGC
		TAGATACTATTCG
NC_01	Magallana	GGTAGCGAAATTCCTTGCCTTTTGATTGTAGGCCTGCATG	38
3997	bilineata	AATGGTTTAACGAGGGTTTAGCTGTCTCTAAATTTTTAAT
		TGAAATTGTATTGAAGGTGAAGATACCTTCATTTAAAAGT
		TAGACAAAAAGACCCCGTGCAACTTT
NC_00	Magallana	GGTAGCGAAATTCCTTGCCTTTTGATTGTGGGCCTGCATG	39
1276	gigas	AATGGTTTAACGAGGGTTTGACTGTCTCTAAATTTTTTAT
		TGAAATTGTACTGAAGGTGAAGATACCTTCATTTAAAAGT
		TAGACAAAAAGACCCCGTGCAACTTT
NC_00	Crassostrea	GGTAGCGAAATTCCTTGCCTTTTGATTGTGGGCCTGCATG	40
7175	virginica	AATGGTTTGACGAGGGCTTTGCTGTCTCTTGATTTTTTAT
		TGAAATTGTAGTGTAGGTGAAAATACCTTCATAAGAAAGT
		TAGACAAGAAGACCCCGTGCAACTTT
NC_01	Magallana	GGTAGCGAAATTCCTTGCCTTTTGATTGTAGGCCTGCATG	41
1518	hongkongensis	AATGGTTTAACGAGGGTTTAACTGTCTCTAAATTTTTTAT
		TGAAATTGTACTGAAGGTGAAGATACCTTCATTTAAAAGT
		TAGACAAAAAGACCCCGTGCAACTTT
NC_01	Magallana	GGTAGCGAAATTCCTTGCCTTTTGATTGTGGGCCTGCATG	42
2648	angulata	AATGGTTTAACGAGGGTTTAACTGTCTCTAAATTTTTTAT
		TGAAATTGTACTGAAGGTGAAGATACCTTCATTTAAAAGT
		TAGACAAAAAGACCCCGTGCAACTTT
NC_01	Magallan	GGTAGCGAAATTCCTTGCCTTTTGATTGTAGGCCTGCATG	43
2649	asikamea	AATGGTTTAACGAGGGTTTAACTGTCTCTAAATTTTTTAT
		TGAAATTGTACTGAAGGTGAAGATACCTTCATTAAAAAGT
		TAGACAAAAAGACCCCGTGCAACTTT
NC_01	Magallana	GGTAGCGAAATTCCTTGCCTTTTGATTGTAGGCCTGCATG	44
2650	ariakensis	AATGGTTTAACGAGGGTTTAACTGTCTCTTGATTTAAAAT
		TGAAATTGTACTGAAGGTGAAGATACCTTCATTAAAAAGT
		CAGACAAAAAGACCCCGTGCAACTTT
NC_01	Ostrea	GGTAGCGAAATTCCTTGCCTTTTAATTGTAGGCCTGCATG	45
5231	denselamellosa	AATGGCTTAACGAGGGCTTAACTGTCTCTGGTTTACAGGG
		TCTAAATTGGATTAAAGGTGAAGATACCTTTATATAAAAG
		TCAGACAAGAAGACCCCGTGCAACTTT
NC_01	Magallana	GGTAGCGAAATTCCTTGCCTTTTGATTGTGGGCCTGCATG	46
5248	nippona	AATGGTTTAACGAGGGTTTGACTGTCTCTAAGTTTTTTAT
		TGAAATTGTATTGAAGGTGAAGATACCTTCATTTAAAAGT
		TAGACAAAAAGACCCCGTGCAACTTT
NC_01	Ostreaedulis	GGTAGCGAAATTCCTTGCCTTTTAATTGTAGGCCTGCATG	47
6180		AATGGTTTGACGAGGGCTTAACTGTCTCTAGTTTGTAAGT
		CTAAATTGGATTAAAGGTGAAGATACCTTTATAAAAAAGT
		CAGACAAGAAGACCCCGTGCAACTTT
NC_02	Ostrea	GGTAGCGAAATTCCTTGCCTTTTAATTGTAGGCCTGCATG	48
2688	lurida	AATGGCTTGACGAGGGTTTAACTGTCTCTGGTTTGTAAGG
		TCTAAATTGGATTAAAGGTGAAGATACCTTTATATAAAAG
		TCAGACAAGAAGACCCCGTGCAACTTT
NC_02	Crassostrea	GGTAGCGAAATTCCTTGCCTTTTAATTGTAGGCCAGCATG	49
7653	tulipa	AATGGTTTGACGAGGGCCTCACTGTCTCTTAGTTCTATGT
		TGAAATTGTAGTGTAGGTGAAGATACCTTCATAAAAAAGT
		AAGACAAAAAGACCCCGTGCAACTTT
AF052	Ostrea	GGTAGCGAAATTCCTTGCCTTTTAATTGTAGGCCTGCATG	50
063	angasi	AATGGTTTGACGAGGGCTTAACTGTCTCTAGTTTGTAAGT
		CTAAATTGGACTAAAGGTGAAGATACCTTTATAAAAAAGT
		CAGACAAGAAGACCCCGTGCAACTTT
NC_03	Magallana	GGTAGCGAAATTCCTTGCCTTTTGATTGTAGGCCTGCATG	51
7851	belcheri	AATGGTTTAACGAGGGTTTAACTGTCTCTAAATTTTTAGT
		TGAAATTGTATTGAAGGTGAAGATACCTTCATTAAGAAGT
		TAGACAAAAAGACCCCGTGCAACTTT
FJ717	Crassostrea	GGTAGCGAAATTCCTTGCCTTTTGATTGTGGGCCAGCATG	52
607	rhizophorae	AATGGTTTGACGAGGGCTTTGCTGTCTCTCGATTTTTTAT
		TGAAATTGTAGTGTAGGTGAAAATACCTTCATAAGAAAGT
		TAGACAAGAAGACCCCGTGCAACTTT
HQ711	Crassostrea	GGTAGCGAAATTCCTTGCCTTTTAATTGTAGGCCAGCATG	53
627	brasiliana	AATGGTTTGACGAGGGCCTCACTGTCTCTTAGTTCTATGT
		TGAAATTGTAGTGTAGGTGAAGATACCTTCATAAAAAAGT
		AAGACAAAAAGACCCCGTGCAACTTT
KX364	Talonostrea	GGTAGCGAAATTCCTTGCCTTTTAATTGTAGGCCTGCATG	54
275	talonata	AATGGTTTAACGAGGGTTAAGCTGTCTCTAAGTTTATAAG
		TTGAAATTGTATTAAAGGTGAAGATACCTTTATTTTGAAG
		TTAGACAAAAAGACCCCGTGCAACTTT
KT317	Crassostrea	GGTAGCGAAATTCCTTGCCTTTTAATTGTAGGCCAGCATG	55
088	corteziensis	AATGGTTTGACGAGGGCCTCACTGTCTCTCAGCTCTATAT
		TGAAATTGCAGTGGAGGTGAAGATACCTCCATAAGAAAGT
		AAGACAAGAAGACCCCGTGCAACTTT
AY510	Magallana	GGTAGCGAAATTCCTTGCCTTTTGATTGTAGGCCTGCATG	56
450	rivularis	AATGGTTTAACGAGGGTTTAACTGTCTCTAAATTTTTTAT
		TGAAATTGTACTGAAGGTGAAGATACCTTCATTTAAAAGT
		TAGACAAAAAGACCCCGTGCAACTTT
KT317	Ostrea	GGTAGCGAAATTCCTTGCCTTTTAATTGTAGGCCTGCATG	57
130	angelica	AATGGCTTGACGAGGGTTTAACTGTCTCTGGTTTGTAAGG
		TCTAAATTGGATTAAAGGTGAAGATACCTTTATATAAAAG
		TCAGACAAGAAGACCCCGTGCAACTTT
AF052	Ostrea	GGTAGCGAAATTCCTTGCCTTTTAATTGTAGGCCTGCATG	58
075	permollis	AATGGCTTGACGAGGGTTTAACTGTCTCTGGTTTGTAAAG
		TCTAAATTGGATTAAAGGTGAAGATACCTTTATATAAAAG
		TCAGACAAGAAGACCCCGTGCAACTTT
JF808	Ostrea	GGTAGCGAAATTCCTTGCCTTTTAATTGTAGGCCTGCATG	59
186	chilensis	AATGGCTTGACGAGGGTTTAACTGTCTCTGGTTTATAAAG
		TCTAAATTGGATTAAAGGTGAAGATACCTTTATACAAAAG
		TCAGACAAGAAGACCCCGTGCAACTTT
AF052	Ostrea	GGTAGCGAAATTCCTTGCCTTTTAATTGTAGGCCTGCATG	60
062	algoensis	AATGGCTTGACGAGGGCTTAACTGTCTCTAGTTTTAAAGT
		CTAAATTGGATTAAAGGTGAAGATACCTTTATAAAAAAGT
		CAGACAAGAAGACCCCGTGCAACTTT
AF052	Ostrea	GGTAGCGAAATTCCTTGCCTTTTAATTGTAGGCCTGCATG	61
073	puelchana	AATGGCTTGACGAGGGTTTAACTGTCTCTGGTTTGTAAAG
		TCTAAATTGGATTAAAGGTGAAGATACCTTTATATAAAAG
		TCAGACAAGAAGACCCCGTGCAACTTT
KX364	Ostrea	GGTAGCGAAATTCCTTGCCTTTTAATTGTAGGCCTGCATG	62
274	megodon	AATGGCTTGACGAGGGTTTAACTGTCTCTGGTTTGTAAGG
		TCTAAATTGGATTAAAGGTGAAGATACCTTTATATGAAAG
		TCAGACAAGAAGACCCCGTGCAACTTT
NC_02	Saccostrea	GGTAGCGAAATTCCTTGCCTTTTAATTGTAGGCCTGCATG	63
7724	cuccullata	AATGGATTGACGAGGGTCAAGCTGTCTCTTGCCTTGAATA
		ACGAAATTGGACTAAAGGTGAAGATACCTTTATAGAAAAG
		TTAGACAAGAAGACCCCGTGCAGCTTT
KT317	Saccostrea	GGTAGCGAAATTCCTTGCCTTTTAATTGTAGGCCTGCATG	64
278	palmula	AATGGATTGACGAGGGTCAAACTGTCTCTTGCTTTGTATA
		GCGAAATTGGACTAAAGGTGAAGATACCTTTATATAAAAG
		TTAGACAAGAAGACCCCGTGCAGCTTT
KX961	Saccostrea	GGTAGCGAAATTCCTTGCCTTTTAATTGTAGGCCTGCATG	65
677	malabonensis	AATGGATTGACGAGGGTCAAGCTGTCTCTTGCCTTGATGA
		CGAAATTGGACTAAAGGTGAAGATACCTTTATAGAAAAGT
		TAGACAAGAAGACCCCGTGCAGCTTT
NC_01	Saccostre	GGTAGCGAAATTCCTTGCCTTTTAATTGTAGGCCTGCATG	66
3998	ascyphophilla	AATGGATTGACGAGGGCCATTCTGTCTCTTGCCTTATGAA
		GTGAAATTGGATTAAAGGTGAAGATACCTTTATTAAAAAG
		TTAGACAAGAAGACCCCGTGCAGCTTT
NC_03	Saccostrea	GGTAGCGAAATTCCTTGCCTTTTAATTGTAGGCCTGCATG	67
6483	glomerata	AATGGATTGACGAGGGTCAAACTGTCTCTTGCTTTGTATG
		ACGAAATTGGACTGAAGGTGAAGATACCTTCATGTGAAAG
		TTAGACAAGAAGACCCCGTGCAGCTTT
NC_03	Saccostrea	GGTAGCGAAATTCCTTGCCTTTTAATTGTAGGCCTGCATG	68
0533	kegaki	AATGGATTGACGAGGGTCAAACTGTCTCTTGCTTTGTATG
		TCGAAATTGGACTGAAGGTGAAGATACCTTCATATAAAAG
		TTAGACAAGAAGACCCCGTGCAGCTTT
NC_03	Saccostre	GGTAGCGAAATTCCTTGCCTTTTAATTGTAGGCCTGCATG	69
6478	aechinata	AATGGATTGACGAGGGTCAAACTGTCTCTTGCTTTGTATG
		ACGAAATTGGACTGAAGGTGAAGATACCTTCATGTGAAAG
		TTAGACAAGAAGACCCCGTGCAGCTTT
NC_03	Saccostrea	GGTAGCGAAATTCCTTGCCTTTTAATTGTAGGCCTGCATG	70
6479	mytiloides	AATGGATTGACGAGGGTCAAACTGTCTCTTGCTTTGTATG
		ACGAAATTGGACTGAAGGTGAAGATACCTTCATGTGAAAG
		TTAGACAAGAAGACCCCGTGCAGCTTT
AJ972	Euvola	TGCTAAGGTAGCTAAATTATGGCCTATTAATTGTAGGTCC	71
431	vogdesi	TGTGAATGGTTTGACGAGTTTCCAACTGTCTCTAGTTTTT
		TTTGGTGAACTTGAATTGGATGTGCAAATGCTTCCATGGG
		TAAGAAAGACGAGAAGACCCCGTGAAG
NC_01	Mimachlamys	TGCTAAGGTAGCTAAATTATGGCCCATTAATTGTGGGTCT	72
1608	crassicostata	TGCGAACGGCTTGACGAGTTCCCTACTGTCTCAAAGTTGT
		TTTGGTGAACTTGAATTGGATGTGTAAATGCTTCCATGAG
		TGAGAAAGACGAGAAGACCCCGTGAAG
EU379	Gloripallium	TGCTAAGGTAGCTAAATTACGGCCTATTAATTGTAGGTCC	73
464	pallium	TGTGAATGGTTTGACGAGCCTCCAACTGTCTCTAGTTTAT
		TTTGGTGAACTTGAATTGGATGTGCAAATGCTTCCATAGG
		TAAGAAAGACGAGAAGACCCCGTGAAG
AJ243	Flexopecten	TGCTAAGGTAGCTAAGTTATGGTCTTTTAATTTTAGGCCC	74
574	glaber	TGTGAAAGGATTGACGAGCTTGAGTCTGTCTCTATCTAAA
		TTTTATGAAATTGAATTTTAAGTGCAAATGCTTAAGTGGA
		CATGAAAGACGAGAAGACCCCGTGAAG
AJ245	Pecten	TGCTAAGGTAGCTAAATTATGGCCTATTAATTGTAGGTCC	75
394	jacobaeus	TGTGAATGGTTTGACGAGTTTCCAACTGTCTCTAGTTTTT
		TTTGGTGAACTTGAATTGGATGTGCAAATGCTTCCATGGG
		TAAGAAAGACGAGAAGACCCCGTGAAG
AY650	Pecten	TGCTAAGGTAGCTAAATTATGGCCTATTAATTGTAGGTCC	76
055	novaezelandiae	TGTGAATGGTTTGACGAGTTTCCAACTGTCTCTAGTTTTT
		TTTGGTGAACTTGAATTGGATGTGCAAATGCTTCCATGGG
		TAAGAAAGACGAGAAGACCCCGTGAAG
EU379	Euvola	TGCTAAGGTAGCTAAATTATGGCCTATTAATTGTAGGTCC	77
473	raveneli	TGTGAATGGTTTGACGAGTTTCCAACTGTCTCTAGTTTTT
		TTTGGTGAACTTGAATTGGATGTGCAAATGCTTCCATGGG
		TAAGAAAGACGAGAAGACCCCGTGAAG
AM494	Aequipecten	TGCTAAGGTAGCTAAATTATGGCCCTCTAATTGGGGGCCC	78
408	opercularis	TGTGAATGGATTGACGAGCCTATAACTGTCTCTAGCTGAA
		TTATATGAAATTGAATTTTAAGTGCAAATGCTTAAATATA
		AGTGATAGACGAGAAGACCCCGTGAAG
HM630	Euvola	TGCTAAGGTAGCTAAATTATGGCCTATTAATTGTAGGTCC	79
517	perula	TGTGAATGGTTTGACGAGTTTCCAACTGTCTCTAGTTTTT
		TTTGGTGAACTTGAATTGGATGTGCAAATGCTTCCATGGG
		TAAGAAAGACGAGAAGACCCCGTGAAG
GQ342	Nodipecten	TGCTAAGGTAGCTAAATTATGGCCTATTAATTGTAGGTCC	80
275	nodosus	TGTGAATGGTTTGACGAGTCTTCAACTGTCTCTAGTTTTT
		TTGATGAACTTGAATTGGATGTGCAAATGCTTCCATGGGT
		AAGAAAGACGAGAAGACCCCGTGAAG
GQ166	Scaeochlamys	TGCTAAGGTAGCTAAATTATGGCCCATTAATTGTGGGTCC	81
559	livida	TGTGAATGGTTTGACGAGTCCTCGACTGTCTCAAGGTTGT
		TTTGGTGAACTTGAATTGAATGTGCAAATGCTTTCATGGG
		TAAGAAAGACGAGAAGACCCCGTGAAG
FN667	Pecten	TGCTAAGGTAGCTAAATTATGGCCTATTAATTGTAGGTCC	82
667	keppelianus	TGTGAATGGTTTGACGAGTTTCCAACTGTCTCTAGTTTTT
		TTTGGTGAACTTGAATTGGATGTGCAAATGCTTCCATGGG
		TAAGAAAGACGAGAAGACCCCGTGAAG
FN667	Talochlamys	TGCTAAGGTAGCTAAATTATGGCCTATTAATTGTAGGTCC	83
665	multistriata	TGTGAATGGTTTGACGAGTCCTCTACTGTCTCAAGGTTGT
		TTTGGTGAACTTGAATGGAACGTGCAAATGCTTTCATGAG
		AGAGAAAGACGAGAAGACCCCGTGAAG
FJ263	Patinopecten	TGCTAAGGTAGCTAAATTATGGCCCATTAATTGTGGGTCC	84
642	caurinus	TGTGAATGGTTTGACGAGTCCTCTACTGTCTCAAGGTTGT
		TTTGGTGAACTTGAATTGAACGTGCAAATGCTTTCATGGG
		AAAGAAAGACGAGAAGACCCCGTGAAG
FJ263	Chlamys	TGCTAAGGTAGCTAAATTATGGCCCATTAATTGTGGGTCC	85
641	behringiana	TGTGAATGGTTTGACGAGTCCTCGACTGTCTCAAGGTTGT
		TTTGGTGAACTTGAATTGAATGTGCAAATGCTTTCATGAG
		AAAGAAAGACGAGAAGACCCCGTGAAG
EU379	Placopecten	TGCTAAGGTAGCTAAATTATGGTCTATTAATTGTAGGTCT	86
475	septemradiatus	TGTGAATGGTTTGACGAGTCTTCGACTGTCTCTAGGTTGT
		TTTGGTGAACTTGAATTGGATGTGTAAATGCTTCCGTGGG
		TGAGAAAGACGAGAAGACCCCGTGAAG
KP900	Pecten	TGCTAAGGTAGCTAAATTATGGCCTATTAATTGTAGGCCC	87
975	maximus	TGTGAATGGTTTGACGAGTTTCCAACTGTCTCTAGTTTTT
		TTTGGTGAACTTGAATTGGATGTGCAAATGCTTCCATGGG
		TAAGAAAGACGAGAAGACCCCGTGAAG
KP900	Pecten	TGCTAAGGTAGCTAAATTATGGCCTATTAATTGTAGGTCC	88
974	albicans	TGTGAATGGTTTGACGAGTTTCCAACTGTCTCTAGTTTTT
		TTTGGTGAACTTGAATTGGATGTGCAAATGCTTCCATGGG
		TAAGAAAGACGAGAAGACCCCGTGAAG
KP300	Zygochlamys	TGCTAAGGTAGCTAAATTATGGCCCATTAATTGTGGGTCC	89
542	delicatula	TGTGAATGGTTTGACGAGTCCTCGACTGTCTCGAGATTAC
		TTTGGTGAACTTGAATTAAACGTGCAAATGCTTTTATGGG
		TAAGAAAGACGAGAAGACCCCGTGAAG
KF982	Chlamys	TGCTAAGGTAGCTAAATTATGGCCCATTAATTGTGGGTCC	90
789	hastata	TGTGAATGGTTTGACGAGTCCTCGACTGTCTCAAGGTTGT
		TTTGGTGAACTTGAATTGAACGTGCAAATGCTTTCATGAG
		AAAGAAAGACGAGAAGACCCCGTGAAG
KF982	Ylistrum	TGCTAAGGTAGCTAAATTATGGCCTATTAATTGTAGGTCC	91
785	japonicum	TGTGAATGGTTTGACGAGTCTTTAACTGTCTCTAGTTTGT
		TTTGGTGAAATTGAATTGGATGTGCAAATGCTTCCGTAGG
		TAAGAAAGACGAGAAGACCCCGTGAAG
JF339	Pecten	TGCTAAGGTAGCTAAATTATGGCCTATTAATTGTAGGTCC	92
109	fumatus	TGTGAATGGTTTGACGAGTTTCCAACTGTCTCTAGTTTTT
		TTTGGTGAACTTGAATTGGATGTGCAAATGCTTCCATGGG
		TAAGAAAGACGAGAAGACCCCGTGAAG
JF339	Talochlamys	TGCTAAGGTAGCTAAATTATGGCCCATTAATTGTGGGTCC	93
106	gemmulata	TGTGAATGGTTTGACGAGTCCTCGACTGTCTCAAGATTAC
		TTTGGTGAACTTGAATTAAATGTGCAAATGCTTTTATGGG
		TAAGAAAGACGAGAAGACCCCGTGAAG
HM630	Zygochlamys	TGCTAAGGTAGCTAAATTATGGCCCATTAATTGTGGGTCC	94
521	patagonica	TGTGAATGGTTTGACGAGTCCTCGACTGTCTCGAGATTAC
		TTTGGTGAACTTGAATTAAATGTGCAAATGCTTTTATGGG
		TAAGAAAGACGAGAAGACCCCGTGAAG
NC_02	Argopecten	TGCTAAGGTAGCTAAGTTATGGCCTAGTTAATTGTAGGCC	95
7943	purpuratus	CTGTGAATGGTTTGACGAGTTTTCTTCTGTCTCTAGCTTG
		TTTCAGTGAACTTGAATTGGATGTGCAAATGCTTCCTTGC
		GAAAGAAAGACGAGAAGACCCCGTGAAG
NC_01	Argopecten	TGCTAAGGTAGCTAAGTTATGGCCTAGTTAATTGTAGGCC	96
2977	irradians	CTGTGAATGGTTCGACGAGTTTTCTTCTGTCTCTAGCTTG
		TTTAAGTGAACTTGAATTGGATGTGCAAATGCTTCCTTGG
		TAAAGAAAGACGAGAAGACCCCGTGAAG
NC_01	Azumapecten	TGCTAAGGTAGCTAAATTATGGCCTATTAATTGTAGGTCC	97
2138	farreri	TGTGAATGGTTTGACGAGTCCTCGACTGTCTCGAGGTTGT
		TTTGGTGAACTTGAATTGAATGTGCAAATGCTTTCATGGG
		AAAGAAAGACGAGAAGACCCCGTGAAG
NC_00	Mizuhopecten	TGCTAAGGTAGCTAAATTATGGCCCATTAATTGTGGGTCC	98
9081	yessoensi	TGTGAATGGTTTGACGAGTCCTCTACTGTCTCAAGGTTGT
		TTTGGTGAACTTGAATTGAATGTGCAAATGCTTTCATACG
		AAAGAAAGACGAAGAAGACCCCGTGAAG
NC_00	Placopecten	TGCTAAGGTAGCTAAGTTATGGCCTATTAATTGTAGGTCT	99
7234	magellanicus	TGTGAATGGTTTGACGAGCCTCCAACTGTCTCTAGGTTGT
		TTTGGTGAACTTGAGTTGAATGTGTAAATGCCTTCGTGGG
		TAAGAAAGACGAGAAGACCCCGTGAAG
EU379	Euvola	TGCTAAGGTAGCTAAATTATGGCCTATTAATTGTAGGTCC	100
485	ziczac	TGTGAATGGTTTGACGAGTTTCCAACTGTCTCTAGTTTTT
		TTTGGTGAACTTGAATTGGATGTGCAAATGCTTCCATGGG
		TAAGAAAGACGAGAAGACCCCGTGAAG
KU754	Pecten	TGCTAAGGTAGCTAAATTATGGCCTATTAATTGTAGGTCC	101
458	sulcico	TGTGAATGGTTTGACGAGTTTCCAACTGTCTCTAGTTTTT
	status	TTTGGTGAACTTGAATTGGATGTGCAAATGCTTCCATGGG
		TAAGAAAGACGAGAAGACCCCGTGAAG
KR827	Chlamys	TGCTAAGGTAGCTAAATTATGGCCCATTAATTGTGGGTCC	102
548	islandica	TGTGAATGGTTTGACGAGTCCTCGACTGTCTCAAGGTTGT
		TTTGGTGAACTTGAATTGAATGTGTAAATGCTTTCATGAG
		AAAGAAAGACGAGAAGACCCCGTGAAG
KT161	Argopecten	TGCTAAGGTAGCTAAGTTATGGCCTAGTTAATTGTAGGCC	103
261	ventricosus	CTGTGAATGGTTTGACGAGTTTTCCTCTGTCTCTAGCTTG
		TTTTAGTGAACTTGAATTGGATGTGCAAATGCTTCCTTGA
		GAAAGAAAGACGAGAAGACCCCGTGAAG
KT988	Mimachlamys	TGCTAAGGTAGCTAAATTATGGCCTATTAATTGTAGGTCC	104
340	varia	TGTGAATGGTTTGACGAGTCCCCTACTGTCTCGAGGTTGT
		TTTGGTGAAATTGAATTGAACGTGCAAATGCTTTCATGGG
		GAAGAAAGACGAGAAGACCCCGTGAAG
KP900	Amusium	TGCTAAGGTAGCTAAATTATGGCCTATTAATTGTAGGTCC	105
978	pleuronectes	TGTGAATGGTTTGACGAGTTTCCAACTGTCTCTAATTTTT
		TTTGGTGAACTTGAATTGGATGTGCAAATGCTTCCATGGG
		TAAGAAAGACGAGAAGACCCCGTGAAG
NC_02	Mimachla	TGCTAAGGTAGCTAAATTATGGCCCATTAATTGTGGGTCC	106
2416	myssanguinea	TGTGAATGGTTTGACGAGTCCTCGGCTGTCTCAAGGTTGT
		TTTGGTGAACTTGAATTGAATGTGCAAATGCTTTCATAGG
		TAAGAAAGACGAGAAGACCCCGTGAAG
KP300	Talochlamys	TGCAAAGGTAGCTAAATTATGGCCCATTAATTGTGGGTCC	107
543	dichroa	TGTGAACGGTTTGACGAGTCCTCGACTGTCTCAAGATTAC
		TTTGGTGAACTTGAATTAAATGTGCAAATGCTTTTATGGG
		TAAGAAAGACGAGAAGACCCCGTGAAG
KP300	Mimachla	TGCTAAGGTAGCTAAATTATGGCCCATTAATTGTGGGTCT	108
549	mys	TGCGAACGGCTTGACGAGTTCCCTACTGTCTCAAAGTTGT
	gloriosa	TTTGGTGAACTTGAATTGGATGTGCAAATGCTTCCATGAG
		TAAGAAAGACGAGAAGACCCCGTGAAG
JF339	Mimachlamys	TGCTAAGGTAGCTGAATTCTGGCCCATTAAATGTGGGTCT	109
118	cloacata	TAGTGAATGGTTTGACGAGTCCTCGACTGTCTCAAGGTTG
		TTTTTTTGAAATTGAATTAAATGTGCAAATGCATTTATAG
		GGAAGAAAGACGAGAAGACCCCGTGAAG
JF339	Mimachlamys	TGCTAAGGTAGCTAAATTTTGGCCCATTAATTGTGGGTCT	110
117	asperrima	TGTGAATGGTTTGACGAGTTCCCTACTGTCTCAAAGTTGT
		TTTGGTGAACTTGAATTGGATGTGCAAATGCATCTGTAGG
		TAAGAAAGACGAGAAGACCCCGTGAAG
KF982	Annachla	TGCTAAGGTAGCTAAATTATGGCCTATTAATTGTAGGTCC	111
786	mysstriatula	TGTGAATGGTTTGACGAGTCTTCAACTGTCTCTGATTTGC
		TTTGGTGAAATTGAATTGGAAGTGCAAATGCTTCCGTAGG
		TAAGAAAGACGAGAAGACCCCGTGAAG
KF982	Decatopecten	TGCAAAGGTAGCTAAATTATGGCCTATTAATTGTAGGTCC	112
788	radula	TGTGAATGGTTTGACGAGCTCCCGACTGTCTCTAGTTTGG
		TTTAGTGAACTTGAATTGGATGTGCAAATGCTTCCATGGG
		AAAGAAAGACGAGAAGACCCCGTGAAG
KF982	Bractechlamys	TGCAAAGGTAGCTAAATTACGGCCTATTAATTGTAGGTCC	113
787	vexillum	TGTGAATGGTTTGACGAGCCTCCGGCTGTCTCTAATCTGT
		TTTGGTGAACTTGAATTGGACGTGCAAATGCTTCCTTGAA
		AAAGAAAGACGAGAAGACCCCGTGAAG
EU379	Aequipecten	TGCTAAGGTAGCTAAATTATGGCCTATTAATTGTAGGTCC	114
445	glyptus	TGTGAATGGTTTGACGAGTTTTTAACTGTCTCTGGTTTGT
		TTTGGTGAATTTGAATTGGAAGTGCAAATGCTTTCGTGAG
		TGAGAAAGACGAGAAGACCCCGTGAAG
KP300	Scaeochlamys	TGCTAAGGTAGCTAAATTATGGCCTATTAATTGTAGGTCC	115
554	lemniscata	TGTGAATGGTTTGACGAGTCTTCAACTGTCTCAAAGTTAT
		TTTGGTGAACTTGAATTAAATGTGCAAATGCATTTATAGG
		GAAGAAAGACGAGAAGACCCCGTGAAG
FJ263	Chlamys	TGCTAAGGTAGCTAAATTATGGCCCATTAATTGTGGGTCC	116
645	rubida	TGTGAATGGTTTGACGAGTCCTCGACTGTCTCAAGGTTGT
		TTTGGTGAACTTGAATTGAATGTGCAAATGCTTTCATGAG
		AAAGAAAGACGAGAAGACCCCGTGAAG
JF496	Karneka	TGCTAAGGTAGCTAAATTTTGGTCTATTAATTGTAGGTCT	117
755	mpiasulcata	TGTGAATGGTTTGACGAGTCTTCGACTGTCTCTAGGTTGT
		TTTGGTGAACTTGAATTGAATGTGTAAATGCTTTCGTGGG
		CGAGAAAGACGAGAAGACCCCGTGAAG
FJ263	Crassadoma	TGCTAAGGTAGCTAAATTATGGCCCATTAATTGTGGGTCC	118
644	gigantea	TGTGAATGGTTTGACGAGTCCTCGACTGTCTCAAGGTTGT
		TTTGGTGAACTTGAATTGAACGTGCAAATGCTTTCATGGG
		AGAGAAAGACGAGAAGACCCCGTGAAG
JF339	Ylistrum	TGCTAAGGTAGCTAAATTATGGCCTATTAATTGTAGGTCC	119
127	balloti	TGTGAATGGTTTGACGAGTCTTTAACTGTCTCTAGTTTGT
		TTTGGTGAAATTGAATTGGATGTGCAAATGCTTCCATAGG
		TGAGAAAGACGAGAAGACCCCGTGAAG
AF122	Tridacna	AGTAGCGTGATAAGTCGGCCTTTAATTGGGGTCTGGTATG	120
977	mbalavua	AAGGGGTTGACGTCGGAGAAGCTGTCTCAAAAGAATTTTG
	na	TGAAATTTACTTTCTAGTGAAAAGGCTAGAATAATATTAA
		AAGACGAGAAGACCCTGTCGAGC
AB751	Siliqua	GGTAGCGTAATAAATTGTCTCTTAATTGGAGAAGGGTATG	121
362	alta	AATGGTTTGACGTAAGGGTTTCTGTCTCAACAATAGTAAT
		GTGAAGTTTTCTTTTAAGTCAAAAGGCTTAAATTATATTA
		AAAGACGAGAAGACCCTGTCGAGC
AB751	Megangulus	GGTAGCATAATAGGTCGTCCTTTAATTGGGGGAAAGTATG	122
329	zyonoensis	AATGGTCGGATGTTGGAAATTCTTTATTAAGAGTAGGTGT
		TAAATTTTACTTTTTAGTGCAAAGGCTAAGATAATATTAT
		TAGACGAGAAGACCCTGTTGAGC
AB751	Megangulus	GGTAGCATAATAGGTCGTCCTTTAATTGGGGGAAAGTATG	123
328	venulosus	AATGGTCGGATGTTGGAAATCCTTTATTAAGAGTAGGTGT
		TAAATTTTACTTTTTAGTGCAAAGGCTAAAATTAGATTAT
		TAGACGAGAAGACCCTGTTGAGC
AB751	Donax	GCGTTAAAGTAGCATAATAGGTCGTCTTTTAATTGGAGAA	124
311	faba	TGGAATGAATGGAGTGACGATGGAAAATCTTTATTAGAAA
		TATAAGTTGAAGTTTATTTTTAAGTGAAAAGGCTTAAATT
		AAGGTGTTAGACGAGAAGACCCTATTGAGC
AB751	Donax	GCGTTAAGGTAGCATAATAGCTCGTCTTTTAATTGGAGGA	125
310	cuneatus	TGGAATGAATGGAGTGACGATGGAAAGTCTTTATTAAAAA
		CACTGATCGAAGTTTACTTTTAAGTGAAAAGGCTTAAATG
		GAGTTGTTAGACGAGAAGACCCTGTTGAGC
AB751	Donax	GCGTTAAAGTAGCATAATAAATTGTCTCTTAATTAGAGGA	126
309	kiusiuensis	TAGTATGAAAGGTTGGATGTTGGAGAAGCTTTATTGGAAG
		CATTAATTGAAGTTTACATATAAGTGAAAAGGCTTATATG
		AGATTGTTAGACGAGAAGACCCTGTTGAGC
DQ 160	Mactra	GCAATAAATTGTCCTTTAATTGGGGAAATGAATGAAGGGG	127
001	quadrang	TTGACGAGGGGGAAGCTGTCTTTTTAATATAGTTCGAAGT
	ularis	TTTCTTTTATGTGAAAAGACTTAGATTTTACAATAAGAAG
		AGAAGACCCCGGCGAGC
AJ548	Ensisensis	CTTAATTGGAGAAGGGTATGAATGGTTTGACGTGGTAGTT	128
775		TCTGTCTCAATGGTAATATTATGAAGTTTTCTTTTGAGTT
		AAAAGTCTCAAATTTAGATAAAAGACGAGAAGACCCTGTC
		GAGC
AM085	Chamelea	GTGCTAAGGTAGCGTGATAAGTTGTCTTTTAATTGGAGAA	129
110	gallina	TGGTATGAATGGTTTAACGTAGAATAACTGTCTTTGGAAA
		ATAAAATTAAGTTTCCATGTAAGTGAAAAGGCTTATATTT
		TTGTAAAAGACGAGAAGACCCTGTCGAGC
AJ548	Spisula	GGTAGCGCAGTCACTCGTCTTTTAATTGGAGAAAGGTATG	130
774	subtruncata	AATGGTTTGACGAGGGAAAATCTGTCTCAAGGATATGGGC
		TAAAGTTTTCTTTTAAGTGAAAAGACTTAAATTTTTAAAT
		AAGAAGAGAAGACCCCGGCGAGC
AJ548	Callista	GTTTAACGGCCGCAGTTGTCCTGTGCTAAGGTAGCATAAT	131
772	chione	GATTAGCTCTTTAATTGGGGGAAAGTATGAATGGTTTGAC
		GTGGAGATACTGTCTTAAATATAATAAATAGAAATTTTTT
		TTCAAGTGAAAAAACCTGAATTTTTG
AJ294	Polititapes	TGTACTAAGGTAGCGCGGTAATTTGTCCCTTAATTGGGGG	132
950	rhomboides	ATGGTATGAAAGGCTTGTCTTAAGTTTTTTGTCTCAAAAA
		GACAAAGTGAAGTTTCCTTTTAGATGAAAAGGTCTAAATA
		AAAATAAAAGACGAGAAGACCCTGTCGAGC
AJ417	Venerupis	GGTAGCGCGATAATTTGTCTCTTAATTGGAGAATGGTATG	133
845	corrugata	AAAGGTTTGACGCAGATCAGTTGTCTCTTAGAAAAAAGGT
		GAAGTTTCCTTTTAAATGAGAAGGTTTAAATTTGAATAAA
		AGACGAGAAGACCCTGCCGAG
AJ294	Polititapes	TGTACTAAGGTAGCGCGATAATTTGTCTCTTAATTGGAGA	134
950	aureus	ATGGTATGAAAGGTTTGACGCAGATTGATTGTCTCTAGAA
		AAGAAAATGAAGTTTCCTTTTAAATGAAAAGGTTTAAATT
		GTAATAAAAGACGAGAAGACCCTGCCGAGC
DQ459	Venus	GTGCTAAGGTAGCGTGATAAGTTGTCCTTTGATTGGGGAA	135
295	crebrisulca	TGGTATGAAAGGTTTGACGTGGAATAACTGTCTTTAGAAA
		ATTAAACTAAGTTTCCATTTAAGTGAAAAGGCTTATATTT
		TTGTAAAAGACGAGAAGACCCTGTCGAGC
DQ459	Mercenaria	GGTAGCGTGATAAGTTGTCTTTTGATTGGAGAATGGAATG	136
280	campechiensis	AAGGGTTTGACGTAGAATTTCTTTTTTTGTAGAAGATACT
		AAAATTTCCTTCTAAGTGAAAAGGCTTAGGTTTTTGAAAA
		AGACGAGAAGACCCTGTCGAAC
NC_05	Antigona	GTGCTAAGGTAGCGTGATAGGTTGTCTCTTAATTGGAGAA	137
1506	lamellaris	TGGTATGAAGGGTCTCACGTGGGGTTTCTTTTTTTAATTA
		ATAAAATGAAGTTTCTTTTTAAGTGAAAAAGCTTAAGTTT
		TTGTAAAAGACGAGAAGACCCTGTCGAGC
DQ459	Ameghinomya	GTGCTAAGGTAGCGTGATAAGTTGTCCTTTGATTGGGGAC	138
260	antiqua	TGGTATGAATGGCTTGACGTAGAATGACTATTTTTATAGA
		ATAAAGTAAACTTTCCTTCTGAGTGAAAAGGCTTAGGTTT
		TTGTAAAAGACGAGAAGACCCTGTCGAGC
DQ356	Callistaerycina	GTTTAACGGCCGCAGTTGTCCTGTGCTAAGGTAGCATAAT	139
382		AATTAGCTCTTTAATTGGGGGAAAGTATGAATGGTTTGAC
		GTGGAAATACTGTCTTTAATGTAATTAAGAGAAATTTTTT
		TATAGGTGAAAAAACCTAAATATTTGTAAGA
DQ356	Venerupis	GGTAGCGCGATAATTTGTCTCTTAATTGGAGAATGGTATG	140
381	aspera	AAAGGTTTGTCATAGAGCGGTTGTCTCTAAAAAATTAAGT
		GAAATTTCTTTTTAAATGAAAAGGTTTAAATAAAAATAAA
		AGACGAGAAGACCCTGTCGAGC
DQ356	Paphia	GGTAGCGTGATAATTTGTCCTTTAATTGGGGAATGGTATG	141
380	philippiana	AAAGGTTTGACGTGGATGAGTTGTCTCTAGAAAAATTATT
		GAAGTTTCCTTTTAAATGAAAAGGTTTAAATTTTTGTAAA
		AGACGAGAAGACCCTGGCGAG
JF808	Venus	GTGCTAAGGTAGCGTGGTAAGTTGTCTTTTAATTGGAGAA	142
192	casina	TGGTATGAATGGTTTGACGTAGAATAACTGTCTTTGGGGA
		ATAGAATTAAGTTTCCTTTTAAGTGAAAAGGCTTATATTT
		TTGTAAAAGACGAGAAGACCCTGTCGAGC
HF970	Ensis	CTTAATTGGAGAAGGGTATGAATGGTTTGACGTGGTAGTT	143
514	terranovensis	TCTGTCTCAATGGTAATATTATGAAGTTTTCTTTTGAGTT
		AAAAGTCTCAAATTTAGATAAAAGACGAGAAGACCCTGTC
		GAGC
GQ166	Mactra	GGTAGCGCAATCAATTGTCCTTTAATTGGGGAAAGGAATG	144
567	stultorum	AAGGGGTTGACGAGGGTGAGCTGTCTCTGTAGTATAGCTT
		AAACTTTTCTTTTAAGTGAAAAGACTTAAATTTTAAAATA
		AGACGAGAAGACCCCGGCGAGC
HF970	Ensis	CTTAATTGGAGAAGGGTATGAATGGTTTGACGTGGTAGTT	145
473	macha	TCTGTCTCAATGATAGTATTACGAAGTTTTCCTTTGAGTT
		AAAAGTCTCAAATAAATGTAAAAGACGAGAAGACCCTGTC
		GAGC
EU169	Siliqua	GGTAGCGTAATAAATTGTCTCTTAATTGGAGAAGGGTATG	146
034	minima	AATGGTTTGACGTAGGAGTTTCTGTCTCAACAATAGTAAT
		GCGAAGTTTTCCTTTAAGTAAAAAGGCTTAAATATTATTA
		AAAGACGAGAAGACCCTGTCGAGC
GQ166	Ensis	CTTAATTGGAGAAGGGTATGAATGGTTTGACGTGGTAGTT	147
561	leei	TCTGTCTCAATGGTAATATTATGAAGTTTTCTTTTGAGTT
		AAAAGTCTCAAATTTAGATAAAAGACGAGAAGACCCTGTC
		GAGC
DQ459	Polititapes	GGTAGCGCGATAATTTGTCTCTTAATTGGAGAATGGAATG	148
296	durus	AATGGTTTGTCGCATGTTGGTGTCTCTGGGAAAATGAAGT
		TTCCTTTTAATTGAAAAGGTTTAAATTTTAATAAAAGACG
		AGAAGACCCTGTGAGA
KP052	Cerastoderma	TTGGCCTTTAATTGGGGTCCGGTATGAATGGGTTGACGAT	149
743	glaucum	AGAAGCTCTGTCTCGTTAGAATGTGTTGAAATTTACATTT
		CGGTGAAAAGACCGAACCGCTTCTAAAAGACGAGAAGACC
		CCGTCGAG
KF611	Donax	GTACTAAGGTAGCGCTACAATTTGCCCTTTAAATGGGGGC	150
752	longissimus	TGGTATGAATGGGTTCACGTGAGAGTTGCTGTGTCACAAA
		AATTTATTGAAATTAACTTTTAGGTGAAGAGGCCTAGCTG
		AGTTTAAAGGACGACAAGACCCTAGAAGC
KC429	Solen	CTTAATTGGGGGCTAGTATGAAGGGTTTGACGTAAAAAAA	151
308	vaginoides	GTTGTCTCTGAGATAATATTGTGAAGTTTTTTTTCTGGTG
		AAAAATCTAGGATTTAATTAAAAGACGAGAAGACCCTGTC
		GAGC
KC429	Venus	GTGCTAAGGTAGCGTGATAAGTTGTCTTTTAATTGGAGAA	152
301	verrucosa	TGGTATGAATGGTTTGACGTAGAATAACTGTCTTTGGAAA
		ATTAAACTAAGTTTCCTTTTAAGTGAAAAGGCTTATATTT
		TTGTAAAAGACGAGAAGACCCTGTCGAGC
JN969	Ezocallista	ATTTAAAGGCTGCAGTTATCTGTACAAAGGTAGCGCAATA	153
934	brevisiphonata	AGTAGCCCCTTAATTGGGGGATGGTATGAATGGTTTGACG
		TGGAGATGCTGTTTCTAGTGTAGTTTAAATGAAATTTCTT
		TCTAGGTGAAAAAGCCTAGGTTTTTG
KR422	Procardium	AGTAGCGTAATAATTTGTCCCTTAATTAGGGTCTGTATGA	154
892	indicum	ACGGGTTGACGTGGAAAAACTGTCTTGAGGAAATAGTTTG
		AAATTTTCTTTTTAGTGAAAAGCCTGAAATAGTATTAAAA
		GACGAGAAGACCCCGTCGAGC
KR422	Cardium	AGTAGCGTAATAATTTGTCCCTTAATTAGGGTCTGTATGA	155
893	maxicostatum	AAGGGTTGACGTGGAAAAACTGTCTTGAAAAAATAATCTA
		AAATTTTCTTTTTAGTGAAAAGCCTGAAATGTGCTTAAAA
		GACGAGAAGACCCCGTCGAGC
KR422	Cardium	AGTAGCGTAATAATTTGTCCCTTAATTAGGGTCTGTATGA	156
891	costatum	AAGGGTTGACGTGGAAGAACTGTCTTGAAAAAATAATCTA
		AAATTTTCTTTTTAGTGAAAAGCCTAAGATATATTTAAAA
		GACGAGAAGACCCCGTCGAGC
KR422	Acanthocardia	TTGGCCTTTAATTGGGGTCCAGTATGAATGGGTTGACGAT	157
879	paucicostata	AGAATGGCTGTCTTATAGGGGGGCCTTAGAAATTTTCTTT
		TTGGTGAAAAGACCTAAATAAGTTTAATAGACGAGAAGAC
		CCCGTCGAG
KR422	Acanthoc	TTGGCCTTTAATTGGGGTCCAGTATGAATGGGTTGACGAT	158
878	ardiaechinata	AGAATAGCTGTCTTACAGGGGTTCATTAGAAATTTTCTTT
		TTGGTGAAAAGACCTGATTAAATTTAATAGACGAGAAGAC
		CCCGTCGAG
KR422	Acanthocardia	TTGGCCTTTAATTGGGGTCCAGTATGAATGGGTTGACGAT	159
877	aculeata	AGAATAGCTGTCTTATAGGGGCCCATTAGAAATTTTCTTT
		TTGGTGAAAAGACCTGATTAAACTTAATAGACGAGAAGAC
		CCCGTCGAG
KP055	Ruditapes	GGTAGCGCGATAATTTGTCTCTTAATTAGAGAATGGTATG	160
816	philippinarum	AAGGGTTAGACGTGGGATTATTGTCTCTAAAAAATACAGT
		TAAGTTTCCTTTTAAATGAAAAGGTTTAAATTTATTAAAA
		GACGAGAAGACCCTGTCGAGC
KR422	Corculum	AGTAGCATAATAATTTGCCCTTTAATTGGGGGATAGTATG	161
901	cardissa	AATGGGTTGACGATGGAAAGACTGTCTCCAGAAGAGTAAT
		TGAAATTTTCTTCCCAGTGAAAAGCCTGGGATTAGGTTGA
		AAGACGAGAAGACCCCGTCGAGC
KX713	Spisula	GGTAGCGCAATCAATCGTCTCTTAATTGGAGAAAGGTATG	162
257	solida	AATGGTTTGACGAGGGAAAAACTGTCTCAAATATAGATTT
		TGAAGTTTTCTTTTAAGTGAAAAGACTTAAATTTTTAAAT
		AAGAAGAGAAGACCCCGGTGAGC
NC_04	Scrobicularia	GGTAGCGCGATAGGTCGCTCTTTAATTGGGAGAGAGTATG	163
6518	plana	AATGGTCGGATGTTGGAAAGCCTTTATTAAAAGTAATTAT
		TGAAATTTACCTTTTAGTGCAAAGGCTAAAATGATTTTAT
		TAGACGAGAAGACCCTGTTGAGC
KX713	Mactra	GGTAGCGCAGTCAATTGTCCTTTAATTGGGGAAAGGAATG	164
231	violacea	AAAGGGTTGACGAGGGGGAGGCTGTCTTTGTAATATAATT
		TGAAATTTTCTTTTACGTGAAAAGACTTAAATTTTAAAAT
		AAGAAGAGAAGACCCCGGCGAGC
KX713	Chamelea	GTGCTAAGGTAGCGCGGTAAGTTGTCTTTTAATTGGAGAA	165
203	striatula	TGGTATGAATGGTTTAACGTAGAATAACTGTCTTTGAGGA
		ATAGAGTTAAATTTCCATTTAAGTGAAAAGGCTTATATTT
		TTGTAAAAGACGAGAAGACCCTATCGAAC
KX713	Ensissiliqua	CTTAATTGGAGAAGGGTATGAATGGTTTGACGTGGTAGTT	166
217		TCTGTCTCAATAATAGTATTGCGAAATTTTCATTTAAGTT
		AAAAGTCTTAAATACAGATAAAAGACGAGAAGACCCTGTC
		GAGC
KR422	Serripes	AGTAGCGTAATAATTTGGCCCTTAATTAGGGTCTGGAATG	167
986	groenlandicus	AATGGGTTGACGTGGGAGGGCTGTCTCAAAGGGATTACTT
		AAAATTTTCTTCCTAGTGAAAAGCCTGGGATACTAGTAAA
		AGACGAGAAGACCCCGTCGAGC
MN068	Tridacna	AGTAGCGTGATAAGTCGGCCTTTAATTGGGGTCTGGTATG	168
431	elongatissima	AAGGGGTTGACGTCGGAAAAGCTGTCTCGGAAAAACTAAG
		TGAAATTTACTTTTAAGTGAAAAGGCTTAAATAAGGATAA
		AAGACGAGAAGGCCCTGTCGAGC
MN068	Tridacna	AGTAGCGTGATAAGTCGGCCTTTAATTGGGGTCTGGTATG	169
543	rosewateri	AAGGGGTTGACGTCGGAAAAGCTGTCTCAGAAAAACTAAG
		TGAAATTTACTTTTAAGTGAAAAGGCTTAAATGGGGGTAA
		AAGACGAGAAGGCCCTGTCGAGC
NC_01	Meretrix	TACCGCAGGGATAACAGCGTAATTTTTTTCCGTAAGTTGT	170
6174	lamarckii	ATTGGGAAAAAAGTTTACAACCTCGATGTTGAATTAAGAA
		AACTTTGTGGCGCAGACGCCACAGTGAGTAAAACTGTTCG
		TTTTTTAATCTCTTACATGA
NC_01	Meretrix	TACCGCAGGGATAACAGCGTAATTTTTTTTTGTAATTGTA	171
4809	lusoria	TCGATAAAAGAGTTTACGACCTCGATGTTGAATTAAGAAA
		CCTTTATGGCGCAGGAGCTATAGGAGGAAAACTGTTCGTT
		TTTTAATTTCTTACATGA
NC_01	Paphiaeuglypta	GGTAGCGCGATAATTTGTCTCTTAATTGGAGAATGGTATG	172
4579		AAAGGTTTGACGTAGACCTATTGTCTCTAAAGAAAAAAAT
		GAAGTTTCCTTTTAAATGAAAAGGTTTAAATTTTTGTAAA
		AGACGAGAAGACCCTGCCGAGC
NC_01	Meretrix	TACCGCAGGGATAACAGCGTAATTTTTTTCTGTAATTGTA	173
3188	meretrix	TCGAGAAAAGAGTTTACGACCTCGATGTTGAATTAAGAAA
		CCTTTATGGCGCAGGAGCTATAGGAGGAAAACTGTTCGTT
		TTTTAATTTCTTACATGA
NC_01	Meretrix	TACCGCAGGGATAACAGCGTAATTTTTTTCTGTAATTGTA	174
2767	petechialis	TCGAGAAAAGAGTTTACGACCTCGATGTTGAATTAAGAAA
		CCTTTATGGCGCAGGAGCTATAGGAGGAAAACTGTTCGTT
		TTTTAATTTCTTACATGA
NC_00	Acanthocardia	TTGGCCTTTAATTGGGGTCCAGTATGAATGGGTTGACGAT	175
8452	tuberculata	GGAATAGCTGTCTTATAGGGGCTCATTAGAAATTTTCTTT
		TTGGTGAAAAGACCTAATTAAACTTAATAGACGAGAAGAC
		CCCGTCGAG
LT630	Tridacna	AGTAGCGTGATAAGTCGGCCTTTAATTGGGGTCTGGTATG	176
276	maxima	AAAGGGTTGACGTCGGAAAAGCTGTCTCAGAAAGATTAAA
		TGAAATTTACTTTTAAGTGAAAAGGCTTAGATGGGAGTAA
		AAGACGAGAAGGCCCTGTCGAGC
NC_02	Lutraria	TGTAGCGTAATAATTAGCCTTTTAAAAGGAGGGAGGAATG	177
3384	rhynchaena	AATGGTTTGACGAGAGACCTGCTGTCTCGGAAGTAAATTC
		TAAAGTTTTCTTTTAAGTGAAAAGACTTAGATTTTTAAAT
		AAGAAGAGAAGACCCCGGTGAGC
NC_02	Meretrix	TACCGCAGGGATAACAGCGTAATTTTTTTTTGTAAATTTT	178
2924	lyrata	ATTGGAAAAAAAGTTTACGACCTCGATGTTGAATTAAGAA
		AACTTTATGGCTTAGGCGCTATAATGAGTAAAACTGTTCG
		TTTTTTAATTTCTTACATGA
NC_02	Arctica	GGTAGCGTAATCAGTTGTCCTTTAATTGGGGAAAGGAATG	179
2709	islandica	AATGGTTTGACGAAAGGGTAGCTGTTTCAGAGGTAGATAA
		GGAAGTTTTCTTTCAGGTGAAAAGACCTGAGTTTTTGTAA
		AAGACGAGAAGACCCCGTCGAAC
NC_01	Solen	CTTAATTGGGGGCTAGAATGAAGGGTTTGACGTAAAAAAA	180
7616	strictus	TTTGTCTCCAAAATAGTAGTATGAAGTTTTCTTTTCAGTG
		AAAAGCCTGAAATTGTGATAAAAGACGAGAAGACCCTGTC
		GAGC
NC_01	Paratapes	GGTAGCGCGATAATTTGTCTCTTAATTGGAGAATGGTATG	181
6891	undulatus	AAAGGTTTGTCGCAGACTGGTTGTCTCTGAAGAAATAGAT
		GAAGTTTCCTTTTAAATGAAAAGGTTTAAATTTTTGTAAA
		AGACGAGAAGACCCTGCCGAG
NC_01	Paratapes	GGTAGCGCGATAATTTGTCTCTTAATTGGAGAATGGTATG	182
6890	textilis	AAAGGTTTGTCGCAGATTAATTGTCTCTAAAAAAAACAAT
		GAAGTTTCCTTTCAAATGAAAAGGTTTAAATTTTTGTAAA
		AGACGAGAAGACCCTGTCGAG
NC_01	Paphia	GGTAGCGCGATAATTTGTCTCTTAATTGGAGAATGGTATG	183
6889	amabilis	AAAGGTTTGACGTAGATCGATTGTCTCTATAAAAAAAAAA
		TGAAGTTTCCTTTTAAATGAAAAGGTTTAAATTTTTGTAA
		AAGACGAGAAGACCCTGCCGAGC
NC_01	Solen	CTTAATTGGGGGCTAGAATGAAGGGTTTGACGTAAAAAAG	184
6665	grandis	TTTGTCTCCAAAATAAAAGTATGAAGTTTTCTTTTCAGTG
		AAAAGTCTGATATAATGGTAAAAGACGAGAAGACCCTGTC
		GAGC
NC_03	Lutraria	TGTAGCGTAATCATTAGCCTTTTAAAAGGAGGGAGGAATG	185
6766	maxima	AATGGTTTGACGAGGGACCTGCTGTCTCAGGAGTAATTTC
		TAAAGTTTTCTTTTAAGTGAAAAGACTTAAATTTTTAAAT
		AAGAAGAGAAGACCCCGGTGAGC
NC_03	Donax	GTATTGAGGTAGCATAATAATTAGTCTTTTAATTGGGGGA	186
5987	vittatus	TGGAATGAATGGTTGAATGATGGGGTGTCTTTATTAGTAG
		TATAAATTCGAAGTTTTCTTTTAAGTGAAAAGACTTAAAT
		TTTTTTGTTAGACGATAAGACCCTATTGAGC
NC_03	Donax	GCGTTACGGTAGCATAATAAGTTGTCTTTTAATTGGGGGA	187
5986	variegatus	TAGTATGAATGGTTTGATGATGGGGTAGCTTTATTAATAA
		TATACATGTGAAGTTTACTTTTAAGTGAAAAGGCTTAAGT
		TGTTTTGTTAGACGATGAGACCCTATCGAGC
NC_03	Donax	GTGTTAAGGTAGCATAATAAATAGTCTCTTAATTGGGGGA	188
5985	trunculus	TAGAATGAATGGTTGAATGATGGGATAGCTTTATTAGTAA
		TATAAATATGAAGTTTACTTTTAAGTGAAAAGGCTTAAAT
		TTTATTGTTAGACGATAAGACCCTATTGAGC
NC_03	Donax	GTGTTAAGGTAGCATAATAATTAGTCTTTTAATTGGGGGA	189
5984	semistriatus	TGGAATGAATGGTTGAATGATGGGGTGTCTTTATTAGTAG
		TATAAATTTGAAGTTTTCTTTTAAGTGAAAAGGCTTAAAT
		TTTTTTGTTAGACGATAAGACCCTATTGAGC
NC_03	Ruditapes	GGTAGCGCGATAATTTGTCTTTTAATTGAAGAATGGTAGA	190
5757	decussatus	AAGGTTGTCGCAAGTTGCTTGTCTCTGAAAAAGAAAGCGA
		AGTTTCCTTTTAAATGAAAAGGTTTAAGTAAAGATAAAAG
		ACGAGAAGACCCTATTGAGC
NC_03	Cerastoderma	TTGGCCTTTAATTGGGGTCCGGTATGAATGGGTTGACGAT	191
5728	edule	AGAAAAGCTGTCTCATTGGAATATATTGAACTTTTCTTCT
		CGGTGAAAAGACCGCGCTTCTGTTAAAAGACGAGAAGACC
		CCGTCGAG
NC_02	Tridacna	AGTAGCGTGATAAGTCGGCCTTTAATTGGGGTCTGGTATG	192
6558	squamosa	AAAGGGTTGACGTCGGAAAAACTGTCTCGGAAGAACTAAG
		TGAAATTTACTTTTAAGTGAAAAGGCTTAAATTAAAGTAA
		AAGACGAGAAGACCCTGTCGAGC
NC_03	Ruditapes	GGTAGCGCGATAATTTGTCTCTTAATTAGAGAATGGTATG	193
1332	philippinarum	AAGGGTTAGACGTGGGATTATTGTCTCTAAAAAAKAKAGT
		TAAGTTTCCTTTTAAATGAAAAGGTTTAAATTTATTAAAA
		GACGAGAAGACCCTGTCGAGC
NC_02	Mactra	GGTAGCGCAATAAATTGTCCTTTAATTGGGGAAATGAATG	194
5510	chinensis	AAAGGGTTGACGAGGGGGAAGCTATCTTTTTGGTATAGTT
		TGAAGTTTTCTTTTATGTGAAAAGACTTAGATTTTATAAT
		TAGAAGAGAAGACCCCGGCGAGC
NC_03	Tridacna	AGTAGCGTGATAAGTCGGCCTTTAATTGGGGTCTGGTATG	195
9945	derasa	AAGGGGTTGACGTCGGAGAAACTGTCTCGGAAAAATATGG
		TGAAATTTACTTTTAAGTGAAAAGGCTTAAATAAAAGTAA
		AAGACGAGAAGGCCCTGTCGAGC
NC_04	Mercenaria	GGTAGCGTGATAAGTTGTCTTTTAATTGGAGAATGGAATG	196
8487	mercenaria	AAGGGTTTGACGTGAAATTTCTTTTTTTATAAAAGGTACT
		AAAGTTTCCTTCTAAGTGAAAAGGCTTAGGTTTTTGAAAA
		AGACGAGAAGACCCTGTCGAAC
NC_05	Tridacna	AGTAGCGTGATAAGTTGGCCTTTAATTGGGGTCTGGTATG	197
0683	gigas	AAGGGGTTGACGTCGGAGAAACTGTCTCGGAAAGATAAAA
		TGAAATTTACGTCCTAGTGAAAAGGCTGGGATGGCTGTAA
		AAGACGAGAAGACCCTGTCGAGC
NC_02	Mactra	GGTAGCGCAGTCAATTGTCCTTTAATTGGGGAAAGGAATG	198
1375	antiquata	AAAGGGTTGACGAGGGGGAGGCTGTCTTTGTAATATAATT
		TGAAATTTTCTTTTACGTGAAAAGACTTAAATTTTAAAAT
		AAGAAGAGAAGACCCCGGCGAGC
NC_04	Helix	TGACTGTGCAAAGGTAGCATAATCAGTTGGCTTTTAATTA	199
1247	pomatia	GAGTCTGGTATGAACGAAAATATGGGTAGTAACTGTCTTA
		GCACATTTTTTCGAACTTATTAACCAAGTGCAAATGCTTG
		TAATTTAACAATAGACGAGAAGACCCTAGAAACTT
NC_02	Achatina	TGACTGTGCAAAGGTAGCATAATAATTTGTCCTCTAATTA	200
4601	fulica	AGGTCTGGAATGAAGGGGGACACAGGGGAGAGCTGTCTCC
		AATAAGGTTAATTTAACTTTCTTATCAGGTGAAAATTCCT
		GAGCCTCCGATGAAAGACGAGAAGACCCTTAGAGTTT
NC_02	Helix	TGACTGTGCAAAGGTAGCATAATCAGTTGGCCTATAATTG	201
1747	aspersa	AGGTCTGGTATGAACGAATAATTGGGTAGTAACTGTCTTA
		ATGTATTCTTACAAATTTAGTAAGCAAGTGAAAATACTTG
		CTAAATTATAAAAGACGAGAAGACCCTAGAAACTT
KT211	Helix	TGACTGTGCAAAGGTAGCATAATCAGTTGGCTTTTAATTA	202
748	thessalica	GAGTCTGGTATGAACGAAAATATGGGTAGTAACTGTCTTA
		GCACATTTCTTTGAACTTGTTAAACAAGTGCAAATGCTTG
		TAATTAAAAAATAGACGAGAAGACCCTAGAAACTT
KR705	Helix	TGACTGTGCAAAGGTAGCATAATCAGTTGGCTTTTAATTA	203
016	pomatia	GAGTCTGGTATGAACGAAAATATGGGTAGTAACTGTCTTA
		GCATATTTTTTCGAACTTATTAAACAAGTGCAAATGCTTG
		TAATTTAACAATAGACGAGAAGACCCTAGAAACTT
KR705	Helix	TGACTGTGCAAAGGTAGCATAATCAGTTGGCTTTTAATTG	204
014	lucorum	GAGTCTGGTATGAACGAACACATGGGTGGCGACTGTCTAA
		ATATATTTTTCCTAACTTTTTAATCAAGTGAAAATACTTG
		TGCTAATAAAAAAGACGAGAAGACCCTAGAAACTT
KR705	Helix	TGACTGTGCAAAGGTAGCATAATCAGTTGGCTTTTAATTG	205
012	nicaeensis	GAGTCTGGCATGAACGAAAGCATGGGTGGCGACTGTCTTA
		ATATATTTTTTCTAATTTTTTAATCAAGTGAAAATACTTG
		TGTAAAATAAAAAAGACGAGAAGACCCTAGAAACTT
JQ619	Achatina	TGACTGTGCAAAGGTAGCATAATAATTTGTCCTTTAATTT	206
236	reticulata	AGGTCTGGAATGAATGAGAACACAGGGGAGAGCTGTCTCT
		AGWARGGTTAACTTAACTTCCTTATCAGGTGAAAATTCCT
		GAGCTTCTTTGGAAAGACGAGAAGACCCTTAGAGTTT
EU912	Helix	GACTGTGCAAAGGTAGCATAATCAGTTGGCCTATAATTGA	207
833	aspersa	GGTCTGGAATGAACGAAAAATAGGGTAGCAACTGTCTTAG
	maxima	TATATTTTTTTAAACTTAGTTAGCAAGTGAAAATACTTGC
		AAATATACAAAAGACGAGAAGACCCTAGAAACTT
GQ402	Helix	GTCTGGTATGAACGAACATTTGGGTGACAACTGTCTAAAT	208
391	aperta	TAATTTTTCTAAACTTAGTTAGCAAGTGCAAATACTTGTA
		TGTATATAAAAGACGAGAAGACCCTAGAAACTT
KR705	Helix	TGACTGTGCAAAGGTAGCATAATCAGTTGACTCTTAATTA	209
013	albescens	GGGTCTGGTATGAAAGAAAATATGGGTAGTAACTGTCTTA
		ATATATTTATTTGAAATTAATAAGCAAGTGCAAATACTTG
		CATACATAAAAAAGACGAGAAGACCCTAGAAACTT
MH130	Tyrrhenaria	TGACTGTGCAAAGGTAGCATAATCAGTTGGCTTTTAATTA	210
070	ceratina	GAGTCTGGTATGAATGAAAATATGGGTGGTAACTGTCTCT
		GACATATTAATTTGAACTTTTTTTAGCAAGTGCAAATACT
		TGCGAGGGTAAAAAAGACGAGAAGACCCTAGAAACTT
MF564	Helix	TGACTGTGCAAAGGTAGCATAATCAGTTGGCTTTTAATTG	211
117	vladika	GAGTCTGGCATGAATGAAAATATGGGTAGTAACTGTCTTA
		GCATATTATTTGAACTTATTAAACAAGTGCAAATGCTTGT
		AATTACACAATAGACGAGAAGACCCTAGAAACTT
KF246	Pleurodonte	TGACTGTGCAAAGGTAGCATAATCAGTTGGCTTATAATTG	212
957	discolor	AAGTCTTGTATGAAGGAATAAATGGGTTACAACTGTCTCT
		ACAGATAAATAGCGAATTTACTTAATAAGTGAAAATACTT
		ATAGTTTTTTAAAAGACGAGAAGACCCTAGAAATTT
KF246	Pleurodonte	TGACTGTGCAAAGGTAGCATAATCAGTTGGCTTATAATTG	213
963	lychnuchus	AAGTCTAGTATGAATGAAGGAATGGGTGAGTCCTGTCTCC
		AGAAAAGAGGTGAACTTACCTAACAAGTGAAAATGCTTGT
		ACAAAGACAAAAGACGAGAAGACCCTAGAAATTT
GQ402	Erctella	CATATTGAGGTCTGGTATGATGAAATTTTGGGTAGAAACT	214
402	mazzullii	GTCTTAATATATTTTTTATAATTTAATATGCAAGTGAAAA
		TACTTGCTTTAATATAAAAGACGAGAAGACCCTAGAAACT
		T
GQ402	Erctella	GAAGTCTGGTATGAATGAACTTTGGGTAGTAACTGTCTTA	215
397	cephalae	ATATATTTTAAAAAATTTAATATGTAAGTGAAAATACTTA
	ditana	CTTTAATATAAAAGACGAGAAGACCCTAGAAACTT
KF246	Pleurodonte	TGACTGTGCAAAGGTAGCATAATCAGTTGGCTTATAATTG	216
958	formosa	AAGTCTGGTATGAAGGAATAAATGGGTAGTTTCTGTCTTT
		AGGGGAACGACGAACTTACTCAGCAAGTGAAAATACTTGT
		ATATTAACAAAAGACGAGAAGACCCTAGAAATTT
KR705	Helix	TGACTGTGCAAAGGTAGCATAATCAGTTGACTCTTAATTG	217
018	christophi	GGGCCTGGGATGAATGAAATAATGGGGGGCAGCTTTCTCA
		GATATATTTCTATAAACTTGGTTAGTAGGTGCAAATACCT
		CTATGTAGATAAAAGACGAGAAGACCCTAGAAGCTT
KR705	Helix	TGACTGTGCAAAGGTAGCATAATCAGTTGGCTTTTAATTG	218
019	nordmanni	GAGTCTGGGATGAATGAAATAATGGGGGGCAACTTTCTCA
		AATATATTATTATGAATTTGGTTAGTAGGTGCAAATACCT
		ACATAAAAACAAAAGACGAGAAGACCCTAGAAGCTT
KF246	Pleurodonte	TGACTGTGCAAAGGTAGCATAATCAGTTGTCTTTTAATTG	219
965	nucleola	AAGTCTGGCATGAATGAATAAATGGGTAGGAACTGTCTCA
		AGAAAGAAACAAAAATTTACTTAGTAAGTGAAAATACTTA
		TGTTTTGACAAAAGACGAGAAGACCCTAGAAATTT
KF246	Pleurodonte	TGACTGTGCAAAGGTAGCATAATCAGTTGGCTTTTAATTG	220
967	parilis	AAGTCTAGTATGAAGGAACAAATGGGTGAAAGCTGTCTTT
		AGTAGAAAACAAGGAACTTACTTAGTAAGTGAAAATACTT
		ACAGTTAGATAATAGACGAGAAGACCCTAGAAATTT
KF246	Gonostomopsis	TGACTGTGCAAAGGTAGCATAATCAGTTGGCTTATAATTG	221
969	auridens	AAGTCTAGTATGAAAGAATAAAATGGGCGGGCGCTGTCTT
		CTTAAGGTATCTAGAACTTACTTAGTAAGTGAAAATACTT
		ACATATAAATAAAAGACGAGAAGACCCTTGAAGTTT
KF246	Caracolus	TGACTGTGCAAAGGTAGCATAATAATTTGGCTTTTAATTG	222
970	caracollus	GAGTCTGGAATGAATGGGTACATGGATATAGGCTGTCTTA
		TACTAATTACTTATAACTTTTTTAATTAAGTGAAAATACT
		TAAAGAAATATAATAGACGAGAAGACCCTAGAAATTT
KF246	Lacteolun	TGACTGTGCAAAGGTAGCATAATAAATTGGCTTATAATTG	223
999	aselenina	AAGTCGGGAATGAATGGATTAATGAATATAAACTGTCTTA
		TCTAAATTTTAATTAATTTTCTTAGTAAGTGAAAATTCTT
		ACAATGTGTTTTATTAGACGAGAAGACCCTTGAAATTT
KF247	Cernuella	TGACTGTGCTAAGGTAGCATAATCATTTGGCTTATAATTG	224
012	cisalpine	AAGTCTGGCATGAAAGAATTTATGGGTAACAACTGTCTCC
		TGTAATTATAGATGAACTTACTCAATAAGTGAAAATGCTT
		ATATAATCACAATAGACGAGAAGACCCTAGAAATTT
KF247	Cochlicella	TGACTGTGCAAAGGTAGCATAATCAATTGGCTTGTAATTT	225
015	acuta	AAGTCTGGTATGAATGTAGTTTTAGGCTGAAACTGTCTCT
		TTATATACATTGAAATTTACTTAGCCGGTGAAAATGCCGG
		CAGTTAAATAATAGACGAGAAGACCCTAGAAATTT
KF247	Disculella	TGACTGTGCAAAGGTAGCATAATCATTTGGCTTATAATTG	226
017	maderensis	AAGTCTAGTATGAATGAATTAATGGGTAAAAGCTGTCTCT
		TTATAATTAAGTAGAAATTACTTAGAGGGTGAAAATTCTC
		TCAATATCTTAATAGACGAGAAGACCCTAGAAATTT
KF247	Dialeuca	TGACTGTGCAAAGGTAGCATAATAAATTGGCTTATAATTG	227
020	nemoraloides	AAGTCTTGAATGAAAGGTAACACGAGTAAAATCTGTCTTT
		TAGAAATATTTTTAATTTACTTATTAAGTGAAAATTCTTA
		ATTTAAAAAATTAGACGAGAAGACCCTAGAAATTT
KF247	Monadenia	TGACTGTGCAAAGGTAGCATAATCAGTTGGCCTTTAATTG	228
021	fidelis	GGGTCTGGAATGAACGAAGATTTGGGTAATAGCTGTCTTT
		ATATGGTAAGCAAAACTTGCTTAGTAAGTGAAAATTCTTA
		CATGATAAGAAAGACGAGAAGACCCTAGAAATTT
NC_00	Cepaea	TGACTGTGCAAAGGTAGCATAATAATTTGGCTTATAATTG	229
1816	nemoralis	AAGTCTGGCTCGAAAGAATTAATGGGAAGCAGCTGTCTCC
		AGGGGTACTAGTACAAAATTAGTAAGTAAGTGAAAATACT
		TGCGGGAAGAAAATAGACGAGAAGACCCTAGAAGCTT
KF247	Sphincterochila	TGACTGTGCTAAGGTAGCATAATCAATTGACTCATAATTG	230
040	candidissima	GAGTCTAGCATGAATGAAAGAATGGGTAAACACTGTCTCT
		GTCTTACCGATTGAAATTACTAAGCAGGTGAAAATACCTG
		TATTCAAATAATAGACGAGAAGACCCTAGAAGACC
KF247	Microphysula	TAACTGTGCAAAGGTAGCATAATAATTTGGCTTATAATTG	231
041	ingersolli	AAGTCTAGAATGAAAGGAAGCATGGGCGAATTCTGTTTCT
		TAATTTTTTTTTTGAAATTAATAATAAGGTGAAAATTCCT
		TTTAAATTCTATTAGACGAGAAGACCCTACAGAGCT
KF247	Helicodonta	TGACTGTGCAAAGGTAGCATAATAATTTGGCTTATAATTG	232
043	obvoluta	AAGTCTGGTATGAATGAATATATGGGTACCAACTGTCTCC
		ACTATATAGCATGAATTTACTGATTGGGTGCAAATTCCCA
		TCGCAAGATAATAGACGAGAAGACCCTAGAAATTT
NC_03	Cernuella	TGACTGTGCTAAGGTAGCATAATCATTTGGCTTATAATTG	233
0723	virgata	AAGTCTGGCATGAAGGAATTTATGGGTAACAACTGTCTCC
		TATAACTGTAATGAACTTGCTAAATAAGTGAAAATACTTA
		TGTAACCATAATAGACGAGAAGACCCTAGAAATTT
AF110	Loligo	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATTATTA	234
075	forbesii	TTATTATTTGTAATTGGTGTAATAATATATAAATTTTAAT
		TGGGGTGATTAAGGAATAAAAATTAATTAATATGATTAAA
		TAACTTCCTTAGAAATTATATTGTTAAATAAAGTAACCTA
		TARTTATTATAAAAATTTATAATCAGTATTGCTTATAATA
		TAGTTACCATAGGGATAACAGCGTAAT
AB270	Nototodarus	GGGACGAGAAGACCCTAATGAGCTTATAATTTTATTGTTA	235
953	sloanii	TGGTTTAATATATTTAAATGATAATATATAAATTTTAATT
		GGGGTGATTAAGGAATAAATTATGATTAATAACTTCCTTA
		GGTTAAATATATATTGATTAAGTAACCAATAAATATATTG
		CTTATAATATAGTTACCATAGGGATAACAGCGTAAT
AB193	Sepia	GGGACGAGAAGACCCTATTGAGCTTTAAATTTGAAGTATT	236
802	lorigera	GTATTTATTAATATAATATTTAAAAATTTTAATTGGGGTG
		ATTAAGGAATAAAAATTATAATATATTAAAAATTTAACTT
		CCTTAAATAATATATTGTTAAATAAAGTAACCAATAATAT
		TGCTTATATAAAGTTACCATAGGGATAACAGCGTAAT
AB193	Sepia	GGGACGAGAAGACCCTATTGAGCTTTAAATTTGGAATATT	237
801	pardex	ATATTTGTTAGTATAGTATTTAAAAAATTTTAATTGGGGT
		GATTAAGGAATAAAATTATAAGTATATTAAAATTTAACTT
		CCTTAAATAATATATTATTAAATAAAGTAACCAATAATAT
		TGCTTATATAAAGTTACCATAGGGATAACAGCGTAAT
AB192	Sepia	GGGACGAGAAGACCCTATTGAGCTTTAAATTTGGGAATAT	238
323	kobiensis	TATATTTATTAAGTATAATGTTTGAAAAATTTTAATTGGG
		GTGATTAAGGAATAAAATAAAATATATTAAAAATTTAACT
		TCCTTAGATAATATATTGTTAAATAAAGTAACCAATAATA
		TTGCTTATATAAAGTTACCATAGGGATAACAGCGTAAT
AB191	Rossia	GGACGAGAAAGACCCTATTGAGCTTGTAATTTTATTTTAT	239
138	pacifica	TGTTTATTAAGGATAGTAAAGTATAAATTTTAATTGGGGT
		GATTAAGGAATAAGATAATATAAGATAACTTCCTTAAAGG
		TTAGTATAGGTGTATGAAGTAACCAATAAATTATATTGCT
		TATATTATAGTTACCATAGGGATAACAGCGTAAT
AB191	Berryteuthis	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATTGCTA	240
136	magister	CTAAATTATTATTAGTGTAGTAGTATATAAATTTTAATTG
		GGGTGATTAAGGAATAATTTAGTTTAGTAACTTCCTTAAA
		TTTACATATTGGTGGATAAAAGTAACCCATAAAGTATTGC
		TTATAATATAGTACCATAGGGATAACAGCCGAAT
AJ252	Eledone	GGAACGAGAAGACCCTATTGAGCTTAATATTAAAATATAA	241
763	massyae	ATTTTGTTAGTAATAAATTAATAAAGTTTATTAATTTTAA
		ATTTTGATTGGGGTGATCGAGGAATATAAATAATTAAATT
		TAACTTCCTAATATTATATATTTATAAATAAAGAAACCAA
		ATATTTTGCTTAGAAGGAAGTTACCATAGGGATTACAGCG
		TGAT
AF369	Sepia	GGGACGAGAAGACCCTATTGAGCTTAAATTTAATTACATA	242
957	robsoni	ATTAAATTATGTTTTGATAAATTTTAATTGGGGTGATTAA
		GGAATAAAAATATTATATAGTAACTTCCTTAATAGTTAAT
		ACTGTTGGGTTAATTAACCAATAATATTGCTTATAATAAA
		GTTACCATAGGGATAACAGCGTAAT
AF110	Loligo	GGGACGAGAAGACCCTACTGAGCTTGTAATTTTATTATTA	243
081	reynaudii	CTGCTATTTGTAATTGGGGCAGTAATATATAAATTTTAAT
		TGGGGTGATTAAGGAATAAAATAAATATATCTTAGTAACT
		TCCTTATAAAGTATATTGTTAGATGAAGTAACCAATTAAA
		GTTACATGATATTGTAATAAATATTGCTTATAATATAGTT
		ACCATAGGGATCACAGCGTAAT
AF110	Doryteuthis	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATTATTG	244
079	(Amerigo)	TCAGTATTGTTAATTTTTATTGGCACTATATAAATTTTAA
	pealeii	TTGGGGTGATTAAGGAATAAGGTTTATATATTTCAGTAAC
		TTCCTTAGTAGTAGATAAATTGTTAGATAAAGTAACCAAT
		ATTATTAGATTTATTGCTTATACTATAGTTACCATAGGGA
		TAACAGCGTAAT
AF110	Doryteuthis	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATTATTA	245
076	(Amerigo)	CCAATATTATTAATTGTTAGTGGTAATATATAAATTTTAA
	gahi	TTGGGGTGATTAAGGACATAAAAAGTTTATTATTTAGTAA
		CTTCCTTAGTAAATATAAATTGTTAAATAAAGTAACCAAT
		ATAAATAAATATTATTGCTTATATTATAGTTACCATAGGG
		ATAACAGCGTAAT
AY293	Sepiola	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATTATTA	246
671	rondeletii	TTATTATATGTAATAATAAATGAATTTTAATTGGGGTGAT
		TAAGGAATAAATTAGTATTAGTTAGTAACTTCCTTAAATA
		GATAAATAGATGTATAAATTAACCAATAATTATATTGCTT
		TTATTAAAGTTACCATAGGGATAACAGCGTAAT
AY293	Sepiola	GGGACGAGAAGACCCTATTGAGCTTGTAATTTTATTAGTA	247
670	robusta	TTATTAATATAATATTTAATAAATTTTAATTGGGGTGATT
		AAGGAATAAATTAATATTATTAGTAACTTCCTTAAGTAAT
		AGGATAGGTGTATAAATTAACCAATAATTGTATTGCTTTT
		ATCAAAGTTACCATAGGGATAACAGCGTAAT
AY293	Sepiola	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATTAGTA	248
669	intermedia	TTATTAATATAATATTTAATAAATTTTAATTGGGGTGATT
		AAGGAATAAATTAATATTATTAGTAACTTCCTTAAGTAAT
		AGGATAGGTGTATAAATTAACCAATAATTGTATTGCTTTT
		ATCAAAGTTACCATAGGGATAACAGCGTAAT
AY293	Adinaefiola	GGGACGAGAAGACCCTATTGAGCTTTTAATTTTGATATAT	249
668	ligulata	TATATTTATATAATGTTGAATAAATTTTAATTGGGGTGAT
		TAAGGAATAAATATAATTAATTAGTATCTTCCTTAAAATA
		ATAGTATAGATATATAAATTAACCAATAATTATATTGCTT
		ATATTAGAGTTACCATAGGGATAACAGCGTAAT
AM088	Sepia	GGGACGAGAAGACCCTATTGAGCTTAAATTTAATTTTATT	250
007	smithi	AATTATGATATTAGTAAATAATAAATTTTAATTGGGGTGA
		TTAAGGAATAAATATAATAATAAGTAATAACTTCCTTAAA
		TTATTAAACTGTTAGGTGAAGTAACCAATAATATTGCTTA
		TATTAAAGTTACCATAGGGATAACAGCGTAAT
AM088	Sepia	GGGNCGAGAAGACCCTATTGAGCTTAAATTAATNGTATAT	251
005	elliptica	TAAATTAAGATTAATATATTAATAATTTTAATTGGGGTGA
		TTAAGGAATAAAAAATATTGTAAAATGATAACTTCCTTAA
		ATTTAATACTGTTAGGTAGAGTAACCAATATTTATTGCTT
		ATATTAAAGTTACCATAGGGATAACAGCGTAAT
AJ252	Eledone	AGGGACAAAAGACCCTATTGAGCTTTTATTATTTTTTAAA	252
765	palari	TTATTATTAATAAGAAATTTATGCAAATAATTTGATTGGG
		GTGATCAAGGAATAAAGAAATAACTTCCTTAAATATTAAG
		GTTTAATAGGAAAATAAACCAAATTTTTGCTTTTATGATG
		AGTTACCATAGGGATAACAGGGTAAT
AJ252	Eledone	GGGACGAGAAGACCCTATTGAGCTTAATGTTAAATTATAA	253
764	moschata	ATAATTTAATGATCTTATTATGTTTTACATTATTTATAAA
		ATTTAAATTTTGATTGGGGTGATCAAGGAATAAAAGTAGT
		GTAGTGTTTATAACTTCCTTATAGGATTTATGAGTTATTA
		ATGGTATAATAAACCAAATATTTTGCTTATAAGTAAGTTA
		CCATAGGGATAACAGCGTAAT
EU735	Sepiola	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATTAGTA	254
193	affinis	TTATTAATATAATATTTAATAAATTTTAATTGGGGTGATT
		AAGGAATAAATTAATATTATTAGTAACTTCCTTAAGTAAT
		AGGATAGGTGTATAAATTAACCAATAATTGTATTGCTTTT
		ATCAAAGTTACCATAGGGATAACAGCGTAAT
EU735	Rossia	GGGACGAGAAGACCCTACTGAGCTTGTAATTTTATTTTAT	255
192	palpebrosa	TATTTTTAGGTAGTAGGGTATAAATTTTAATTGGGGTGAT
		TAAGGAATAAAGTGTATTAGGGTAACTTCCTTAAGTGATA
		GTATATGTGTATTAAGTAACCAATAAATTATATTGCTTAT
		ATTATAGTTACCATAGGGATAACAGCGTAAT
AY681	Gonatus	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATCATTA	256
045	madokai	TTAGGTTTATTATTAATATAGTGATGTATAAATTTTAATT
		GGGGTGATTAAGGAATAAATTTAATTTAGTAACTTCCTTA
		AGTTTTATATTGTTGAATAAAGTAACCAATAAATTATTGC
		TTATAATATAGTTACCATAGGGATAACAGCGTAAT
AY681	Gonatus	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATCATTA	257
038	kamtschaticus	TTAGATTTATTATTAATATAGTGATGTATAAATTTTAATT
		GGGGTGATTAAGGAATAAATTTAATTTAGTAACTTCCTTA
		AGTTCTATATTGTTGAATAAAGTAACCAATAAATTATTGC
		TTATAATATAGTTACCATAGGGATAACAGCGTAAT
AY616	Eledone	GGGACGAGAAGACCCTATTGAGCTTGATATTAAAATATAA	258
973	cirrhosa	ATTTTTTTTAAAGTTAATATAATTATGTTATGGGTTTAAA
		TTTTGATTGGGGTGATCAAGGAATAAAAAAGATTAATGTA
		TATATATATTAACTTCCTTATATATAAATATTTATAGATA
		AATAAACCGAGAGTTTTGCTTAAAAGTAAGTTACCATAGG
		GATAACAGCGTAAT
AY377	Sepia	GGGAAGAGAAGACCCTATTGAGCTTTAATTTTAATAGGTT	259
630S	elegans	ATAATAAATATTATAGTAAAATAGAAATTTTAATTGGGGT
		GATTAAGGAATAAAAAAGTAACTTCCTTAAAAATAAAATT
		GTTAGGTTAAGTAACCAATTGTATTGCTTATATAAAGTTA
		CCATAGGGATAACAGCGTAAT
AY293	Rossia	GGGACGAGAAGACCCTAGTGAGCTTATAATTTTATTTTGT	260
676	bipillata	TGTTAGTAAATAGTAGAGATGAAATTTTAATTGGGGTGAT
		TAAGGAATAAAATATGTTTATATAACTTCCTTAGATTTGG
		TATAGGTATATAAAGTAACCAATAAATATATTGCTTATAT
		TATAGTTACCATAGGGATAACAGCGTAAT
AY293	Sepiola	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATTATTA	261
672	atlantica	TTATATGTAATAATAAATGAATTTTAATTGGGGTGATTAA
		GGAATAATTAGTATTAGTTAGTAACTTCCTTAAATAGATA
		AATAGATGTATAAATTAACCAATAATTATATTGCTTTTAT
		TAAAGTTACCATAGGGATAACAGCGTAAT
KF266	Lolliguncula	GGGACGAGAAGACCCTATTGAGCTTGTAATTTTATTGTTA	262
732	(Lolliguncula)	TTATTATATTAATTGTTAATGGTAATATATAAATTTTAAT
	panamensis	TGGGGTGATTAAGGAATAAAATTTTATATTAGTAACTTCC
		TTAATAAGATGATTGTTAGATAAAGTAACCAATATTATTA
		AATATTATTGCTTATATTGTAGTTACCATAGGGATAACAG
		CGTAAT
KC792	Octopus	GGGACGAAAAGACCCTATTGAGCTTATATTATTTTGTAAA	263
312	maya	TTATATGATTGTTGTTTATTGGAATTAATTTTGATTGGGG
		TGATCAAGGAATAAATTATTATTAAAATTAACTTCCTTAA
		TTAATTATTTTATGGAGAAATAAACCAAATTTTTTGCTTA
		GATGATAAGTTACCATAGGGATAACAGCGTAAT
HQ733	Illex	GGGACGAGAAGACCCTACTGAGCTTATAATTTTATTATCA	264
953	illecebrosus	CATATATTTATGTATAATGTGCTATATAAATTTTAATTGG
		GGTGATTAAGGAATAATATAGCTATTTTATAACTTCCTTA
		GATATTATATTGTTGAATTAAGTAACCGATTAATTAATAG
		AATTGTATTATGTATTGCTTATAATATAGTTACCATAGGG
		ATAACAGCGTAAT
GQ412	Nototodarus	GGGACGAGAAGACCCTAATGAGCTTATAATTTTATTGTTG	265
305	gouldi	TGGTTTAATATATTTAAATGATAATATATAAATTTTAATT
		GGGGTGATTAAGGAATAAATTATGATTAATAACTTCCTTA
		GGCTGAATATATATTGATTAAGTAACCAATAAATATATTG
		CTTATAATATAGTTACCATAGGGATAACAGCGTAAT
EU735	Gonatopsis	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATCATTA	266
264	octopedatus	TTAGATTTATTATTAGTGTAGTGTGTATAAATTTTAATTG
		GGGTGATTAAGGAATAATTTAATTTATTAACTTCCTTAAG
		TTACATATTGTTGAATAAAGTAACCAATAAATTATTGCTT
		ATAATATAGTTACCATAGGGATAACAGCGTAAT
EU735	Illex	GGGACGAGAAGACCCTAATGAGCTTATAATTTTATTATTA	267
218	coindetii	TTATTTAATATATTTAAATAATAATATATAAATTTTAATT
		GGGGTGATTAAGGAATAAAGAATTATATAATAACTTCCTT
		AGATTAAATATATATAGATAAAGTAACCAATAATATATTG
		CTTATAATATAGTTACCATAGGGATAACAGCGTAA
EU735	Berryteuthis	GGGACGAGAAGACCCTAATGAGCTTATAATTTTATTGTTG	268
238	anonychus	TTAAATTTATTATTAGTAAAGCAGCATATAAATTTTAATT
		GGGGTGATTAAGGAATAAATTAATTTAGTAACTTCCTTAT
		ATTTAAATATTGTTAAATAAAGTAACCAATAAATTATTGA
		TTATAATATAGTTACCATAGGGATAACAGCGTAAT
EU735	Gonatus	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATCATTA	269
210	fabricii	TTAGATTTATTATTAGTGTAATGTTGTATAAATTTTAATT
		GGGGTGATTAAGGAATAATATTAATTTAGTAACTTCCTTA
		AGTTATATATTGTTGAATAAAGTAACCAATTAAATTATTG
		CTTATAATATAGTTACCATAGGGATAACAGCGTAAT
KR259	Lusepiola	GGGACGAGAAGACCCTATTGAGCTTGTAATTTTATTTTAT	270
947	birostrata	TGTTTATTAGGATAGTAAAGTATAAATTTTAATTGGGGTG
		ATTAAGGAATAAGATAATATAAGATAACTTCCTTAAAGGT
		TAGTATAGGTGTATGAAGTAACCAATAAATTATATTGCTT
		ATATTATAGTTACCATAGGGATAACAGCGTAAT
KJ605	Octopus	GGACGAAAANGACCCTATTGAGCTTTTGTTATTATATAAA	271
235	tetricus	TATACATATAAATGTATAATTTATTTATAAATAACTTTGG
		TTGGGGTGATCAAGGAATAAAAATAATTTAAAATGTTGTG
		TTAACTTCCTTAATTTTGAGTTTAATTGAAGAATAAACCA
		AGTTTTTTGCTTAGAAGATAAGTTACCATAGGGATAACAG
		CGTAAT
KF854	Uroteuthis	GGGACGAGAAGACCCTATTGAGCTTGTAATTCTGTTATTA	272
042	(Photololigo)	TTATGTTTATTAAATATCATTAATAGTATATGAATTTTAA
	sibogae	TTGGGGTGATTAAGGAATAAATAATTTATAATATATAACT
		TCCTTAGAGTATTATATTGTTGAATGAATTAACCGATATA
		ATTAACACAGGTTGTGTTGTGTATTGCTTATAATATAGTT
		ACCATAGGGATAACAGCGTAAT
KF854	Doryteuthis	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATTGTTG	273
023	(Doryteuthis)	TCAGTGAGTATTAATTTCACTGTTGGTATATAAATTTTAA
	pleii	TTGGGGTGATTAAGGAATAAAGTTTATATATTAATAACTT
		CCTTAGAGTTAATATTATTGTTAGATAAAGTAACCAATAA
		ATTGTTAAGATTATTGCTTATACTATAGTTACCATAGGGA
		TAACAGCGTAAT
KF854	Doryteuthis	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATTGTCA	274
021	sanpaulensis	TCAAGATTGTTATGTAACTGGTGACATATAAATTTTAATT
		GGGGTGATTGAGGAATAAAGTTTTATTGTGGAAGTAACTT
		CCTTAGTAATGCATATTGTTAAATGAAGTAACCAATAATT
		AATTACTATTGCTTATACTATAGTTACCATAGGGATAACA
		GCGTAAT
KF854	Doryteuthis	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATTACCG	275
020	(Amerigo)	TTAGTAGTGATTAAAATTTTACTAAGGGTATATAAATTTT
	surinamensis	AATTGGGGTGATTAAGGAATAAAAGCTTATGTATTAATAA
		CTTCCTTAGAAATAAATAAAAAATTGTTAGATAAAGTAAC
		CAATAAATTGTTAAAATTATTGCTTATACTATAGTTACCA
		TAGGGATAACAGCGTAAT
KF373	Octopus	GGGACGAAAAGACCCTATTGAGCTTGTATTATTTAACAAA	276
761	hubbsorum	TTATATGATTGTTATTTGTTTGAATTAATTTTGATTGGGG
		TGATCAAGGAATAAATTTTATTTAGTTTAACTTCCTTAAT
		TAATTGTTTTATAGAAGAATAAACCAAAGTTTTTGCTTAG
		AAGATAAGTTACCATAGGGATAACAGCGTAAT
MG01	Macrotritopus	GGGACGAAAAGACCCTATTGAGCTTGTGTTAATAAATAAA	277
0490	defilippi	TACTANNNTATATATATATANNNNNNTATATATATATATA
		TTANNTTTGTGAGTTTTAAATTTGGTTGGGGTGATCAAGG
		AATAAAATTAAAATAAAANNNNNNNNNNNNGTAACTTCCT
		TAAAAATNNNAATATTAATGGGTTAATAAACCAAGTTTTT
		TGCTTATAAGGTAAGTTACCATAGGGATAACAGCGTAAT
MF040	Octopus	GGGACGAAAAGACCCTATTGAGCTTATATTATTTTATAAA	278
832	insularis	TTATATGATTGTTGTTTATTTAGAATAATTTTGATTGGGG
		TGATCAAGGAATAAGATTGTTTAAATTAACTTCCTTAATT
		AATTTGTTTTGTGGAAAAATAAACCAAATTTTTTGCTTAG
		AAGATAAGTTACCATAGGGATAACAGCGTAAT
LC121	Loliolus	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATTACTA	279
083	(Nipponol	TTATGTTTGTTAAATTCATCATTGTAGTATATAAATTTTA
	oligo)	ATTGGGGTGATTAAGGAATAAGTTTTTTATAATGTAACTT
	sumatrensis	CCTTAGATTAATATATTGTTAGATTAAGTAACCGATGTGA
		TTAACATAATATATGTTATGTATTGCTTATAATATAGTTA
		CCATAGGGATAACAGCGTAAT
LC121	Sepia	GGGACGAGAAGACCCTATTGAGCTTAAATTTAAAAATATT	280
068	stellifera	AAATAATTTAATATTTTGATAAATTTTAATTGGGGTGATT
		AAGGAATAAAATAATAGGTATTATTAAATATAGTAACTTC
		CTTAAATTTAATACTGTTAGGTTAAGTAACCAATGTAATA
		TTGCTTATAATAAAGTTACCATAGGGATAACAGCGTAAT
LC121	Sepia	GGGACGAGAAGACCCTATTGAGCTTGAATTTAATTATATT	281
066	recurvirostra	ATTTTAATAATATTTTGATAAATTTTAATTGGGGTGATTA
		AGGAATAAAAATTTATATATATTATGTAGTAACTTCCTTA
		ATTATTATACTGTTAGGTTAAGTAACCAATAATATTGCTT
		ATAATAAAGTTACCATAGGGATAACAGCGTAAT
LC121	Sepia	GGGACGAGAAGACCCTATTGAGCTTTAATTTAATTATATA	282
063	madokai	ATATAGTTTGTATTTTGTTAAATTTTAATTGGGGTGATTA
		AGGAATAAGATTAGTATTAATTAGTAACTTCCTTAAATTT
		TATTGTTACTGTTGGGTGAAGTAACCAATATTATTGCTTA
		TAATAAAGTTACCATAGGGATAACAGCGTAAT
LC121	Sepia	GGGACGAGAAGACCCTATTGAGCTTAAATTTAAAAATATT	283
061	kobiensis	AAATAATTTAATATTTTGATAAATTTTAATTGGGGTGATT
		AAGGAATAAAATAATAGGTATTATTAAATATAGTAACTTC
		CTTAAATTTAATACTGTTAGGTTAAGTAACCAATGTAATA
		TTGCTTATAATAAAGTTACCATAGGGATAACAGCGTAAT
NC_02	Amphioctopus	GGGACGAAAAGACCCTATTGAGCTTTATATTATACTTTAA	284
9702	aegina	AATTATTTATTGTTTTTATTTAAATATAATTTTGGTTGGG
		GTGATCAAGGAATAAATAATTAATTTTAACTTCCTTAATT
		TGTTTATAGTTATATGAATAAACCAAATTTTTTGCTTAGA
		AGATAAGTTACCATAGGGATAACAGCGTAAT
NC_00	Sepia	GGGACGAGAAGACCCTAATGAGCTTAAATTTTATTTTATT	285
7895	officinalis	ATATATATTTTATAGTAAAAAAGAAGTTTTAGTTGGGGTG
		ATTAAGGAATAAAAAAACGAATGATGTAACTTCCTTAAAT
		ATAAAATTGTTAAATTAAGTAACCAATTTATATTGCTTAT
		AATAGAGTTACCATAGGGATAACAGCGTAAT
NC_00	Sepioteuthis	GGGACGAGAAGACCCTATTGAGCTTGTAGTTTTTATATAA	286
7894	lessoniana	CTATATTATTAATTTATATAGTTATTTATAAACTTTAGTT
		GGGGTGACTAAGGAATAATATAAGTAACTTCCTTAGAGTA
		AAGATTGTTAAATAAAGTAACCAAATTTAATATTGCTTAT
		AATATAGTTACCATAGGGATAACAGCGTAAT
NC_00	Todarodes	GGGACGAGAAGACCCTAATGAGCTTATAATTTTATTATTG	287
6354	pacificus	TGATTTAATATATTTAAATGATAATATATAAATTTTAATT
		GGGGTGATTAAGGAATAATTTATAAGTAGTAACTTCCTTA
		GATTAAATATATATTGATTAAGTAACCAATAAATATATTG
		CTTATAATATAGTTACCATAGGGATAACAGCGTAAT
NC_00	Octopus	GGGACGAAAAGACCCTATTGAGCTTTTGTTATTATATAGA	288
6353	vulgaris	TATATATATGTATATATATATGATTTATTTGTAAATAACT
		TTGGTTGGGGTGATCAAGGAATAAAAATTAATTTAAAGTG
		TTTTATTAACTTCCTTAATTTTAAATTTAGTTGAAGAATA
		AACCAAGTTTTTTGCTTAGAAGATAAGTTACCATAGGGAT
		AACAGCGTAAT
NC_00	Heterololigo	GGACGAGAAGACCCTATATTTAATTCTTATTATTTTTTTA	289
2507	bleekeri	GATTTATTTTAATTGGGGTGATTAAGGAATAAAGTATATT
		AGTTAGTAACTTCCTTAGTAGGATATATTGTTGAATAAAG
		TAACCGATATTACGTATAGAACCGTATATTGCTTATAATA
		TAGTTACCATAGGGATAACAGCGTAAT
MT712	Octopus	GGGACGAAAAGACCCTATTGAGCTTTTGTTATTATATAGA	290
046	sinensis	TATATATATATATATATATATGATTTATTTGTAAATAACT
		TTGGTTGGGGTGATCAAGGAATAAAAATTAATTTAAAGTG
		TTTTATTAACTTCCTTAATTTTAAATTTAGTTGAAGAATA
		AACCAAGTTTTTTGCTTAGAAGATAAGTTACCATAGGGAT
		AACAGCGTAAT
MT025	Octopus	GGGACGAAAAGACCCTATTGAGCTTTTGTTGTTATATAGA	291
991	americanus	TATATATAAATATATAATTTATTTGTAAATAACTTTGGTT
		GGGGTGATCAAGGAATAAAATTAATTTAAAGTGTTATATT
		AACTTCCTTAATTTTGAATTTAGTTGAAGAATAAACCAAG
		TTTTTTGCTTAGAAGATAAGTTACCATAGGGATAACAGCG
		TAAT
MG54	Narrowteuthis	GGGACGAGAAGACCCTATTGAGCTTATAATTTTACTGTTG	292
8981	nesisi	TTTATAAGTATTTATTTGATGATGGATAAATTTTAATTGG
		GGTGATTGAGGAATAAAATATATTAAATAGTAACTTCCTT
		AGGTTAAATGTTGTTGGATAAAGTAACCAATATATTATTG
		CTTATAATATAGTTACCATAGGGATAACAGCGTAAT
NC_02	Ommastrephes	GGGACGAGAAGACCCTAATGAGCTTATAATTTTATTATCA	293
0348	bartramii	TTATTTAAAACATTTAGGTGGTGGTATATAAATTTTAATT
		GGGGTGATTAAGGAATAAATTGTGTATAGTAACTTCCTTA
		AATTAGGTATTTGTAGATAAAGTAACCAATGTAATATTGC
		TTATAGTATAGTTACCATAGGGATAACAGCGTAAT
NC_01	Sepiella	GGGACGAGAAGACCCTAATGAGCTTAAATTTTATATTATT	294
7749	japonica	GTTATATATGTTTTATAATTAATTGGAAATTTTAATTGGG
		GTGATTAAGGAATAATATTAAGATAAATAACTTCCTTATA
		TAATAATAAATTGTTGAATTAAGTAACCAATATTATTGCT
		TTTAATAAAGTTACCATAGGGATAACAGCGTAAT
NC_01	Uroteuthis	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATTAATA	295
7746	(Photololigo)	TTTTATAAATATTTATGTTGTGTTATATAAATTTTAATTG
	edulis	GGGTGATTAAGGAATAATTTTATTGATTTTATAGTGTAAC
		TTCCTTAGAAAACATATTGTTAAATTAAGTAACCGATTTA
		TATATAGGTTTATATTGGGTATTGCTTATAATATAGTTAC
		CATAGGGATAACAGCGTAAT
NC_01	Doryteuthis	GGGACGAGAAGACCCTATTGAGCTTGTAATTTTATTATTA	296
2840	(Amerigo)	TTAGTATTATTTATTCTTATTGGTAGTATATAAATTTTAA
	opalescens	TTGGGGTGATTAAGGAATAAGGTTTGTAGTTTTAGTAACT
		TCCTTATTAATAATGATTGTTAAATAAAGTAACCAATATT
		ATTGCTTATACTATAGTTACCATAGGGATAACAGCGTAAT
NC_01	Architeuthis	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATTGTTG	297
1581	dux	TTTTGTAATTATTTATGTGATGATAGATAAATTTTAATTG
		GGGTGATTGAGGAATAAGGTAATAGTAGTAACTTCCTTAG
		AAATAAATGTTGTTGGGTGAAGTAACCAATATATTATTGC
		TTATAATATAGTTACCATAGGGATAACAGCGTAAT
NC_00	Dosidicus	GGGACGAGAAGACCCTAATGAGCTTGTAATTTTATTATTG	298
9734	gigas	TTATTTAAAATATTTAGATAGCAATATATAAATTTTAATT
		GGGGTGATTAAGGAATAAGTTGAATATAGTAACTTCCTTA
		AATTGAATATTTATAGATAAAGTAACCAATATAATATTGC
		TTATAATATAGTTACCATAGGGATAACAGCGTAAT
NC_00	Sepiae	GGGACGAGAAGACCCTATTGAGCTTAAATTTAAAAGTACT	299
9690	sculenta	ATAGTAATTTTTTTAATATTTTGATAAATTTTAATTGGGG
		TGATTAAGGAATAAAAGGATAATAAATTGGTAACTTCCTT
		AAACTTAATACTATTAGGTTAAGTAACCAATAATATTGCT
		TATAATAAAGTTACCATAGGGATAACAGCGTAAT
NC_00	Amphioctopus	GGGACGAAAAGACCCTATTGAGCTTTATATTATTGTTTAA	300
7896	fangsiao	ATTTATTATGCTGTTTTTATTTAAAATAATTTTGGTTGGG
		GTGATCAAGGAATAAAATATTAAATTTATTAACTTCCTTA
		TTATATTTAAATATCTATATTAATAAACCAAACTTTTTGC
		TTAGAAGATAAGTTACCATAGGGATAACAGCGTAAT
X7958	Loligo	GGGACGAGAAGACCCTACTGAGCTTATAATTTTATTATTA	301
5	vulgaris	TTGTTATTTTTATTGGAGCAGTAATATATAAATTTTAATT
		GGGGTGATTAAGGAATAAATAAATATATTTAGTAACTTCC
		TTATAAAGAATATTGTTAGATGAAGTAACCAATAAAGTTA
		CATGATTATTGTAATAAATATTGCTTATAATATAGTTACC
		ATAGGGATAACAGSGTAAT
NC_04	Octopus	GGGACGAAAAGACCCTATTGAGCTTGTATTATTTAACAAA	302
4093	mimus	TTATATGATTGTTATTTGTTTGAATTAATTTTGATTGGGG
		TGATCAAGGAATAAATTTTATTTAGTTTAACTTCCTTAGT
		TAATTGTTTTATAGAAGAATAAACCAAAGTTTTTGCTTAG
		AAGATAAGTTACCATAGGGATAACAGCGTAAT
NC_02	Octopus	GGGACGAGAAGACCCTATTGAGCTTTATATTAGTTATAAT	303
9747	conispadiceus	AAATAATAAAAATATAATTTATTTGGTTAAATTAGTATTA
		TATTAATAATATTTATTATGTTTAATTTTGATTGGGGTGA
		TCAAGGAATAAAGTGGATATTATTTAACTTCCTTAAAATT
		TAATTTTTTTAGAATAATTAACCAATGATATTGCTTATAT
		GATAAGTTACCATAGGGATAACAGCGTAAT
NC_02	Octopus	GGGACGAAAAGACCCTATTGAGCTTATATTATTTATTAAA	304
9723	bimaculoides	TTATATAGTTATAGTTTATTATAAATTAATTTTGATTGGG
		GTGATCAAGGAATAAATTTTATTATTATATAACTTCCTTA
		GTTAAAATAGTTTTTGGAAAAATAAACCAAGTTTTTTGCT
		TAGAAGATAAGTTACCATAGGGATAACAGCGTAAT
NC_02	Uroteuthis	GGGACGAGAAGACCCTACTGAGCTTATAATTTTATTATCA	305
8189	(Photololigo)	CATATATTTATGTATAATGTGCTATATAAATTTTAATTGG
	chinensis	GGTGATTAAGGAATAATATAGCTATTTTATAACTTCCTTA
		GATATTATATTGTTGAATTAAGTAACCGATTAATTAATAG
		AATTGTATTATGTATTGCTTATAATATAGTTACCATAGGG
		ATAACAGCGTAAT
NC_02	Uroteuthis	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATTACTA	306
7729	(Photololigo)	TTATGGTTATTGAATTTATCATTGTAGTATATAAATTTTA
	duvaucelii	ATTGGGGTGATTAAGGAATAAATTTTTATAATGTAACTTC
		CTTAGATTATTATATTGTTAAATTAAGTAACCGATGTGAT
		TAGCACAATGTGTGTTATGTATTGCTTATAATATAGTTAC
		CATAGGGATAACAGCGTAAT
NC_02	Illex	GGGACGAGAAGACCCTAATGAGCTTATAATTTTATTATTA	307
6908	argentinus	TTATTTAATATATTTAAATAATAATATATAAATTTTAATT
		GGGGTGATTAAGGAATAAAAGAATTATATAATAACTTCCT
		TAGATTAAATATATATATATATAAAGTAACCAATAATATA
		TTGCTTATAATATAGTTACCATAGGGATAACAGCGTAAT
NC_02	Sepia	GGGACGAGAAGACCCTATTGAGCTTGAATTTAATTGTATT	308
2959	aculeata	ATTTTATAATATTTTAATAAATTTTAATTGGGGTGATTAA
		GGAATAAAAAATTTTATATATTGTATAGTAACTTCCTTAA
		TATGATTGTACTGTTAGGTTAAGTAACCAATAATATTGCT
		TATAATAGAGTTACCATAGGGATAACAGCGTAAT
NC_02	Sepiella	GGGACGAGAAGACCCTAATGAGCTTAAATTTTATATTATT	309
2693	inermis	ATTAATATATAATTATAATAATTGGAAATTTTAATTGGGG
		TGATTAAGGAATAATATTAAAATAAATAACTTCCTTATAT
		ATTAATAAATTGTTGAATTAAGTAACCAATAATATTGCTT
		TTAATAAAGTTACCATAGGGATAACAGCGTAAT
NC_02	Sepia	GGGACGAGAAGACCCTATTGAGCTTAAATTTAATTACATA	310
2468	lycidas	ATTTAATTATGTTTTGATAAATTTTAATTGGGGTGATTAA
		GGAATAAAATTATTATATAGTAACTTCCTTAATAGTTAAT
		ACTGTTGGGTTAAATAACCAATAATATTGCATATAATAAA
		GTTACCATAGGGATAACAGCGTAAT
NC_02	Sepia	GGGACGAGAAGACCCTAATGAGCTTTTAATTTAATAGTAT	311
2467	latimanus	TTAATGTAAAATTGAATGTAAAGTTGTATAAATTTTAATT
		GGGGTGATTAAGGAATAAAATTATTTTAAATAATAACTTC
		CTTAAATGTAGTATTGTTAGATTAATTAACCAATATTATT
		GCTTATAATAGAGTTACCATAGGGATAACAGCGTAAT
NC_02	Sepia	GGGACGAGAAGACCCTAATGAGCTTAAATTTAATAGTGCT	312
2466	apama	AAAATTATAAGTTAATAGGATTATGAAAATTTTAATTGGG
		GTGATTAAGGGATAATTTATTAAATAATAACTTCCTTAAA
		TATAATATTGTTGAATTAATTAACCAATTTATATTGCTTA
		TAGTATAGTTACCATAGGGATAACAGCGTAAT
NC_02	Sepia	GGGACGAGAAGACCCTATTGAGCTTAAATTTAGTAATATT	313
1146	pharaonis	ATGTTTAGTAGTATTTAATAAATTTTAATTGGGGTGATTA
		AGGAATAAAATTATATATTGAATAATAACTTCCTTAATTG
		TGTAATACTGTTAGGTTAAGTAACCAATAATATTGCTTAT
		AATAAAGTTACCATAGGGATAACAGCGTAAT
NC_02	Loliolus	GGGACGAGAAGACCCTATTGAGCTTATAATTTTTGTTAGT	314
8034	(Nipponol	GCTTTTATTAATATTTATAATTGTATTATATAAATTTTAA
	oligo)	TTGGGGTGATTAAGGAATAACTGATTGGAAAGTAACTTCC
	beka	TTAGATGTGTGTATTGTTAGATTAAGTAACCGATTAATTA
		ATATATTGTATTAGATATTGCTTATAATATAGTTACCATA
		GGGATAACAGCGTAAT
AF110	Alloteuthis	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATTGTTA	315
072	subulata	TTATATTTATATTAATATAGTAATTTATAAATTTTAATTG
		GGGTGATTAAGGAATAAAGATAAATAATTAAAGTAACTTC
		CTTAAAATAAAGTATTGTTAAATAAAGTAACCGATAAATT
		AGTATTAAAATAATACTATATATTGCTTATATTATAGTTA
		CCATAGGGATAACAGCGTAAT
AB270	Nototodarus	GGGACGAGAAGACCCTAATGAGCTTATAATTTTATTATTA	316
952	hawaiiensis	TGATTTGATATATTTGAATGATAATATATAAATTTTAATT
		GGGGTGATTAAGGAATAAGGTTTTATATTAATAACTTCCT
		TAAATTAAATATATATGTATTAAGTAACCAATAAATATAT
		TGCTTATAATATAGTTACCATAGGGATAACAGCGTAAT
X7957	Sepia	GGGAAGAGAAGACCCTATTGAGCTTTAATTTAAAAGACTA	317
8	orbignyana	TTAAAAAATTATAGTTAATAAAAATTTTAATTGGGGTGAT
		TAAGGAATAAAAAAGGCAACTTCCTTAAAATTAAAAGTTG
		TTAGGTTAAGTAACCAATAATATTGCTTTTATAAAGTTAC
		CATAGGGATAACAGCGTAAT
X7958	Sepia	RGGACGAGAAGACCCTATGAGCTTAAATTTATTAATTTTT	318
6	papuensis	ATTAGAATTTATAAAAATTTATAAAATTTTAATTGGGGTG
		ATTAAGGAATAAGTGTTTAAATAGTAACTTCCTTAGATAT
		AATTTTGTTAGATTAATTAACCAATTAATATTGCTTATAA
		AATAGTTACCGTAGGGATAACAGCGTAAT
X7957	Rossia	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATTTTGT	319
7	macrosoma	TGTTTATTGAAATAGTAGGGTATAAATTTTAATTGGGGTG
		ATTAAGGAATAAGGTGATAGATAACTTCCTTAGGTAATAA
		TGTAGATGTATGAAGTAACCAATAATGCATTGCTTATATT
		ATAGTTACCATAGGGATAACAGCGTAAT
AF110	Lolliguncula	GGGACGAGAAGACCCTATTGAGCTTGTAATTTTATTAGTT	320
084	(Lolliguncula)	ACCAGTTAATATTATATAAATATGGTAACTTATAAATTTT
	brevis	AATTGGGGTGATTAAGGAATAAATGTTTAGTTAGTAACTT
		CCTTAGATTAATAAATAAATTGTTAAATGAAGTAACCAAT
		AAAATTTAATGTATAAATATTGCTTATAATATAGTTACCA
		TAGGGATAACAGCGTAAT
EU735	Lolliguncula	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATTAATT	321
243	(Loliolopsis)	ATCAATATTTATATATGTATTGATTTGGTAATTTATAAAT
	diomedeae	TTTAATTGGGGTGATTAAGGAATAAATTTTATTTATAGTA
		ACTTCCTTAGATAAGTTAATAAATGATTGTTAAATGAAGT
		AACCAATAAAAATTAGGTGATATTGCTTATAATATAGTTA
		CCATAGGGATAACAGCGTAAT
AF110	Afrololigo	GGGACGAGAAGACCCTATTGAGCTTATAATTTTGTTATTA	322
085	mercatoris	TTATATTTATATTAATATAGTAATTTATAAATTTTAATTG
		GGGTGATTAAGGAATAAAGATAAATATGTAAGTAACTTCC
		TTAATAAATTATATTGTTAAATGAAGTAACCAATATAATA
		TTAGTAATAATATATATTGCTTATAGTATAGTTACCATAG
		GGATAACAGCGTAAT
NC_01	Octopus	GGGACGAGAAGACCCTATTGAGCTTTATTTATTAATATTT	323
5896	minor	AAATATAAATATATAATTTATATTATGAAAATTATGTTGT
		ATATATATATATATTTAATTGGATTTAATTTTGATTGGGG
		TGATCAAGGAATAAAGATAAAGTAACTTCCTTAAAATTAA
		TGATTGTTTTTATAGAGTAATAAACCAAGTTTTTTGCTTA
		TAAGATAAGTTACCATAGGGGTAACAGCGTAAT
NC_02	Octopus	GGGACGAAAAGACCCTATTGAGCTTATATTATTTATTAAA	324
8547	bimaculatus	TTATAGAGTTATAATTTATTATAAATTAATTTTGGTTGGG
		GTGATCAAGGAATAAGTTTAATGATTATATAACTTCCTTA
		ACTGAACTATTTTTTTGGAAAAATAAACCAAGTTTTTTTG
		CTTAGAAGATAAGTTACCATAGGGATAACAGCGTAAT
NC_03	Octopus	GGGACGAGAAGACCCTATTGAGCTTTATTTATTAATATTT	325
8213	variabilis	AAATATAAATATATAATTTATATTATGAAAATTATGTTGT
		ATATATATATATATTTAATTGGATTTAATTTTGATTGGGG
		TGATCAAGGAATAAAGATAAAGTAACTTCCTTAAAATTAA
		TGATTGTTTTTATAGAGTAATAAACCAAGTTTTTTGCTTA
		TAAGATAAGTTACCATAGGGGTAACAGCGTAAT
AB191	Octopus	GGGACGAAAAGACCCTATTGAGCTTTATATATTAATATAT	326
115	cyanea	AAATTTAATTGGTGATTTATAAAAAGTTTATTAATATTAA
		TTTTGGTTGGGGTGATCAAGGAATAAAAGGTAAATTGTAT
		TTTAGATAACTTCCTTAGAAAAATAATTGATGGAGTAATA
		AACCAAGATTTTTGCTTATAAGATAAGTTACCATAGGGAT
		AACAGCGTAAT
AB191	Callistoctopus	GGGACGAGAAGACCCTATTGAGCTTGGTTATTAATAATTA	327
114	ornatus	AATATAAAATAAATTGTTTTTATGGATTTATTTAGTATGA
		TAGTATATAAATATATTTAGTTAAATTAATTTTGATTGGG
		GTGATCAAGGAATAAAATATTTAAAAAGTAACTTCCTTAA
		TTTTTATTAGAGAATTTTAATTGAGTAATAAACCAAAGTT
		TTTGCTTATAAGATAAGTTACCATAGGGGTAACAGCGTAA
		T
MG99	Enteroctopus	GGGACGAGAAGACCCTATTGAGCTTTATATTAGTTATAAT	328
9649	megalocyathus	AAATAATAAAATTTTATTTATTTGGTTAAATAATATTATG
		TTTATTATGTTTAATTTTGATTGGGGTGATCAAGGAATAA
		GATAAGTATAATTTAACTTCCTTAAAAATAATTTTTTTAT
		AGAATAATTAACCAATAATATTGCTTATATGATAAGTTAC
		CATAGGGATAACAGCGTAAT
AB191	Enteroctopus	GGGACGAGAAGACCCTATTGAGCTTTATATTAGTTATAAT	329
107	dofleini	AAATAATAAAAATATAATTTATTTGGTTAAATTAGTATTA
		TATTAATAATATTTATTATGTTTAATTTTGATTGGGGTGA
		TCAAGGAATAAAGTGGATATTATTTAACTTCCTTAAAATT
		TAATTTTTTTAGAATAATTAACCAATGATATTGCTTATAT
		GATAAGTTACCATAGGGATAACAGCGTAAT
GQ226	Sasakiopus	GGGACGAGAAGACCCTATTGAGCTTTATATTAGTTATAAT	330
031	salebrosus	AAATGGTAAAATATAATTTATTACGTTTATTGTGTTTAAT
		TTTGATTGGGGTGATCAAGGAATAAAATAAATATAATTTA
		ACTTCCTTAGAAAAATTATTTTTTAGAATAATTAACCAAT
		GATATTGCTTATATGATAAGTTACCATAGGGATAACAGCG
		TAAT
AY545	Octopus	GGGACGAGAAGACCCTATTGAGCTTAATATTAATATTTAA	331
105	berrima	ATATAAAAATTTTTAGTTTTTATTTTATATGAATGTTTAT
		TGAATGTAATTTTGATTGGGGTGATCAAGGAATAAAAGTA
		AATATTAACTTCCTTAAGTTGTTGATTTTATTGAGTAATA
		AACCAAATTTTTTGCTTATAAGATAAGTTACCATAGGGGT
		AACAGCGTAAT
NC_03	Amphioctopus	GGGACGAAAAGACCCTATTGAGCTTTATATTATATTTTAA	332
6351	marginatus	ATATAATTTGTTTTGTATTTATTTAAATATAATTTTGGTT
		GGGGTGATCAAGGAATAAAGTATATTTGTATTAACTTCCT
		TAGATATTATATATAAATAAATTAATAAACCAAATTTATT
		GCTTAGAAGATAAGTTACCATAGGGATAACAGCGTAAT
AJ311	Octopus	GGGACGAGAAGACCCTATTGAGCTTGTATATTAATATTTA	333
110	maorum	AATGTTAGATGGTTTATTTATTATATTGTTAATAAATGAA
		TAGATTTTTGTTGATTAATAAGTATGGATGTTTAATTTAA
		TTAATTTTGATTGGGGTGATCAAGGAATAAAAGAAAAGAA
		ATTTAATAACTTCCTTAAGTTTTGAAATGTTTATTGAATA
		ATAACCAAATTTTTTTGCTTATAAGATAAGTTACCATAGG
		GGTAACAGCGTAAT
MK450	Octopus	GGGACGAGAAGACCCTATTGAGCTTAGAATTATTATTTAA	334
541	fitchi	TTAATGTGATAATTTATTTATTAGTTTATTGATATTTATT
		TATGTAATTTTGATTGGGGTGATCAAGGAATAAAAGTTTA
		TAATAACTTCCTTAGGATTTTGTAATTTATAGATTAATAA
		ACCATAATTTTGCTTAGAAGATAAGTTACCATAGGGATAA
		CAGCGTAAT
NC_04	Amphioctopus	GGGACGAAAAGACCCTATTGAGCTTTATATTATATTTTAA	335
9899	neglectus	ATTTGATTTTATATTTATTTACATATAATTTTGGTTGGGG
		TGATCAAGGAATAAAATGTATTTATATTAACTTCCTTAAA
		TGGTGATATATATAAATGAATAAACCAAATTTTTTGCTTA
		GAAGATAAGTTACCATAGGGATAACAGCGTAAT
NC_02	Loliolus	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATTAATA	336
6724	(Nipponol	TTTTATTGTTATTTATAATTATATTATATAAATTTTAATT
	oligo) uyii	GGGGTGATTGAGGAATAATTAATTAAATAGTAACTTCCTT
		AGGTATTTATATTGTTGAATTAAGTAACCGATTAATTAAT
		ATGTTTTATACAAGTATTGCTTATAATATAGTTACCATAG
		GGATAACAGCGTAAT
NC_03	Loliolus	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATTGATA	337
0208	(Nipponol	TTTTTATTATTATTTATAATTATATTATATAAATTTTAAT
	oligo)	TGGGGTGATTAAGGAATAATTAGTTAAAAAATAACTTCCT
	japonica	TAAGTGTAATATATTGTTGAATTAAGTAACCGATTAATTA
		ATATTTTTATATTAGTATTGCTTATAATATAGTTACCATA
		GGGATAACAGCGTAAT
NC_01	Bathyteuthis	GGGACGAGAAGACCCTATTGAGCTTGTAATTTTATTATTA	338
6423	abyssicola	TTATATTAGTAGTATTGATATAGTAATATATAATTTTAGT
		TGGGGTGATTAAGGAATAAATTGTATAGTAACTTCCTTAG
		GTTATATATTTTATTATGAAGTAACCAATATAGTATTGCT
		TATATTATAGTTACCATAGGGATAACAGCGTAAT
NC_01	Semirossia	GGGACGAGAAGACCCTACTGAGCTTGTAATTTTATTTTAT	339
6425	patagonica	TATTTATTGTAATAGTAATGTATAAATTTTAATTGGGGTG
		ATTAAGGAATAAATATAATATTAAAGTAACTTCCTTAAAT
		AAAAATATAGATATATAAAGTAACTAATAATTATATTACT
		TATATTATAGTTACCATAGGGATAACAGCGTAAT
NC_02	Cistopus	GGGACGAAAAGACCCTATTGAGCTTATATTAATATTTATA	340
3257	taiwanicus	GTATTATAAGTATATATATATATATATATATATATATATA
		TATATATATATATATAGAGTATATGTTATAAATATATTAA
		TTTTGGTTGGGGTGATCAAGGAATAAAGTATAGAAAAATT
		TTTATATAACTTCCTTAATTTTTAATTTTATTGATTAATA
		AACCAATATTTTTGCTTATATGATAAGTTACCATAGGGAT
		AACAGCGTAAT
NC_01	Sthenoteuthis	GGGACGAGAAGACCCTAATGAGCTTATAATTTTATTATTG	341
0636	oualaniensis	TTGTGCAAAACATTTGGTCAATAATATATAAATTTTAATT
		GGGGTGATTGAGGAATAAATTAGATAAAGTAACTTCCTTA
		AATTAAATATTTATAGATAAAGTAACCAATATAATATTGC
		TTATAATATAGTTACCATAGGGATAACAGCGTAAT
NC_00	Wataseni	GGGACGAGAAGACCCTAATGAGCTTTAATTTTATTAATTA	342
7893	ascintillans	TTTATTTTAACAAATTTGTAGTTATATAAATTTTAATTGG
		GGTGATTAAGGAGTAAATTTAAGTAACCTCCTTATTTTTA
		TTACTGATAAGTAAAATAACCAATTTTGTTGCTTATACTA
		GAGTTACCATAGGGATAACAGCGTAAT
EU735	Gonatopsis	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATCATTA	343
265	okutanii	TTAGACTTATTATTAGTGTAGTAGTGTATAAATTTTAATT
		GGGGTGATTAAGGAATAAATTTAATTTAGTAACTTCCTTA
		AGTTTTATATTGTTAAATAAAGTAACCAATAAGTTATTGC
		TTATAATATAGTTACCATAGGGATAACAGCGTAAT
AY293	Uroteuthis	GGGACGAGAAGACCCTATTGAGCTTATAATTTTATTAGTG	344
656	(Aestuariolus)	CTTAGTTTAAATACAAATGCATATATATAAATTTTAATTG
	noctiluca	GGGTGATTAAGGAATAAAAATAATAAATTATAAGTAACTT
		CCTTAGAAGTATTAGTATTGATAAATGAAGTAACCAATAA
		ATAAACATATATTGCTTATAACATAGTTACCATAGGGATA
		ACAGCGTAAT
AB675	Sepioteuthis	GGGACGAGAAGACCCTAATGAGCTTATAATTGTATTATTA	345
085	australis	TTATAATTAGATGTTTATAATAGTTTATAAATTTTAATTG
		GGGTGATTAAGGAATATATGTACACAACTTCCTTAAATAT
		AATATTGTTGGATGGAGTAACCAATAGATTATTGCTTATA
		ATAAAGTTACCATAGGGATAACAGCGTAAT
AF110	Sepioteut	GGGACGAGAAGACCCTATTGAGCTTGAATTTTATAATAAT	346
090	hissepioidea	TATGTATATTAATAGCAGTAATTATATATAAATTTTAATT
		GGGGTGATTGAGGAATAATTTTTATGAAGTAACTTCCTTA
		AAATAAATATTGTTAAATTAAGTACCCGATTAATAGTATA
		TTGCTTGTAATATAGTTACCATAGGGATAACAGCGTAAT
AJ311	Amphioctopus	GCGGTAWTATAACTGTACTAAGGTAGCATAATAATTTGCC	347
108	kagoshimensis	TTATAAATTGGGGCTAGAATGAATGGTTTGACGAAAATTA
		TACTGTCTCTATTTTATTCATTAGAAGTTAATTTTTATAG
		TGAGAAAGCTTGGATGATTTAAAGGGACGAAAAGACCCTA
		TTGAGCTTTATATTATATTTTAAATATAATTTTTTGTGTT
		TATATAAATATAATTTTGGTTGGGGTGATCAAGGAATAAG
		ATATATCTATGTTAACTTCCTTAAATATATATATAAATTA
		ATAAACCAAATTTATTGCTTRGAAGATAAGTTACCATAGG
		GATAACAGCGTAAT
LC121	Amphioctopus	GGGACGAAAAGACCCTATTGAGCTTTATATTATATTTTAA	348
044	membranaceus	ATTTGATTTTTTATTTATTTAATTATATATAATTTTGGTT
		GGGGTGATCAAGGAATAAAATGTATTTTATGTTAACTTCC
		TTAAATGGTAATATTTATAAATGAATAAACCAAATTTTTT
		GCTTAGAAGATAAGTTACCATAGGGATAACAGCGTAAT
LC121	Amphioctopus	GGGACGAAAAGACCCTATTGAGCTTTATATTATTATTTAA	349
036	exannulatus	ATTTATTATATTAATTTTTATTTTAAATAATTTTGGTTGG
		GGTGATCAAGGAATAAAATATTAAATTTATTAACTTCCTT
		ATATATTTAAATATATATATATTAATAAACCAAATTTTTT
		GCTTAAAAGATAAGTTACCATAGGGATAACAGCGTAAT
LC121	Amphioctopus	GGGACGAAAAGACCCTATTGAGCTTTATATTATTATTTAA	350
047	rex	ATTTATTATATTAATTTTTATTTTAAATAATTTTGGTTGG
		GGTGATCAAGGAATAAAATATTAAATTTATTAACTTCCTT
		ATATATTTAAATATATATATATATTAATAAACCAAATTTT
		TTGCTTAAAAGATAAGTTACCATAGGGATAACAGCGTAAT
AB192	Sepia	GGGACGAGAAGACCCTATTGAGCTTTAAATTTGGAAATAT	351
324	peterseni	TATATTTATTAAATATAATGNTTGAAAAATTTTAATTGGG
		GTGATTAAGGAATAAAAGAAATAAATATATTAAAATTTAA
		CTTCCTTAAATAATATATTGTTAAATAAAGTAACCAATAA
		TATTGCTTATATAAAGTTACCATAGGGATAACAGCGTAAT
AB058	Varuna	TTGAAGTGACGATAAGACCCTATAAAACTTTATATAAACA	352
620	litterata	TATTATTTGATTGAATTTAAAATAAAAATTTAATAATAAA
		ATTTATTTTGTTGGGGCGATAAAAGTAAAATTTTTATTAA
		CTGCTTTAAGTTTTGAATACATTTATGTTTGATTAAAATT
		TTTAGATGATCCTAAATAAAGATTAAAAGTTTAAGTTACT
		TTAGGGATAACAGCGTTAT
AF107	Hemisquil	GGGGGACGATAAGACCCTATAAAGCTTTATGATAAGGCCT	353
616	laensigera	TTTTGTAAAGAATTTCTATTGTGAAATTACTAGAAGGTTT
		ATATCATTTTACTGGGGCGGTAAAAGTATATAATTGAATA
		ACTGCTTTTATTATTGAAAACAATTATAATTGAAATACAA
		AATGATCCATTATTAATGATTATAAAAACAAGTTACTTTA
		GGGATAACAGCGTAAT
AF107	Gonodact	GGAGGACGATAAGACCCTATAAAGCTTTATAATATATTTT	354
615	ylussmithii	CTGTTATATAAATTGTTAATTGTTAACTTATTAAAGAAAT
		AATATTATTTTACTGGGGCGGTAAAAGTATATAATTTAGG
		GTAACTGCTTTTGTTATTATAAACAATGATAATTGAATGA
		TATATTGATCCATTATTAGTGAGCATAAGGACAAGTTACT
		TTAGGGATAACAGCGTAAT
AF107	Pullosquilla	AAGGGACGATAAGACCCTATAAAGCTTTATAACATAATCT	355
611	thomassini	TTTTGCGCAAAATATCTAATGTAAAACATTAAAAGAATCA
		TGTTATTTTACTGGGGGGGTAAAAGTATATTAAAAATAAC
		TGCTTTTGTTTTATAAAACAATAATAATTGGTACACAGAT
		TGATCCATTAATAATGATCATAAAAACAAGTTACTTTAGG
		GATAACAGCGTAAT
AF107	Chorisquilla	GAGGGACGATAAGACCCTATAAAGCTTTATGATATTTTCT	356
609	trigibbosa	TTTTATATTAGTTAGTAAAATGTAGTTTATTAAAAGAAAA
		ATATTATTTTACTGGGGCGGTAGAAGTATATTTTTGATTA
		ACTGCTTCTGTTTTGTAAGTCAATTATAATTGAAATATGA
		ATTGATCCATTATTAATGATCATAAGAACAAGTTACTTTA
		GGGATAACAGCGTAAT
MT335	Chionoecetes	GGGGGACGATAAGACCCTATAAAGCTTTACATATAAGTAG	357
860	opilio	AGTTTACTTAATTAAAAAGTAAAAGTTTAATCTAATTAAT
		GTGTTTTGTTGGGGCGACATAAATATAATTTATATTAACT
		GTTTATAAATTAATACAATAATAAATGATTTTAATGTAGT
		TGATCCTTATTAAAGATTAAAAGACTAAGTTACTTTAGGG
		ATAACAGCGTTAT
AB220	Chionoecetes	AGGGGACGATAAGACCCTATAAAGCTTTACATATATTATA	358
027	opilio	AGTTTGATTAAATTAAAATATAAAAATCTAAATTATATAT
		TATGTTTTGTTGGGGCGACAAAAATATAAGTAATAATAAC
		TGTTTAAGAAAAAAACAATAATAAATGAATAATTAAATGA
		TCCTTGGTTAAAGATTAAAGATCAAGTTACTTTAGGGATA
		ACAGCGTTAT
AB188	Telmessus	AGGGGACGATAAGACCCTATAAAGCTTTACATATATTATA	359
686	acutidens	AATTTGATTAAATTAAAATCTAAAAATCTAAATTATATAT
		TATGTTTTGTTGGGGCGACAAAAATATAAGTAATAATAAC
		TGTTTAATAAAAAAACAATAATAAATGAATAATTAAATGA
		TCCTTATTTAAAGATTAAAGATCAAGTTACTTTAGGGATA
		ACAGCGTTAT
AB236	Lithodes	CAAAAAGACGATAAGACCCTATAAATCTTTACAATAAATA	360
927	aequispinus	TATTTTATATTTTAGCTTATAAGTGTATAAGAAATAAAAA
		TATAGGTTTGTTGCGCTGGGGCGGCGTAGATATATAAATA
		AACTGTCTATAATTTAAATACAATAATCATTGCTTAATAC
		AAATTGATCCTTAAATAGATTAAAAGATTAAGATACTTTA
		GGGATAACAGCGTTAT
AB248	Panulirus	GGGGGACGATAAGACCCTATAAATCTTGATAATAAGACTA	361
090	echinatus	ATAACTTCATATATTAGTTGTGAGTCTGAGGTTAATACTT
		TTATTATTTTGTTGGGGCGACAGAAGTATAATTTTAGTAA
		CTGCTTTGGCTTAATAGTTAATTATTTTTATAATGTTTAT
		TGGTTAAGATCCTTCTGTGAGGATGCCAGATTAAGTTACT
		TTAGGGATAACAGCGTAAT
AF192	Jasus	GGGGGACGATAAGACCCTATAAATCTTTATGNTAGTTAGT	362
870	paulensis	AATAACATTAAAAATTAATTTNACATTTTTTTGTTAGTAG
		TTTTAGCATTTTGCTGGGGCGGCAGGGGTATAATTTAATA
		ACTGCTCTAGAGTTGTAGTTAATTATGTTTAAATTATTGG
		TAGTTGATCCTTTAGTGGAGATTATAGATTAAGTTACTTT
		AGGGATAACAGCGCAAT
AF192	Jasus	GGGGGACGATAAGACCCTATAAATCTTTATGTTAGTTAGT	363
869	caveorum	AATAACATTAAAAATTAATTTTACATTTTTTTGTTAGTAG
		TTTTAGCATTTTGCTGGGGCGGCAGGGGTATAATTTAATA
		ACTGCTCTAGAGTTGTAGTTAATTATGTTTAAATTATTGG
		TAGCTGATCCTTTAGTGGAGATTATAGATTAAGTTACTTT
		AGGGATAACAGCGCAAT
AF175	Parastacus	AAGGGACGATAAGACCCTATAAAGCTTCACATTAAGTATT	364
246	pilimanus	TAAAATTTTAAGTGAGTAATAAAATTTTATTAGATGTAAT
		ATGTTTTGTTGGGGCGACAGGAATATAAGAGATTTAACTG
		TTCTAGATAAGTTAATCAAAAATACTTGATCTTTAAGGAC
		TTTTTATTAAAGTATTAGACTAAGTTACTTTAGGGATAAC
		AGCGTTAT
MG55	Parastacus	AAGGGACGATAAGACCCTATAAAGCTTCACATTAAGTCTT	365
1495	brasiliensis	TAAAATTTTAATTAAGTAATAAAATTTTATTAAATGCAAT
		ATGTTTTGTTGGGGCGACAGGAGTATAAGAAATTTAACTG
		CTCTAAATAATAAGTCAAAGATACTTGATCTTTGGGGACT
		TTTTATTAAAGTGTTAGATTAAGTTACTTTAGGGATAACA
		GCGTAAT
AF175	Parastacus	AAGGGACGATAAGACCCTATAAAGCTTTACATTAAGCTTT	366
243	defossus	TAAAATTTTAATTAAGTAATAAAATTTTATTAAATGCAAT
		ATGTTTTGTTGGGGCGACAGGAATATAAGAAATTTAACTG
		TTCTAAATAATAAATCAAAGATACTTGATCTTTGGGGACT
		TTTTGTTAAAGTGTTAGATTAAGTTACTTTAGGGATAACA
		GCGTTAT
AF175	Parastacus	AAGGGACGATAAGACCCTATAAAGCTTTACATTCAACTTT	367
233	nicoleti	TTAGGATTATTAATTAAGTAATAAAAGTTTGTTAGGTATA
		ATATGTTTTGTTGGGGCGACAGGAATAAAAGAGATTTAAC
		TGTTCTAAATAATAAATCAGAAATATTTGATTTTTAATGA
		TTTTTTATTAAAATATTAGATTAAGTTACTTTAGGGATAA
		CAGCGTTAT
AF133	Gonodactylus	GAGGGACGATAAGACCCTATAAAGCTTTATAGTAGTTCCT	368
678	graphurus	TTTTATTCAAATTATAAAATGTTAACCTTTTGAAAGATTA
		CTACTATTTTACTGGGGCGGTAGAAGTATATTTATGATTA
		ACTGCTTTTGTTTTGACAAACAATAATAATTGAATATTTA
		TGTGATCCATTATTAATGATCAAAAGTACAAGTTACTTTA
		GGGATAACAGCGTAAT
AF192	Jasus	GGGGGACGATAAGACCCTATAAATCTTTATACTAGTTAGT	369
873	lalandii	AATAACATTAAAGATTAATTTTACATTTTTTTGTTAGTAG
		TTTTAGTATTTTGCTGGGGCGGCAGGGGTATAATTTAATA
		ACTGCTCTAGAGTTGTAGTTAATTATGTTTAAATTGTTGG
		TAGTTGATCCTTTAGTGGAGATCATAGATTAAGTTACTTT
		AGGGATAACAGCGCAAT
AF192	Jasus	GGGGGACGATAAGACCCTATAAATCTTTATGTTAGTTAGT	370
872	paulensis	AATAACATTAAAAATTAATTTTACATTTTTTTGTTAGTAG
		TTTTAGCATTTTGCTGGGGCGGCAGGGGTATAATTTAATA
		ACTGCTCTAGAGTTGTAGTTAATTATGTTTAAATTATTGG
		TAGTTGATCCTTTAGTGGAGATTATAGATTAAGTTACTTT
		AGGGATAACAGCGCAAT
AF425	Lopholithodes	AAGACGATGAGACCCTATAAATCTTTACAATAAATATATT	371
333	mandtii	TTATATTTTAGCTTATAAGTATATAAAAAATAAAATATAG
		ACTTGTTGCGCTGGGGCGGCGTAGATATATAAATAAACTG
		TCTATAGTTTAAATACAATAATCATTGCTTAATACAAATT
		GATCCTTAAATAGATTAAAAGATTAAGATACTTTAGGGAT
		AACAGCGTTAT
AF425	Lithodes	CAAAAAGACGATAAGACCCTATAAATCTTTACAATAAATA	372
331	santolla	TATTTTATATTTTAACTTATAAGTGTATAAGAAATAAAAA
		TATAGATTTGTTTCGCTGGGGCGGCGTAGATATATAAATA
		AACTGTCTATAATTTAAATACAGTAATTATTGCTTAATAT
		AAATTGATCCTTAAATAGATTAAAAGATTAAGATACTTTA
		GGGATAACAGCGTTAT
AF425	Lithodes	CAAAAAGACGATAAGACCCTATAAATCTTTACAATAAATA	373
330	maja	TATTTTATATTTTAGCTTATAAGTGTATAAAAAATAAAAA
		TATAGATTTGTTGCGCTGGGGCGGCGTAGATATATAAATA
		AACTGTCTATAATTTAAATACAATAATCATTGTTTAATAT
		AGATTGATCCTTAAATAGATTAAAAGATTAAGATACTTTA
		GGGATAACAGCGTTAT
AF337	Jasus	GGGGGACGATAAGACCCTATAAATCTTTATACTAGTTAGT	374
979	edwardsii	AATAACATTAAAGATTAATTTTACATTTTTTTGTTAGTAG
		TTTTAGTATTTTGCTGGGGCGGCAGGGGTATAATTTAATA
		ACTGCTCTAGAGTTGTAGTTAATTATGTTTAAATTGTTGG
		TAGTTGATCCTTTAGTGGAGATTATAGATTAAGTTACTTT
		AGGGATAACAGCGCAAT
AF337	Panulirus	GGGGGACGATAAGACCCTATAAATCTTTATATTTCGGTCA	375
976	regius	GTAAATTTTAGAGATTAGTTATACATTTAGTGTTATTGAA
		CTCAAATATTTTGTTGGGGCGACAGGAGTATAATAAGTCA
		CTGCTTTGTTTATAAGTTAATTATGTTTATTTTGAAAACC
		AATATTGATCCTTTCTAGAGAAATCAGACTAAGTTACTTT
		AGGGATAACAGCGTAAT
AF337	Panulirus	GGGGGACGATAAGACCCTATAAATCTTGATAACCAAAGTA	376
973	pascuensis	ATAATTTTATGTAGTAGTCATAAGCTTAAATTTAATACTT
		TTGTTATTTTGTTGGGGCTACAGGGGGTATAATTAATAAC
		TGCGGTTGGGAAAAATAATTAATTATTTTTATTGTGTTGT
		GTTTAAGATCCTTCTTTGAAGATACAGGTCAAGTTACTTT
		AGGGATAACAGCGTAAT
AF337	Panulirus	GGGGGACGATAAGACCCTATAAATCTTTATATTTTAGTCG	377
969	laevicauda	ATAAGTTTTAGGAATTAGTTACACACTTAGTATCATTGGA
		CTAAAATATTTTGTTGGGGCGACAGAAGTATAATAAGTAA
		CTGCTTTGTTTATAAATTAATTATTTTTATTATGAGAGCT
		GATATAGATCCTCTTTAGAGAAATCAGATTAAGTTACTTT
		AGGGATAACAGCGTAAT
AF337	Panulirus	GGGGGACGATAAGACCCTATAAATCTTTATGTTTTGGTTA	378
964	gracilis	ATAAATTTTAGAAATTAGTTATATATTTAGTATTATTAGG
		CTAAAATATTTTGTTGGGGCGACAGGAGTATAATAAGTAA
		CTGCTTCGGTTTGTAAATTAATTATTTTTATATTGGAAAT
		GTAATATTGATCCTTTTTAGAGAAATCAGACTAAGTTACT
		TTAGGGATAACAGCGTAAT
AF337	Panulirus	GGGGGACGATAAGACCCTATAAATCTTGATAGAGAAGATT	379
963	guttatus	ATAACCTTAGAAAGTAGTTACAGTTCTCGGGTTAAGACAT
		TTTCTATTTTGTTGGGGCGACAGGAGTATAATTAGTAACT
		GCTTTGGGCTTAATATGTAATTATCGCTATTGTGGGTATT
		ATGAGAGATCCTTCTTTGAAGATGTCAGACTAAGTTACTT
		TAGGGATAACAGCGTAAT
AF337	Panulirus	GGGGGACGATAAGACCCTATAAATCTTTATGTTTTAACTA	380
960	inflatus	ATAAATTTTAGGGATTAGTTATATACCTAGTATTATTAGT
		TGAAATATTTTGTTGGGGCGACAGGAGTATAATAAGTAAC
		TGCTTTGTTTATAAAATTAATTGTTTTTATTGTGGAAATT
		GGTATGATCCTCTTTAGAGAAATCAGACTAAGTTACTTTA
		GGGATAACAGCGTAAT
AF339	Panulirus	GGGGGACGATAAGACCTATAAATCTTGATAACCAAAGTAA	381
156	femoristriga	TAATTTTTATGTAGTAGTCATAAGCTTTAAATTTAATACT
		TTTGTTATTTTGTTGGGGCGACAGGGGTATAATTAGTAAC
		TGGCTTTGAGTAAAGAATTAATTATTTTTATTGTGTTGTG
		TTTGAGATCCTTCTTTGAAGATATCAGATCAAGTTACTTT
		AGGGATAACAGGTAATC
AY227	Chionoecetes	GGGGGACGATAAGACCCTATAAAGCTTTACATATAAGTAG	382
446	bairdi	AGTTTACTTAATTAAAAAGTAAAAGTTTAATCTAATTAAT
		GTGTTTTGTTGGGGCGACATAAATATAATTTATATTAACT
		GTTTATAAATTAATACAATAATAAATGATTTTAATGTAGT
		TGATCCTTATTAAAGATTAAAAGACTAAGTTACTTTAGGG
		ATAACAGCGTTAT
AF425	Paralomis	AAAAGACGATAAGACCCTATAAATCTTTACAAGAAATATA	383
339	granulosa	TTTTATGTTTTAGCTTATAAGTAATATAAGAAATAAAAAT
		ATAAGTTTGTTGCGCTGGGGCGGCGTAGATATATAAATAA
		ACTGTCTATGATTTAAATACAGTAATTATTGCTTAATACA
		AATTGATCCTTAAATAGATTAAAAGATTAAGATACTTTAG
		GGATAACAGCGTTAT
AF502	Scyllarus	GGGGGACGATAAGACCCTATAAATCTTTATACTCGGCTTT	384
949	arctus	ATTGAGCAAAATACTAGAATAATTTTTGTTCGATAGGTTT
		GAGTATTTTGTTGGGGCGACAGGAGTATAAAATGTAACTG
		CTTTAAAATAATAGTTAATTGATGTTTAGTTAAGCGATCC
		TTTAATAAAGATGTTAGTTTAAGTTACTTTAGGGATAACA
		GCGTAAT
AF502	Palinurus	AGGGGACGATAAGACCCTATAAATCTTTATATTTGTCATA	385
955	elephas	ATGATATTAAGTATTATAATTGAAAATTTAGTTTTATTGG
		GATAGAATATTTTGTTGGGGCGACAGGAGTATAAAAAAGT
		AACTGCTTTGTAAGATGAGTTAATAATTTTTAATGTGTGA
		TATAGTTGATCCTTCAGTGAGGATTTCAGAATAAGTTACT
		TTAGGGATAACAGCGTAAT
AJ784	Episesarma	AAAAGACGATAAGACCCTATAAAACTTAATATAAGTTAAT	386
020	mederi	TGTTTAGTAGAATTTTTAATAATAAATATTTAATAATTAG
		TTTTTATTTTATTGGGGTGATAATGGTAAAATGATTATTA
		ACTGTTGATTATTTTATAACAAAAATTATTGAATAAATAT
		ATAATAAATGATCCTTGTTAAAGATTAAAAGTTTAAGTTA
		CTTTAGGGATAACAGCGTTAT
NC_03	Austropotamobius	GGGGGACGATAAGACCCTATAAAACTTTATATTTTGAAAT	387
3504	torrentium	AATAATTAATTTTGTGTGGGAGATTTATTTTTAAGTATTT
		TATTGGGGTGATAAGGATAAAATAATAAATAACTGTCTTT
		TTTTATTACAGTAATATTTGAGCAAATGAACCTAGTAAGG
		GAAAGAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
AM410	Cycloachelous	AGGGGACGATAAGACCCTATAAAGCTTTATAAATTCAGGA	388
525	granulatus	ATTTTAGATATTTTATATATAAATCTATTTTTTGATAATT
		TATTTGGTTGGGGCGACAAGGGTATAATTATAAATAACTG
		CCATTAATGTTTATACATATATTTTTGATTTAAATTTGAT
		ATAGTAGTTGATCCTTTTTAAGGATTTAAAGATCAAGTTA
		CTTTAGGGATAACAGCGTAAT
AY151	Eriocheir	AAGGGACGATAAGACCCTATAAAGCTTAATATAAAATTTT	389
824	recta	ATTTAGTCAAATTTTACGTTATAAAGACTTTGTAAGTATG
		AGTTTATTTTATTGGGGCGATAAGAGTAAAATGATTGTTA
		ACTGCTTAATATTAAATACACTTATGAGTGATTAAATTTT
		TAGATGATCCTAATTAAAGATTAGAAGTTTAAGTTACTTT
		AGGGATAACAGCGTTAT
AY351	Cervimunida	AAGGGACGATAAGACCTTATAAATCTTTATATTAATTTGT	390
244	johni	TTTTTGTCTTTTAATAATGTAATGTTGATAATAAAATAAA
		GTATATTGTGTTGGGGTGATGAGAATATAAAATTAACTGT
		TCTAAATTAAACACAAATTTATTTGTATAAAATAATAGAT
		CCTTATTAAAGATTAAAAGGTTAAGTTACTTTAGGGATAA
		CAGCGTTAT
DQ388	Achelous	GGGGGACGATAAGACCCTATAAAGCTTTATAAAAGTAGTA	391
058	floridanus	AGATCACATATTTGAATATAAAAGCGATTATATAATCTTT
		TATTTTGTTGGGGCGACAGTAGTATAATTGAAAGTAACTG
		CTATTATGAAAACACATTGATTTATGATTATTTATTAATG
		GATCCCTTTTAAGGATTATAAAATCAAGTTACTTTAGGGA
		TAACAGCGTTAT
DQ388	Portunus	GAGGGACGATAAGACCCTATAAAGCTTTATAAATTTAAAG	392
053	sayi	ATTTTACATATTTTATCTATAATGGTAATCTCTGGAGAAT
		TTATTGGGTTGGGGCAACAAAAGTATAATTATCAATAACT
		GCTATAAAATAATACAATTATCTTTGTGTGGGTAAATTAG
		TTGATCCCTGAAAAGGATTAAAAGATCAAGTTACTTTAGG
		GATAACAGCGTAAT
DQ388	Portunus	GAGGGACGATAAGACCCTATAAAGCTTTATAAACTAAAAG	393
054	anceps	AATTCACAAATTTAGACATAAAGGTAATTTTCTAACTTCT
		TATTTTGTTGGGGCGACAGTAGATAACTAAAGTAACTGCT
		ATTATAGGAGTACAATGATTTTTGATTAGCCAGTAACAGA
		TCCCTACTAAGGATTATAAAACCAAGTTACTTTAGGGATA
		ACAGCGTTAT
DQ377	Palinurus	GGGGGACGATAAGACCCTATAAATCTTTATATTTATTATG	394
978	gilchristi	ATAACATTAAATATTATAATTGAAAATTTAGTTTTACTGG
		AATAAAATATTTTGTTGGGGCGACAGGAGTATAAAAAATA
		ACTGCTTTGTAATATGGGTTAATAATTTTTAATATGTAGT
		ATAGTTGATCCTTCAGTGAGGATTTTAGAATAAGTTACTT
		TAGGGATAACAGCGTAAT
DQ377	Palinurus	GGGGGACGATAAGACCCTATAAATCTTTATATTTATTATG	395
977	mauritanicus	ATAACATTAAATATTATAATTGAAAATTTAATTTTACTGT
		AATAGGATATTTTGTTGGGGCGACAGGAGTATAAAAAATA
		ACTGCTTTGTAAGATGGGTTAATAATTTTTAATGTGTAGT
		ATATTTGATCCTTCAGTGAGGATTTTAGAATAAGTTACTT
		TAGGGATAACAGCGTAAT
DQ377	Palinurus	GGGGGACGATAAGACCCTATAAATCTTTATATTTATTATG	396
975	charlestoni	ATAACATTAAATATTATAATTGAAAATTTAGTTTTACTGG
		AATAAAATATTTTGTTGGGGCGACAGGAGTATAAAAAATA
		ACTGCTTTATAAGATAGGTTAATAATTTTTAATATGTAGT
		ATAGTTGATCCTTCAGTGAGGATTTTAGAATAAGTTACTT
		TAGGGATAACAGCGTAAT
AY947	Pseudosquilla	AGTGACGATAAGACCCTATGAAAGCTTTATGAGTGTGCTT	397
836	ciliata	CTTTTATATGTAAAATGAATTTAATATTAACATATTAAAG
		AAATCACATTATTTTACTGGGGCGGTAAAAGTATAAATGA
		TTAACTGCTTTTGTTATGCAAAACAATGATAATTGGTATG
		TAAATTGATCCATTAATAATGATTATAAAAACAAGTTACT
		TTAGGGATAACAGCGTAAT
AY351	Pleuroncodes	AAGGGGCGATAAGACCCTATAAATCTTTATATTAAATTGT	398
259	monodon	TTTTAGTTTATTAATAATGTAATTTAAATAATAAGGCAAA
		ATATATTGTGTTGGGGTGATGGGAATATAAAAAATTAACT
		GTTCTGAAATAAAAACAAATTTATTTGATTTAATAATAGA
		TCCTTTTTAAAGATTAAAAGTTTAAGTTACTTTAGGGATA
		ACAGCGCTAT
DQ388	Portunus	AGGGGACGATAAGACCCTATAAAGCTTTATAAATCTATAA	399
060	ventralis	ATTATTACATATTTAAAATATAAAGGTAATCTTTTAGATA
		TTTATTTGGTTGGGGCGACAGTGGTATAAATTAATTAACT
		GCTAATAAAAGTTACAATAATTTTTGATTCTTAAGTTATA
		GATCCTCTCTAGGGATTAAAAAATCAAGTTACTTTAGGGA
		TAACAGCGTTAT
DQ388	Achelous	GGGGGACGATAAGACCCTATAAAGCTTTATAAATTTATAG	400
061	spinicarpus	ACTTTATATATTTAAAATAAAAATAATCTCTAAAACATTT
		ATTTGGTTGGGGCGACAAAAGTATAATTTCAAATAACTGC
		TATTAAATTAACAATAATTTTTGTTTATGAATAATTGATC
		CTTCTATGAGGAGTAAAAGTTCAAGTTACTTTAGGGATAA
		CAGCGTCAT
DQ407	Callinectes	GAGGGACGATAAGACCCTATAAAGCTTTATAAATTTATTA	401
681	toxotes	ATTTCGTTTATTTTTTATTATAATAATGATGATAAGAAAA
		TTTATTTGGTTGGGGCAACCGAAGTATAATTTTAAATAAC
		TGCTATAATTTAATACAATGATTTTTGTTTTATATAATAA
		TTGATCCTCTAAGAGATTAAAGACCAAGTTACTTTAGGGA
		TAACAGCGTAAT
DQ407	Callinectes	GAGGGACGATAAGACCCTATAAAGCTTTATAAATTTATTA	402
680	danae	ATTTCTTCTATTTTTTTATAATGAGGATGTTAAGAAGATT
		TATTTGGTTGGGGCAACCGAAGTATAATTAAAGATAACTG
		CTAATAGTTTATACAATGATTTTTGTTTTAATAATAATTG
		ATCCTTAAAAAGATTAAAGACCAAGTTACTTTAGGGATAA
		CAGCGTAAT
DQ407	Callinectes	GAGGGACGATAAGACCCTATAAAGCTTTATAAATTTATTG	403
679	ornatus	ATTTCGTCTATTTTTCTTATAATAATGATATTGAGAAGAT
		TTATTTGGTTGGGGCAACCGAAGTATAATTAAAGATAACT
		GCTACTATTTTATACAATGATTTTTGTTTAAATGATAATT
		GATCCTTAAAAAGATTAAAGACCAAGTTACTTTAGGGATA
		ACAGCGTAAT
DQ407	Callinectes	GAGTGACGACAAGACCCTATAAAGCTTTATAAATTTATTT	404
678	marginatus	ATTTCGTCTATTTTCTTTTATAATGATGATGTTAAGAAGG
		TTTATTTGGTTGGGGCAACCAGAGTATAATTAAAGATAAC
		TGCTACAATTTAATACAATGATTTTTGTTTATGAAATAAT
		TGATCCTTGAAAAGATTAAAGATCAAGTTACTTTAGGGAT
		AACAGCGTAAT
DQ407	Callinectes	GAGGGACGATAAGACCCTATAAAGCTTTATAAATTTATTA	405
677	affinis	ATTTCGTTTATTTTCTATTATAATAATGATAATAAGAAGA
		TTTATTTGGTTGGGGCAACCGAAGTATAAGTTTAAATAAC
		TGCTATAATTTAATACAATGATTTTTGTTTTATAAAATAA
		TTGATCCTCGAAGAGATTAAAGACCAAGTTACTTTAGGGA
		TAACAGCGTAAT
DQ407	Callinectes	GAGGGACGATAAGACCCTATAAAGCTTTATAAATTTATTA	406
673	rathbunae	ATTTCGTTTATTTTTTACTATAATGATGATAATAAGAAGA
		TTTATTTGGTTGGGGCAACCGAAGTATAAGTTTAAATAAC
		TGCTATAATTTAATACAATGATTTTTGTTTTAAAAATAAT
		TGATCCTCGAAGAGATTAAAGACCAAGTTACTTTAGGGAT
		AACAGCGTAAT
DQ407	Callinectes	GAGGGACGATAAGACCCTATAAAGCTTTATAAATTTATTA	407
674	bocourti	ATTTCGTTTATTTTCTATTATAATAATGATAATAAGAAGA
		TTTATTTGGTTGGGGCAACCGAAGTATAAGTTTAAATAAC
		TGCTATAATTTAATACAATGATTTTTGTTTTAAAAAATAA
		TTGATCCTCGAAGAGATTAAAGACCAAGTTACTTTAGGGA
		TAACAGCGTAAT
DQ407	Callinectes	GAGGGACGATAAGACCCTATAAAGCTTTATAAATTTATTA	408
672	similis	ATTTCTTCTATTTTTTTATAATGATGATGTTAAGAAGATT
		TATTTGGTTGGGGCAACCGAAGTATAATTAAAGATAACTG
		CTAATATTTTATACAATGATTTTTGTTTTAATAATAATTG
		ATCCTTAAAAAGATTAAAGACCAAGTTACTTTAGGGATAA
		CAGCGTAAT
DQ407	Callinectes	GAGGGACGATAAGACCCTATAAAGCTTTATAAATTTATTA	409
671	bellicosus	ATTTCGTCTATTTTTTTATAATGATGATGTTGAAAAGATT
		TATTTGGTTGGGGCAACCGAAGTATAATTTTTAATAACTG
		CTATAACTTAATACAATGATTTTTGTTTGTTATTATAATT
		GATCCTTAAAAAGATTAAAGACCAAGTTACTTTAGGGATA
		ACAGCGTAAT
DQ407	Callinectes	GAGGGACGATAAGACCCTATAAAGCTTTATAAATTTATTA	410
669	arcuatus	ATTTTGTCTATTTTTCTTATAATGATGATGTTAAGAAGAT
		TTATTTGGTTGGGGCAACCGAAGTATAATTAAAGATAACT
		GCTACTATTTTATACAATGATTTTTGTTTTAATAATAATT
		GATCCTTAAAAAGATTAAAGACCAAGTTACTTTAGGGATA
		ACAGCGTAAT
EU186	Metanephrops	GAGGGACGATAAGACCCTATAAAGCTTGATAATTTTATGT	411
116	armatus	ATAAATAAATAAGTTGTTAGTGTTATATTGTTTATCTGTA
		AAATTATTTCGTTGGGGCGACGATAATATAATTTGTAACT
		GTTTGGGGGTTAGATTCAAATATGTTTGTGTGTTAATGAT
		CCATTAATTGTTGATTAAAAATTTAAGTTACTTTAGGGAT
		AACAGCGTTAT
EU186	Metanephrops	GAGGGACGATAAGACCCTATAAAGCTTGATAATTTTATAT	412
114	mozambicus	GTAAATAAATAAGTTGTTAGTGTTATATTGTTTACTTACA
		AAATTATTTCGTTGGGGCGACGATAATATAATTTGTAACT
		GTTTGAGGTTTAGATCCAAATATATTTGTGTTTAAGTGAT
		CCATTAATTGTTGATTAAAAATTTAAGTTACTTTAGGGAT
		AACAGCGTTAT
EU186	Metanephrops	GAGGGACGATAAGACCCTATAAAGCTTGATAATTTTATAT	413
115	japonicus	ATAAATAAATAAGTTGTTAGTGTTATATTGTTTATCTGTA
		AAATTATTTCGTTGGGGCGACGATAATATAATTTGTAACT
		GTTTGGGGGTTAGATTCAAATATGTTTGTGTGTTAATGAT
		CCATTAATTGTTGATTAGAAATTTAAGTTACTTTAGGGAT
		AACAGCGTTAT
EU186	Metanephrops	GAGGGACGATAAGACCCTATAAAGCTTGATAATTTTATAT	414
113	andamanicus	GTAAATAAATAAGTTGTTAGTGTTATATTGTTTATTTATA
		AAATTATTTCGTTGGGGCGACGATAATATAATTTGTAACT
		GTTTGAGGTTTAGATCCAAATATATTTGTGTTTAAATGAT
		CCATTAATTGTTGATTAAAAATTTAAGTTACTTTAGGGAT
		AACAGCGTTAT
EU186	Metanephrops	GAGGGACGATAAGACCCTATAAAGCTTGATAATTTTATAT	415
112	velutinus	GTAAATAAATAAGTTGTTAGTGTTATATTGTTTATTTATA
		AAATTATTTCGTTGGGGCGACGATAATATAATTTGTAACT
		GTTTGAGGTTTAGATCCAAATATATTTGTGTTTAAATGAT
		CCATTAATTGTTGATTAAAAATTTAAGTTACTTTAGGGAA
		AACAGCGTTAT
EU186	Metanephrops	GAGGGACGATAAGACCCTATAAAGCTTGATAATTTTATAT	416
111	sagamiensis	GTAAATAAATAAGTTGTTAGTGTTATATTGTTTATTTATA
		AAATTATTTCGTTGGGGCGACGATAATATAATTTGTAACT
		GTTTGAGGTTTAGATCCAAATATATTTGTGTTTAAATGAT
		CCATTAATTGTTGATTAAAAATTTAAGTTACTTTAGGGAT
		AACAGCGTTAT
EU186	Metanephrops	AAGGGACGATAAGACCCTATAAAGCTTAATAATTTTTGTA	417
109	binghami	AGTAAAATAAATAAATTGTTAGTGATATGCTGCTTACTTA
		CTAAATTATTTCGTTGGGGTGACGAGGATATAATTTTGTA
		ACTGTTTTAGTTTAAATTCAGGGATACTTGTACTCAATGA
		TCCATTTATTTGATGATTAAAAATTTAAGTTACTTTAGGG
		ATAACAGCGTTAT
EF599	Parastacus	AAGGGACGATAAGACCCTATAAAGCTTTACATTAAGCGTT	418
137	pugnax	TAAAATTTTAATTAAGTAATAAAATTTTATTAAATGTAAT
		ATGTTTTGTTGGGGCGACAAGAATATAAAAAATTTAACTG
		TTCTAGATAATAAGTCAGAAATATCTGATCTTTGAGGACT
		TTTTATTAAAGTATTAGATTAAGTTACTTTAGGGATAACA
		GCGTTAT
EF060	Paranephrops	GAGGGACGATAAGACCCTATAAAGCTTTACATTGAATTTA	419
259	zealandicus	TTAAAAAGTAATTTAAATAATAAAAGTTTATTAGTAAGGA
		GATGTTTTGTTGGGGTGACAAGAATATAATAAATATAACT
		GTTCTTTTTTAGTTCAAAGATATTTGAAAAGGAGATCCTT
		AATAAAGATGTTAGAGTAAGTTACTTTAGGGATAACAGCC
		GTAA
DQ407	Callinectes	GAGGGACGATAAGACCCTATAAAGCTTTATAAATTTATTA	420
682	exasperatus	ATTTCGTTTATTTTTTTATAATGATGATGTTAAGAAAGTT
		TATTTGGTTGGGGCAACCTAAGTATAATTAAAGATAACTG
		CTACGATTTTATACAATGATTTTTGTTTTAATAGTAATTG
		ATCCTTGAAAAGATTAAAGACCAAGTTACTTTAGGGATAA
		CAGCGTAAT
FJ174	Palinurus	GGGGGACGATAAGACCCTATAAATCTTTATATTTATTATG	421
903	barbarae	ATAACATTAAATATTATAATTGAAAATTTAGTTTTACTGG
		AATAAAATATTTTGTTGGGGCGACAGGAGTATAAAAAATA
		ACTGCTTTGTAATATGGGTTAATAATTTTTAATATGTAGT
		ATAGTTGATCCTTCAGTGAGGATTTTAGAATAAGTTACTT
		TAGGGATAACAGCGTAAT
NC_02	Sagmariasus	GGGGGACGATAAGACCCTATAAATCTTTACTCTGGAGACA	422
2736	verreauxi	ATAACATTGAAGATTACTGCTAATAATTCCGTGTTATTGT
		TTTTAGTGTTTTGTTGGGGCGACAGGAGTATAAATAAATA
		ACTGCTTTAAACGTATAGTTAATTATAGTTAAGTTGTTGA
		TAAGTGATCCTTTAGTATGGATTATAGATTAAGTTACTTT
		AGGGATAACAGCGTAAT
EU882	Metanephrops	AAGGGACGATAAGACCCTGTAAAGCTTAATAATTCTACGA	423
877	rubellus	GTGGATAAATAAATTGTTTAGTGGCAATGTTACTCACTTG
		TTAAATTATTTCGTTGGGGTGACGAGGATATAATTTGTAA
		CTGTCTAAATTTAAAGTCAAGGATGCTTGTATTCGATGAT
		CCATAATTGGTGATTAAAAATTTAAGTTACTTTAGGGATA
		ACAGCGTTAT
EU186	Metanephrops	GAGGGACGATAAGACCCTATAAAGCTTGATAATTTTATAT	424
128	challengeri	ATAATTAAATAAATTATTAGTATTATATTATTTATATATT
		AAATTATTTCGTTGGGGCGACGATAATATAATTTGTAACT
		GTTTGAAATTTTAATTCAGAAATATTTGTTTTTAATGATC
		CTTTTATTATTGATTAAAAATTTAAGTTACTTTAGGGATA
		ACAGCGTTAT
EU186	Metanephrops	GAGGGACGATAAGACCCTATAAAGCTTAATAATTTTGTAT	425
125	neptunus	ATAGATAAATAAGTTGTTAGTATTATATTGTCTATTTATT
		AAATTATTTCGTTGGGGCGACGATAATATAATTTGTAACT
		GTTTGAAATATTTAATTCAGAAGTATTTGTATTTAATGAT
		CCTTTTGTTGTTGATTAAAAATTTAAGTTACTTTAGGGAT
		AACAGCGTTAT
EU186	Metanephrops	AAGGGACGATAAGACCCTATAAAGCTTGATAATTTTATAT	426
124	australiensis	ATAAGTAAATAAGTTGTTAGTATTATATTGTTTATATATA
		AAATTATTTCGTTGGGGCGACGATAATATAATTTGTAACT
		GTTTAATGTTTTGATTCAAATATATTTGTGTTTAATGATC
		CATTAATTGTTGATTAAAAATTTAAGTTACTTTAGGGATA
		ACAGCGTTAT
EU186	Metanephrops	AAGGGACGATAAGACCCTATAAAGCTTGATAATTTTATAT	427
123	arafurensis	ATAAGTAAATAAGTTGTTAGTGTTATATTGTTTATATATA
		AAATTATTTCGTTGGGGCGACGATAATATAATTTGTAACT
		GTTTAATGTTTTGATTCAAATATATTTGTGTTTAATGATC
		CATTAATTGTTGATTAAAAATTTAAGTTACTTTAGGGATA
		ACAGCGTTAT
EU186	Metanephrops	GAGGGACGATAAGACCCTATAAAGCTTGATAATTTTATAT	428
121	boschmai	ATAAATAAATAGGTTGTTAGTGTTATATTGTCTATTTATA
		AAATTATTTCGTTGGGGCGACGATGATATAATTTGTAACT
		GTTTAAGGTTTTGATTCAAATATATTTGTATTTAATGATC
		CATTTTTGTTGATTAAAAATTTAAGTTACTTTAGGGATAA
		CAGCGTTAT
EU186	Metanephrops	GAGGGACGATAAGACCCTATAAAGCTTGATAATTTTATAT	429
117	formosanus	ATAAATAAATAAGTTGTTAGTGTTATATCGTTTATTTATA
		AAATTATTTCGTTGGGGCGACGATAATATAATTTGTAACT
		GTTTAGGTTTAGATTCAAATATATTTGTGTTTTAATGATC
		CATTAATTGTTGATTAAAAATTTAAGTTACTTTAGGGATA
		ACAGCGTAAT
EU186	Metanephrops	GAGGGACGATAAGACCCTATAAAGCTAGATAATTTTGTAT	430
118	sinensis	TTAAATAAATAAGTTGTTAGTGTTATATCATTTATTTATA
		AAATTATTTCGTTGGGGCGACGATAATATAATTTGTAACT
		GTTTAGGTTTAGATTCAAATATATTTGTGTTTTATGATCC
		ATTAATTGTTGATTAAAAATTTAAGTTACTTTAGGGATAA
		CAGCGTTAT
FJ462	Lithodes	CAAAAAGACGATAAGACCCTATAAATCTTAACAATAAATA	431
647	ferox	TATTTTATATTTTAGTTTATAAGTGTATAAGGAATAAAAA
		TATAGGTTTGTTACGCTGGGGGGGCGTAGATATATAAATA
		AACTGTCTATAGTTTAAATACAATAATCATTGCTTAATAC
		AAATTGATCCTTAAATAGATTAAAAGATTAAGATACTTTA
		GGGATAACAGCGTTAT
FJ224	Oratosquillina	GAGGGACGATAAGACCCTATAAAGCTTTATGTTACATTTC	432
280	interrupta	TTTTTTATAAATTGTATTGTTATTAACTTATTTTAGAATT
		TGTATCATTTTACTGGGGCGGTAAAAGTATAATAAAGATT
		AACTGCTTTTGTTTTGAATAACAATTTTAGTTGGAAATAA
		ATTGATCCATTATTAATGATCATAAGAACAAGTTACTTTA
		GGGATAACAGCGTAAT
FJ224	Odontodactylus	GAGGGACGATAAGACCCTATAAAGCTTTATAGTGTAATTA	433
282	japonicus	TTTAATATGAAATATATTAACTTGAAATTATTTAATAAAA
		AGCACTATTTTACTGGGGCGGTAAAAGTATAACTTAAACT
		AACTGCTTTTATTTTTAAAAACAATTATAATTGAATATAA
		ATTGATCCATTATTAATGATCACAAGAACAAGTTACTTTA
		GGGATAACAGCGTTAT
FJ224	Miyakella	GAGGGACGATAAGACCCTATAAAGCTTTATGGTATTTTTC	434
271	nepa	TTTTTTATAAATTGTATTGTTATTAACTTATTTTAGAATT
		TTTATCATTTTACTGGGGCGGTAAAAGTATAATTAGATTA
		ACTGCTTTTGTTTTAAATAACAATTTTAGTTGGAAATAAA
		TTGATCCATTATTAATGATCATAAGAACAAGTTACTTTAG
		GGATAACAGCGTAAT
FJ224	Erugosquilla	GAGGGACGATAAGACCCTATAAAGCTTTATGATACTTTTC	435
263	woodmasoni	TTTTTTACAAATTATCTCGTTATTAACTTATTTTAGAATT
		AATATCATTTTACTGGGGCGGTAAAAGTATAATAAAAAGA
		TTAACTGCTTTTATTTTGTTGAACAATGTTAATTGGAAAT
		AAACTGATCCATTATTAATGATCATAAGAACAAGTTACTT
		TAGGGATAACAGCGTAAT
FJ224	Clorida	AAGGGACGATAAGACCCTATAAAGCTTTATAATATATTTC	436
255	decorata	TTTTACATAAATTGTTTTGTTATTAACGTGTTTTAGATTA
		TATATTATTTTACTGGGGCGGTAAAAGTATAATAAAAGAT
		TAACTGCTTTTATTTTGTGTAACAATTGTAGTTGGAAATA
		AATTGATCCATTATTAATGATTATAAAAACAAGTTACTTT
		AGGGATAACAGCATAAT
FJ224	Dictyosquilla	GAGGGACGATAAGACCCTATAAAGCTTTATGGTATTCTTC	437
261	foveolata	TTTTTTATAAATTGTTTTGTTATTAACTTATTTTAGAATT
		TTTATCATTTTACTGGGGCGGTAAAAGTATAATAAAAGAT
		TAACTGCTTTTATTTTGTGTAACAATTTTATTTGGAAATA
		AATTGATCCATTATTAATGATTATAAGAACAAGTTACTTT
		AGGGATAACAGCGTTAT
FJ224	Anchisquilla	GAGGGACGATAAGACCCTATAAAGCTTTATAGTATATTTC	438
251	fasciata	TTTTGTATAAATTATTTTGTTACTAACATATTTTAGAACA
		TATATTATTTTACTGGGGCGGTAAAAGTATAATAAAGACT
		AACTGCTTTTATTTTGAATAACAATTGTAGTTGGAAATAA
		ATTGATCCATTATTAATGATTATAAAAACAAGTTACTTTA
		GGGATAACAGCGTAAT
FJ174	Scyllarides	GAGGGACGATAAGACCCTATAAATCTTTATATTTTGGGTT	439
906	herklotsii	ATAAGGTTAAAAATTAGGTTTTCATTTAATTTTATAAAGT
		TAAATATTTTGTTGGGGAGACAGAGGTATAAAGAAAGATA
		ACTGCCTTAAAATTTATAGTTAAGAATAGTTAAGATAGAA
		AGTGATCCTTTAATAAGGAAATTAGAATAAGTTACTTTAG
		GGATAACAGCGTAAT
FJ174	Palinurus	GGGGGACGATAAGACCCTATAAATCTTTATATTTATTATG	440
904	delagoae	ATAACATTAAATATTATAATTGAAAATTTAGTTTTACTGG
		AATAAAATATTTTGTTGGGGCGACAGGAGTATAAAAAATA
		ACTGCTTTGTAATATGGGTTAATAATTTTTAATATGTAGT
		ATAGTTGATCCTTCAGTGAGGATTTTAGAATAAGTTACTT
		TAGGGATAACAGCGTAAT
GU727	Astacus	TAAAGGGACGATAAGACCCTATAAAACTTTATATTTAAAA	441
618	astacus	ATAATTGCTATTATTATTTAAAGAGTTTATTTTTAAATAT
		TTTATTGGGGTGATAAGGATAAAATATAAGACAACTGTCT
		TTTATTTTAACAATAATTTTTGAGTAAATGATCTTAATAA
		AGGAATAAAAGATTAAGTTACTTTAGGGATAACAGCGTAA
		T
FM208	Portunus	GGGGGACGATAAGACCCTATAAAGCTTTATAAATCCATAA	442
780	hastatus	ATTATTATATATTTAAGATGATAAAAGTAATCTTTTAGAT
		ATTTATTTGGTTGGGGCGACAGTGGTATAAATCAATTAAC
		TGCTAATAAAAATTACAATAATTTTTGATTTCTAAGTTAT
		AGATCCTCTTTAGGGATTAAAAAATCAAGTTACTTTAGGG
		ATAACAGCGTTAT
FM208	Achelous	GGGGGACGATAAGACCCTATAAAGCTTTATAAATCTACAA	443
751	ordwayi	ATTTTATATATTTGTGAATAAAAATAATTTTTCTAATATT
		TATTTGGTTGGGGCGACAAAAGTGTAATTAAAATAACCGC
		TAATAATTTGTTACAATGATTTTTGTTTGGCGAAGTTAAT
		GGATCCCTTTTAAGGATTAAAAAATCAAGTTACTTTAGGG
		ATAACAGCGTTAT
FM208	Carcinus	GGGGGACGATAAGACCCTATAAAACTTTATATATGCAACA	444
763	maenas	ATACAGTTGAATTAAAGCATAAAAACTTATTCGATAAAAT
		ATATTTAGTTGGGGCGACTGAGGTATAATTTATAGTAACT
		GATTAAAAGCAAGACAAATAATATTTGATTAACTTTAATT
		GATCCTTTTTAAAGATTAAAAGATTAAGTTACTTTAGGGA
		TAACAGCGTAAT
FM208	Portunus	GGGGGACGATAAGACCCTATAAAGCTTTATAAATCTATAA	445
752	inaequalis	ATTATTATATATTTAAAATAATAAAAGTAATTTTTTAGAT
		ATTTATTTGGTTGGGGCGACAGTGGTATAAATTAATTAAC
		TGCTAATAAAAATTACAATAATTTTTGATTTTTAAGTCAT
		AGATCCTCTATAGGGATTAAAAAATCAAGTTACTTTAGGG
		ATAACAGCGTTAT
FJ965	Astacoides	AAGGGACGATAAGACCCTATAAAACTTTATATTAGAATTA	446
952	madagas	TTTAAAAACTATTTAGATAGAAAGGTAAGTAAGTAGTAAA
	cariensis	ATATTTTGTTGGGGCGACAAGAATATAAGAATATAACTGT
		TCTTAAGTATAATCAAAAATTTTTGATTTAATGATCCTAG
		GTAAAGATATTAGAATAAGTTACTTTAGGGATAACAGCGT
		AAT
FM207	Erimacrus	AGGGGACGATAAGACCCTATAAAGCTTTACATACATTATA	447
657	isenbecki	AGTTTGATTTAAGCAAAATTTAAAAATCTAAATTATATAT
		TATGTTTTGTTGGGGCGACAAAAATATAAGTAATAATAAC
		TGTTTAATAAAAAAACAATAATAAATGGACAATTAAATGA
		TCCTTGTTTAAAGATTAAAGACCAAGTTACTTTAGGGATA
		ACAGCGTTAT
FJ871	Hemisquilla	GGGGGACGATAAGACCCTATAAAGCTTTATGATAAGGCCT	448
141	australiensis	TTTTGTAAAGAATTTCTATTGTGAAATTACTAAGGGGGTT
		TATATTATTTTACTGGGGCGGTAAAAGTATATAATTGAAT
		AACTGCTTTTATTATTGAAAACAATTATAATTGAAATACA
		AAATGATCCATTATTAATGATTATAAAAACAAGTTACTTT
		AGGGATAACAGCGTAAT
FJ871	Austrosquilla	AAGGGACGATAAGACCCTATAAAGCTTTATAGTGTAACTC	449
139	tsangi	TTTTTTACTAGTTTTACTAATATTAAAATATTAAAGAAAT
		AATACTATTTTACTGGGGCGGTGAGAGTATATAAAAATAA
		CTGCTTTTATTTTATTAAACAATAATAATTGAAAAATTAA
		TTGATCCATTTCTAATGATTATAAGAACAAGTTACTTTAG
		GGATAACAGCGTAAT
FJ462	Lithodes	CAAAAAGACGATAAGACCCTATAAATCTTTACAATAAATA	450
648	confundens	TATTTTATATTTTAACTTATAAGTGTATAAGAAATAAAAA
		TATAGATTTGTTTCGCTGGGGCGGCGTAGATATATAAATA
		AACTGTCTATAATTTAAATACAGTAATTATTGCTTAATAT
		AAATTGATCCTTAAATAGATTAAAAGATTAAGATACTTTA
		GGGATAACAGCGTTAT
HM138	Fallosquilla	GAGGGACGATAAGACCCTATAAAGCTTTATGGTATACCTC	451
821	fallax	TTTTATAAAAATTGTTCTTTATTAACTTATTTTAGATTGT
		GTATTATTTTACTGGGGCGGTAAAAGTATAATTAAGAGTA
		ACTGCTTTTATTTTGTATGACAATTATAGTTGAAAATAAA
		TTGATCCATTATTAATGATTACAAAAACAAGTTACTTTAG
		GGATAACAGCGTAAT
HM138	Echinosquilla	GAGGGACGATAAGACCCTATAAAGCTTTATGGTAGTTTCT	452
820	guerinii	TTTTATATAGATTGGTAAAATTTAATTTATTAAAAGAAAA
		ATATCATTCTACTGGGGCGGTAAAAGTATATCTTTGGTTA
		ACTGCTTTTGTTTTGTAAGTCAATAATAGTTGAAATATTA
		ATTGATCCATTATTAATGATCATAAGAACAAGTTACTTTA
		GGGATAACAGCGTAAT
HM138	Coronis	GAGGGACGATAAGACCCTATAAAGCTTTATAATACTATCT	453
819	scolopendra	TTTCATATTAATTATCTGGTTATTAACGTACTAAAAGAAA
		AGTATTATTTTACTGGGGCGGTAAAAGTATATAAAAGAAT
		AACTGCTTTTGTTTTACAA
		AACAACTATATTTGAAAAATAAATTGATCCATTATTAATG
		ATCACAAGAACAAGTTACTTTAGGGATAACAGCGTAAT
HM138	Chorisquilla	GAGGGACGATAAGACCCTATAAAGCTTTATGATATTTTCT	454
818	tweediei	TTTTATATTAGTTAGTAAAATGTAGTTTATTAAAAGAAAA
		ATATTATTTTACTGGGGGGGTAGAAGTATATTTTTGATTA
		ACTGCTTCTGTTTTGTAAGTCAATTATAATTGAAATATGA
		ATTGATCCATTATTAATGATCATAAGGACAAGTTACTTTA
		GGGATAACAGCGTAAT
HM138	Chorisquil	GAGGGACGATAAGACCCTATAAAGCTTTATAATTATTCTT	455
817	la	TTTTATATTAGTTAGTAGAATGTAGTTTATTAAAAAGAAA
	hystrix	TGATTATTTTACTGGGGGGGTAAAAGTATATTTTGATCAA
		CTGCTTTTGTTTTGTAAATCAATTATAATTGAAATATAAA
		TTGATCCATTATTAATGATCATAAGAACAAGTTACTTTAG
		GGATAACAGCGTAAT
HM138	Chorisquil	GAGGGACGATAAGACCCTATAAAGCTTTATGGTACTTCTT	456
816	laexcavata	TTTTATATTAATTAGGAAAATGTAGTTTATTAAAAAGAAA
		ATACTATTTTACTGGGGCGGTAAAAGTATATTTTTGATTA
		ACTGCTTTTGTTTTGTAAGTCAATAATAATTGAAATATTA
		ATTGATCCATTATTAATGATCACAAGAACAAGTTACTTTA
		GGGATAACAGCGTAAT
HM138	Busquilla	GAGGGACGATAAGACCCTATAAAGCTTTATGATATTTCTT	457
815	plantei	TTTCTTATAAATTTTCTTGTTATTAACTTATTTTAGAGCT
		AATATCATTTTACTGGGGCGGTAAAAGTATAATAAAAGAT
		TAACTGCTTTTGTTTTGTATAACAATCTTAGTTGGAAATA
		AATTGATCCATTATTAATGATCATAAGAACAAGTTACTTT
		AGGGATAACAGCGTAAT
HM138	Alima	GAGGGACGATAAGACCCTATAAAGCTTTATAATACACGCC	458
814	pacifica	TTCTTTATGAAATATAAAATTATCAAAATATAATAGAACT
		TGTATTATTTTACTGGGGCGGTAAAAGTATAATAAACTAA
		CTGCTTTTGTCCTGTATAACAATCTTAATTGAAAATAAAT
		TGATCCATTATTAATGATCACAAGAACAAGTTACTTTAGG
		GATAACAGCGTAAT
HM138	Alima	GAGGGACGATAAGACCCTATAAAGCTTTATAATACAATTC	459
813	orientalis	TTTTTTATAAATTATCGCGTTATTAACCTATCTTAGAATT
		CGTATTATTTTACTGGGGCGGTAAAAGTATATTAAAGACT
		AACTGCTTTTATTTTGTGTAACAATTTTAGTTGGAAATAA
		ATTGATCCATTATTAATGATCACAAGAACAAGTTACTTTA
		GGGATAACAGCGTAAT
HM138	Alachosquilla	AAATGACGATAAGACCCTATAAAGCTTTATAATTTTCTCT	460
812	vicina	TTCTATGTAAAGTATAAGAATATTAAAACATTGAAAAGAG
		TAAATTATTTTACTGGGGCGGTAAAAGTATAAAAAATAAC
		TGCTTTTATTTTGAATAACAACTATTATTGGAATTTGAAT
		TGATCCATTAATAATGATCACAAGAACAAGTTACTTTAGG
		GATAACAGCGTAAT
HM138	Gonodact	GAGTGACGATAAGACCCTATAAAGCTTTATGGTATACCTT	461
822	ylellusespinosus	TTTTATACAAATTACATATTATTAACCTATTAAAAAAGTA
		ATATCATTTTACTGGGGCGGTAAAAGTATATTCGCTTAAC
		TGCTTTTATTATTTAAAACAATAATAATTGAACAATCCAT
		TGATCCATTAATAATGATCATAAGGCCAAGTTACTTTAGG
		GATAACAGCGTAAT
HM138	Gonodactylellus	GAGGGACGATAAGACCCTATAAAGCTTTATAATACATTTC	462
823	affinis	TTTTACATAAATTATTAATTATTAACTTGTTAAAGAAATA
		ATATTATTTTACTGGGGGGGTAAAAGTATATTTTATTTGA
		ACAACTGCTTTTGTTTTAAAAAACAATTATAATTGAACAA
		CTCATTGATCCATTAATAATGATCATAAGGCCAAGTTACT
		TTAGGGATAACAGCGTAAT
HM138	Kempella	GAGGGACGATAAGACCCTATAAAGCTTTATAATATTTTTC	463
833	mikado	TTTCTTATAAATTATATTGTTATTAACATATTTTAGAATT
		TGTATTATTTTACTGGGGGGGTAAAAGTATAATAAAATAA
		CTGCTTTTATTTTGTATAACAATCTTAATTGGTAATAAAT
		TGATCCATTATTAATGATTATAAGAACAAGTTACTTTAGG
		GATAACAGCGTAAT
HM138	Hemisquilla	GGGGGACGATAAGACCCTATAAAGCTTTATGATAAGGCCT	464
832	californiensis	TTTTGTAAAGAATTTCTATTGTGAAATTACTAGGGGGTTT
		ATATCATTTTACTGGGGGGGTAAAAGTATATAATTGAATA
		ACTGCTTTTATTATTGAAAACAATTATAATTGAAATACAA
		AATGATCCATTATTAATGATTATAAAAACAAGTTACTTTA
		GGGATAACAGCGTAAT
HM138	Haptosquilla	GAGGGACGATAAGACCCTATAAAGCTTTATGATAGTTTCT	465
831	trispinosa	TTTTATAATAATTAGTAAAATGTAATTTATTAAAAGAAAT
		ATATTATTTTACTGGGGCGGTAAAAGTATATTTTTGATTA
		ACTGCTTTTGTTTTGCAAAACAATAATAATTGAATTATAA
		ATTGATCCATTATTAATGATCATAAGAACAAGTTACTTTA
		GGGATAACAGCGTAAT
HM138	Haptosquilla	GAGTGACGATAAGACCCTATAAAGCTTTATGGTAGTTTCT	466
830	glyptocercus	TTTTATAGTAATTAGTATAATGTAATTTATTAAAGGGAAA
		TATATCATTTTACTGGGGCGGTAAAAGTATATTTTTGATT
		AACTGCTTTTGTTTTGTAAAACAATGATAATTGAATTATA
		AATTGATCCATTATTAATGATTACAAGAACAAGTTACTTT
		AGGGATAACAGCGTAAT
HM138	Gonodactylus	GAGGGACGATAAGACCCTATAAAGCTTTATGTTATATATT	467
828	platysoma	CTTTTATGTAATCTATAATTATTAACTCATTGAAGAAATA
		ATATCATTTTACTGGGGCGGTAAAAGTATATTTGAATAAC
		TGCTTTTGTTATAAAAAACAATAATAATTGAGTAATCCAT
		TGATCCATTATTAATGATCATAAGACCAAGTTACTTTAGG
		GATAACAGCGTAAT
HM138	Gonodactylaceus	GAGGGACGATAAGACCCTATAAAGCTTTATAGTAATACCT	468
827	falcatus	TTTTATTTAAAATATAAAATGTTAACTTGTTAAAAGAGTA
		TTATTATTTTACTGGGGGGGTAAAAGTATATAATGATTAA
		CTGCTTTTGTCTTACTAAACAATAATAATTGAATAATTAT
		GTGATCCATTATTAATGATCAAAAGTACAAGTTACTTTAG
		GGATAACAGCGTAAT
HM138	Gonodactylus	GAGGGACGATAAGACCCTATAAAGCTTTATAATATAATTC	469
825	childi	TTTGATATGAAGTGTTACTTATTAATTTATTAAAGAAATA
		CTATTATTTTACTGGGGCGGTAAAAGTATATATTTGGAGT
		AACTGCTTTTGTTATTTTAAACAATAATAATTGAGTGTCA
		TATTGATCCACTAATAGTGAATAAAAGAACAAGTTACTTT
		AGGGATAACAGCGTAAT
HM138	Gonodactylellus	GAGGGACGATAAGACCCTATAAAGCTTTATAATACGTTTC	470
824	annularis	TCTTACACAAATTATAAATTGTTAACTTGTTAAAGAATAA
		GTATTATTTTACTGGGGCGGTAAAAGTATACCATAGACTA
		ACTGCTTTTGTTATTAAAAACAATAATAATTGGATAATCG
		ATTGATCCATTAATAATGATCATAAGGCCAAGTTACTTTA
		GGGATAACAGCGTAAT
HM138	Odontoda	GAGGGACGATAAGACCCTATAAAGCTTTATGATACAACTA	471
842	ctylusscyllarus	TTTCTTATAAAATATCTTTTAAATCACTTAATAGAATGTA
		TTATTTTACTGGGGCGGTAAAAGTATAATGTATTATTAAC
		TGCTTTTGTTTTTAAAAACAATCATAATTGGAAACAAATT
		GATCCATTATTAATGATCACAAGAACAAGTTACTTTAGGG
		ATAACAGCGTTAT
HM138	Odontodactylus	AAGGGACGATAAGACCCTATAAAGCTTTATAATAAAATCA	472
841	latirostris	TCTTCTATGGAATAAGTGTTATTAAATTAGCTGATGAGGT
		ATATTATTTTACTGGGGCGGTAAAAGTATAAACGATTAAC
		TGCTTTTGTTCTTAAAAACAATTATAATTGAAAACATATT
		GATCCATTATTAATGATCACAAGAACAAGTTACTTTAGGG
		ATAACAGCGTTAT
HM138	Odontodactylus	AAGGGACGATAAGACCCTATAAAGCTTTATGATAAAGTTA	473
840	havanensis	TCCTCTACGGAATAAACATTATTAAACTAGCTGATAACGC
		ATATCATTTTACTGGGGCGGTAAAAGTATAATAAGATTAA
		CTGCTTTTGTTTTTACAAACAATTATAATTGAAAACAGAT
		TGATCCATTATTAATGATCACAAGAACAAGTTACTTTAGG
		GATAACAGCGTTAT
HM138	Odontodactylus	GAGGGACGATAAGACCCTATAAAGCTTTATATTACATATA	474
839	cultrifer	TTTTATATAAAATGTTTATTATTAAATTATTTAATGAAAT
		GTATTATTTTACTGGGGCGGTAAAAGTATATTTGAGTAAC
		TGCTTTTGCTTTTAAAAACAATCATAATTGAAAGTAAATT
		GATCCATTATTAATGATCACAAGAACAAGTTACTTTAGGG
		ATAACAGCGTTAT
HM138	Neogonodactylus	GAGGGACGATAAGACCCTATAAAGCTTTATGGTAATATTT	475
838	oerstedii	TTGTATATAAAATATTTCATGTAACTTATTAAAAAATAAA
		CACCATTTTACTGGGGCGGTAAAAGTATATTTTTGATTAA
		CTGCTTTTGTTGTTGAAAACAGTTGTAGCTGAATAATAAA
		TTGATCCATTATTAATGATCACAAGTACAAGTTACTTTAG
		GGATAACAGCGTAAT
HM138	Neogonodactylus	GAGGGACGATAAGACCCTATAAAGCTTTATGGTAAAATTT	476
837	bredini	TTATATATAAAATATTTCGTGTAACTTATTAAAAAGTAAA
		TACCATTTTACTGGGGGGGTAAAAGTATATCTTGATTAAC
		TGCTTTTATTATTAAAAACAGTTATAGCTGAATAATAAAT
		TGATCCATTACTAATGTTCATAAGTTCAAGTTACTTTAGG
		GATAACAGCGTAAT
HM138	Neogonodactylus	GAGGGACGATAAGACCCTATAAAGCTTTATGGTAAAATTT	477
836	bahiahondensis	TTGTATATAAATTATATAATATTAAATTATTAAAAAATAA
		ATACCATTTTACTGGGGCGGTAAAAGTATATTTTTGATTA
		ACTGCTTTTGTTATTAAAAACAGTCGTAGCTGAATAATCA
		GTTGATCCATTATTAATGATCATAAGTTCAAGTTACTTTA
		GGGATAACAGCGTAAT
HM138	Lysiosquil	AAGGGACGATAAGACCCTATAAAGCTTTATGATTACAATC	478
835	linasulcata	TTTTAGTGTTGATTATTTTAATATTAAAGTATTAGAAAAT
		TATATCATTTTACTGGGGCGGTAAAAGTATAAAGGAATAA
		CTGCTTTTGTTGAGATTAAACAACGGTAGTTGGAAAATAA
		ATTGATCCATTAATAATGATCACAAGAACAAGTTACTTTA
		GGGATAACAGCGTAAT
HM138	Squilla	GAGGGACGATAAGACCCTATAAAGCTTTATAATATTTCTT	479
854	rugosa	TTTTATATAAATTGTGTTATTGTTAACTTATTTTAAAGAT
		TTTATTATTTTACTGGGGGGGTAAAAGTATATTAAAGATT
		AACTGCTTTTGTTTTTTATAACAATCGTAATTGGAAATAA
		ATTGATCCATTATTAATGATCACAAGAACAAGTTACTTTA
		GGGATAACAGCGTAAT
HM138	Raoulserenea	GAGTGACGATAAGACCCTATAAAGCTTTATAGTACTGTTT	480
852	hieroglyphica	TTCTTTATAAATTAATTTAGTATTAACATGTCTAAAAATG
		TCTACTATTTTACTGGGGCGGTAAGAGTATAATAGGTTAA
		CTGCTTTTTGTATGTACAACAATGATACTTGAAATATAAT
		TGATCCACGATTAGTGATTATAAAACCAAGTTACTTTAGG
		GATAACAGCGTAAT
HM138	Raoulserenea	GAGTGACGATAAGACCCTATAAAGCTTTATAGTATGAGTT	481
851	oxyrhyncha	TTTTTTATAAATTAACGTGATATTAACGTACTTAAGTTTT
		CTTACTATTTTACTGGGGCGGTAAAAGTATAATGGATTAA
		CTGCTTTTTCTGTGTAAAACAAGGATGTTTGAAATATAAT
		TGATCCACAATTAGTGATTATAAAACCAAGTTACTTTAGG
		GATAACAGCGTAAT
HM138	Pseudosquillopsis	GAGGGACGATAAGACCCTATAAAGCTTTATAGTGTTTTTT	482
845	marmorata	TTTTATATAAATTGTGCTAATTTAGTTTATAAAAAAAAAA
		CATACTATTTTACTGGGGCGGTAAAAGTATTTATTATTGA
		AAAACTGCTTTTGTTTTTAAAAACAAATATGATTGGAAAT
		AAATTGATCCATTATTAATGATTATAAAAACAAGTTACTT
		TAGGGATAACAGCGTAAT
HM138	Raoulserenea	GAGTGACGATAAGACCCTATAAAGCTTTATAGTACTGTTT	483
850	ornata	TTCTTTATAAATTAATTTAGTATTAACATGTCTAAAAATG
		TCTACTATTTTACTGGGGCGGTAAGAGTATAATAGATTAA
		CTGCTTTTTGTATGTACAACAATGATACTTGAAATATAAT
		TGATCCACGATTAGTGATTATAAAACCAAGTTACTTTAGG
		GATAACAGCGTAAT
HM138	Raoulserenea	GAGTGACGATAAGACCCTATAAAGCTTTATAGTATGAGTT	484
849	komaii	TTTTTTATAAATTAACGTGATATTAACGTACTTAAGTTTT
		CTTACTATTTTACTGGGGCGGTAAAAGTATAATGGATTAA
		CTGCTTTTTCTGTGTAAAACAAGGATGTTTGAAATATAAT
		TGATCCACAATTAGTGATTATAAAACTAAGTTACTTTAGG
		GATAACAGCGTAAT
HM138	Protosquilla	AAGGGACGATAAGACCCTATAAAGCTTTATAGTGGCCTCT	485
843	folini	TTTTATATAAATTGGTAAAATATAGTTTATTAAAAGAAGA
		ATACTATTTTACTGGGGCGGTAAAAGTATATTTTTGATTA
		ACTGCTTTTGTTTTGAATGTCAATAATAGTTGAGTAATAA
		GTTGATCCATTATTAATGATCACAAGAACAAGTTACTTTA
		GGGATAACAGCGTAAT
NC_04	Ibacus	AGGGGACGATAAGACCCTATAAATCTTTATATTTTAAATT	486
1153	alticrenatus	TGTTAGTTTAAAAAATGGTTTAAATTTTGATTTAATAAAT
		TAAAATATTTTGTTGGGGAGACAGGAGTATAAAAAGTAAC
		TGCTTTATAATTTAAGTTAATAATATTTAGTTAAGTGATC
		CTTTAATATGGATTTTAGATTAAGTTACTTTAGGGATAAC
		AGCATAAT
JN701	Scyllarides	GAGGGACGATAAGACCCTATAAATCTTTATATTTTGCCTT	487
692	nodifer	ATAAGGTTAAAAATTAGGTTCTTATTTAATTTTATAAGGT
		TAAATATTTTGTTGGGGAGACAGAGGCATAAAAAAAGTAA
		CTGCCTTAAAGTTTAAGTTAAAAATGTTTAAGTTGTTAAG
		TGATCCTTTAATAAGGAAATTAGAATAAGTTACTTTAGGG
		ATAACAGCGTAAT
MN817	Scyllarides	GAGGGACGATAAGACCCTATAAATCTTTATATTTTGGCTT	488
127	haanii	ATAAGGTTAAAAATTAGGTTATAATTTAGTTTTATAAGGT
		TGAATATTTTGTTGGGGAGACAGGAGTATAAAAAGAAATA
		ACTGCTTTAGAATTAGAGTTAAAGGTGTTTAAGTTTAAAA
		GTGATCCTTTAATAAGGAATGTAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
JN701	Scyllarides	GAGGGACGATAAGACCCTATAAATCTTTATATTTTGGTTT	489
689	brasiliensis	ATACGGTTAAAAGTTAGGTTATTATTTAATTTTATAAGTT
		TGAATATTTTGTTGGGGAGACAGGGGCATAAAAGGAAATA
		ACTGCCTTAAAGTTTAAGTTAAAAATGTTTAAATTATTAA
		GTGATCCTTTAATAAAGAATATAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
NC_05	Takuspinosoc	GAGGGACGATAAGACCCTATAAAGCTTTATAGTGTAGTTT	490
0686	arinatus	TTTTATATTAATTATATATTTTAGTTTATTAAAAAAGTAA
		TACTATTTTACTGGGGCGGTAAAAGTATATTTTTGATTAA
		CTGCTTTTGTTTTTAAAAACAATAATAATTGGTTAATAGA
		TTGATCCATTATTAATGATCACAAGAACAAGTTACTTTAG
		GGATAACAGCGTAAT
JN566	Jasus	GGGGGACGATAAGACCCTATAAATCTTTATACTAGTTAGT	491
222	frontalis	AATAACATTAAAGATTAATTTTATATTTTTTTGTTAGTAG
		TTTTAGTATTTTGCTGGGGCGGCAGGGGTATAATTCAATA
		ACTGCTCTATAGTTGTAGTTAATTATGTTTAAATTGTTGG
		TAGTTGATCCTTTAGTGGAGATTATAGATTAAGTTACTTT
		AGGGATAACAGCGCAAT
HM637	Menippe	GAGGGACGATAAGACCCTATAAAGCTTTATATGTTATTTA	492
974	mercenaria	AATTTAATTGAATTGATTTATAAATTTTAAATTTAGAGTA
		ATTTATTTTGCTGGGGCGGCATAAGTATAAGTTATATTAA
		CTGCTTAATAATGATACAATAATAGTTGAATTGTTGTTAA
		ATGATCCTTTTTAAAGATTTAAGAACAAGTTACTTTAGGG
		ATAACAGCGTTAT
JF737	Procambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTATAATA	493
171	paeninsul	TAGTAGTTAGTTTTATTTAATAGTACTATTTTAGAGTATT
	anus	TGGTTGGGGTGACAAGGATAAAATATAAAATAACTGTCTT
		TTTTTTTTACAGTAATGTTTGTTTTAATGATCCTAAAAGG
		GATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JQ229	Puerulus	GGGGGACGATAAGACCCTATAAATCTTTATATTTGCCGTA	494
876	sewelli	GAAAAGAGTGTGTATTAGGGCTAAAGATATATTATTTTGT
		TGGGGCGATATTTTGTTGGGGCGACAAGGGTATAATGAGT
		AACTGCTTTAAAAGTTTAATTAGATAATATCTAGTTTGAG
		AATAAGAGATCCTTTACTAAGGATTGTTAAAATAAGTTAC
		TTTAGGGATAACAGCGTAAT
JQ229	Panulirus	GGGGGACGATAAGACCCTATAAATCTTTATGTTTTATCTA	495
873	polyphagus	GTGAATTTCAGAGATTAGTTACATATTTGGTGTTACTACG
		GTAAAATATTTTGTTGGGGCGACAGGAGTATAACAAGTAA
		CTGCTTTGGATATAGAATTAATTATTTTTATAGTGAGAAG
		TTAAATTGATCCTCTTCTGGAGAAATCAGACTAAGTTACT
		TTAGGGATAACAGCGTAAT
MN817	Panulirus	GGGGGACGATAAGACCCTATAAATCTTGATGGTCAAAATA	496
128	longipes	TTAATTTTTATGTAGTAGTTATAAGCTTAAATTTAATACT
		TTGACTATTTTGTTGGGGCGACAGGGGTATAATTAGTAAC
		TGCTTTGAGTAAAGAATTAATTATTTTTATTGTGTTGTGT
		TTGAGATCCTTCTTTGAAGATATCAGATCAAGTTACTTTA
		GGGATAACAGCGTAAT
MT533	Panulirus	GGGGGACGATAAGACCCTATAAATCTTTATGTTTTAACTA	497
488	penicillatus	ATAAATTTTAGGGATTAGTTATATACCTAGTATTATTAGT
		TGAAATATTTTGTTGGGGCGACAGGAGTATAATAAGTAAC
		TGCTTTGTTTATAAAATTAATTGTTTTTATTGTGGAAATT
		GGTATGATCCTCTTTAGAGAAATCAGACTAAGTTACTTTA
		GGGATAACAGCGTAAT
JN701	Panulirus	GGGGGACGATAAGACCCTATAAATCTTTATAGCTTTGATT	498
738	interruptus	ATAAGTTTTAGAGATTAGTTATAAGTCTAAAATTATTTTT
		TGAGCTATTTTGTTGGGGCGACAAAAGTATAACAAGTAAC
		TGCTTTGGTTAATAAATTAATTATTTTTATAATGTTATTT
		TAAAGATCCTTCTTTGAAGATGACAGAATAAGTTACTTTA
		GGGATAACAGCGTAAT
JN701	Panulirus	GGGGGACGATAAGACCCTATAAATCTTGATAATTAAAGTA	499
739	marginatus	ATAGTTTTTACGTAGTAGTTATAAGCTTAAATCTAATGCT
		TTGATTATTTTGTTGGGGCGACAAGGGTATAATAAATAAC
		TGCCTTGAATAGATAGCTAATTATTTTTATTATGTTATGT
		TTAAGATCCTTCTTTGAAGATATCAGATCAAGTTACTTTA
		GGGATAACAGCGTAAT
JN701	Ibacus	AGGGGACGATAAGACCCTATAAATCTTTATATTTAAAGTT	500
700	peronii	TGTTAATTTAAAAAGTAGATTAAAATTTTAATTTAATAAA
		TTTAAATATTTTGTTGGGGAGACAGGAGTATAAAAAATAA
		CTGCTTTAAAGTTTGAGTTAATAATATTTAATTAAGTGAT
		CCTTTACTATGGATTTTAGATTAAGTTACTTTAGGGATAA
		CAGCATAAT
JN701	Ibacus	AGGGGACGATAAGACCCTATAAATCTTTATATTTGGAGTT	501
698	chacei	TGTTAATTTGAAAAGTAAAATTAAAATTTTAATTTAATGA
		ATTTAAATATTTTGTTGGGGAGACAGGAGTATAAAAAATA
		ACTGCTTTAAAATTTGAGTTAATAATATTTAATTAAGTGA
		TCCTTTATTATGGATTTTAGATTAAGTTACTTTAGGGATA
		ACAGCATAAT
KF220	Charybdis	GAGGGACGATAAGACCCTATAAAGCTTTATAAATTTGAAG	502
508	hellerii	ATTTTGTGTATTTTTATATAAAAATGAATTTTGAAGATTT
		TATTTGGTTGGGGCGACAATGGTATAATGAGAATAACTGC
		TATTAAAATTAACAATTATATTTGAATTATTAATAATTGA
		TCCTTTATAAGGATTTTAAGATCAAGTTACTTTAGGGATA
		ACAGCGTTAT
KC237	Faxonella	AAGGGACGATAAGACCCTATAAAACTTTATATTTAATAAT	503
200	clypeata	AGTAATTAATTTTATTTTAAGAGTATTATTTGAAAGTATT
		TGGTTGGGGTGACAAGGATAAAATATAAAATAACTGTCTT
		TTTTTTATTACAATAATATTTGGTTTAATGATCCTAAAAT
		GGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KC163	Fallicambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTTATAAG	504
440	kountzeae	TGGTAGTTAATTTTATTTTGTAATACTATTTAGGAGTATT
		TGGTTGGGGTGACAAAGATAAAATAAAAAATAACTGTCTT
		TTTTATTTACAGTAATGTTTGATTTAATGATCCTTAAAAG
		GATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX123	Arenaeus	GAGGGACGATAAGACCCTATAAAGCTTTATAAGTGTAGGT	505
471	mexicanus	ATTTTGTATATTTTATGTTATAATAATAATTTGTTGAATA
		CTTATTTGGTTGGGGCAACAAGAGTATAAAGAGAGTAACT
		GCTAAGATTTAAAACAATTATATTTGATTAAAAAGTAATT
		GATCCCAAGAGGATTAAAAGATCAAGCTACTTTAGGGATA
		ACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTAGGAGT	506
540	tartarus	AGAAGTTAGTTTTATTTTATTGGCTCTATTTAAAAGTATT
		TGGTTGGGGTGACATAAATAAAAAATGAAATAATTGTTTT
		TATTTTTTACAATGATATTTGGGTTTGTGATCCTGAAGTG
		GATTGAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JQ407	Chionoecetes	GGGGGACGATAAGACCCTATAAAGCTTTACATATAAGTAG	507
454	tanneri	AGTTTACTTAATTAAAAAGTAAAAGTTTAATCTAATTAAT
		GTGTTTTGTTGGGGCGACATAAATATAATTTATATTAACT
		GTTTATAAATTAATACAATAATAAATGATTCTAATGTAAT
		TGATCCTTATTAAAGATTAAAAGACTAAGTTACTTTAGGG
		ATAACAGCGTTAT
JQ229	Thenus	AGGGGACGATAAGACCCTATAAATCTTTATATTAATTTAT	508
907	unimaculatus	TGTTAAGCTGGAAAATAGAATTAATTCGTGGGGTAACAAT
		TTTAAATATTTTGTTGGGGAGACAGAAGTATAAAAGAATA
		ACTACTTTGGATAAAGAGTTAATGATATTTAATGTAGAGA
		CCCTTTCCTAAGGGTTATAGAACAAGTTACTTTAGGGATA
		ACAGCGTAAT
JQ229	Thenus	GGGGGACGATAAGACCCTATAAATCTTTATATTAATTTGT	509
878	indicus	TGTTAAATTGGAAAATAGAATTAATTTCGGGCTTAACAAT
		TTTAAATATTTTGTTGGGGAGACAGAAGTATAAATAAATA
		ACTACTTTAAAGAGAAAGTTAATGATATTTAATGTAGAGA
		TCCTTTACTAAGGATTGTAGAACAAGTTACTTTAGGGATA
		ACAGCGTAAT
KM074	Haptosquilla	GAGTGACGATAAGACCCTATAAAGCTTTATAGTAGTGTCT	510
036	hamifera	TTTTATAATAATTAGTAAAATGTAATTTATTGAAAGAAGT
		ATACTATTTTACTGGGGCGGTAAAAGTATATTTTTTGATT
		AACTGCTTTTGTTTTGCAAGACAATGATAATTGAATTATG
		AATTGATCCATTATTAATGATTATAAGAACAAGTTACTTT
		AGGGATAACAGCGTAAT
KJ132	Lithodes	CAAAAAGACGATAAGACCCTATAAATCGTTACGCTGGGGC	511
573	turritus	GGCGTAGATATATAAATAAACTGTCTATAATTTAGATACA
		ATAATCATTGAATTGATCCTTAAATAGATTAAAAGATTAA
		GATACTTTAGGGATAACAGCGTTAT
KF828	Bouchardina	AAGGGACGATAAGACCCTATAAAACTTTATATTTAAGAGT	512
212	robisoni	AGTAGTTAGTTTTGTTTAAGGAGTAGTATTTAAAAATATT
		TGGTTGGGGTGACAAGGATAGAATAAAAAATAACTGTCTT
		TTTTTTTTACAGTAATATTTGGTTTAATGATCCTAAAAAG
		GATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KF828	Troglocambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTATAAGG	513
201	maclanei	TAGTAAGTTAGTTTTATTTAAAGGTACTATGTTAGAATGT
		TTGGTTGGGGTGACAAGGATAAAATATAAAATAACTGTCT
		TTTTTTTTTACAGTAATGTTTGGTTTAATGATTCTAAAAG
		GGATTAAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KF828	Hobbseus	AAGGGACGATAAGACCCTATAAAACTTTATATTTGAAAAT	514
192	yalobushensis	AGTAGTTAATTTTGTTTAGTAAAGTAGTATTTAAAAGTAT
		TTGGTTGGGGTGACAAGGATAGAATATAAAATAACTGTCT
		TTTTTTTTTACAATAATATTTGTTTTGATGATCCTGAAAT
		GGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KF828	Hobbseus	AAGGGACGATAAGACCCTATAAAACTTTATATTTGAAAAT	515
190	prominens	AGTAGTTAATTTTATTTAATAAAGTATTATTTAAAAGTAT
		TTGGTTGGGGTGACAAGGATAGAATATAAAATAACTGTCT
		TTTTTTTTTTACAATAATATTTGTTTTAATGATCCTGAAA
		TGGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KF220	Charybdis	GAGGGACGATAAGACCCTATAAAGCTTTATAAATTTGAAG	516
510	lucifera	ATTTTGTGTATTTTTATATAAAAATGAATTTTGAAGATTT
		TATTTGGTTGGGGCGACAATGGTATAATGAGAATAACTGC
		TATTAAAATTAACAATTATATTTGAATTATTAATAATTGA
		TCCTTTATAAGGATTTTAAGATCAAGTTACTTTAGGGATA
		ACAGCGTTAT
KF828	Hobbseus	AAGGGACGATAAGACCCTATAAAACTTTATATTTGAAAAT	517
189	petilus	AGTAGTTAATTTTATTTAATAAAGTATTATTTAAAAGTAT
		TTGGTTGGGGTGACAAGGATAGAATATAAAATAACTGTCT
		TTTTTTTTTACAATAATATTTGTTTTAATGATCCTGAAAT
		GGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KX237	Faxonella	AAGGGACGATAAGACCCTATAAAACTTTATATTTAATAAT	518
946	creaseri	AGTAATTAATTTTATTTTAAGAAGTATTATTTGAAAGTAT
		TTGGTTGGGGTGACAAGGATAAAATATAAAATAACTGTCT
		TTTTTTATTACAATAATATTTGGTTTAATGATCCTAAAAT
		GGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KU130	Thranita	AAGGGACGATAAGACCCTATAAAGCTTTATAAGTTTAGAG	519
124	danae	ATTTTATATATTTTTCTATAGCAATAATTTCTTGAAAGCT
		TATTTGGTTGGGGCGACAATAGTATAATTGAAATAACTGC
		TTTAAAATAATACAAATATATTTGAATTATAATTAGTTGA
		TCCTTTATAAAGATTTAAGATCAAGTTACTTTAGGGATAA
		CAGCGTTAT
KT365	Monomia	AGGGGACGATAAGACCCTATAAAGCTTTATAAATTTAAAG	520
606	petrea	ATTTTAGAGATTTTATACCTAAATTTATTTTTTGATAGTT
		TATTTGGTTGGGGCGACAAAGGTATAATTATGGATAACTG
		CCATTAATGTTTATACATATATCTTTGATTTAAGGCTTAA
		ATAATAATTGATCCTTTTTAAGGATTTAAAGATCAAGTTA
		CTTTAGGGATAACAGCGTAAT
KT001	Neogonodactylus	GAGGGACGATAAGACCCTATAAAGCTTTATGGTAGAATTT	521
544	wennerae	TTATATATAAATTATAAAATATCAACTTATTAGAAAATAA
		ATACCATTATACTGGGGCGGTAAAAGTATATTTTTGATTA
		ACTGCTTTTGTTGTTAAAAACAGTTGTGGCTGAATAATCA
		GTTGATCCATTATTAATGATCATAAGTTCAAGTTACTTTA
		GGGATAACAGCGTAAT
KR026	Xiphonectes	AGGGGACGATAAGACCCTATAAAACTTTATAAGTTTAAAG	522
905	pseudohastatoides	ATCTCTACTATTTTTTTTTATAAAGTTTTTTTTGATAGCT
		TATTTGGTTGGGGCGACAAAGGTATAATTATGAATAACTG
		CCATTAAAATTAATACATTTATTGATGATTGTTGATAAAT
		AGTTGATCCTTTTTAAAGATTAAAAGATCAAGTTACTTTA
		GGGATAACAGCGTAAT
KT001	Gonodactylellus	GAGGGACGATAAGACCCTATAAAGCTTTATAATATATTTC	523
545	viridis	TTTTATTTAAATTATAGTTTTTAACTCATTAAAGAAAATA
		TATTATTTTACTGGGGCGGTAAAAGTATATTTTTGATTAA
		CTGCTTTTGTTCTAACAAACAATTATAATTGAATATCCAT
		TGATCCATTATTAATGAGCATAAGACCAAGTTACTTTAGG
		GATAACAGCGTAAT
KT001	Gonodactylaceus	AAGTGACGATAAGACCCTATAAAGCTTTATAGTAGTTCCT	524
543	ternatensis	TTCTATTTAGATTATAAAATTTCAACTTTTTTAAAGGCTA
		TTACTATTTTACTGGGGCGGTAAAAGTATATTATGATTAA
		CTGCTTTTGTCTTGACAAACAATAGTAATTGGATAATTAT
		GTGATCCATTATTAATGATCAAAAGTACAAGTTACTTTAG
		GGATAACAGCGTAAT
KR153	Belosquilla	ATGACGAACAAACCCATACTATAGCTTTATAATATGTTCT	525
534	laevis	TCTTATGTAAGTTATCCCGCTTATTAAACTATTTTAAGAA
		TCATATTATTTTACCGGGGGGTAATGGTATAATTTGTCGA
		GATTAACTGCTTTTCTTTTGTATGACATCTTTACTTGACA
		ACTAATTGATCCATTATTAATGATCACAAGAACAAGTTAC
		TTTAGGGATAACAGCGTACT
KX238	Procambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTATAATA	526
053	okaloosae	TAGTAGTTAGTTTTATTTAATAGTACTATTTTAGAGTATT
		TGGTTGGGGTGACAAGGATAAAATATAAAATAACTGTCTT
		TTTTTTTTTACAATAATGTCTGTTTTAATGATCCTAAAAG
		GGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KX238	Procambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTATAAGA	527
050	morrisi	TATTAGTTAGTTTTATTTAAAAGTATTATATTAAAATATT
		TGGTTGGGGTGACAAGGATAGAATACAAAATAACTGTCTT
		TTTTTTTTACAGTAATGTTTGGTTTAATGATTCTAAAGGG
		ATTAAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KX238	Procambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTATAATA	528
049	milleri	TAGTAATTAGTTTTATTTAATAATATTATATTAAAGTATT
		TGGTTGGGGTGACAAGGATATAATATAAAATAACTGTCTT
		TTTTTTTTACAGTAATATTTGGTTTAATGATCCTAGAAGG
		GATTAAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KX238	Procambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTATAAAA	529
048	mancus	TAGTAGTTAGTTTTGTTTAGAGGTATTAATTTAGAGTATT
		TGGTTGGGGTGACAAGGATAAAATATAAAATAACTGTCTT
		TTTTTATTACAGTAATGTTTGGTTTAATGATCCTAAAAGG
		GATTTAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KX238	Procambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTATAAGT	530
046	lunzi	AGTAGTTAGTTTTATTTAAAAATATTATATTAAAATATTT
		GGTTGGGGTGACAAGGATAAAATATAAAATAACTGTTCTT
		TTTTTTTTTACAGTAATGTTTGATTTAATGATCCTAAAAA
		GGATTAAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KX237	Hobbseus	AAGGGACGATAAGACCCTATAAAACTTTATATTTGAGAAT	531
948	cristatus	AGTAGTTAATTTTGTTTAGTAAAGTATTATTTAAAAGTAT
		TTGGTTGGGGTGACAAGGATAGAATATAAAATAACTGTCT
		TTTTTTTTTACAATAATATTTGTTTTAATGATCCTGGAAT
		GGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KX237	Procambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTATAAGG	532
996	acutissimus	TAGTAGTTAGTTTTATTTTAAAGTATTATTTTAGAGTATT
		TGGTTGGGGTGACAAGGATAAAATATAAAATAACTGTCTT
		TTTTTTTTTACAGTAATGTTTGGTTTAATGATCCTAAAAG
		GGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KX237	Faxonius	AAGGGACGATAAGACCCTATAAAACTTTATATTTAGAAGT	533
973	pagei	AGAAGTTAATTTTATTTTAGTATTACTATTTAAAATATTT
		GGTTGGGGCGACGAGGATAAAAGGTTAAATAACTGTCTTT
		TTTTTTTTACAATAATATTTGGTTTAATGAGCCTAAAAGG
		GATTTAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KY236	Manningia	GAGGGACGATAAGACCCTATAAAGCTTTATAATAATTTTT	534
044	pilaensis	TTTTATAAAAATTATGGTATTATAACTTATTAAAAAATCA
		TTATTATTTTACTGGGGCGGTAAAAGTATAATTTAGATTA
		ACTGCTTTTAACATAAAAACCAATAATAATTGAGAACAAT
		TTGATCCATTATTAATGATCATAAGAACAAGTTACTTTAG
		GGATAACAGCGTAAT
KX279	Pontastacus	AGGGGACGATAAGACCCTATAAAACTTTATATTTTAAAAT	535
350	leptodactylus	AATAATTAATTTTTATATAGAAGATTTATTTTTAAATATT
		TTATTGGGGTGATAAAGATAAAATGTGAGATAACTGTCTT
		TTTTTTTTTACAATTAATATTTGAGTAAAAGATCTTAACA
		AAGGAAATAAGAGATTAAGTTACTTTAGGGATAACAGCGT
		AAT
KX238	Procambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTATAAGA	536
091	zonangulus	TAGTAGCTAGTTTTATTTAAAAGTATTATTTTGGAGTATT
		TGGTTGGGGTGACAAGGATAAAATATAAAATAACTGTCTT
		TTTTTTTTTACAGTAATGTTTGGTTTAATGATCCTAAAAG
		GGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KX238	Procambarus	AGGGACGATAAGACCCTATAAAACTTTATATTTATAATAT	537
089	youngi	GGTAATTAATTTTATTTAAAAATATTATTTTAGAGTATTT
		GGTTGGGGTGACAAGGATAAAATGTTAAATAACTGTCTTT
		TTTTTTTTACAGTAATGTTTGGTTTAATGATCCTACAAAG
		GATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KX238	Procambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTATAAGG	538
075	seminolae	TAGTAGATAGTTTTATTTATAAGTATTATATTAGAATATT
		TGGTTGGGGTGACAAGGATAAAATATAAAATAACTGTCTT
		TTTTTTTTACAGTAATATTTGGTTTAATGATCCTAAAATG
		GATTAAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KX238	Procambarus	AGGGACGATAAGACCCTATAAAACTTTATATTTCTAACGT	539
063	pycnogonopodus	AGTAATTAGTTTTATTTGAGAGTACTATATTAAAGTATTT
		GGTTGGGGTGACAAGGATAAAATATAAAATAACTGTCTTT
		TTTTTTTACAGTAATATTTGGTTTAATGATCCTTAAAAGG
		ATTAGAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KX238	Procambarus	GAGGGACGATAAGACCCTATAAAACTTTATATTTATAAGG	540
054	orcinus	TAGTAATTAGTTTTATTTAAAAGTATTATATTAGAATATT
		TGGTTGGGGTGACAAGGATAAAATATAGAATAACTGTCTT
		TTTTTTTTACAGTAATATTTGGTTTAATGGGCCTGAAAAG
		GATTAAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KX238	Procambarus	AGGGACGATAAGACCCTATAAAACTTTATATTTATAAGGT	541
055	pallidus	AGTAATTAGTTTTATTTAAAAGTATTATATTAGAATATTT
		GGTTGGGGTGACAAGGATAAAATACAGAATAACTGTCTTT
		TTTTTTTACAGTAATATTTGGTTTAATGGGCCTGAAAAGG
		ATTAAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
MH168	Alima	GGGGGACGATAAGACCCTATAAAGCTTTATATTACGTTTC	542
208	maxima	TTCTTTATAAAATATCCGGTTGTTAACTTATTTTAGAAAT
		TGTATTATTTTACTGGGGCGGTAAAAGTATAAATAAGATT
		AACTGCTTTTGTCTTGCATAACAATTTTAATTGGAAATAA
		ATTGATCCATTAATAATGATCACAAGAACAAGTTACTTTA
		GGGATAACAGCGTAAT
MF490	Scyllarides	GAGGGAYGATAAGACCCTGTAAATCTTTATATTTTGGCTG	543
148	deceptor	ATAAGGTTAAAAGTTAGGTTAKTATTTAATTTTATAAGTT
		TGAATATTTTGTTGGGGAGACAGGGGYATAAAAGGAAATA
		ACTGCCTTARAGTTTAAGTTAAAAATGTTTAAATTATTAA
		GTGATCCTTTAATAAGGAATATAGACTAAGTTACTTTAGG
		GATAACAGCGTAAT
KY524	Monomia	AGGGGACGATAAGACCCTATAAAGCTTTATAAGTTTAGGA	544
476	argentata	ATTTTAAATATTTTGTAGATAAATTTATTTTCCAATATCT
		TATTTGGTTGGGGCGACAAAGGTATAATTATGAATAACTG
		CTATTATTAACAATACATCTATCGTTGGCTAAAATTTATA
		ATAATTGATCCTCTTTAGAGATTAAAAGATCAAGTTACTT
		TAGGGATAACAGCATAAT
KY524	Xiphonectes	GAGGGACGATAAGACCCTATAAAGCTTTATATATTAAATG	545
461	pulchricristatus	ATTTTATGGATTTAAAAAATAAAAATTATTCTGAAAAATT
		TATTTGGTTGGGGCGACAGAGGTATAATTTAGATAACTGC
		TAGGAATTTATACAATTATTCTTGAATTATGTTTGTAAAT
		GATCCTTGTTAGAGATTAAAAGATCAAGTTACTTTAGGGA
		TAACAGCGTAAT
NC_04	Paralithodes	AAAAGACGATAAGACCCTATAAATCTTTACAATAAATATA	546
2240	platypus	TTTTATATTTTAGCTTATAAGTAAATAAGAAATAAAAATA
		TAGGTTTGTTACGCTGGGGGGGCGTAGATATATAAATAAA
		CTGTCTATAGTTTAAATACAATAATTATTGCTTAATACAA
		ATTGATCCTTAAATAGATTAAAAGATTAAGATACTTTAGG
		GATAACAGCGTTAT
KY426	Lopholithodes	AAGACGATAAGACCCTATAAATCTTTACAATAAATATATT	547
330	foraminatus	TTATATTTTAGCTTATAAGTGTATAAGAAATAAAAATATA
		GATTTGTTGCGCTGGGGGGGCGTAGATATATAAATAAACT
		GTCTATAATTTAAATACAATAATCATTGTTTAATACAAAT
		TGATCCTTAAATAGATTAAAAGATTAAGATACTTTAGGGA
		TAACAGCGTTAT
KY236	Faughnia	GAGGGACGATAAGACCCTATAAAGCTTTATGATTCCTTTT	548
047	formosae	TTTATTATAAATTATATATTTTAGTTTACTAAAAAACAGG
		TATTATTTTACTGGGGCGGTAAAAGTATGTTTTTGGGTAA
		CTGCTTTTATTTTTAAAAACAATTATGTTTGGAAATAAAA
		TGGTCCATTATTAATGATTATAAGAACAAGTTACTTTAGG
		GATAACAGCGTAAT
KY236	Faughnia	GGGGGACGATAAGACCCTATAAAGCTTTATGGTAGTTTCT	549
046	profunda	TTTAATATGAATTGTATGATTTCTAGTTTATTGAAGAAAA
		ATTACTATTTTACTGGGGCGGTAAAAGTATGCTTTCGGTT
		AACTGCTTTTGTTTTTAAAAACAAACATGGTTGGAAATAA
		ATTGATCCATTATTAATGATTATAAGAACAAGTTACTTTA
		GGGATAACAGCGTAAT
KY236	Bathysquilla	GAGGGACGATAAGACCCTATAAAGCTTTATGGTGTACTAC	550
045	crassispinosa	TTTGTTACAAAATATAATAATTAAAACTTATTGAAGTAGT
		GGGCATTATTTTACTGGGGCGGTAAAAGTATAAATAATCT
		GAGTAACTGCTTTTATTGTGCTAAACAATTATAATTGACT
		TTTAAATTGATCCATTACTAATGATCACAAGAACAAGTTA
		CTTTAGGGATAACAGCGTAAT
NC_00	Eriocheirsinensis	TAAAGGGACGATAAGACCCTATAAAGCTTAATATTAAATT	551
6992		TTATATAGTCAAATTTTAGGTTATAAAGATTTTGTAAATT
		GAATTTATTTTATTGGGGCGATAAGAGTAAAATGATTATT
		AACTGCTTAACATTAAGTACACTTATGTGTGATTAAAATT
		TTAAATGATCCTAATTAAAGATTAAAAGTTTAAGTTACTT
		TAGGGATAACAGCGTTAT
NC_00	Harpiosquilla	GAGGGACGATAAGACCCTATAAAGCTTTATGACATATTTT	552
6916	harpax	TTTTTATAAATTATTTTGTTATTAACTTAATATAAAATGT
		ATGTCATTTTACTGGGGCGGTAAAAGTATAATTAAAGAAT
		AACTGCTTTTGTTTTTAATAACAATTATAGTTGGAAATGA
		ATTGATCCATTATTAATGATCACAAGAACAAGTTACTTTA
		GGGATAACAGCGTAAT
NC_00	Callinectes	CCATAGGGACGATAAGACCCTATAAAGCTTTATAAATTTA	553
6281	sapidus	TTAATTTCGTTTATTTTTTATTATAATAATGATGATAAGA
		GAATTTATTTGGTTGGGGCAACCGAAGTATAATTTTAAAT
		AACTGCTATAATTTAATACAATGATTTTTGTCTTATACAA
		TAATTGATCCTCAAAGAGATTAAAGACCAAGTTACTTTAG
		GGATAACAGCGTAAT
NC_00	Squilla	GAGGGACGATAAGACCCTATAAAGCTTTATAATACTTCTT	554
6081	mantis	TTTTATATAAATTGTTCTATTATTAACTTATTTTAAAGAT
		TGTATTATTTTACTGGGGGGGTAAAAGTATATTAAAGACT
		AACTGCTTTTATTTTTTATAACAATTATGATTGAATGTAA
		ATTGATCCATTATTAATGATCACAAGAACAAGTTACTTTA
		GGGATAACAGCGTAAT
NC_00	Portunus	GAGGGACGATAAGACCCTATAAAGCTTTATAAATTTAGAA	555
5037	trituberculatus	ATTTTATATATTTTTTTAATAATGATAATCTTTTGAAAAT
		TTATTGGGTTGGGGCAACAAAAGTATAATTATTAATAACT
		GCTAGAAAGTATTACAATTGTTTTTGTCATAAAGAAAATT
		AGTTGATCCCTGAAAGGGATTAAAAGATCAAGTTACTTTA
		GGGATAACAGCGTAAT
NC_00	Panulirus	GGGGGACGATAAGACCCTATAAATCTTGATGATTAAGATA	556
4251	japonicus	ATAAATTTTAGGCAGTAGTAATAAGTTTAAATTTAATGTC
		TTAATTATTTTGTTGGGGCGACAGGAGTATAAGAAGTAAC
		TGCTTTGAAAAAATAATTAATTATTTTTATGATGTTTTGT
		TTGTGATCCTTCTATGAAGATAATAGATCAAGTTACTTTA
		GGGATAACAGCGTAAT
MN334	Cancer	AGGGGACGATAAGACCCTATAAAGCTTTATATTTTAGCTA	557
534	pagurus	TAATTTAATTAAATTAATTAGATCAAAGGTTTTAATAAGT
		TATTATATTTTATTGGGGAGGTATAAGTATAATTTATGTA
		ACTGCTTATAAGTTAGTACACTGATAATTGATTAGAGTTT
		CAATGATCCTTTAAGATAAAGATTTAAGACTAAGTTACTT
		TAGGGATAACAGCGTTAT
MT750	Chionoecetes	GGGGGACGATAAGACCCTATAAAGCTTTACATATAAGTAG	558
295	japonicus	AGTTTACTTAATTAAAAAGTAAAAGTTTAATCTAATTAAT
		GTGTTTTGTTGGGGCGACATAAATATAATTTATATTAACT
		GTTTATAATTTAATACAATAATAAATGATTTTAATGTAGT
		TGATCCTTATTAAAGATTAAAAGACTAAGTTACTTTAGGG
		ATAACAGCGTTAT
NC_01	Scylla	GAGGGACGATAAGACCCTATAAAGCTTTATAAATTAAGTA	559
2567	tranquebarica	AGTTAGAACAAATTTTATAGAATAAAGGTAAATTTAATAT
		ATTTATTTGGTTGGGGCGACAATGGTATAAATTAAATAAC
		TGCTATTAAAATTAAACAATTATATTTGATTAAAATTATA
		ATTGATCCTTATTATGGATTAAAAGATCAAGTTACTTTAG
		GGATAACAGCGTAAT
NC_01	Scylla	CTAGAGGGACGATAAGACCCTATAAAGCTTCATAAGTTAA	560
2565	serrata	ATAAATTAGATGGATTTTTAGAATAAAAGTAAATTTAGTA
		AGCTTATTTAGTTGGGGCGACAAGGGTATAAAATTAAATA
		ACTGCTATTAAGGTTAGACAATTATATTTGGTTGGATTGT
		AATTGATCCTCGCTATGGATTAAAAGATTAAGTTACTTTA
		GGGATAACAGCGTAAT
NC_01	Eriocheir	AAGGGACGATAAGACCCTATAAAGCTTAATATTAAATTTT	561
1598	hepuensis	ATATAGTCAAATTTTAAATTATAAAGATTTTGTAAATTGA
		ATTTATTTTATTGGGGCGATAAGAGTAAAATGATTATTAA
		CTGCTTAACATTAAGTACACTTATATGTGATTAAAATTTT
		AAATGATCCTAATTAAAGATTAAAAGTTTAAGTTACTTTA
		GGGATAACAGCGTTAT
NC_01	Eriocheir	AAGGGACGATAAGACCCTATAAAGCTTAATATTAAATTTT	562
1597	japonica	ATTTAGTCAAATTTTAGGTTATAAAGATTTTGTAAATTGA
		ATTTATTTTATTGGGGCGATAAGAGTAAAATGATTATTAA
		CTGCTTAATATTAAGTACACTTATATGTGATTAAAATTTT
		AAATGATCCTAATTAAAGATTAAAAGTTTAAGTTACTTTA
		GGGATAACAGCGTTAT
NC_01	Cherax	GGGGGACGATAAGACCCTATAAAGTTTGACATTAAATTAA	563
1243	destructor	TTAAGGGTAATTTAGATTATAAAGTCTTATTATTATATAA
		GTGTTTAGTTGGGGCGACTAGGATATAAGTTATTTAACTG
		TTTCTTCATTCGAATCAAAAATTTTTGATTTTATGATCCT
		TTTTAAGGGTACTAGAGTAAATTACTTTAGGGATAACAGC
		GTAAT
>NC_0	Squilla	GAGGGACGATAAGACCCTATAAAGCTTTATGATATTTCTT	564
07444	empusa	TTTTGTATAAAATATTTATTGTTAACATATTTAAAAGTTT
		ATATTATTTTACTGGGGCGGTAAAAGTATATTAAAGACTA
		ACTGCTTTTGTTTTTTATAACAATTATAATTGAAAATAAA
		TTGATCCATTATTAATGATCATAAGAACAAGTTACTTTAG
		GGATAACAGCGTAAT
NC_00	Lysiosquillina	AAGGGACGATAAGACCCTATAAAGCTTTATGATGTATATT	565
7443	maculata	CGCTAATGTTGATTTTCGTAATATTAAAGCGTTAGAGAAT
		CATATCATTTTACTGGGGGGGTAAAAGTATAAAAGAATAA
		CTGCTTTTGTTGAAATTAAACAATGATAGTTGGAGAATAA
		ATTGATCCATTAATAATGATCATAAGAACAAGTTACTTTA
		GGGATAACAGCGTAAT
NC_00	Gonodactylus	GAGGGACGATAAGACCCTATAAAGCTTTATAATGGATTCT	566
7442	chiragra	TGTTATATAAATTATCAATTGTTAACATGTTAAAAGAATA
		ATATTATTTTACTGGGGGGGTAAAAGTATATATCTGAGTA
		ACTGCTTTTGTTTTTTAAAACAGTGATGACTGACTTATTA
		ATTGATCCACTAATAGTGAGCATAAGGACAAGTTACTTTA
		GGGATAACAGCGTAAT
NC_01	Panulirus	GGGGGACGATAAGACCCTATAAATCTTTATGTTTTAACTA	567
6015	homarus	ATAAATTTTAGAGATTAGTTAAATATTTAGTGTTATTAAG
		TTAAATATTTTGTTGGGGCGACAGGAGTACAATAAGTAAC
		TGCTTTGTTTATAAAGTTAATTATTTTTATTATGGAAATT
		GTTATTGATCCTTTTTGGAGAAATCAGAATAAGTTACTTT
		AGGGATAACAGCGTAAT
NC_01	Homarus	TAAAGGGACGATAAGACCCTATAAAGCTTAATAATTTAGT	568
5607	americanus	ATATAATTAGATGAGTTGAAAGTTTAATATTATTTATATA
		CTAAATTATTTCGTTGGGGCGACGATGATATAATTTGTAA
		CTGTTTAAATTTAAAATACAGAGATATTTGTGTGTAATGA
		TCCTTGTTGTTGATTAAAAATTTAAGTTACTTTAGGGATA
		ACAGCGTTAT
NC_01	Panulirus	GGGGGACGATAAGACCCTATAAATCTTTATACTTTAACTA	569
4854	ornatus	ATAAATTTTAAAGATTAGTTGCAAATTTAGTGTTATTAAG
		TTAAAATATTTTGTTGGGGCGACAGGAGTATAATAAGTAA
		CTGCTTTGTTTATAAATTTAATTATTTTTAATGTGTAAAT
		TGTATTGATCCTCTGTTGGAGAAATCAGACTAAGTTACTT
		TAGGGATAACAGCGTAAT
NC_01	Oratosquilla	GAGGGACGATAAGACCCTATAAAGCTTTATGATACTATTC	570
4342	oratoria	TTTTTTATAAATTGTTTTGTTATTAACTTATTTTAGAATT
		AGTATTATTTTACTGGGGCGGTAAAAGTATAATAAAAGAA
		TAACTGCTTTTGTTTTGTATAACAATTTTAGTTGGAAATA
		AATTGATCCATTATTAATGATCATAAGAACAAGTTACTTT
		AGGGATAACAGCGTAAT
NC_01	Panulirus	GGGGGACGATAAGACCCTATAAATCTTTATATTTTATTTA	571
4339	stimpsoni	ATAAATTTTAAAAATTAGTTATACATTTAGCGATATTAAG
		TCAAATATTTTGTTGGGGCGACAGGAGTATAATAAGTAAC
		TGCTTTGTTTGTAAAGTTAATTATTTTTATTGTGTAGAGT
		TAAATTGATCCTTTCTAGAGAAATCAGATCAAGTTACTTT
		AGGGATAACAGCGTAAT
NC_01	Charybdis	GAGGGACGATAAGACCCTATAAAGCTTTATAAATTTAAAG	572
3246	japonica	ATTTTATATATTTTTATATAAAAATAAATTCCAGAGGATT
		TATTTTGTTGGGGCGACAATGGTATAATGAAAATAACTGC
		TATTAAAATTAACAATTATATTTGTTTATGTAAATAATTG
		ATCCTTTATAAGGATTTTAAGATCAAGTTACTTTAGGGAT
		AACAGCGTTAT
NC_01	Scylla	GAGGGACGATAAGACCCTATAAAGCTTTATAAGTTAAGTA	573
2572	paramamosain	AGTTAAATTAATTTTTTAAAATAAAAATAAGCTTAAAAAA
		TTTATTTGGTTGGGGCGACAATGGTATAAATTAAATAACT
		GCTATTAAAATTAAGCAATTATATTTGATTAGAATTATAA
		TTGATCCTTATTATGGATTAAAAGATCAAGTTACTTTAGG
		GATAACAGCGTAAT
NC_01	Scylla	GAGGGACGATAAGACCCTATAAAGCTTTATAGATTGAGTG	574
2569	olivacea	GATTAAACCAATTTTTTAGAATAAAAGTAAATTTGGAAGA
		TTTATTTGGTTGGGGCGACAAATGTATAATGTTAAATAAC
		TGCTATTAAATTTAAACAATTATATTTGATAAAAATTTAA
		ATGATCCTTAATAAAGATTAAAAGATCAAGTTACTTTAGG
		GATAACAGCGTAAT
NC_02	Cherax	GAGGGACGATAAGACCCTATAAAGTTTATACATGAAGTTG	575
2937	quadricarinatus	GTTAAGAGTGATTTAAGGTGTTAAAGTTTATTATCAGCAG
		GGTGTTTAGTTGGGGCGACTAGGATATAAATTATATAACT
		GTTTTTTGTTTAAATCAGAGATATTTGTTCATATGATCCC
		TTTTTAGGATTAGAGAATAAATTACTTTAGGGATAACAGC
		GTAAT
NC_02	Cherax	AAGGGACGATAAGACCCTATAAAGTTTATACATCCAAATG	576
2936	cainii	ATTGAAAATAATTAAGAAAATTAAAGTTTATTATTAGGGA
		GATGTTTAGTTGGGGCGACTAGGATATAAGTTAATTTAAC
		TGTCCTAAATTAAAATCAAAGATATTTGAGTTTGTGATCC
		TTTTTTAGGATTAAAGAACAAGTTACTTTAGGGATAACAG
		CGTAAT
NC_02	Paralithodes	CAAAAAGACGATAAGACCCTATAAATCTTTACAATAAATA	577
1458	brevipes	TATTTTATATTTTATATTATAAGTGTATAATAAATAAAAA
		TATAAATTTGTTGCGCTGGGGCGGCGTAGATATATAAATA
		AACTGTCTATAATTTAAATACAATAATCATTGTTTAGTAA
		AATTGATCCTTAAATAGATTAAAAGATTAAGATACTTTAG
		GGATAACAGCGTTAT
NC_02	Paralithodes	CAAAAAGACGATAAGACCCTATAAATCTTTACAATAAATA	578
0029	camtschaticus	TATTTTATATTTTAGTTTATAAGTGAATGAGATATAAAAA
		TATAGGTTTGTTGCGCTGGGGCGGCGTAGATATATAAATA
		AACTGTCTATAGTTTAAATACAATAATCATTGCTTAATAT
		AAATTGATCCTTAAATAGATTAAAAGATTAAGATACTTTA
		GGGATAACAGCGTTAT
NC_02	Scyllarides	GAGGGACGATAAGACCCTATAAATCTTTATATTTTGGGTT	579
0022	latus	ATAAGGTTAAAAATTAGGTTATCTTTTAATTTTATAAGGT
		TAAATATTTTGTTGGGGAGACAGAGGTATAAAAAGAGATA
		ACTGCCTTAAAATTTATAGTTAAGAATAGTTAAGATTGAA
		AGTGATCCTTTAATAAGGAAAATAGAAGAAGTTACTTTAG
		GGATAACAGCGTAAT
NC_01	Procambarus	GGAGGGACGATAAGACCCTATAAAACTTTATATTTATAAT	580
6926	clarkii	ATAGTAGTTAGTTTTATTTAAGGGTATTATTTTAGAGTAT
		TTGGTTGGGGTGACAAGGATAAAATATTAAATAACTGTCT
		TTTTTTTTTACAGTGATGTTTGGTTTAATGATCCTAAAAG
		GGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
NC_02	Procambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTATAAAG	581
0021	fallax	TAGTAGTTAGTTTTATTTAAAAGTATTATATTAGAATATT
		TGGTTGGGGTGACAAGGATAAAATATAGAATAACTGTCTT
		TTTTTTTTACAGCAATATTTGGTTTAATGATCCTAAAAAG
		GATTAAAAGATTAAGTTACTTTAGGGATAACAGCGTGAT
NC_02	Homarus	TAAAGGGACGATAAGACCCTATAAAGCTTAATAATTTAGT	582
0020	gammarus	ATATAATTAGATGAGTTAAAAGTTTAATATTATTTATATA
		CTGAATTATTTCGTTGGGGCGACGATGATATAATTTGTAA
		CTGTTTAAATCTAAAATACAGAGATATTTGTGTGTAATGA
		TCCTTGTTGTTGATTAAAAATTTAAGTTACTTTAGGGATA
		ACAGCGTTAT
NC_02	Thenus	AGGGGACGATAAGACCCTATAAATCTTTATATTAATTTGT	583
4440	orientalis	TGTTAAATTGGAAAGTAGAATTAATTCCGGGTTTAATAAT
		TTTGAATATTTTGTTGGGGAGACAGAAGTGTAAATAAATA
		ACTACTTTAAAAAAAAAAGTTAATGATATTTAATGAGGAG
		ATCCTTTACTAAGGATTGTAGAATAAGTTACTTTAGGGAT
		AACAGCGTAAT
NC_02	Lithodes	CAAAAAGACGATAAGACCCTATAAATCTTTACAATAAATA	584
4202	nintokuae	TATTTTATATTTTAGCTTATAAGTGTATAAGAAATAAAAA
		TATAGATTTGTTGCGCTGGGGCGGCGTAGATATATAAATA
		AACTGTCTATAGTTTAAATACAATAATCATTGCTTAATAC
		AAATTGATCCTTAAATAGATTAAAAGATTAAGATACTTTA
		GGGATAACAGCGTTAT
NC_02	Cherax	GGGGGACGATAAGACCCTATAAAGTTTGTACACTAAACTA	585
3481	cairnsensis	GTTTAGAGTGATTTAGGTTTATAAAGTTTACTATTGGGGA
		GGTGTTTAGTTGGGGCGACTAGGATATAAGTTATCTAACT
		GTTTCTTTGTTGTAATCAGAAATATTTGAGTTTATGATCC
		TTTTTTAGGATTATAGAGTAAATTACTTTAGGGATAACAG
		CGTAAT
NC_02	Cherax	GGGGGACGATAAGACCCTATAAAGTTTGTACATTAAACTA	586
3480	dispar	ATTAAAGGTGGTTTAGGTTTATAAAATTTGCCATTAGGGA
		AGTGTTTAGTTGGGGCGATTGGGATATAAGTTATCTAACT
		GTTTCTTTGTTTTAATCAAAAATATTTGAGTTTATGATCC
		TTTTTTAGGATTAAAGAGTAAATTACTTTAGGGATAACAG
		CGTAAT
NC_02	Cherax	AAGGGACGATAAGACCCTGTAAAGTTTATACATTAAGTTA	587
3479	quinquec	ATTAAAAATAATTAAGGAGATTAAAATTTATTATTGGGTA
	arinatus	GATGTTTAGTTGGGGCGACTAGGATATAATTTAATTATAA
		CTGTCTTAGATTAAGGTCAAAGATATTTGAGTTTGTGATC
		CTTTCTTAGGATTCAAGAACAAGTTACTTCAGGGATAACA
		GCGTAAT
NC_02	Cherax	GAGGGACGATAAGACCCTATAAAGTTTTGTACATTAAACC	588
3478	robustus	AATTAATAGGCGATTTAGGTTTGTAAGGTTTACTATTAGG
		TAGATGTTTGGTTGGGGCGACTAGGATATAAGTTATTTAA
		CTGTTCTTTGTTAGAATCAAAGGTATTTGAGTTTATGATC
		CTTTTTAAGGGTTATAGAATAAATTACTTTAGGGATAACA
		GCGTAAT
NC_02	Cherax	GAGGGACGATAAGACCCTATAAAGTTTGTACACAGAGTTA	589
2938	monticola	ATTAAGAGCGATTTGGAGTAATAAAATTTATTATTAGCAA
		GGTGTTTGGTTGGGGCGACTAGAATATAAGTTATATAACT
		GTTTTTTGTTTAAATCAGAGATATCTGTTTATATGATCCC
		TTTTTAGGATTAAAGAGTAAATTACTTTAGGGATAACAGC
		GTAAT
NC_02	Cherax	AAGGGACGATAAGACCCTATAAAGTTTATATACAGAACTA	590
2939	glaber	ATTAAAGATAATTAGGAAGAATAAAATTTATTATTAGGTA
		GGTATTTAGTTGGGGCGACTAGGATATAAATTAATTTAAC
		TGTTTTTAATTAAGGTCAAAGATATTTGAGTTCGTGATCC
		TTTTTTAGGATTAAAGAATAAGTTACTTTAGGGATAACAG
		CGTAAT
NC_02	Cherax	GAGGGACGATAAGACCCTATAAAGTTTGAACACCGGGTTT	591
6224	holthuisi	GTTAAGAGTGATTTAGAATAGTAAAGTTTGTTACTAGTAA
		AGTGTTTGGTTGGGGCGACTAGAATATAAGTTATATAACT
		GTTTTTTATTTGAATCAGAGATATCTGTTTATATGATCCC
		TTTTTAGGATTAAAGAGTAAATTACTTTAGGGATAACAGC
		GTAAT
NC_02	Astacopsis	GGGGGACGATAAGACCCTATAAAGTTTAACATAATGAGGA	592
6215	gouldi	TAAAAAATTAATTAGATTATAAAGTTTATTATCATAAATA
		ATGTTTTGTTGGGGCGACAAGAATAAAAATAATTTAACTG
		TTCTTTTTTAGATACAAAAATATTTGTGTAGGGTGATCTT
		TTTTAGAAGTATTAGAGTAAATTACTTTAGGGATAACAGC
		GTAAT
NC_02	Portunus	GAGGGACGATAAGACCCTATAAAGCTTTATAAATTTAAAG	593
6209	pelagicus	ATTTTATATATTTTTTATTATAATGATAATTTCTCAAAAA
		TTTATTGGGTTGGGGCAACAAAAGTATAATTATCAATAAC
		TGCTATAAATTACTACAATTATTTTTGTTATTAAAGAGTT
		GTTGATCCTCGAAAGGGATTAAAAGATCAAGTTACTTTAG
		GGATAACAGCGTAAT
NC_02	Paranephrops	AAGGGACGATAAGACCCTATAAAGCTTTACATTGAATTTA	594
5957	planifrons	TTAAAAAGTAATTTAAATAATAAAAGTTTATTAGTAGGGA
		GATGTTTTGTTGGGGTGACAAGAATATAATAAATATAACT
		GTTCTTTTTTATTTCAAAAATATTTGAATGGGAGATCCTT
		AATAAAGATGTTAGAGTAAGTTACTTTAGGGATAACAGCG
		TAAT
NC_02	Nephrops	TAAAGGGACGATAAGACCCTATAAAGCTTAATAATTTAAT	595
5958	norvegicus	ATATAACCAGATAAATTAAAAGTTTAATATTCTTTATATA
		TTAAATTATTTCGTTGGGGCGACGATGATATAATTTGTAA
		CTGTTTAAATTTTAAATACAGAGATATTTGTGTGTAATGA
		TCCTTTTTATTGATTAAAAATTTAAGTTACTTTAGGGATA
		ACAGCGTTAT
NC_02	Ibacus	AGGGGACGATAAGACCCTATAAATCTTTATATTTTATATT	596
5581	ciliatus	TATTAGTTTAAAAATTGGTATAAAATTTTGATTTAATAAT
		TTAAAATATTTTGTTGGGGAGACAGGAGTATAATAAATAA
		CTGCTTTAAAATTTAAGTTAATAATATTTAATTGAGTGAT
		CCTTTAATATGGATTTTAGATTAAGTTACTTTAGGGATAA
		CAGCGTAAT
NC_02	Charybdis	GAGGGACGATAAGACCCTATAAAGCTTTATAAATTTAAAA	597
4632	feriata	ATCTTATATATTTTTATATAAAAATAATTTTTGAGGAGTT
		TATTTGGTTGGGGCGACAGTGGTATAAGTAATGTAACTGC
		TATAGTGTTTAACAAAAATATTTGTTTAGTGTAAGTAATT
		GATCCTTTATAAGGATTTTAAGATCAAGTTACTTTAGGGA
		TAACAGCGTTAT
NC_02	Metaneph	GAGGGACGATAAGACCCTATAAAGCTTGATAATTTTGTAT	598
5323	ropssibogae	ATAAATAAATAAGTTGTTAGTATTATACTGTCTACATATA
		AAATTATTTCGTTGGGGCGACGATAATATAATCTGTAACT
		GTTTAGGTTTTAACTCAAATATATTTGTGTTTAATGATCC
		ATTAATTGTTGATTAAAAATTTAAGTTACTTTAGGGATAA
		CAGCGTTAT
NC_02	Panulirus	GGGGGACGATAAGACCCTATAAATCTTGATGATCGGGGTA	599
8024	cygnus	GTAATTTTTATGTAGTAGTTATAAACTTAAATTTAATACC
		TTGATTATTTTGTTGGGGCGACAGGGGTATAATTAGTAAC
		TGCCTTGGATAAACAGCTAATTATTTTTATTGTGTTATGT
		CTAAGATCCTTCTTTGAAGATATCAGATCAAGTTACTTTA
		GGGATAACAGCGTAAT
NC_02	Metanephrops	GAGGGACGATAAGACCCTATAAAGCTTGATAATTTTATAT	600
7608	thomsoni	ATAAATAAATAAGTTGTTAGTGTTATATCATCTATTTATA
		AAATTATTTCGTTGGGGCGACGATAATATAATTTGTAACT
		GTTTAAGATTTAGATTCAAATATATTTGTGTTTTAATGAT
		CCATTAGTTGTTGATTAAAAATTTAAGTTACTTTAGGGAT
		AACAGCGTTAT
NC_02	Faxonius	TTGGGACGATAAGACCCTATAAAACTTTATATTTTAAGGT	601
6561	limosus	AGGAGTTAATTTCATTTTAAGGTTACTATTTTAAAATGTT
		TTGTTGGGGGGACAAGGATATAAGAAATGATAACTGTCTT
		TTATTTTTACAATAATATTTGATTTATTGATCCTGAAAGG
		GATTTAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
NC_02	Squilloides	GAGGGACGATAAGACCCTATAAAGCTTTATATTATATTTC	602
7178	leptosquilla	TTTAATATAAATTGTAATGTTATTAACTTATTTTAGAAAA
		TATATTATTTTACTGGGGGGGTAAAAGTATATTAAAGATT
		AACTGCTTTTGTTTTGTATAACAATTATAGTTGAAAATAA
		AATGATCCATTATTAATGATCATAAAACCAAGTTACTTTA
		GGGGTAACAGCGTAAT
NC_02	Cherax	GAGGGACGATAAGACCCTATAAAGTTTATACATGGGGCTG	603
6226	bicarinatus	GTTGAGAGTGATTCAGAATAGTAAAGTTTATTATTAGCAA
		GATGTTTAGTTGGGGCGACTAAGATATAAATTATATAACT
		GTCTTTTGTTTAAATCAGAGGTATCTGTTCGTATGATCCT
		TTTTTAGGATTGGAGAGTAAATTACTTTAGGGATAACAGC
		GTAAT
NC_02	Austropot	GGGGGACGATAAGACCCTATAAAACTTTATATTTTAAAAA	604
6560	amobius	TATTAACTAGTTTTGTATAAGAGGGTTTTTTTTTGAGTAT
	pallipes	TTTATTGGGGTGATAGGGATATAATAAAAGATAACTGTCT
		CTTTTTTTTTACAGAGATATTTGAGTAAATGATCCTAATA
		AGGGAAAGAAGGTTAAGTTACTTTAGGGATAACAGCGTAA
		T
NC_02	Cherax	AAGGGACGATAAGACCCTATAAAGTTTATACATTCAAATA	605
6559	tenuimanus	ATTGAAAATAATTAAGAAAAATTAAAGTTTATTATTAGGA
		AGATGTTTAGTTGGGGCGACTAGGATATAAGTTAATTTAA
		CTGTCTTAAATTAAAGTCAAAGATATTTGAGTTTGTGATC
		CTTTTTTAGGATTCAAGAACAAGTTACTTTAGGGATAACA
		GCGTAAT
NC_02	Cherax	GAGGGACGATAAGACCCTATAAAGTTTATACATGGAGTTA	606
6227	boesemani	GTTAAGAGTGATTTAGGATAGTAAAGTTTGTTATTAGCAA
		GATGTTTGGTTGGGGCGACTAGAATATAAGTTATATAACT
		GTTTTTTATTTAAGTCAGAGGTATTTGTTTATAGTGATCC
		CTTTTTAGGATTAAAGAGTAAATTACTTTAGGGATAACAG
		CGTAAT
NC_03	Charybdis	GAGGGACGATAAGACCCTATAAAGCTTTATAAATTTAAAG	607
6132	(Charybdis)	ATTTTGTATGTTTTTATATAAAGATAAATTCTAAAGAATT
	natator	TATTGGGTTGGGGCGACAATGGTATAATGAAAATAACTGC
		TATTAAAATTAACAACTATATTTGGATTAAGTTAAATAAT
		TGATCCTTTATAAGGATTTTAAGATCAAGTTACTTTAGGG
		ATAACAGCGTTAT
NC_03	Procambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTATAAGA	608
3510	acutus	TAGTAGCTAGTTTTATTTAAAAGTATTATTTTGGAGTATT
		TGGTTGGGGTGACAAGGATAAAATATAAAATAACTGTCTT
		TTTTTTTTACAGTAATGTTTGGTTTAATGATCCTAAAAGG
		GATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
NC_03	Pacifastacus	GAGTGACGATAAGACCCTATAAAACTTTATATTTTAAGAT	609
3509	leniusculus	AATAGTTAGTTTTATTTAAGAGTTTTATTTTGAAATATTT
		TATTGGGGTGATAAAGATATAAATTAAAATAACTGTCTTT
		TTTTTTTACAATAATCTTTGAATTAATGATCCTAAGAAAG
		GAGTAAAAGATCAAGTTACTTTAGGGATAACAGCGTAAT
NC_03	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAAATTAT	610
0255	gregaria	TTTTAGTTAATTAATAATGTAATTTTAACAGTAAAATAAA
		ATATATTGTGTTGGGGTGATGAGAATATAAAATTAACTGT
		TCTAAATTGAAAACAAATTTATTTGAATTAATAATAGATC
		CTTAATAGAGATTAAAAGTTTAAGTTACTTTAGGGATAAC
		AGCGTTAT
NC_02	Panulirus	GGGGGACGATAAGACCCTATAAATCTTTATGCTTTAATTA	611
8627	versicolor	ATAAATCTTAGAAATTAGTTACAAATCTAGCGTCATTGAG
		TTAAAGTATTTTGTTGGGGCGACAGAAGCATAATAAGTAA
		CTGCTTTCGTTTAAAAAAATTAATTATTTTTATTGTGATA
		GTTATATTGATCCTCTTATGGAGAAACCAGATCAAGTTAC
		TTTAGGGATAACAGCGTAAT
NC_02	Faxonius	ATGGGACGATAAGACCCTATAAAACTTTATATTTTAATGT	612
9720	rusticus	AGAAGTTAATTTTATTTTAAGTTCACTATTTTAAAATTTT
		TTGTTGGGGCGACAAGGATATAAAAAATGATAACTATCTT
		TTATTTTTACAATAATATTTGATTTATTGATCCTAAAAGG
		GATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
NC_02	Portunus	GAGGGACGATAAGACCCTATAAAGCTTTATAAATTTAAAG	613
8225	sanguinolentus	ATTTTACATATTTTATCTATAATGGTAATCTCTGGAGAAT
		TTATTGGGTTGGGGCAACAAAAGTATAATTATCAATAACT
		GCTATAAAATAATACAATTATCTTTGTGTGGGTAGATTAG
		TTGATCCCTGAAAAGGATTAAAAGATCAAGTTACTTTAGG
		GATAACAGCGTAAT
NC_02	Procambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTATAATA	614
8447	alleni	TAGTAGTTAGTTTTATTTAATAATATTATATTAAAGTATT
		TGGTTGGGGTGACAAGGATATAATATAAAATAACTGTCTT
		TTTTTTTTACAGTAATATTTGGTTTAATGATCCTAGAAGG
		GATTAAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
NC_05	Metacarcinus	GGGGGACGATAAGACCCTATAAAGCTTTATATTATCAGCT	615
0675	magister	ATGATTTAATTAAATTAAAAAGAAATTAAAGGTTTTAATA
		AGCTATTATATTTTATTGGGGAGATATAAGTATAATTTTA
		TGTAACTGCTTATAAGTCGATACATTGATAATTGGTTTAA
		ATTTTAATGATCCTTTGAATAAAGATTCAAGACCAAGTTA
		CTTTAGGGATAACAGCGTTAT
NC_04	Puerulus	GGGGGACGATAAGACCCTATAAATCTTTATATTTGCTCAG	616
1155	angulatus	CCAAAAAATGTGTATTAGGGCCAAAAATATATTTTTTGGT
		GGGGTGATATTTTGTTGGGGCGACAGGAGTATAATAAGTA
		ACTGCTTTAAAAGTTTAATTAGATATATTTAGTTTGAGTG
		TTAAAAGATCCTTTAGTAAGGATTATTAAAATAAGTTACT
		TTAGGGATAACAGCGTAAT
NC_04	Lupocycloporus	GAGGGACGATAAGACCCTATAAAGCTTTATAAATTCGATA	617
0124	gracilimanus	ATTTTGCAAATTTGTACAAATAAAAGTAATTTTGAAAAAT
		TTATTTGGTTGGGGCGACAAAAGTATAATTAAAATAACTG
		CTAGAATTTCAAACAATAATTTTTGATTTAGGTTTGTAAA
		TGATCCCTTATAAGGATTAAAAGATCAAGTTACTTTAGGG
		ATAACAGCGTAAT
NC_03	Monomia	TAAGGGGACGATAAGACCCTATAAAGCTTTATAAATTCAG	618
7173	gladiator	AGATTTTAGATATTTTATATATAAATTTATTTTTTGATAA
		TTTATTTGGTTGGGGCGACAAGGGTATAATTATAAATAAC
		TGCCATTAATGTTTATACATATATTTTTGATTTAAATTTA
		ATATAGTAGTTGATCCTTTTTAAGGATTTAAAGATCAAGT
		TACTTTAGGGATAACAGCGTAAT
NC_03	Varuna	TTAAAGTGACGATAAGACCCTATAAAGCTTTATATAGATA	619
7155	yui	TATTATTTAATTAAATTTTTAATAAAAATTTAGTAGTAAA
		ATTTATTTTATTGGGGCGATAAGAGTAAAATTTTTATTAA
		CTGCTTTAAGTTTTGAATACATTTATGTTTGATTAAAATT
		TTAAATGATCCTAAATAAAGATTAAAAGTTTAAGTTACTT
		TAGGGATAACAGCGTTAT
NC_03	Panulirus	GGGGGACGATAAGACCCTATAAATCTTTACAATTAGGGCT	620
9671	argus	TTAGTTATTAGAAAGTAGTTATGGATCTAAATCTAAGGTT
		TAAATTGTTTTGTTGGGGCGACAGAAGTATAATAAGTAAC
		TGCTTTGGTTTTCATATTAATTGTTTTTATTATGGTTAGT
		TTAAAAGATCCTCTTTTGGAGATCACAGACTAAGTTACTT
		TAGGGATAACAGCGTAAT
NC_03	Munida	AAGGGACGATAAGACCCTATGAATCTTTATATTATGTTAC	621
9112	isos	TTTTAATTAATTAATGTTGTAGATATAGTGATAAGGTGGG
		GTATATTGTGTTGGGGTGATGAGAATATAAGAAATAACTG
		TTCTAAATTTAAAACAAAATTGTTTGAGGTAATAATAGAT
		CCTTTATTGAGATTAAAAGTTTAAGTTACTTTAGGGATAA
		CAGCGTTAT
NC_04	Scyllarides	GAGGGACGATAAGACCCTATAAATCTTTATACTTAGGTTT	622
4425	squammosus	ATACGGTTGAAGGTTAGGTTACTATTTAATTTTATAAAGT
		TAAGTATTTTGTTGGGGTGACAGGGGCATAAGAGTGAATA
		ACTGCCTTAGAGTTAGAGTTAAAAGTATTTAATTTATTAA
		GTGATCCTTTAGTAGAGAATATAGACTAAGTTACTTTAGG
		GATAACAGCGTAAT
NC_01	Cambaroi	GGGGGACGATAAGACCCTATAAAACTTTATATACTTATAA	623
6925	dessimilis	TTTAATAATAACTTTTGGGTTTAAAAATTTAGATTAGAGT
		ATTTTATTGGGGCGATAAAGATAAAATTTTAGATAACTGT
		TTTATTTTTTAACAAAAATGTTTGAGTTTTAGATCCTTAA
		AGAGATTAAAAGATTAAGTTACTTTAGGGATAACAGCGTT
		AT
NC_03	Charybdis	GAGGGACGACAAGACCCTATAAAGCTTTATAAATTTGATA	624
7695	bimaculata	ATTTTTTAAATTTATATATAAAAATAATTTTTGTAAAATT
		TATTTGGTTGGGGCGACAATGGTATAATTAAGATAACTGC
		TATAAGATTTAACAAAAATATTTGTTTAATAAATATAATT
		GATCCTTTTTAAAGATTTAAGATCAAGTTACTTTAGGGAT
		AACAGCGTTAT
NC_03	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTAGAAAT	625
3507	robustus	AATGGGTAAGTTTTGTTTAGAAGTTATTATTTTAGAGTAT
		TTGGTTGGGGCGACAAGGATAAAAAGAAGATAACTGTTCT
		TTTATTTTACAATAATGTTTGGGTATAATGATCCTAATAT
		GGGTTAAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
NC_03	Thalamitasima	GAGGGACGATAAGACCCTATAAAGCTTTATAAACTTATAA	626
9640		ATTTTATATGTTTTTTTATAAAAATAATCTTTCGAAGGTT
		TATTTAGTTGGGGCGACAATGATATAAATAATATAACTGT
		CATAAAATATAACAAATATATTTGTTTAATAAGGAATAAT
		TGATCCTTTATAAGGATTTTAAGATCAAGTTACTTTAGGG
		ATAACAGCGTTAT
NC_02	Thranita	AAGGGACGATAAGACCCTATAAAGCTTTATAATTTTAAAG	627
4438	crenata	ATTTTATATATTTTTCTATAGTAATAATTTCTTGAAAACT
		TATTTGGTTGGGGCGACAATAGTATAATTAGAATAACTGC
		TTAAAATTAATACAAATATATCTGAGTTAAAATTGACTGA
		TCCTTTATAAAGATTTTAAGATCAAGTTACTTTAGGGATA
		ACAGCGTTAT
NC_03	Orconectes	AGGGGACGATAAGACCCTATAAAACTTTATATTTTAAGAT	628
3508	luteus	GGAGATAAATTTTATTTTAAGGTTACTATTTTAAATTGTT
		TTGTTGGGGCGACAAGGATATAAGGAAAGGATAACTGTCT
		TTTGTTCTTACAATAATATTTGAATTATTGATCCTAAAAG
		GGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
NC_03	Orconectes	AAGGGAAGATAAGACCCTATAAAACTTTATATTTTAAGGT	629
0768	punctimanus	AGAAATTAATTTTATTTTTAGATTACTATTTTAAAATATT
		TTGTTGGGGTGACAAGGATATAATAAAAGGTAACTGTCTT
		TTGGTTTAACAATAATATTTGGGTAATTGATCCTAAAATG
		GATAAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
NC_02	Orconectes	TTGGGACGATAAGACCCTATAAAACTTTATATTTTAAGGT	630
9721	sanbornii	AGAAATTAATTTTATTTTAAGGTTACTATTTTAAAATGTT
		TTGTTGGGGTGACAAGGATACAAGAAATGATAACTGTCTT
		TTATTTTTACAATAATATTTGATTTATTGATCCTGAAAGG
		GATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
NC_02	Cherax	AAGGGACGATAAGACCCTATAAAGTTTATATACCGAACTA	631
4029	crassimanus	ATTAAAGATAATTAAGAAGGGTAAAGTTTATTATTAGAGA
		GGTATTTAGTTGGGGCGACTAGGATATAAATTAATTTAAC
		TGTTTTAAATTAAAGTCAAAAATATTTGAGTTTGTGATCC
		TTTTTTAGGATTAGAGAATAAGTTACTTTAGGGATAACAG
		CGTAAT
NC_02	Cherax	AAGGGACGATAAGACCCTATAAAGTTTATATGTTGAACTA	632
3482	preissii	ATTAAAGATAATTAGGAAGAGTAAAGTTTATTATTGGTTA
		GGCATTTAGTTGGGGCGACTGAAATATAAGTTAATTTAAC
		TGTTTTAAATTAAGGTCAAAGATGTTTGAGTTTGTGATCC
		CTTTTTAGGATGATAGAATAAGTTACTTTAGGGATAACAG
		CGTAAT
KF051	Munida	AAGGGACGATAAGACCCTATGAATCTTTATATTATGTCAC	633
309	spinosa	TTTAAGTTAGTTAATATCGTAGATATAATGATAAGGTGAG
		GTGTATTGTGTTGGGGTGATGAGAATATAAGAAATAACTG
		TTCTAAATTTAAGACAAAATTGTTTGTGGTAATAATAGAT
		CCTTTATTGAGATTAAAAGTTTAAGTTACTTTAGGGATAA
		CAGCGTTAT
MK847	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAGATTAT	634
971	asprosoma	TTTTAGTTATTTAATATTGTGAGTATAACAATAAAGTGGT
		ATATATTGTGTTGGGGTGATGAGAATATAATAAATAACTG
		TTCTAAAATTAAAACAAAATTATTTGTATAAATAATAGAT
		CCTTTATTGAGATTAAAAGTTTAAGTTACTTTAGGGATAA
		CAGCGTTAT
MK847	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAAATTAT	635
969	leagora	TTTTAGTTGATTAATATTGTAAATATAATAATAAAATATC
		AAATATTGTGTTGGGGCGACGAGAATATAATAAATTAACT
		GTTCTAAAATTAAAACAAAATTGTTTGTAAAAATAATAGA
		TCCTTTATAAAGAGTAAAAGTTCAAGTTACTTTAGGGATA
		ACAGCGTTAT
AY351	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAAATTGT	636
105	alonsoi	TTAATATTTAATTAATATTGTGTACTAGATATTTAAATAA
		TATATATTGTGTTGGGGTGACGAGAATATAATAAATAGCT
		GTTCTAAAGTAAAAACAATTTTTATTGTGGTAATAGAAGA
		TCCTTTATTGAGATTGAAAGTTTAAGTTACTTTAGGGATA
		ACAGCGTTAT
AY351	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAAATTAT	637
177	taenia	TTTCAATTAATTAATACTGTAAATACAATAATAAAATAAT
		AAATATTATGTTGGGGCGATGAGAATATAATAAATAACTG
		TTCTAAAATTTATACAAAATTATTTGTTACAATAATAGAT
		CCTTTATAGAGATTAAAAGTTTAAGTTACTTTAGGGATAA
		CAGCGTTAT
MK847	Munida	GAGGGACGATAAGACCCTATAAATCTTTATATTAAGTTGT	638
957	gordoae	TTTTTACTAATTAATATTGTAGATGAAGTAATAAAATTAT
		ATATATTGTGTTGGGGCGATGAGAATATAAATAAATAACT
		GTTCTAGTGTAGAAAAACAAAATTATTTGGATATTGGTAG
		ATCCTTTAGTTAAGATTAAAAGTTTAAGTTACTTTAGGGA
		TAACAGCGTTAT
AY351	Munida	AAGGGACGATAAGACCCTATAAATCTTTATACTAGGATAT	639
190	zebra	TTTTAGTTAATTAATATTGTAAATATAATAATAAAATGAC
		ATGTATTGTGTTGGGGTGATGAGAATATAATAAATAACTG
		TTCTAAGATGAAAAAAAATTATTTGTAGTAATAATAGATC
		CTTTATTGAGATTGTAAGTTTAAGTTACTTTAGGGATAAC
		AGCGTTAT
AY351	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAAACTGT	640
119	distiza	TTTCAATTAATTAATATTGTTAATATAATAGTAAAAGAGT
		AAATATTATATTGGGGCGATAAGAATATATAAATTAACTG
		TTCTAAAGTTAAAACAAAATTATTTGTAAAAATAATAGAT
		CCTTAATAAAGATTAAAAGTTCAAGTTACTTTAGGGATAA
		CAGCGTTAT
AY351	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAAGTTAT	641
158	psamathe	TTTTAGTTAATTAATATTGTAAATGAAATTACAAAATAAT
		ATATATTGTGTTGGGGTGATGAGAATATAATAAATATCTG
		TTCTAAAATAAAAACAATTTTTTTGTGTTAGTAGAAGATC
		CTTTGTTGAGATTAAAAGTTTAAGTTACTTTAGGGATAAC
		AGCGTTAT
AY351	Munida	GAGGGACGATAAGACCCTATAAATCTTTATATTAGGTTAT	642
181	thoe	TTTATAGTTAGTTAATATTGTAAATATAATAATAAGGTGA
		AATATATTATGTTGGGGTGATGAGAATATAATAAATAACT
		GTTCTAAGATAAAAACAAAATTGTTTGTAAAATAGTAGAT
		CCTTTGTTGAGATTAGAAGTTTAAGTTACTTTAGGGATAA
		CAGCGTTAT
AY351	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAAACTGT	643
130	guttata	TTTCAATTAATTAATATTGTTAATATAATAGTAAAATAGT
		AAATATTATATTGGGGTGATAAGAATATATAAATTAACTG
		TTCTAAAATTAAAACAAAATTATTTGTAGTAATAATAGAT
		CCTTAATAAAGATTAAAAGTTCAAGTTACTTTAGGGATAA
		CAGCGTTAT
AY351	Munidastia	AAGGGACGATAAGACCCTATAAATCTTTATATCAAATTAT	644
170		TTTTAGTTGATTAATATAGTAGATATTAATAATAAAATAA
		CACATATTATATTGGGGTGATAAGAATATAAAAAATAACT
		GTTCTAAAATTAAAACAAAATTATTTGTAGTAGTTATAAT
		AGATCCTTTATTGAGATCCAAAGTTTAAGTTACTTTAGGG
		ATAACAGCGTTAT
AY351	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAAGTTAA	645
150	ommata	TTTTTTAGTTAATTAATATTGTAAATATAATAGTAAGATG
		GCGTATATTGTGTTGGGGTGATGAGAATATAATAAATAAC
		TGTTCTAAAATATAAACAATATTGTTTGTAAATAATAGTA
		GATCCTTTATTGAGATTAAAAGTTTAAGTTACTTTAGGGA
		TAACAGCGTTAT
MK847	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAAACTAT	646
958	roshanei	TTAAAATTAATTAATATGTAAATTTAATAAATAAAATGGA
		AAATATTATATTGGGGTGATAAGAATATAAATTATATAAC
		TGTTCTAAAATTTAAACAAAATTATTTGTACAAATAGTAG
		ATCCTTTTTTAAGATTAAAAATTTAAGTTACTTTAGGGAT
		AACAGCGTTAT
MK847	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAGATTAT	647
944	compressa	TTTTAAGTTATTTAATATTGTAAATATAATAATAAAATAA
		TATATATTGTGTTGGGGTGATGAGAATATAATGAATAACT
		GTTCTAAAATGAAAACAAAATTATTTGTGAAAATAATAGA
		TCCTTTATTGAGATTAAAAGTTTAAGTTACTTTAGGGATA
		ACAGCGTTAT
AY351	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAAACTAC	648
113	clinata	CTTAAATTAATTAATATTGTAAATAATAACGGTAAGGTAG
		AAAATATTATATTGGGGTGATAAGAATATAAAATAATATA
		ACTGTTCTAAAATTTAAACAAAATTATTTGTAATAATAAT
		AGATCCTTTTTTAAGATCAAAAATTTAAGTTACTTTAGGG
		ATAACAGCGTTAT
MK847	Munida	GAGGGACGATAAGACCCTATAAATCTTTATATTAAATTAT	649
964	chydaea	TTTTAGTTAATTAATATTGTGAACATAATAATAAAGTAAG
		GAAATATTGTGTTGGGGTGATGAGAATATAAATAATAACT
		GTTCTAAAATTAAAACAAAATTATTTGTAAGTAATAATAG
		ATCCTTTATTGAGATTAAAAGTTTAAGTTACTTTAGGGAT
		AACAGCGTTAT
MK847	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAGATTAT	650
941	compacta	TTTTAGTTGTTTAATATTGTAAATATAATAATAAAATGAT
		ATATATTGTGTTGGGGTGATGAGAATATAATAAATAACTG
		TTCTAAAATGAAAACAATATTATTTGAATGAATAGTAGAT
		CCTTTATTGAGATTAAAAGTTTAAGTTACTTTAGGGATAA
		CAGCGTTAT
AY351	Munidaeclepsis	AAGGGACGATAAGACCCTATAAATCTTTATATTAGATTAT	651
122		TTTTAGTTATTTAATATTGTAAATATAATAATAAAGTGGT
		GTATATTATGTTGGGGTGATGAGAATATAATAAATAACTG
		TTCTAAAATAAAAACAAAATTGTTTGTATAGATAATAGAT
		CCTTTATTGAGATTAAAAGTTTAAGTTACTTTAGGGATAA
		CAGCGTTAT
AY351	Munida	AAGGGACGATAAGACCCTATAAATCTTAATATTAAGTTAT	652
185	tyche	TTTTAGTTAATTAATATCTGTAAATACAATAATAAAATAT
		TAAATATTATGTTGGGGTGACAAGAATATAATAAATAACT
		GTTCTAAAATTTAAACAAAATTATTTGTAAAAAAAAAAGA
		TCCTTTTTAAAGATTAAAAGTTTAAGTTACTTTAGGGATA
		ACAGCGTTAT
MK847	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAAATTAT	653
953	philippinensis	TTTTATTTTATTAATACCGTAGATATAATGATAAAGTAAT
		AAATATTATGTTGGGGTGATAAGAATATAAAAAATTAACT
		GTTCTAAGATTAAAACAAAATTATTTGAAAAAAAAATAAT
		AGATCCTTTATAAAGATTAAAAGTTTAAGTTACTTTAGGG
		ATAACAGCGTTAT
AY351	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAAATTAT	654
107	armilla	TTTCAATTAATTAATATTGTAAATAAAATAATAAAATAAT
		AAATATTATATTGGGGCGATGAGAATATAACAAAATAACT
		GTTCTACAATTAATACAAAATTATTTGTAATAATAATAGA
		TCCTTTATAAAGATTAAAAGTTTAAGTTACTTTAGGGATA
		ACAGCGTTAT
KY230	Munida	AAGGGACGATAAGACCCTATAAATCTTAATATTAAATTAT	655
470	mesembria	TTTTAGTTAATTAATAATTGTAAATATAATAATAAAATAT
		TAAATATTATGTTGGGGTGACAAGAATATAATAAATAACT
		GTTCTAAAATTAAAACAAAATTATTTGTAAAAAAAATGAT
		CCTTTATAAAGATTAAAAGTTCAAGTTACTTTAGGGATAA
		CAGCGTTAT
AY351	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAAATTAT	656
166	spilota	TTTTAATTAATTAATATTGTAAATTTAATAATAAAATATT
		AAATATTATGTTGGGGCGACAAGAATATAATAAATAACTG
		TCTAAATTTAAAACAAAATTATTTGTAATAAAATAGATCC
		TTTTTAAAGATTAAAAGTTTAAGTTACTTTAGGGATAACA
		GCGTTAT
KY230	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAGATTAT	657
468	benguela	TTTTAGTTATTTAATATTGTAAATATAGTAATAAAATGAT
		ATATATTGTGTTGGGGTGATGAGAATATAATAAATAACTG
		TTCTAAAATGAAAACAAAATTATTTGAATAAATAGTAGAT
		CCTTTATTGAGATTAAAAGTTTAAGTTACTTTAGGGATAA
		CAGCGTTAT
MK847	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAAATTAT	658
934	endeavourae	TTTTAATTAGTTAATATTGTAAATATAATAGTAAGGTAAA
		GTATATTGTGTTGGGGTGATGAGAATATAAGAAATAACTG
		TTCTAAAATAAAAACAAAATTATTTGAAGAAATAATAGAT
		CCTTTGTTGAGATTAAAAGTTTAAGTTACTTTAGGGATAA
		CAGCGTTA
MK847	Munida	AAGGGACGATAAGACCCTATAAATCTTAATATTAAATTAT	659
961	agave	TTTTAGTTAATTAATAGTTGTAAATATAATAATAAAATAT
		TAAATATTATGTTGGGGTGACAAGAATATAATAAATAACT
		GTTCTAAAATTTAAACAAAATTATTTGTAAAAAAAGATCC
		TTTATAAAGATTAAAAGTTTAAGTTACTTTAGGGATAACA
		GCGTTAT
MK458	Munida	GAGGGACGATAAGACCCTATAAATCTTTATATTAGGTTAT	660
566	idyia	TTTCAGTTGATTAATATTGTAAATATAATAATAAGATAAT
		ATATATTGTGTTGGGGTGATGAGAATATAATGAAATAACT
		GTTCTAGGATAGAAACAAAATTATTTGAAGTAATAAATGA
		TCCTTTATTGAGATTAAAAGTTTAAGTTACTTTAGGGATA
		ACAGCGTTAT
AY351	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAGATTAT	661
143	militaris	TTTTAGTTATTTAATATTGTAAATATAATAATAAAGTGAT
		TTATATTGTGTTGGGGTGATGAGAATATAATAAATAACTG
		TTCTAAAATGAAAACAAAATTATTTGTGTAAATAATAGAT
		CCTTTATTGAGATTAAGAGTTTAAGTTACTTTAGGGATAA
		CAGCGTTAT
MF490	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAACTTAT	662
158	flinti	TTTTTATATATTAATCTTGTAAACTCCGTTTAATAAAATA
		AGATATATTTTGTTGGGGCGACAAGAATATAAACACAACT
		GTTCTAAATACTAAACAAAACTATTTGTTTTAAATTCATA
		GATCCTTCATTTAAGATTATAAGTTTAAGTTACTTTAGGG
		ATAACAGCGTTAT
AY351	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAGATTAT	663
115	congesta	TTTTAGTTATTTAATATTGTAAATATAGTAATAAAATAAT
		ATATATTGTGTTGGGGTGATGAGAATATAATAAATAACTG
		TTCTAAAATATAAACAAAATTATTTGAATAAATAGTAGAT
		CCTTTATTGAGATTAAAAGTTTAAGTTACTTTAGGGATAA
		CAGCGTTAT
AY351	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAGATTAT	664
163	rubridigitalis	TTTTAAGTTGTTTAATATTGTAAATATAATAATAAAATAA
		TATATATTGTGTTGGGGTGATGAGAATATAATAAATAACT
		GTTCTAAAATGAAGACAAAATTATTTGTATAAATAATAGA
		TCCTTTATTGAGATTAAAAGTTTAAGTTACTTTAGGGATA
		ACAGCGTTAT
KF182	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAAATTAT	665
521	iris	TTTTAATTTGTTAATTATGTAAATTTAATAACAAGATAAA
		ATATATTATGTTGGGGTGATGAGAATATATAATCAACTGT
		TCTAAATTAAAAACAAAATTATTTGAACAAAATAGTAGAT
		CCTTATTAGAGATTAAAAGTTTAAGTTACTTTAGGGATAA
		CAGCGTTAT
MF490	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAAATTAT	666
159	microphth	TTTAAATTAATTAATATTGTAAATAAGATAATAAAATAAT
	alma	ATATATTGTGTTGGGGTGATGAGAATATAATAAATAACTG
		TTCTAAAATAAAAACAAAGCTATTTGTATAAAATAATAGA
		TCCTTTACTAAGATTAAAAGTTTAAGTTACTTTAGGGATA
		ACAGCGTTAT
AY351	Munida	GGGGGACGATAAGACCCTATAAATCTTTATATTAAGTTAT	667
164	rufiantenn	TTTTAGTTAATTAATATTGTAAATATAATAATAAAATAGC
	ulata	GTGTATTGTGTTGGGGTGATGAGAATATAATAAATAACTG
		TTCTAAAATGTAAACAATATTATTTGTAAATAATAGTAGA
		TCCTTTATTGAGATTAAAAGTTTAAGTTACTTTAGGGATA
		ACAGCGTTAT
KF182	Munidapusilla	AAGGGACGATAAGACCCTATAAATCTTTATATAAAATTAT	668
522		CTTTAATTTATTTATAATGTAAGTTTAATATAAAGATAAG
		ATATATTACATTGGGGTGATGAGAATATATAATAAACTGT
		TCTAGATTCAAAACAAATTTATTTGTATTATAAAATAGTA
		GATCCTTTTTTAAGATTAAAAGTTTAAGTTACTTTAGGGA
		TAACAGCGTTAT
KY230	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAGATTAT	669
472	remota	TTTTAGTTATTTAATATTGTGAATATAATAATAAAGTGGT
		ATATATTGTGTTGGGGTGATGAGAATATAATAAATAACTG
		TTCTAAAATTAAAACAAAATTATTTGTATAAATAATAGAT
		CCTTTATTGAGATTAAAAGTTTAAGTTACTTTAGGGATAA
		CAGCGTTAT
AY351	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAATTTAT	670
141	leptosyne	TTGTTTATTGATTAATAAGTAGATGATATAATAAGATAAT
		ATATATTATGTTGGGGTGATGAGAATATAATAATTAACTG
		TTCTAAGTTGTAAACAAAATTATTTGAAATTTTATAGATC
		CTTTATTGAGATTAAAAGTTTAAGTTACTTTAGGGATAAC
		AGCGTTAT
AY351	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAGATTAT	671
162	rosula	TTTTAGTTATTTAATATTGTAAATATAATAATAAAGTGAT
		ATATATTGTGTTGGGGTGATGAGAATATAATAAATAACTG
		TTCTAAAATGAAAACAAAATTATTTGTGTAAATAATAGAT
		CCTTTATTGAGATTAAAAGTTTAAGTTACTTTAGGGATAA
		CAGCGTTAT
LC464	Munida	TCTTTATATTAAACTATTTAAAATTAATTAATATGTAAAT	672
553	munin	TTAATAAATAAAATGGAAAATATTATATTGGGGTGATAAG
		AATATAAATTATATAACTGTTCTAAAATTTAAACAAAATT
		ATTTGTACAAATAGTAGATCCTTTTTTAAGATTAAAAATT
		TAAGTT
JN800	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAAGTTAT	673
548	valida	TTTAAATTAATTAATGTTGTAAATAAAATAATAAAGTAAT
		ATATATTGTGTTGGGGTGATGAGAATATAATAAATAACTG
		TTACTAAATTTAAAAACAAGTTATTTGAATTTAAAATAAT
		AGATTCCTTTTTGAGTATTAAAAGTTTAAGTTACTTTAGG
		GATAACAGTCGTTA
AY351	Munida	GAGGGACGATAAGNCCCTATAAATCTTAATATTAAATTAT	674
153	proto	TTTTAATTAATTAATATTGTAAATATAATAATAAAATATT
		AAATATTATGTTGGGGTGATAAGAATATAAAAAATAACTG
		TTCTAAATTTAAAACAAAATTATTTGAAAATAATAGATCC
		TTTTTTAAAGATTAAAAGTTCAAGTTACTTTAGGGATAAC
		AGCGTTAT
AY351	Enriquea	AAGGGACGATAAGACCCTATAAAGCTTTATATTATTTTTT	675
142	leviantennata	TTTTATAGATTATTGTTGTGGATATAATAATAAAATAAGG
		AATATTATATTGGGGTGATAAGGGTATAAAATTAACTGCT
		CTAAAATTAAATCAAATTTATTTGTAAAATAATAATAGAT
		CCTTTATTAAGATTAAAAGTTTAAGTTACTTTAGGGATAA
		CAGCGTTAT
LC430	Munida	TCTTAATATTAAACTATTTTTAGTTAATTAATTAATTGTA	676
735	multilineata	AATATAAATAATAAAATATTAAATATTATGTTGGGGTGAC
		AAGAATATAAAAAATAACTGTTCTAAATTTAAAACAAAAT
		TATTTGAAAAAAAGATCCTTTATAAAGATTAAAAGTTCAA
		GTT
AY351	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTATATTAT	677
152	pagesi	TTTTAGTTAATTAATATTGTAAATATAATAATAAGGTAAT
		ATATATTATGTTGGGGTGATAAGAATATAATAAATAATTG
		TTCTAAAATGAAAACAAAATTGTTTGTGTTAATAATAGAT
		CCTTTATTGAGATTAAAAGTTTAAGTTACTTTAGGGATAA
		CAGCGTTAT
KY230	Munida	GAGGGACGATAAGACCCTATAAATCTTTATATTAAGTTGT	678
475	stomifera	TTTTAGCTGATTAATGTTGTAGATTCAGTATTAAGACAAA
		ATATATTATGTTGGGGTGATGAGAATACAATAGATACCTG
		TTCTAAAATATCAAACAAAAATTTTTGTGTGAGTAGAAGA
		TCCTCTTTATTGAGATCAGGAGTTTAAGTTACTTTAGGGA
		TAACAGCGTTAT
AF436	Munida	GGGACGATAAGACCCTATAAATCTTTATATTAAATTGTTT	679
050	quadrispina	TTAGTTTATTAATAATGTAATTTAGATAATAAGGCAAAAT
		ATATTGTGTTGGGGTGATGGGAATATAAAAAATTAACTGT
		TCTGAAATAAAAACAAATTTGTTTGGCTTAATAATAGATC
		CTTTTTTAAGATTAAAAGTTTAAGTTACTTTAGGGATAAC
		AGCGTTAT
AY351	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAAGTTGT	680
183	tiresias	TTTTAGTTAATTTATATTGTAAATAAGATAATAAAGTAAA
		ATATATTGTGTTGGGGTGATGAGAATATAATAAATAACTG
		TTCTAAAATAAAAACAAAGCTATTTGTATTAAATAATAGA
		TCCTTTATTAAGATTAAAAGTTTAAGTTACTTTAGGGATA
		ACAGCGTTAT
AY351	Munida	ATGGGACGATAAGACCCTATAAATCTTTATATTAAGTTAT	681
159	psylla	TTTTAGTTAATTAATATTGTAAATATAATAATAAAATAAT
		GTATATTGTGTTGGGGTGATGAGAATATAATAAATAACTG
		TTCTAAAATGTAAACAATATTGTTTGTAATAATAGTAGAT
		CCTTTATTGAGATTAAAAGTTTAAGTTACTTTAGGGATAA
		CAGCGTTAT
MK847	Munida	AAGGGACGATAAGACCCTATAAATCTTTATATTAAACTGT	682
965	heteracantha	TTTCAATTAATTAATATTGTAAATATAATAATAAAATAGT
		AAATATTATGTTGGGGTGATGAGAATATAAGAAATAACTG
		TTCTAAAATTAAAACAAAATTGTTTGTAATAATAATAGAT
		CCTTTATAAAGATTAAAAGTTTAAGTTACTTTAGGGATAA
		CAGCGTTAT
FJ462	Paralomis	AAAAGACGATAAGACCCTATAAATCTTTACAAGAAATATA	683
645	formosa	TTTTATGTTTTAGCTTATAAGTATATAAGAAATAAAAATA
		TAAGTTTGTTGCGCTGGGGCGGCGTAGATATATAAATAAA
		CTGTCTATGGTTTAAATACAATAATTATTGCTTAATACAA
		ATTGATCCTTAAATAGATTAAAAGATTAAGATACTTTAGG
		GATAACAGCGTTAT
FJ462	Paralomis	AAAAGACGATAAGACCCTATAAATCTTTACAAGAAATATA	684
646	spinosissima	TTTTATGTTTTAGCTTATAAGTGTATAAGAAATAAAAATA
		TAAGTTTGTTGCGCTGGGGCGGCGTAGATATATAAATAAA
		CTGTCTATGATTTAAATACAATAATTATTGYTTAATACAR
		ATTGATCCTTAAATAGATTAAAAGATTAAGATACTTTAGG
		GATAACAGCGTTAT
KY426	Paralomis	AAAAGACGATAAGACCCTATAAATCTTTACAAGAAATATA	685
326	birsteini	TTTTATGTTTTAGCTTATAAGTGTATAAGAAATAAAAATA
		TAAGTTTGTTGCGCTGGGGCGGCGTAGATATATAAATAAA
		CTGTCTATGGTTTAAATACAATAATTATTGCTTAATACAG
		ATTGATCCTTAAATAGATTAAAAGATTAAGATACTTTAGG
		GATAACAGCGTTAT
KY426	Paralomis	AAAAGACGATAAGACCCTATAAATCTTTACAAGAAATATA	686
327	hirtella	TTTTATGTTTTAGCTTATAAGTGTATAAGAGATAAAAATA
		TAAGTTTGTTGCGCTGGGGGGGCGTAGATATATAAATAAA
		CTGTCTGTGGTTTAAATACAATAATTATTGCTTAATACAA
		ATTGATCCTTAAATAGATTAAAAGATTAAGATACTTTAGG
		GATAACAGCGTTAT
MF460	Scyllarus	AAGGGACGATAAGACCCTATAAATCTTTATACTTGATTTT	687
387	subarctus	ATAGAGCAAAATATTAAAATAATTTTTGTTCAATAGGTTT
		GGGTATTTTGTTGGGGCGACAGGAGTATAAAATGTAACTG
		CTCTAAAATGATAGTTAGTTGATATTTAGTTAAGTGATCC
		TTTAATAAAGATGTTAGTTTAAGTTACTTTAGGGATAACA
		GCGTAAT
FJ174	Scyllarus	GGGGGACGATAAGACCCTATAAATCTTTATATTTAAGCTT	688
908	pygmaeus	ATAAAATAAACGATTAAAATAATTTTTGTTTAATAAGCTT
		ATATATTTTGTTGGGGCGCCAGAAGTATAAAATGTAACTG
		CTTTAAAATAATAGTTAAATGATATTTAGTTAAGTAATCC
		TTTAATAAAGATGTTAGTTTAAGTTACTTTAGGGATAACA
		GCGTAAT
JN701	Scyllarus	GGGGGACGATAAGACCCTATGAATCTTTATATTTCGGTTT	689
734	chacei	ATAAGATAAAAAATTAATATAATTTTTGTCTTATTAATCT
		TTTTATTTTGTTGGGGCGACAGAAGCGTAAACTGTAACCG
		CTTTGAAAAAATAGTTAATGATATTTAGTTAAGTGACCCT
		TCTATGGGGGTATCAGTATAAGTTACTCTAGGGATAACAG
		CGTAAT
FJ174	Scyllarus	AGGGGACGATAAGACCCTATAAATCTTTATATTTGGGTTT	690
909	caparti	GTGAAATAAAAAATTAAAATAATTTTTGTTTAATAAGCTT
		GGGTATTTTGTTGGGGCGACAAGAGTATAAAAATGTAACT
		GCTTTGAAATAATAGTTAATTGGTGTTTAGTTAATTGATC
		CTTTAGTAGAGATGTCAGTTTAAGTTACTTTAGGGATAAC
		AGCGTAAT
JN701	Scyllarus	GGGGGACGATAAGACCCTATGAATCTTTATTTTTGGCTTA	691
732	americanus	TAAAATAAAAAAATAATATCAATTTTTGTTTTATCGGTTT
		CAATATTTTGTTGGGGCGACGGAAGCGTAAATTGTAACCG
		CTTTATATTAATAGTTAACGATATTTAGTTAAGTGATCCT
		TTATAGAGATATTAGTATAAGTTACTCTAGGGATAACAGC
		GTAAT
FN295	Episesarma	AAAAGACGATAAGACCCTATAAAACTTAATAAAAATTGAT	692
576	palawanense	ATTTAAATAAAATTTATTAATAAATATTTAGTAATTAATT
		TTTATTTTATTGGGGTGATAATGGTAAAATGGATATTAAC
		TGTTAATAAAGTTTATAACAAAAATTATTGAGTAAGTACA
		ATAAATGATCCTTATTAAAGATTAAAAGTTTAAGTTACTT
		TAGGGATAACAGCGTTAT
FN295	Episesar	AAAAGACGATAAGACCCTATAAAACTTAATATAAATTGAT	693
575	masingaporense	TATTTGAGTAAAATTTTATTGTATAAATATTTAATAATTA
		ATTTATATTTTATTGGGGTGATAATGGTAAAATGATTATT
		AACTGTTAATTATTTTATGACAAAAATTATTGAATAAATG
		TGTAATAAATGATCCTTATTAAAGATTAAAAGTTTAAGTT
		ACTTTAGGGATAACAGCGTTAT
KP712	Austropotamobius	GGGGGACGATAAGACCCTATAAAACTTTATATTTTAAAAA	694
873	fulcisianus	TATTAATTAATTTTGTATGAGAAGGCTATTTTTAAATATT
	orientalis	TTATTGGGGTGATAGGGATATAATAAAAGATAACTGTTTC
		TTTTTTTTACAGAGGTGTTTGAGTAAAAGATCCTAATTAG
		GGAAAGAAGGTTAAGTTACTTTAGGGATAACAGCGTAAT
FJ152	Achelous	GGGGGACGATAAGACCCTATAAAGCTTCATAAATTTATAG	695
150	tumidulus	ATTTTATGCATTTAATATAAAAATAGTTTCTGCAGTATTT
		ATTTGGTTGGGGCGACAAAAGTATAATTTTTAATAACTGC
		TATTTGTAAGTTACAATTATATTTGGTTAGTGAGTAATTG
		ATCCTTCTGTGAGGAGTAAAAGTTCAAGTTACTTTAGGGA
		TAACAGCGTCAT
MG51	Achelous	GGGGGACGATAAGACCCTATAAAGCTTTATAAATTCAAGA	696
5565	asper	ATTTTATATATTTAGTATAAAAATAATTTTCTCGATGTTT
		ATTTGGTTGGGGCGACAAAAGTATAATTTTGAATAACTGC
		TAGTTCAGACATACAAAAATCTCTGATTTATAAATAATGG
		ATCCCTTTATGAGGATTAAAAGTTCAAGTTACTTTAGGGA
		TAACAGCGTTAT
DQ388	Achelous	GAGGGACGATAAGACCCTATAAAGCTTTATAAGTTTATAA	697
067	sebae	ATTTTATACATTTGTAAATAAAAATAATTTTTTTAATACT
		TATTTGGTTGGGGCGACAAAAGTGTAATTTAAAATAACCG
		CTAATATATTAATACAATAATTTTTGGCTAACTAAGTAAT
		GGATCCCTTTTAAGGAATAAAAGACCAAGTTACTTTAGGG
		ATAACAGCGTTAT
MG51	Portunus	GGAAGACGATAAGACCCTATAAAGCTTTATAAGTTTATAA	698
5559	acuminatus	ATTTTGTATATTTAACCTAAAAATAATTTTTTAGGTGCTT
		ATTTGGTTGGGGCGACAAAAGTATAATTACATTGATTTTT
		TATTTAAAAATAATGGATCCTTCTGTGAAGAATAAAAGTT
		CAAGTTACTTTAGGGATAACAGCGTAAT
MG51	Achelous	GGGGGACGATAAGACCCTATAAAGCTTTATAAGTTTATGG	699
5578	tuberculatus	ATTTTATAGATTTARAATAAAGATAATTTCCTGAATATTT
		ATTTGGTTGGGGCGACAAAAGTATAATTTAAATAACTGCT
		AGTTGAAGATTACAGTGATTTTTGATTCTAAAATAATGGA
		TCCCTTATAAGGATTAAAAAATCAAGTTACTTTAGGGATA
		ACAGCGTTAT
MG51	Achelous	GGGGGACGATAAGACCCTATAAAGCTTTATAAATTTATGA	700
5567	iridescens	ATTTTATTTATTTAATATAAAAATAATTTTTACAATATTT
		ATTAGGTTGGGGCGACAAAAGTATAATTCGAAATAACTGC
		TATTTTAAAATTACAATAGTTTTTGTTTTAAAAGTAATTG
		ATCCCTTTATGAGGAGTAAAAGTTCAAGTTACTTTAGGGA
		TAACAGCGTTAT
MG51	Portunus	GGGGGACGATAAGACCCTATAAAGCTTCATAAATTTATAA	701
5580	xantusii	ATTTTATGTATYTAATATAAAGATAATTTTTGTAACGTTT
		ATTTGGTTGGGGCGACAAAAGTATAATTTCAAATAACTGC
		TAGGTTTGATTTACAATGATAGTTGATTAATAAGTAATTG
		ATCCCTTGTGAGGAATAAAAGTTCAAGTTACTTTAGGGAT
		AACAGCGTTAT
DQ388	Achelous	GGGGGACGATAAGACCCTATAAAGCTTTATAAATTTATTA	702
065	depressifrons	ATTTTGTATATTTAAAATAAAAACAATCTTTTCAATATTT
		ATTTGGTTGGGGCGACAAAAGTGTAATTAAAGTAACCGCT
		AATAATATAATTACAATAATTTTTGATTAGCAATTAATGG
		ATCCCTTTTAAGGAATAAAAGATCAAGTTACTTTAGGGAT
		AACAGCGTTAT
DQ388	Achelous	AGGGGACGATAAGACCCTATAAAGCTTTATAAGTTTATGG	703
063	rufiremus	ATTTTATATATTTAATATAAAAATAATTTTTTAAATATTT
		ATTTGGTTGGGGCGACAAAAGTATAATTGGAAATAACTGC
		TAACTTTAAGTACCACTACATCTTGTATAAAAAATAATCG
		GATTCTTTATAAAGAGTAAAAGTTCAAGTTACTTTAGGGA
		TAAAAGCATCAT
DQ388	Achelous	GGGGGACGATAAGACCCTATAAAGCTTTATAAATTTAAAA	704
057	gibbesii	ATTTTATATATTTATCATAAAGATAATTTTTCAATGTTTA
		TTTGGTTGGGGCGACAAAAGTATAATTTAAAATAACTGCT
		AGTTTGAAAACACAATAATTTTTGTTTTAAAAAGTAATGG
		ATCCCTTTATGAGGATTAAAAGTTCAAGTTACTTTAGGGA
		TAACAGCGTCAT
MG51	Portunus	GGGGGACGATAAGACCCTATAAAGCTTTATAAATTTATAA	705
5573	minimus	ATTTTATGTATTTAATATAAAGATAATTTTTGTAACGTTT
		ATTTGGTTGGGGCGACAAAAGTATAATTTCAAATAACTGC
		TAGGTTTGGTTTACAATGATAGTTGATTAATAAGTAATTG
		ATCCCTTGTGAGGAATAAAAGTTCAAGTTACTTTAGGGAT
		AACAGCGTTAT
MG51	Achelous	GGAAGACGATAAGACCCTATAAAGCTTTATAAGTCTACGA	706
5576	stanfordi	ATTCTGTAGATCTGATATAAAAATAATTTTTTTGATACTT
		ATTTGGTTGGGGCGACAAAAGTATAATTTAAATAACTGCT
		AATTTAAAATTACAATGATTTTTGATTATAAAAATAATGG
		ATCTTTCTCTGAAAAATGAAAGTTCAAGTTACTTTAGGGA
		TAACAGCGTAAT
MG51	Achelous	GGGGGACGATAAGACCCTATAAAGCTTTATAAATTTATAA	707
5566	brevimanus	ATTTTATGTATTTAATATAAAGATAATTTTTGTAACGTTT
		ATTTGGTTGGGGCGACAAAAGTATAATTTTAAATAACTGC
		TAGGTTTGATTTACAGCGATAGTTGATTAATAAGTAATTG
		ATCCCTTGTAAGGAATAAAAGTTCAAGTTACTTTAGGGAT
		AACAGCGTTAT
MG51	Portunus	GGGGGACGATAAGACCCTATAAAGCTTCATAAATTTATAA	708
5560	affinis	ATTTTATGTATCTAATATAAAGATAATTTTTGTAACGTTT
		ATTTGGTTGGGGCGACAAAAGTATAATTTCAAATAACTGC
		TAGGTTTGATTTACAATGATAGTTGATTAATAAGTAACTG
		ATCCCTTGTGAGGAATAAAAGTTCAAGTTACTTTAGGGAT
		AACAGCGTTAT
MG51	Achelous	GGGGGACGATAAGACCCTATAAAGCTTTATAAATTTATAG	709
5561	angustus	ATTTTATTTATTTAATAATAAAAATAATTTCTACAGTGTT
		TATTTGGTTGGGGCGACAAAAGTATAATTTTGAATAACTG
		CTAGTTCTAAGTTACAACAATATTTGATTTGTAAGTAATT
		GATCCTTCTATGAGGAGTAAAAGTTCAAGTTACTTTAGGG
		ATAACAGCGTTAT
DQ388	Achelous	GGGGGACGATAAGACCCTATAAAGCTTTATAAATTTTATA	710
062	binoculus	GACTTTATATATTTAAAATAAAAATAATTTCTAAAACATT
		TATTTGGTTGGGGCGACAAAAGTATAATTTCAAATAACTG
		CTATTTTAAAATTACAATAATTTTTGTTTTATGAATAATT
		GATCCTTCTATGAGGAGTAAAAGTTCAAGTTACTTTAGGG
		ATAACAGCGTCAT
MH168	Oratosquillina	GAGGGACGATAAGACCCTATAAAGCTTTATATTACATTTC	711
220	inornata	TTTTTTATAAATTATTTCGTTATTAACTTATTTTAGAATT
		TGTATTATTTTACTGGGGGGGTAAAAGTATATTAAAGATT
		AACTGCTTTTGTTTTGTAAAACAATTATAGTTGAAAATAA
		ATTGATCCATTATTAATGATCATAAGAACAAGTTACTTTA
		GGGATAACAGCGTAAT
MH168	Oratosquillina	GAGGGACGATAAGACCCTATAAAGCTTTATGTTATTCTTC	712
238	asiatica	TTTTTTATAAATTATTTAATTATTAACTTATTTCAGAATT
		AATATCATTTTACTGGGGCGGTAAAAGTATAATAAAGATT
		AACTGCTTTTGTTTTGTCTAACAATAATAGTTGAAAATAG
		ATTGATCCATTATTAATGATCATAAGAACAAGTTACTTTA
		GGGATAACAGCGTAAT
MH168	Oratosquillina	GAGGGACGATAAGACCCTATAAAGCTTTATATTACATTTC	713
217	anomala	TTTTTTATAAATTATTTCGTTATTAACTTATTTTAGAATT
		TGTATTATTTTACTGGGGCGGTAAAAGTATAATGAAGATT
		AACTGCTTTTGTTTTGTAAAACAATTATAGTTGAAAATAA
		TTTGATCCATTATTAATGATCATAAGAACAAGTTACTTTA
		GGGATAACAGCGTAAT
MH168	Oratosquillina	GGAGGGACGATAAGACCCTATAAAGCTTTATGTTACATTT	714
218	perpensa	CTTTTTTATAAATTATTTTGTTATTAACTTATTTTAGAAT
		TTGTATCATTTTACTGGGGGGGTAAAAGTATAATAAAGAT
		TAACTGCTTTTGTTTTGTATAACAATTTTAGTTGGAAATA
		AATTGATCCATTATTAATGATCATAAGAACAAGTTACTTT
		AGGGATAACAGCGTAAT
MH168	Erugosquilla	GAGGGACGATAAGACCCTATAAAGCTTTATGATATTCTTC	715
226	graham	TTTTTTATAAATTGTCTTGTTATTAACTTATTTTAGAATT
		AATATCATTTTACTGGGGCGGTAAAAGTATAAAAAGATTA
		ACTGCTTTTGTTTTGTATAACAATCTTAGTTGGAAATAAA
		TTGATCCATTATTAATGATCATAAGAACAAGTTACTTTAG
		GGATAACAGCGTAAT
MH168	Busquilla	GAGGGACGATAAGACCCTATAAAGCTTTATGATATTTCTC	716
223	quadraticauda	TTTCTTATAAATTTTTGTTATTAACCTATTTTAGAGTTAA
		TATCATTTTACTGGGGCGGTAAAAGTATAATAAAGATTAA
		CTGCTTTTGTTTTGTACAACAATTTTAGTTGGAAATAAAT
		TGATCCATTATTAATGATCATAAGACCAAGTTACTTTAGG
		GATAACAGCGTAAT
MH168	Kempella	GAGGGACGATAAGACCCTATAAAGCTTTATAATACCTTTC	717
213	stridulans	TTTTTTATAAAATTTTTTGTTGTTAACATATTTTAGAATT
		TGTATTATTTTACTGGGGCGGTAAAAGTATAATAAATAAC
		TGCTTTTATTTTGTGTAACAATTTTAGTTGATGATAAATT
		GATCCATTATTAATGATTATAAGAACAAGTTACTTTAGGG
		ATAACAGCGTAAT
AF133	Gonodactylaceus	GAGGGACGATAAGACCCTATAAAGCTTTATAGTAGTTCCT	718
678	graphurus	TTTTATTCAAATTATAAAATGTTAACCTTTTGAAAGATTA
		CTACTATTTTACTGGGGCGGTAGAAGTATATTTATGATTA
		ACTGCTTTTGTTTTGACAAACAATAATAATTGAATATTTA
		TGTGATCCATTATTAATGATCAAAAGTACAAGTTACTTTA
		GGGATAACAGCGTAAT
MW01	Gonodactylaceus	AAGTGACGATAAGACCCTATAAAGCTTTATAGTAATTTCT	719
9425	randalli	TTTTATTTAAAATATAAAATTTTAACCTTTTTAAAGATTA
		TTACTATTTTACTGGGGCGGTAAAAGTATATTTTGATTAA
		CTGCTTTTGTTTTAATTAACAACGATAGTTGAATAGTCAT
		GTGATCCATTATTAATGATCAAAAGTACAAGTTACTTTAG
		GGATAACAGCGTAAT
CAU74	Carcinus	GGGGGACGATAAGACCCTATAAAACTTTATATACACAACA	720
327	aestuarii	ATACAGTTAAATTAAACTATAAAAACTTATTAGATAAAAT
		ATATTTAGTTGGGGCGACTGAGGTATAATTTATAGTAACT
		GATTAAGAGCTAGACAAATAATATTTGATTAATTTTAATT
		GATCCTTTTTAAAGATTAAAAGATTAAGTTACTTTAGGGA
		TAACAGCGTAAT
KF220	Menippe	GAGGGACGATAAGACCCTATAAAGCTTTATAAATTATTTA	721
514	rumphii	AATTTGATTGAATTAATATAATAAAATTTTGATTTGGATT
		AATTTATTTTGCTGGGGGGGCATAGGTATAAATTATATTA
		ACTGCTTAGTAGAAATACAATAATAGTTGAGTTGACATTA
		AAAGATCCTTTTTAAAGATTTAAGAACAAGTTACTTTAGG
		GATAACAGCGTTAT
MK971	Menippe	GAGGGACGATAAGACCCTATAAAGCTTTATATATTATCTG	722
425	nodifrons	AATTTGAGTAAATTGATTTATAAAATTTTAATTTGGAGTA
		ATTTATTTTGCTGGGGGGGCATAGGTATAAGTTATATTAA
		CTGCTTAATAAAAATACAATTATAGTTGAGTTATTAATTA
		AAAGATCCTTTTTAAAGATTTGAGAATAAGTTACTTTAGG
		GATAACAGCGTTAT
HM637	Menippe	GAGGGACGATAAGACCCTATAAAGCTTTATATGTTATTTA	723
973	adina	AATTTAATTGAATTGATTTATAAATTTTAAATTTAGAGTA
		ATTTATTTTGCTGGGGCGGCATAAGTATAAGTTATATTAA
		CTGCTTAATAATGATACAATAATAGTTGAATTGTTGTTAA
		ATGATCCTTTTTAAAGATTTAAGAACAAGTTACTTTAGGG
		ATAACAGCGTTAT
JX514	Procambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTGTAAAT	724
567	liberorum	TAATAGCTAATTTTATTTAAATATATTATTTAAAAATATT
		TTGTTGGGGTGACAAGGATAAAATTAAAAGTAACTGTCCT
		TTTTTATTACAATAATGTTTGGTTTAATGATCCTTAAATG
		GATTTAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
AY214	Procambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTATAAGG	725
438	toltecae	TAGAAAATTAGTTTTATTTAATGATGCTACTTTGGAGTAT
		TTGGTTGGGGTGACAAGGATAAAATATAAAATAACTGTCT
		TTTTTTTTCTACAGTTATATTTGATTTAATGATCCTAAAA
		GGGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTTAT
EF012	Procambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTATAAAT	726
344	curdi	TAATAGTTAATTTTATTTAAATATATTATTTTAAAATATT
		TTGTTGGGGTGACAAGGATAAAATTAAAGATAACTGTCCT
		TTTTTATTACAGTAATATCTGGTTAGGTGATCCTTAAAAT
		GGATTATAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
AY214	Procambarus	AAGGGACGATAAGACCCTATAAAACTTTATATCTAGAGGT	727
435	digueti	AGTAGGATAATTTTATTTAAGGTGTATTATTTTAAGATAT
		TTGGTTGGGGTGACCAGGATAAAATGAAAGATAACTGTCT
		TATATATTACAATAATTTTTGGGTTGTTGATCCTACAAAG
		GGATTAAAAGATTAAGTTACTTTAGGCGATAACAGCGTAA
		T
EF012	Procambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTATAAGT	728
345	nigrocinctus	AGTAGTTAATTTTATTTGAGTATATTATTTTAAAGTATTA
		TGTTGGGGTGACAAGGATAAAATTAAAAATAACTGTCTTT
		TTTTATTACAGTAATGTTTGGTTTAATGATCCTTAAATGG
		ATTATAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JF737	Procambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTCATAAAT	729
390	versutus	TAGTAGTTATTTTTATTTTAAAGTATTGTTTTAGAATATT
		TGGTTGGGGTGGCAAGGATAAAATATTTAATAACTGTCTT
		TTTTTTTTACAATAATGTTTGGTTTAATGATCCTAAAAGG
		GATTTAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
EU433	Procambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTGCAAGG	730
916	gibbus	TAGTAGAAAATTTTATTTTAATTTATTATTTTAAAGTATT
		TGGTTGGGGTGACAAGGATAAAATATAAAATAACTGTCTT
		TTTTTTTTACAGTAATGTTTGGTTTAATGATCCTAAAAAG
		GATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
EU433	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTAAGAAT	731
911	pecki	GATTAATGAGTTTTGTTTTAAGGTTATTATTTTGAGATAT
		TTGGTTGGGGCGACAAGAATAGAAGAAAAAGTAACTGTTT
		TTTTTTTAATAACAAAAATGTTTGGGTTAATGATCCTAAA
		ATGGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAA
		T
JX514	Procambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTATAAGA	732
566	geminus	TAGTAGCTAGTTTTATTTAAAAGTATTATTTTGGAGTATT
		TGGTTGGGGTGACAAGGATAAAATATAAAATAACTGTCTT
		TTTTTTTTACAGTAATGTTTGGTTTAATGATCCTAAAAAG
		GATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
LC430	Charybdis	ACTTTATAAATTTAATGATTTTATATATTTTATATAAAGA	733
785	acuta	TAATTTTTGGAAAATTTATTTGGTTGGGGCGACAATGGTA
		TAATTTAAATAACTGCTATTAAGTTTAACAAAAATATTTG
		CTTGAAATACTGATAATTGATCCTTTATAAGGATTTTAAG
		ATCAAGTT
KC163	Creaserinus	AAGGGACGATAAGACCCTATAAAACTTTATATTTAAAGGT	734
442	fodiens	ATAAATTATTTTTATTTATGTGTTGGTATCTAAAAGTATT
		TGGTTGGGGCGACAAGGGCAGAATATTAAGTAACTGTCTT
		TTTTTTTGACAATAATATTTGGTTTAATGATCCTAAAAAG
		GATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KC163	Fallicambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTATAAAT	735
480	jeanae	GGTAGACAATTTTGTTTTGGGGTATTATTTTAAAATATTT
		GGTTGGGGTGACAAGGATAAAATAAAAAATAACTGTCTTT
		TTTTTTTACAGTGATATTTGGTTTAATGATCCTAGAAGTG
		GATTATAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KC163	Creaserinus	AAGGGACGATAAGACCCTATAAAACTTTATATTTAAAGGT	736
523	gordoni	ATAGGTTATTTTTATTTGTGGGTTATTATCTAAAAATATT
		GGGGGGGGCGACGAGGATAGAATATTAAGTAACTGTCTTT
		TTTTAAAACAGTAATATTTGATTTAATGATCCTAAAAGGG
		ATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KC163	Creaserinus	GAGGGACGATAAGACCCTATAAAACTTTATATTTGAGGGT	737
501	caesius	GGAAATTATTTTTATTTGGAGGTTGATATCTAAAATATTT
		TGTTGGGGCGACAAGGATAAAATATTAAGTAACTGTCTTT
		TTTTTTTACAATGATATTTGGTTTAATGACCCTAAAAAGG
		ATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KC163	Fallicambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTATGAAT	738
463	dissitus	GATAGTTAATTTTGTTTTGGAATATTATTTTAAAATATTT
		AGTTGGGGTGACAAGGATAAAATATGAAATAACTGTCTTT
		TTTTTTTTACAGTGATATTTGGTTTAATGATCCTAAAGTG
		GATTATAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KC163	Creaserinus	AAGGGACGATAAGACCCTATAAAACTTTATATTTAAGGAT	739
518	danielae	ATAGACTATTTTTATTTGTGAACTATTATCAAAAGTATTT
		GGTTGGGGTGACAGGGATAGAATATAAAGTAACTGTCCTT
		TTTTTTTAACAATAATATTTGACTTAGCGATCCCTGGGAA
		GGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTGAT
KC163	Fallicambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTAAGGAT	740
509	oryktes	ATAGACTATTTTTATTTGTAAACTATTATCAAAAGTATTT
		GGTTGGGGCGACAGGGATAGAATATAAAGTAACTGTCCTT
		TTTTTTAACAATAATATTTGACTTAACGATCCCTGGGAAG
		GATTAAAGATTAAGTTACTTTAGGGATAACAGCGTGAT
KC163	Fallicambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTTAAGGT	741
506	byersi	ATAGATTATTTTTGTTTATAGGTTGTTATCTGAAAATATT
		TGGTTGGGGCGACAGGGATAAAATGAGAGGTAACTGTTTT
		TTTTTTATTACAACAATGTTTGATTTAATGATCCTGAAAA
		GGATTAAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KC163	Creaserinus	AGGGGACGATAAGACCCTATAAAACTTTATATTTAAGGGT	742
511	burrisi	ATAAGTTGTTTTTGTTTGTAAGTTATTATCTGAGAGTATT
		TGGTTGGGGCGACAGGAATAGGATATAAAGTAACTGTTCT
		TTTTTTTGACAATAATATTTGGTTTAATGATCCTAAAAAG
		GATTGAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KC163	Creaserinus	GAGGGACGATAAGACCCTATAAAACTTTATATTTGAAGGT	743
450	gilpini	AGAAGTTATTTTTATTTGAAAGTTAATATCTAAAATATTT
		TGTTGGGGCGACAAGGATAAAATATTAAGCAACTGTCTTT
		TTTTTTTACAATGATATTTGGTTTAATGATCCTAAAAAGG
		ATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KC163	Fallicambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTATAAAT	744
479	harpi	AGTAGCTAATTTTGTTTTGAAATATTATTTTAAAATATTT
		TGTTGGGGTGACAAGGATATAACAGAAAATAACTGTCTTT
		TATGTTTACAGTAATGTCTGGTTTAATGATCTTAAGAATA
		GATTATAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KC163	Fallicambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTTATGAA	745
444	macneesei	TAGTAGTTAATTTTATTTTATAATATTATTTAAAAGTATT
		TGGTTGGGGTGACAAGGATAAAATAAAAAATAACTGTCTT
		TTTTTTTTACAGTAATGTTTGGTTTAATGATCCTAAAATG
		GATTGAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KC163	Fallicambarus	GAGGGACGATAAGACCCTATAAAACTTTATATTTATAAAT	746
468	petilicarpus	GGTAGTTAATTTTATTTTAGAATATTATTTTGGAATATTT
		GGTTGGGGTGACAAGGATAAAATATGAAATAACTGTCTTT
		TTTTTTTACAGTGATATTTGGTTTAGTGATCCTGAAATGG
		ATTATAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KC163	Fallicambarus	GAGGGACGATAAGACCCTATAAAACTTTATATTTATAAGT	747
434	wallsi	GGTAGTTAATTTTATTTTATAATATTATTTTGAAATATTT
		GGTTGGGGTGACGAGGATAAAATAAAAAATAACTGTCTTT
		TTTTTTAACAGTAATGTTTGGTATGATGATCCTAAAACGG
		ATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KC163	Fallicambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTATAAAT	748
486	strawni	GGTAGTTAATTTTGTTTTAAAATGTTATTAAAAAATATTT
		TGTTGGGGTGACAAGGATAAAATAGAAAATAACTGTCCTT
		TTTTATTACAGTAATGTTTGGTTTAATGATCCTAAAAAGG
		ATTATAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KC163	Fallicambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTATAAGT	749
474	devastator	GGTAATTAATTTTATTTAGGAATATTATTTTAAAATATTT
		GGTTGGGGTGACAAGGATAAAAGTAAAAATAACTGTCCTT
		TTTTTTTTCAGTAATATCTGGTTTGATGATCCTAAAATGG
		ATTATAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KC163	Fallicambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTTATGAA	750
432	houstonensis	TGGTAGTTAATTTTATTTTGTAATATTATTTAAAAGTATT
		TGGTTGGGGTGACAAGGATAAAATAAAAAATAACTGTCTT
		TTTTTTTTACAGTAATGTTTGGTTTAATGATCCTAAGATG
		GATTGAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KC163	Fallicambarus	AGGGGACGATAAGACCCTATAAAACTTTATATTTAAGGTG	751
472	hortoni	GAAATTATTTTTATTTGTTAAGTACTATTTAAAAATATTT
		GGTTGGGGCGACAAGGATAGAATGTTAAGTAACTGTCTTT
		TTTTTTAACAATAATATTTGGTTTAATGATCCTAAAAAGG
		ATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
FM208	Arenaeus	GAGGGACGATAAGACCCTATAAAGCTTTATAAGTTAAAGT	752
749	cribrarius	ATTTTGTATATTTTATATTATAATAATGATTTATTGAGTA
		CTTATTTGGTTGGGGCAACAAGAGTATAATAAAAAGTAAC
		TGCTAATGTTTAAAACAATTATATTTGATTTAAGAGTAAT
		TGATCCCCCAGGGGATTAAAAGATCAAGCTACTTTAGGGA
		TAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTGAAAAGT	753
521	tenebrosus	GATAGGTATATTTTGTTTAAAGAATTATTACTTTAAAGTA
		TTTGGTTGGGGTGACAAGAATAGAAGAGAAAGTAACTGTT
		TTTTTTTTATACAATAATGTTTGGGTTAGTGATCCTAAAA
		TGGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTAGGGGT	754
504	deweesae	GGAAATTAGTTTTATTTAAAGGTTACTATTTTATAATATT
		TGGTTGGGGCGACAGGGATAGAAAAAAAGTTAACTGTCTT
		TTTTTTTTTACAGTAATATTTGGTTGAATGATCCTAAAAT
		GGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTAAAAAGT	755
513	striatus	GATGGGTAAGTTTTGTTTAAAGGTTATTACTTTAAAGTAT
		TTGGTTGGGGTGACAGGAATAGAATAGAAAGTAACTGTTC
		TTTTTTTTTTACAGTAGTGTTTGAGTTAGTGATCCTAAAA
		TGGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTGAAAAGT	756
506	graysoni	GGTAGGTATGATTTGTTTAAAAGGTTACTACTTTAAAGTA
		TTTGGTTGGGGTGACAAAAATAGAATAGAAAGTAACTGTT
		TTTTTTTTTAACAATAATGTTTGGGTTAGTGATCCTAAAA
		TGGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGACAAGACCCTATAAAACTTTATATTGCAAAGT	757
537	monongalensis	GATTAGTAAGTTTTATTTAAAGGTTATTATTTTGAAATAT
		TTGGTTGGGGTGACAAGGATTGAAGAAAAAGTAACTGTAT
		TTTTTTTTACAATAATGTTTGGTTTAGTGATACTAAAATG
		GATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAGT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTAAAAGT	758
511	pyronotus	GATAGGTAGGTTTTGTTTTAAGGTTATTTCTTTAAAATAT
		TTGGTTGGGGTGACAGGAATAGAATAGAAAGTAACTGTTC
		TTTTTTTTTACAGTAGTGTTTGAGTTAGTGATCCTAAAAT
		GGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
AF235	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTGAGAGGT	759
988	maculatue	GAGAGGTAATTTTGTTTAAAAGTTATTGCTTTAAAGTATT
		TGGTTGGGGCGACAAGGATACAAGGTAAAGTAACTGTTTT
		TTTTTTCTACAATAATGTTTGAGTGAATGATCCTAAGATG
		GATTAAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTGAGAAGT	760
524	coosawat	AATGGGCAGGTTTTGTTTAGAAGTTATTATTTTTAGAGTA
	tae	TTTGGTTGGGGCGACAAGGATAAAAAGAAAGTAACTGTTC
		TTTTATTTTACAATAATGTTTGGGTATAATGATCCTAATA
		TGGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	GAAGGGACGATAAGACCCTATAAAACTTTATATTAAAAAG	761
509	latimanus	TGATGTGTAAGTTTTGTTTAAAGGTTATTACTTTAAAGTA
		TTTGGTTGGGGTGACAGGAATAGAATAGAAAGTAACTGTT
		CTTTTTTTTTTACAGTAGTGTTTGAGTTAGTGATCCTAAA
		ATGGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAA
		T
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTGAAAAGT	762
517	strigosus	GATAGGTACAATTTGTTTGAAGGGTTGTTATTTTAAAGTA
		TTTGGTTGGGGTGACAAGGATAAAATGGAAAGTAACTGTT
		TTTTTTTTTTACAGTGATGTTTGGGTTAATGATCCTAAAA
		TGGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATACTGAGAGGT	763
556	parrishi	GATGGATGAGTTTTGTTTAGAAGTTATTATTTTAGAGTAT
		TTGGTTGGGGCGACAAGGGTAAAAAGAAAGTAACTGTTCT
		TTATTTTTACAGTTATGTTTGAGTGAATGATCCTAAAACG
		GGTTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTAGAAGT	764
532	bouchardi	GATAGGTAAGTTTTGTTTGTAGTTTAATTACTTTAAAATA
		TTTGGTTGGGGTGACAAGGATAGAATAACAAGTAACTGTT
		TTTTTTTTTAACAATGATGTTTGGATCGGTGATCCTAAAA
		GGATTAAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTAAGAAGT	765
525	fasciatus	AATGGGTGAATTTTGTTTAGAAGTTATTATTTTAAAATAT
		TTGGTTGGGGCGACAAGGATAAAAAGAAAATAACTGTTCT
		TTTATTTTACAATAATGTTTGGGTATAATGACCCTAATAG
		GGGTTAAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTGAAAAGT	766
508	harti	GGTAGGTATGGTTTGTTTAAAAGGTTATTGCTTTAAAGTA
		TTTGGTTGGGGTGACAAGGATAGAATGGAAAGTAACTGTT
		TTTTTTTTTTACAATGATGTTTGAGCTAATGATCCTAAAA
		TGGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTGGGGGT	767
555	nerterius	AATAGGTAGGTTTTGTTTGTTAGTTATTATTTTAAAGTAT
		TTGGTTGGGGTGACAAGGATAAAAAAAAAGTAACTGTTCT
		TTATTTTTACAATAATGTTTGGTATAATGATCCTAATATG
		GATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTAGGAGT	768
539	setosus	AGAGTTAGTTTTATTTTAATATCTTATTTTAAAGTATTTG
		GTTGGGGTGACATGAACAAAAAATGAAATAATTGTTTTTA
		TTTTTTACAATGATATTTGGACTTATGATCCTAAAGTGGA
		TTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AGGGGACGATAAGACCCTATAAAACTTTATATTGAAAAGT	769
531	batchi	GGTAGGTACGATTTGTTTTAAGGTTACTACTTTAAAGTAT
		TTGGTTGGGGCGACAAGAATAGAATAGAAAGTAGCTGTTT
		TTTTTATTTTACAATGATGTTTGGGTTAGTGATCCTAAAA
		CGGATTAAAAGATTAAGTTACTTTAGGGATAACAGCGTAA
		T
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTGAAAAGT	770
507	halli	GGTGGGTATGGTTTGTTTAAAGATTATTACTTTAAAGTAT
		TTGGTTGGGGTGACAAGAATAGAATAGAAATTAACTGTTT
		TTTATTTTTACAATGATGTTTGAGTTAGTGATCCTAAAAT
		GGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTAGAAGT	771
533	crinipes	GATAGGTAAGTTTTGTTTGTAGTTTAATTACTTTAAAATA
		TTTGGTTGGGGTGACAAGGATAGAATAACAAGTAACTGTT
		TTTTTTTTTAACAATGATGTTTGGATCGGTGATCCTGAAA
		GGATTAAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTAGAAGT	772
541	unestami	GGTGGGTAAGTTTTGTTTGTAGTTTAATTACTTTAAAATA
		TTTGGTTGGGGTGACAAGGATAGAATAGCAAGTAACTGTT
		TTTTTTTAAAACAATGATGTTTGGATTAATGATCCTAAAG
		GGATTAAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTGGAAGT	773
557	reburrus	GATGGGTAAGTTTTGTTTGCCGGTTATTATTTTAAAGTAT
		TTGGTTGGGGTGACAAGGATAAAAAAAAGTAACTGTTCTT
		TATTTTTTACAATAATGTTTGGTATAATGATCCTAATATG
		GATTAAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
AY853	Cambarus	AGGGACGATAAGACCCTATAAAACTTTATTTGAAAAGTGA	774
664	gentry	TGAGTATGGTTTATTTAAAAGGTTATTATTTTAAAGTATT
		TGGTTGGGGCGACAAGAACAAAACGGAAAGTAACTGGTTT
		TTTTTTTTACAATGATGTTTGAGTTAATGATCCTAAAATG
		GATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTAGGAAGT	775
518	hubbsi	GATAAGTATATTTTGTTTAAAGAATTATTACTTTAAAGTA
		TTTGGTTGGGGTGACAAAAATAAAAAAAAAGTAACTGTTT
		TTTTTTTTAACAATAATGTTTGGGTTAGTGATCCTAAAAT
		GGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
DQ411	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTAAAAAGT	776
733	friaufi	GGTAGGTATGGTTTGTTTGAAGATTATTATTTTTGAGTAT
		TTGGTTGGGGCGACAGGAATAAAATAAAAGTAACTGTTTT
		TTTTTTTTACAATGATGTTTGAGTTAATGATCTTAAAATG
		GATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTAGAAGT	777
538	obeyensis	GATAGGTAAGTTTTGTTTGTAGTTTAATTATTTTAAAATA
		TTTGGTTGGGGTGACAAGGATATAATAGCAAGTAACTGTT
		TTTTTTTTTAACAATAATGTTTGGGTTGATGATCCTAAAA
		GGATTAAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATACTGAAAAGT	778
522	cracens	GGTGGGTATGGTTTGTTTTAAAGATTATTACTTTAAAGTA
		TTTGGTTGGGGTGACAAGAATAAAATAGAAACTAACTGTT
		TTTTATTTTTACAATGATGTTTGAGTTAGTGATCCTAAAA
		CGGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTAAAAGG	779
530	asperimanus	AGTAAGCAAATTTTATTTAGAAGTTATTGCTTGAAAATAT
		TTTGTTGGGGCGACAAGAATAGGGAGGTAAATAACTGTTT
		TTTTTTTTTGACAATAATGTTTGGATTAGTGATCCTGAAA
		GGATAATAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	CTGTTTTTTTTTTTTACAATAATGTTTGGTTTAGTGATCC	780
554	hobbsorum	TAAAATGGATTAAAGATTAAGTTACTTTAGGGATAACAGC
		GTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTGTAAAACTTTATATTTAAGAGT	781
523	williami	GGTGGGTAAGGTTTGTTTGGAGGTAATTATTTTAAAGTAT
		TTGGTTGGGGCGACAAGAATAGAAAAAAAAATAACTGTTT
		TTTTTTCTTACAATGATGTTTGAGTTAATGATCCTAAAAC
		GGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTGGAAGT	782
502	howardi	GATGGTAGATTTTGTTTGTTAGTTATTATTTTAAAGTATT
		TGGTTGGGGCGACAAGGATAAAAAGAAAGTAACTGTTCTT
		TGTTTTTACAATAATGTTTGGTTTAGTGATCCTAATATGG
		ATTAAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTAAAAAGT	783
510	obstipus	AATGGGTAAGTTTTGTTTAAAGGTTATTACTTTAAAGTAT
		TTGGTTGGGGTGACAGGAATAGAATAGAAAGTAACTGTTC
		TTCTTTTTTACAGTAGTGTTTGAGTTAGTGATCCTAAAAT
		GGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTAAGAAGT	784
526	girardianus	AATGGGTAAATTTTGTTTAGAAGTTATTATTTTAAAGTAT
		TTGGTTGGGGCGACAAGGATAAAAAGAAAATAACTGTTCT
		TTCATTTTACAATAATGTTTGGAGATAGTGATCCTAAGAT
		GGGTTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	GGGGGACGATAAGACCCTATAAAACTTTATATTGAAAGGG	785
534	cryptodytes	GGTAAGTAAATTTTGTTTAAGGTTATGTGCTTAAAATATT
		TGGTTGGGGTGACAGGGATAGAAGAAAAGGTAACTGTTTT
		TTTTTATTACAAATAATATTTGGATTAGTGATCCTGAAGT
		GGATTTAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTGAGAAGT	786
528	speciosus	AATGGGCAGGTTTTGTTTAGAAGTTATTATTTTTAGAGTA
		TTTGGTTGGGGCGACAAGGATAAAAAGAAAGTAACTGTTC
		TTTTATTTTACAATAATGTTTGGGTATAATGATCCTAATA
		TGGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTAAGAAGT	787
503	sciotensis	AATGGGTAAGTTTTGTTTAAAAGTTATTATTTTAAAGTAT
		TTGGTTGGGGCGACAAGGATAAAAAGAGAGTAACTGTTCT
		TTTGTTTTACAATAATGTTTGATATTATGATCCTAAGAAG
		GATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTAAGAAGT	788
553	georgiae	AATGGGTGAATTTTGTTTGGAAGTTATTATTTTAGAGTAT
		TTGGTTGGGGTGACAAGGATAAAAAGAAAGTAACTGTTCT
		TTTATTTTACAATAATGTTTGGGTTTGATGATCCTAAGAC
		GGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTGAGAAGT	789
561	pristinus	GATAGGTAAGTTTTGTTTATAGGTTAATTACTTTAAAATA
		TTTGGTTGGGGCGACCGGGATAGAATAACAAGTAACTGTC
		TTTTTTTAAAACAATTGTGTTTGGATTAGTGATCCTAAGA
		TGGATTAAAAGATTAAGTTACTTTAGGGATAACAGCGTAA
		T
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTAGGAGT	790
529	aculabrum	AGAGTTAGTTTTATTTTGGGATCTTATTTTAAAGTATTTG
		GTTGGGGTGACATGAACAAAAAATGAAATAATTGTTTTTA
		TTTTTTACAATGATATTTGGGTTTATGATCCTAAAGTGGA
		TTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATACTAAAAAGT	791
505	englishi	GATGGGTAAGTTTTGTTTAAAGGTTATTACTTTAAAGTAT
		TTGGTTGGGGTGACAGGAATAGAATAGAAAGTAATTGTTC
		TTTTTTTTTACAGTAATGTTTGAGTTAGTGATCCTAAAAT
		GGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
DQ411	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTGAAAAAT	792
732	brachydactylus	GGTAGGTATGGTTTATCTAAGGATCATTATTTTTTAGTAT
		TTGGTTGGGGCGACAAAAATAGAATAATAAGTAACTGTTT
		TTTTTTTTAACAATGATGTTTGAGTTAGTGATCCTAAAAT
		GGATTAGAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTAAAAAGT	793
552	cumberlandensis	AGTGGGTAAATTTTGTTTAGAAATTATTATTTTAAAGTAT
		TTGGTTGGGGCGACAGGGATAAAAGGAAAGTAACTGTTCT
		TTTATTTTACAATAATGTTTGGGTACACGATCCTAAGATG
		GATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTGAAAGGG	794
536	dubius	GGTAAGTAGATTTTGTTTAAAAGTTATTTCTTAGAAATAT
		TTGGTTGGGGCGACAAGAATAGGAAGGCAAATAACTGTTT
		TTTTTTTTTACAATAATTTTTGGGTTAATGATCCTGAAGA
		GGATTAAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTGAAAAGT	795
512	reflexus	GATAGGTATAATTTGTTTAAAAGGTTATTATTTTAAAGTA
		TTTGGTTGGGGTGACAAGGATANAATGAAAAGTAACTGTT
		TTTTTTTTTTACAATGATGTTTGGGTTAATGATCCTAAAA
		TGGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTGAAAAGT	796
520	rusticiformis	GATAGGTATATTTTGTTTAAAGAATTATTACTTTAAAGTA
		TTTGGTTGGGGTGACAAGAATAGAAGAGAAAGTAACTGTT
		TTTTTTTTATACAATAATGTTTGGGTTAGTGATCCTAAAA
		TGGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTAAGAAGT	797
559	scotti	AGTAGGGTGAATTTTGTTTAGAAGATATTATTTTAAAGTA
		TTTGGTTGGGGCGACAAGGATAAAAAGAAAATAACTGTTC
		TTTTATTTTACAATAATGTTTGGGTATAATGATCCTAAGA
		CGGGTTAAAAGATTAAGTTACTTTAGGGATAACAGCGTAA
		T
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTGAGAAGT	798
551	coosae	AATGGGCAGGTTTTGTTTAGAAGTTATTATTTTTAGAGTA
		TTTGGTTGGGGCGACAAGGATAAAAAGAAAGTAACTGTTC
		TTTTATTTTACAATAATGTTTGGGTATAATGATCCTAATA
		TGGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTAGAAGT	799
535	distans	GATAGGTAAGTTTTGTTTGTAGTTTAATTACTTTAAAATA
		TTTGGTTGGGGTGACAAGGATAGAATAACAAGTAACTGTT
		TTTTTTTTTAACAATGATGTTTGGATCGGTGATCCTGAAA
		GGATTAAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTTGGGAGT	800
527	longirostris	GATGGGCAGGTTTTGTTTGTTAGTTATTATTTTAAAGTAT
		TTGGTTGGGGTGACAAGGATAAAAAGAAAGTAACTGTTCT
		TTATTTTTACAATAATGTTTGGTATAATGATCCTAATGTG
		GATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Cambarus	AAGGGACGATAAGACCCTATAAAACTTTATATTGAGAAGT	801
519	hubrichti	GATGGGTATATTTGTTTAAAGATTATTACTTTAAAGTATT
		TGGTTGGGGTGACAAGAATAGAATAGAAAGTTACTGTTTT
		TTTTTTTTACAATGATATTTGAGTTGGTGATCCTAAAAGG
		GATTGAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
MG56	Monomia	AGGGGACGATAAGACCCTATAAAGCTTTATAAGTCTAGGA	802
3792	lucida	ATTTTAGATATTTTGTAGGATAAATTTATTTTCTGATAAC
		TTATTTGGTTGGGGCGACAAAGGTATAATTATGGATAACT
		GCTATTAATTTTGATACATTTATTGGTGATTGAAATTTAG
		GGTAATTGATCCTCTTTGGGGATTAAAAGATCAAGTTACT
		TTAGGGATAACAGCGTAAT
MH168	Faughniaserenei	GAGGGACGATAAGACCCTATAAAGCTTTATAATGTTTTTT	803
232		TTTATTATAAATTGTGCAATTTTAGTTTACTAAAAAGAAA
		TTATTATTTTACTGGGGGGGTAAAAGTATGTTCTTGACCA
		ACTGCTTTTGTTTTTAAAAACAAGTATTTTTGAAAATAAA
		TTGATCCATTATTAATGATTATAAGAACAAGTTACTTTAG
		GGATAACAGCGTAAT
MH168	Harpiosquilla	GAGGGACGATAAGACCCTATAAAGCTTTATAACGTATTTT	804
201	melanoura	TTTTTTATAAACTATTTAATTATTAACTTAATACAAAATG
		TACGTTATTTTACTGGGGCGGTAAAAGTATAATCAAGAAT
		AACTGCTTTTTTTATTAATAACAATTATAATTGAAAATAA
		ATTGATCCATTATTAATGATCATAAGAACAAGTTACTTTA
		GGGATAACAGCGTAAT
MH168	Harpiosquilla	GAGGGACGATAAGACCCTATAAAGCTTTATAGTATATTTT	805
202	annandalei	TTTTTTATAAATTATTTTGTTATTAACTTATTATAAAATA
		TATATTATTTTACTGGGGCGGTAAAAGTATAATTAAGAAT
		AACTGCTTTTCTTTTTAATAACAGTGATAACTGGAAATAA
		ATTGATCCATTATTAATGATCACAAGAACAAGTTACTTTA
		GGGATAACAGCGTAAT
KJ920	Cherax	GAGGGACGATAAGACCCTATAAAGTTTATACATGGAGTTA	806
795	communis	ATCAAGAGTGATTTGGAATAGTAAAGTTCATTATTAGCAA
		GATGTTTAGTTGGGGTGACTAGAATATAAGTTATATAACT
		GTTTTTTGTTTTAATCAGAGATATCTGTTTATATGGTCCC
		TTTTTAGGATTAGAGAGTAAATTACTTTAGGGATAACAGC
		GTAAT
EU977	Cherax	GAGGGACGATAAGACCCTGTAAAGTTTGTACATCAGGGTT	807
342	cuspidatus	AATGGGTAGCGATTTAGGTTAATAAGGCTAACTCTTATGG
		AGGTGTTTAGTTGGGGCGACTGGGATATAAGTTATCTAAC
		TGTTTCTTTATTGGAATCAATAATATTTGAGTTTATGGTC
		CTCTTTAAGGATTTCAGAATAAATTACTTCAGGGATAACA
		GCGTAAT
KJ920	Cherax	GAGGGACGATAAGACCCTATAAAGTTTATACATGGAGTTA	808
829	paniaicus	ATCAAGAGTGATTTGGAATAGTAAAGTTCATTATTAGCAA
		GATGTTTAGTTGGGGTGACTAGAATATAAGTTATATAACT
		GTTTTTTGTTTTAATCAGAGATATCTGTTTATATGATCCC
		TTTTTAGGATTAGAGAGTAAATTACTTTAGGGATAACAGC
		GTAAT
KJ920	Cherax	GAGGGACGATAAGACCCTATAAAGTTTATACATGAAGCTG	809
812	lorentzi	GTTAAGAGTGATTTAGGGTGATAAAGTTTATTATTAGCAG
		GGTGTTTAGTTGGGGCGACTGAGATATAAATCATATAACT
		GTTTTTTGTTTAAATCAGAGATACTTGCTGGTATTGGTCC
		CTTTTTAGGATTAGAGAAAAAATTACTTTAGGGATAACAG
		CGTAAT
KJ920	Cherax	GAGGGACGATAAGACCCTATAAAGTTTATACATGAAGCTG	810
772	albertisii	GTTAAGAGTGATTTGAGGTATTAAAGTTTATTATCAGCAG
		GGTGTTTAGTTGGGGCGACTAGGATATAAATTATATAACT
		GTTTTTTGTTTAAATCAGAGATACTTGTTTATATGATCCC
		TTTTTAGGATTAGAGAATAAATTACTTTAGGGATAACAGC
		GTAAT
AF135	Cherax	GAGGGACGATAAGACCCTATAAAGTTTTGACACTAAATTA	811
973	rotundus	ATTAAAGGTGATTTGGGTTATAAAGTTTTATTATTAAATA
		AGTGTTTAGTTGGGGCGACTAGGATATAAGTGATTTAACT
		GTTTCTTCGTTTAAACCAAAAATATTTGGGTTTATGATCC
		TTTTTTAGGATTTTTAGAGTAAATTACTTTAGGGATAACA
		GCGTAAT
KM039	Cherax	GAGGGACGATAAGACCCTGTAAAGTTTGTACATCAGGGTT	812
077	leckii	AATGGGTAGAGATTTAGGTTAATAAGGCTAACTCTTATGG
		GGGTGTTTAGTTGGGGCGACTAGGATATAAGTTATCTAAC
		TGTTTCTTTGTTGGAATCAATAATATTTGAGTTTATGATC
		CTCTTTAAGGATTTCAGAATAAATTACTTCAGGGATAACA
		GCGTAAT
KJ920	Cherax	GAGGGACGATAAGACCCTATAAAGTTTATACATGGAGTTA	813
825	murido	ATCAAGAGTGATTTGGAATAGTAAAGTTCATTATTAGCAA
		GATGTTTAGTTGGGGTGACTAGAATATAAGTTATATAACT
		GTTTTTTGTTTTAATCAGAGATATCTGTTTGTATGGTCCC
		TTTTTAGGATTAGAGAGTAAATTACTTTAGGGATAACAGC
		GTAAT
KM039	Cherax	GAGGGACGATAAGACCCTATAAAGTTTGTACAGTGAATTA	814
082	wasselli	GTATGAAATAGATTAGATGGGTAAAATTTGTTACTAAGGA
		GATGTTTGGTTGGGGCGATTAGAATATAGGTGAAGTAACT
		GTTTCTTTTTTTGAGTCAAAAATTTTTGATTTAATGACCC
		TTAATAAGGATTATGAAAGCAAGTTACTTTAGGGATAACA
		GCGTAAT
KM039	Cherax	GGGGGACGATAAGACCCTATAAAGTTTGTACATTAGGCTA	815
078	parvus	ATTAAGAGTGATTTAGATTTATAAGGCTTTATTATTAGGG
		GGTGTTAAGTTGGGGCGACTAGGATATAATTTATATAACT
		GTTTCTTTATTATAATCAGAAATATTTGAGTTTATGATCC
		TTTTTTAGGATTTTTAGAGTAAATTACTTTAGGGATAACA
		GCGTAAT
KJ920	Cherax	GAGGGACGATAAGACCCTATAAAGTTTATACATAGAGTTA	816
828	pallidus	ATCAAGAGTGATTTGGAATAGTAAAGTTCATTATTAGCAA
		GATGTTTAGTTGGGGTGACTAGAATATAAGTTATATAACT
		GTTTTTTGTTTTAATCAGAGATATCTGTTTATATGGTCCC
		TTTTTAGGATTAGAGAGTAAATTACTTTAGGGATAACAGC
		GTAAT
KM039	Cherax	GAGGGACGATAAGACCCTATGAAGTTTGTACATTGGATTA	817
079	cartalacoolah	ATTGGGAATGATTTATGTTTAGTAAGGTTTGCTATTGAGA
		AGATGTTTAGTTGGGGCGACTAGGATATAATATATAACTG
		TTTCTTGGTAGGAGTCAAAAATATTTGAGTTAATGATCCT
		TTTTTAGGATTTTAGAGTAAATTACTCTAGGGATAACAGC
		GTAAT
KJ920	Cherax	GAGGGACGATAAGACCCTATAAAGTTTATACATGGAGTTA	818
806	longipes	ATCAAGAGTGATTTGGAATAGTAAAGTTCATTATTAGCAA
		GATGTTTAGTTGGGGTGACTAGAATATAAGTTATATAACT
		GTTTTTTGTTTTAATCAGAGATATCTGTTTATATGGTCCC
		TTTTTAGGATTAGAGAGTAAATTACTTTAGGGATAACAGC
		GTAAT
KJ920	Cherax	GAGGGACGATAAGACCCTATAAAGTTTATACATGGGGCTG	819
765	rhynchotus	GTTGAGAGTGATTCAGAATAGTAAAGTTTATTATTAGCAA
		GATGTTTAGTTGGGGCGACTAAGATATAAATTATATAACT
		GTCTTTTGTTTAAATCAGAGGTGTCTGTTCGTATGATCCT
		TTTTTAGGATTGGAGAGTAAATTACTTTAGGGATAACAGC
		GTAAT
KY654	Cherax	GAGGGACGATAAGACCCTATAAAGTTTATACATAGGGTTA	820
091	pulcher	GTTAAAAGTGATTTAGGATAGTAAAGTTTGTTACTAGCAA
		GATGTTTGGTTGGGGTGACTAGAATATAAGTTATATAACT
		GTTTTTTATTTAAGTCAGAAGTATTTGTTTATAGTGATCC
		CTTATTTAGGATTAAAGAGTAAATTACTTTAGGGATAACA
		GCGTAAT
KJ920	Cherax	GAGGGACGATAAGACCCTATAAAGTTTATACACAGAATTA	821
835	peknyi	ATCGAAAATAATTTGGAATAATAAAATTTCTTATTAGTGA
		GGTGTTTGGTTGGGGCGACTAGGATATAAGTTATATAACT
		GTTTTTTGTTTAAATCAAAGATATTTGTTTATATGATCCC
		TTTTTAGGATTAAAGAGTAAATTACTTTAGGGATAACAGC
		GTTAT
AF135	Cheraxsetosus	GAGGGACGATAAGACCCTATAAAGTTTGACATTAAATTAA	822
972		TTAAAGGCGATTTAGGTCGTTAAAGTCTTATTATTATATA
		AGTGTTTAGTTGGGGCGACTAGGATATAAGTGATTTNNAA
		CTGTTTTCTTCGTTCGAGTCAAGAATATTTGAGTGTATGA
		TCCTTTTTTAGGATTTTAGAGTAAATTACTTTAGGGATAA
		CAGCGTAAT
KJ920	Cherax	GAGGGACGATAAGACCCTATAAAGTTTATACATGGAGTTA	823
813	misolicus	GTTAAGAGTAATTTAGAATAGTAAAGTTTATTATTAACAA
		GATGTTTGGTTGGGGCGACTGGAATATAAGTTATATAACT
		GTTTTTTATTTAAGTCAGAAATATTTGTTTATAATGATCC
		TTTTTTTGGATCAAAGAGTAAATTACTTTAGGGATAACAG
		CGTAAT
KY654	Cherax	GAGGGACGATAAGACCCTATAAAGTTTTATACATGGAGTT	824
088	warsamsonicus	AGTTAAGAGTAATTTAGAGTAGTAAAGTTTATTATTAGCA
		AGATGTTTGGTTGGGGCGACTGGAATATAAGTTATATAAC
		TGTTTTTTATTTAAGTCAGAAATATTTGTTTATAATGATC
		CCTTTTTTGGATTTAAGAGTAAATTACTTTAGGGATAACA
		GCGTAAT
KJ920	Cheraxsolus	GACGATAAGACCCTATAAAGTTTATACATGGAGTTAATCA	825
836		AGAGTGATTTGGAATAGTAAAGTTCATTATTAGCAAGATG
		TTTAGTTGGGGTGACTAGAATATAAGTTATATAACTGTTT
		TTTGTTTTAATCAGAGATATCTGTTTATATGGTCCCTTTT
		TAGGATTAGAGAGTAAATTACTTTAGGGATAACAGCGTAA
		T
KY654	Cheraxsnowden	GAGGGACGATAAGACCCTATAAAGTTTAAACACTGAGTTA	826
087		GTTAAGAGTGATTTAGAGTAGTAAGGTTTATTATTAGTTA
		GGTGTTTGGTTGGGGCGACTAGAATATAAGTTATATAACT
		GTTTTTTATTTGAATCAGAGATATCTGTTCACATGATCCC
		TTTTTAGGATTAAAGAGTAAATTACTTTAGGGATAACAGC
		GTAAT
KJ920	Cherax	GAGGGACGATAAGACCCTATAAAGTTTATACATGGAGTTA	827
785	buitendijkae	ATCAAGAGTGATTTGGAATAGTAAAGTTCATTATTAGCAA
		GATGTTTAGTTGGGGTGACTAGAATATAAGTTATATAACT
		GTTTTTTGTTTTAATCAGAGATATCTGTTTATATGGTCCC
		TTTTTAGGATTAGAGAGTAAATTACTTTAGGGATAACAGC
		GTAAT
KJ920	Cherax	GAGGGACGATAAGACCCTATAAAGTTTATACATGGAGTTA	828
784	boschmai	ATCAAGAGTGATTTGGAATAGTAAAGTTCATTATTAGCAA
		GATGTTTAGTTGGGGTGACTAGAATATAAGTTATGTAACT
		GTTTTTTGTTTTAATCAGAGATATCTGTTTATATGATCCC
		TTTTTAGGATTAGAGAGTAAATTACTTTAGGGATAACAGC
		GTAAT
KJ920	Cherax	GGGGGACGATAAGACCCTATAAAGTTTGTACATGGGGCCG	829
760	nucifraga	CTTAGGAGCGATTTAGAGAAGTAAAGTTTATTACTAGCAA
		GGTGTTTCGTTGGGGCGACTAAGATATAAATTATATAACT
		GTTTTCTGTTAGAATCAGAGATGTCTGTACATATGATCCC
		TTTTTAGGATGAAAGAGTAAATTACTTTAGGGATAACAGC
		GTAAT
KJ920	Cherax	GAGGGACGATAAGACCCTATAAAGTTTATACATGGGGCTG	830
752	barrette	GTTGAGAGTGATTCAGAATAGTAAAGTTTATTATTAGCAA
		GATGTTTAGTTGGGGCGACTAAGATATAAATTATATAACT
		GTCTTTTGTTTAAACCAGAGGTATCTGTTCGTATGATCCT
		TTTTTAGGATTGGAGAGTAAATTACTTTAGGGATAACAGC
		GTAAT
MH168	Oratosquilla	GAGGGACGATAAGACCCTATAAAGCTTTATGGTATTTTTC	831
227	fabricii	TTTTTTATAAATTATGTTATTATTAACTTATTTTAGAACT
		AATATTATTTTACTGGGGCGGTAAAAGTATAATAAAGACT
		AACTGCTTTTGTTTTGTATAACAATTATAATTGAAAATAA
		ATTGATCCATTATTAATGATCACAAGAACAAGTTACTTTA
		GGGATAACAGCGTAAT
DQ006	Astacopsis	GGGGGACGATAAGACCCTATAAAGTTTAACATAATAATGA	832
549	tricornis	TAAAAAATTAATTAGGTTATAAAGTTTATTATTACAAATA
		ATGTTTTGTTGGGGCGACAAGAATAAAAATAATTTAACTG
		TTCTTTTTTTTATCAAAAATATTTGGGTGGGTGATCTTTT
		TTAAAAGTATTAGAGTAAATTACTTTAGGGATAACAGCGT
		AAT
FJ152	Thalamita	GAGGGACGATAAGACCCTATAAAGCTTTATAAGTTTAGGT	833
163	admete	ATTCTATAGATTTCCACATAAAAATAGATTTTCAAATGCT
		TATTTTGTTGGGGCGACAATGGTACAATAATAGTAACTGC
		TTTTAAGTATAACATATATGGATGAGTCATATTTAATTGA
		TCCTTTCTAAAGATTTTAAGATCAAGTTACTTTAGGGATA
		ACAGCGTTAT
KT959	Faxonius	AGGGGACGATAAGACCCTATAAAACTTTATATTTTAAGGT	834
518	virilis	GGAAGATAATTTTATTTTAAAATTACTATTTTAAATTATT
		TTGTTGGGGCGACAAGGATATAAGAAAGGGTAACTGTCTT
		TTATTTTTACAATAATATTTGAATTATTGATCCTAAAAGG
		GATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
KJ132	Thranita	AAGGGACGATAAGACCCTATAAAGCATTTGGTTGGGGCGA	835
641	prymna	CAATAGTATAATTAATAACTGCTTTAAAATAATACAAATA
		TATTTGAAGTTGATCCTTTATAAAGATCTAAGATCAAGTT
		ACTTTAGGGATAACAGCGTTAT
AF044	Astacopsis	GGGGGACGATAAGACCCTATAAAGTTTAACATAATAAGGA	836
240	franklinii	TAAAAAATTAATTAGGTTTATAAAGTTTATTATTACAAAT
		AATGTTTTGTTGGGGCGACAAGAATAAAAGTAATTTAACT
		GTTCTTTTTTTAATCAAAAATATTTGGGTGGGTGATCTTT
		TCTAAAAGTATTAGAGTAAATTACTTTAGGGATAACAGCG
		TAAT
KX268	Cambaroi	GAGGGACGATAAGACCCTATAAAACTTTATATACTTATAA	837
737	desschrenckii	TTTAATAGAAATCTTTGTTTATAAAAATTTAGATTAGAGT
		ATTTTATTGGGGCGATGAAAATAAAATCTTAGGTAACTGT
		TTTTGTTTTTTAACAATAATATTTGAATTTTAGATCCCGA
		AAAAGATCAAAAGATTAAGTTACTTTAGGGATAACAGCGT
		TAT
EU433	Orconectes	GAGGGACGATAAGACCCTATAAAACTTTATATTAAAAAGT	838
912	australis	GATGAGTGTGTTTTGTTTAAGGGTTATTATTTTAAAGTAT
		TTGGTTGGGGCGACAAAAATAGAAGGGAAAGTAACTGTTT
		TTTTTTATTACAATAATGTTTGAGTGGATGATCCTAAAGT
		GGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
LC469	Thalamita	GCTTTATAANTTTAGGGAGATCTTATAAATATTTAAGTAA	839
670	chaptalii	CAATAATTTTTTAAATGTTTATTCGGTTGGGGCGACAAGA
		GTATAACGAAAATAACTGCTTTAAATTAAGACAGAAATAT
		CTGAATCATAGTTAATTGATCCTTTTTAAAGATTCTAAGA
		TCAAGTTA
LC469	Zygita	GCTTTATAAATTTAGAGATCTTATATATTTTTATATAGCT	840
673	longifrons	GTAATTTCTTAAATGTTTATTTGGTTGGGGCGACAATAGT
		ATAACAGAAGTAACTGCTTTTAGGTAGTACAAGCTTATTT
		GAGTAATACCGTTAATTGATCCTTTATAAAGATTTAAAGA
		CCAAGTT
LC469	Thalamita	GCTTTATAAGTTTAAAGATTTTGTATATTTTATTATAGCT	841
671	picta	ATAATTTCTTGAATACTTATTTAATTGGGGCGATAACAGT
		ATAATTATAGTAACTGCTTGTAAGTAATACAAAAATACTT
		GAATTGAAATTATAATTGATCCTTTATAAAGATTTTAAGA
		TCAAGTT
LC469	Thalamitaseurati	GCTTTACAAGTTTAAAGATCTTATATATTTTTCTATATCA	842
672		ATAATTTCTTGATTATTTGTTTGGTTGGGGCGACGATAGT
		ATAATAATAGTAACTGCTTTAAAGTGTTTCAAATGTATTT
		GAATCGAAATAATAACTGNATCCTTAAATAAAGATTTAAA
		GATCAAGTT
LC430	Thranita	GCTTTATAAGTTTGGAGATTTTATATATTTTTCTATAGCA	843
787	pelsarti	ATAATTTCTTGAAAGCTTATTTGGTTGGGGCGACAATAGT
		ATAATTGAAATAACTGCTTTAAAATAATACAAATATATTT
		GAATTATAATTAGTTGATCCTTTATAAAGATTTAAGATCA
		AGTT
EU433	Orconectes	GAGGGACGATAAGACCCTATAAAACTTTATATTGAAAAGT	844
913	barri	GATGGGTATGTTTTGTTTAGGGATTATTATTTTAAAGTAT
		TTGGTTGGGGCGACAAAAATAGAAGAGAAAGTAACTGTTT
		TTTTTTATTACAATAATGTTTGAGTTGATGATCCTAAAAT
		GGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Faxonius	ATGGGACGATAAGACCCTATAAAACTTTATATTTCAAGGT	845
565	ronaldi	AGAAAATTAATTTTATTTTAAGGTTACTATTTTAAAATAT
		TTTGTTGGGGCGACAAGGGTATAAGAAATGATAACTGTCT
		TTTATTTTTACAATAATATTTGATTTATTGATCCTAAAAG
		GGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
JX514	Faxonius	AGGGGACGATAAGACCCTATAAAACTTTATATTTTAAGGT	846
564	neglectus	GGAAATTAATTTTATTTTGAGGATTACTATTTTAAAATGT
		TTCGTTGGGGCGACAAGGATATAAGAAAGGGTAACTGTCT
		TTTGGTTTAACAGTAATATTTGGTTTGTTGATCCTAAAAA
		GGATTAAAGATTAAGTTACTTTAGGGATAACAGCGTGAT
EU433	Orconectes	AAGGGACGATAAGACCCTATAAAACTTTATATTAAAAAGT	847
917	compressus	AGAAGTTAATTTTATTTGAGTGTTACTATTTAAAATATTT
		GGTTGGGGCGATCGGAATAAAAGGTCTAATAACTGTCCTT
		TTTTTTTACAATAATATTTGGTTTAATGATCCTAAAAGGG
		ATTTAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
EU433	Orconectes	AAGGGACGATAAGACCCTATAAAACTTTATATTTTGAGGT	848
919	forceps	AGAAATTAATTTTATTTCATATCACTATTTTAAAGTATTT
		CGTTGGGGCGACAAGGATACAAGAAAAGGTAACTGTCTTT
		TGTTTTTACAAAAATATTTGGTTTGTTGATCCTTAAAGGG
		ATTAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
EU433	Orconectes	AAGGGACGATAAGACCCTATAAAACTTTATATTGAAAAGT	849
914	pellucidus	GGTGGGTATGTTTTATTTTGAGGTTATCACTTAAAAGTAT
		TTGGTTGGGGTGACAAAAATAGAAGGAAAAGTAACTGTTT
		TTTTTTCTTACAGTGATGTTTGGGTTAGTGATCCTAAAAT
		GGATTAAAAGATTAAGTTACTTTAGGGATAACAGCGTAAT
NC_04	Neoeriocheir	ATGGGACGATAAGACCCTATAAAGCTTAATATTAAAATTT	850
1211	leptognathus	TATTTGATTAAATTTTTTTTCAATAAAAATCTAATAATTA
		AATTTATTTTATTGGGGCGATAAAAGTATAATGTTTGATA
		ACTGCTTAATTTTAATTACACCTATGCGTGAATTAATTTA
		TGATTGATCCTAATTAAAGATTAAAAGTTTAAGTTACTTT
		AGGGATAACAGCGTTAT
AF279	Penaeus	GGGGGACGATAAGACCCTATAAAGCTTGACAATAATCTTA	851
826	kerathurus	TTAAATTATAAATTGTTAGTATAACTTGATTTTAATTAGA
		GTTTGTTTCGTTGGGGCGACGAGAATATAATAAATAACTG
		TTCTTTTAAATATAATTACAAAAATAATTGGTAAAATATT
		GATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGGG
		ATAACAGCGTAAT
AF279	Penaeus	GGGGGACGATAAGACCCTATAAAGCTTGACAATAATCCTG	852
824	marginatus	CTAAATTATAAATTGTTAGTATAACTTAATTCTAGCTAGA
		ATTTGTTTCGTTGGGGCGACGGGAATATAATAAATAACTG
		TTCTTTTAAATATAGTTACAGAAATGTCTGCTATAAGATT
		GATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGGG
		ATAACAGCGTAAT
AF279	Penaeus	GGGGGACGATAAGACCCTATAAAGCTTGACAATAACTTCG	853
823	longistylus	TTAAATTATAAATTGTTAGTATAACTTGATTTTAACTGGG
		GTTTGTTTCGTTGGGGCGACGAGAATATAATAAAATAACT
		GTTCTTTTAAATATAATTACAAAAATGCTTGGTGGATAAT
		TGATCCTTTAATAAAGATTAAAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
AF279	Penaeus	GGGGGACGATAAGACCCTATAAAGCTTGACAATAACTTTG	854
822	plebejus	TTAAATTATAAATTGTTAGTATAACTTGATTTTAACTAGG
		GTTTGTTTCGTTGGGGCGACGAGAATATAATAAATAACTG
		TTCTTTTAAATATAATTACAAAAATGCTTGGTGGATGATT
		GATCCTTTATTAAAGATTAAAAGATAAAGTTACTTTAGGG
		ATAACAGCGTAAT
AF105	Metapenaeopsis	AGAGGGACGATAAGACCCTATAAAGCTTTACAATTATTTA	855
044	liui	GTTAAATTATAAATTGTTGGTATAACTTGATTTAATTAAT
		ATTTGTTTCGTTGGGGCGACGAGAATAAAATTAAAATAAC
		TGTTCTTTTATTAGTAGTTACAAATTTGTTTGGTTAAAAA
		TTGATCCTTTATTAGAGATCAAAAGATTAAGTTACTTTAG
		GGATAACAGCGTAAT
AF105	Metapenaeopsis	AAGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	856
043	lamellata	TTAAATTATAAATTATTGGTTTAACTTAATTTAATTAATA
		TTTGTTTCGTTGGGGCGACGAGAATAAAATTAAAATAACT
		GTTCTTTTATAATTAATTACAAATTTGTTTGGTTAAATAT
		TGATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
AF105	Metapenaeopsis	AAGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAG	857
040	acclivis	TTAAATTATAAATTGTTGGTTTAACTTGATTTAATTAATA
		TTTGTTTCGTTGGGGCGACGAGAATAAAATTTAAGTAACT
		GTTCTTTTATAAATAGTCACAAATTTATTTGGTTAGAAAT
		TGATCCTTTCTTAAAGATCAAAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
AF105	Metapenaeopsis	AAGGGACGATAAGACCCTATAAAGCTTTACAATTATTTGG	858
042	commensalis	CTAATTTATAAATTGTTGGTTTAACTTAAGTGAGTCAATG
		TTTGTTTCGTTGGGGCGACGAGAATAAAATTAAGTAACTG
		TTCTTTAAAAGTAATTACAAAGTTAATTGATAAATAATTG
		GTCCTTTACTAAAGATTAAAAGATTAAGTTACTTTAGGGA
		TAACAGCGTAAT
AY622	Atypopen	GTGGGACGATAAGACCCTATAAAGCTTTACAATTATTTGA	859
201	aeusstenodactylus	TTAAATTATAAATTGTTAGTATAAACTTAATTTAGTTAAT
		ATTTGTTTTGTTGGGGCGACGAGAATATAATTTTAATAAC
		TGTTCTTTTATAATAATTTACTTTGATAATTGGAGAATAA
		TTGATCCTTTACTAAAGATTAAAAGATTAAGTTACTTTAG
		GGATAACAGCGTAAT
AY601	Aristeus	AGGGGACGATAAGACCCTATAAAGCTTTACGATTTGTTTA	860
738	antillensis	TTAAATCAAAAATTGTAAGTATAAATTTTATTTAATAGAC
		ATTTGTTTCGTTGGGGCGACGAGAATAAAATTTAGTAACT
		GTTCTTTTAGAGTATAACAATTATAATTGAAGGAAAATTG
		ATCCCTTATTAAGGATTAAAAATTTAAGTTACTTTAGGGA
		TAACAGCGTAAT
AY601	Solenocera	GGGGGACGATAAGACCCTATAAAGCTTTACAATAAGTTGG	861
736	vioscai	TTGAATTATAAATTGTTAGTTTAACTTAATTTAATTGGTG
		TTTGTTTCGTTGGGGCGACGAGAATATAATAATATAACTG
		TTCTTTTGAAAATTTAACAAAGTTGATTGGATAATAATTG
		ATCCTTTAATAAAGATTAAAAGATTAAGTTACTTTAGGGA
		TAACAGCGTAAT
NC_05	Trachysal	GGGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAG	862
0695	ambria	TTAAATTATAAATTGTTAGTATAAACTTAATTTAATTGAT
	curvirostris	GTTTGTTTCGTTGGGGCGACGAGAATATAATTTTGTAACT
		GTTCTTTTATAGTTTGTTACAATTATTTTTGGTAAAAGAT
		TGATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
AY264	Penaeus	AGGGGACGATAAGACCCTATAAAGCTTGACAATAATTTAA	863
908	chinensis	TTATACTATCAATTGTTAGTGTAACTTGGTTTTAATTAAT
		ATTTGTTACGTTGGGGCGACGGGAATATAACAAGTAACTG
		TTCTTAAATATTTAATAACAAATATAATTGGAAAACTAGC
		ATGATCCTCTATTAGTGATTAAAAGATTAAGTTACTTTAG
		GGATAACAGCGTAAT
AY264	Penaeus	GGGGGACGATAAGACCCTATAAAGCTTGACAATAACTTCG	864
907	canaliculatus	TTATATTATAAATTGTTAGTATAACTTGATTTTAACGGGG
		GTTTGTTTCGTTGGGGCGACGGGAATATAATAAATAACTG
		TTCTTTTAAATATAATTACAAAAATGTTTGGTAAATAATT
		GATCCTCTATTAGAGATTAAAAGATTAAGTTACTTTAGGG
		ATAACAGCGTAAT
NC_04	Metapenaeopsis	AAGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	865
0139	barbata	TTAAGTTATAAATTGTTGGTTTAACTTAACTTAGTTAATA
		TTTGTTTCGTTGGGGCGACGAGAATAAAATTAAGTAACTG
		TTCTTTTGTAGTTAATTACAAATTTGTTTGGTAGAAAATT
		GATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGGG
		ATAACAGCGTAAT
AF279	Penaeusesculentus	AGGGGACGATAAGACCCTATAAAGCTTGACAGTAAGTTGA	866
828		TTATATTATAAATTGTTAGTATAACTTGATTTTAGTTAGC
		GTCTGTTACGTTGGGGCGACGAGAATATAATAAGTAACTG
		TTCTTAAGTATCTAATAACAACTATAGTTGGTAAATAAAT
		GATCCTCTATTAGGGATTAGAAGATTAAGTTACTTTAGGG
		ATAACAGCGTAAT
AY622	Heteropenaeus	GGGGGACGATCAGACCCTATTAAGCTTGACTAGTATTTAT	867
202	longimanus	TTAAATTACAAACTGTCAGTATAACGTAATCTTAAATAAA
		AGTTGTTTCGTTGGGGCGACGGGAATATAAACAATAACTG
		TTCTTTTGATTATCTTACAAAAATAATTGGTAAATAAGTG
		ATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGGGA
		TAACAGCGTAAT
EF601	Atypopenaeus	GAGTGACGATAAGACCCTATAAAGCTTTACAATTATTTGG	868
684	dearmatus	TTGAATTATAAATTATTAGTATTAACTTAATTCAATTAAT
		ATTTGTTTCGTTGGGGCGACGGGAATATAATTTTAGTAAC
		TGTTCTTTTATAATTAATTACTTTTATTATTAGGAAAATA
		ATTGATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTA
		GGGATAACAGCGTAAT
AY622	Funchalia	AGGGGACGATAAGACCCTATAAAACTTAACAATAATTTAA	869
218	taaningi	TTAAATTATAAATTGTAAGTGTAACTTAATTTTAATTAAT
		ACTTGTTTCGTTGGGGCGACGAGAATATAAAAAATAACTG
		TTCTTTTAAATATTTACATGTGTATAGTTGGTAAAAATTG
		ATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGGGA
		TAACAGCGTAAT
AY622	Xiphopenaeus	AGGGGACGATAAGACCCTATAAAGCTTTACAAATATCTAG	870
217	kroyeri	TTAATTTATAAATTGTTATATAAACTTAGGTTAATTAGTG
		CTTGTTTCGTTGGGGCGACGAGAATATAATTTTGTAACTG
		TTCTTTTATGGTTTAGTACAATAATTTTTGGTAAAAAATT
		GATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGGG
		ATAACAGCGTAAT
AY622	Trachypenaeopsis	AAGGGACGATAAGACCCTATAAAGCTTTACAAACACTTAG	871
216	mobilispinis	CTGGATTTTGAAATGTTAGTATAAATTTAATTCAGTTAAA
		GATTGTTCCGTTGGGGCGACGAAAATATAAATTTAAGTAA
		CTGTTTTGAAAATAAATTACAGATATATCTGAAAATAAAT
		GATCCTTTAATAAAGATTAAGAGATCAAGTTACTTTAGGG
		ATAACAGCGTAAT
AY622	Rimapen	AGGGGACGATAAGACCCTATAAAGCTTTACAATTATCTTG	872
215	aeussimilis	TTAAATTATAAATTGTTAGTTTAATCTTAATTTAATTAGT
		GTTTGTTTCGTTGGGGCGACGGGAATATAATGTTTTGTAA
		CTGTTCTTTTATAATTTGTTACAATTAATGTTTGGTAAAA
		AATTGATCCTTTATTAGAGATTAAAAGATTAAGTTACTTT
		AGGGATAACAGCGTAAT
AY622	Megokris	GGGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	873
214	granulosus	TTAGATTATAAACTGTTAGTATAAACTTAATTTAATTAAT
		ACTTGTTTCGTTGGGGCGACGAGAATATAATTTTGGTAAC
		TGTTCTTTTGTAAATTATTACAATAAATTTTTGGAGAAAA
		AATGATCCTTTATTAGAGATTAAAAGATTAAGTTACTTTA
		GGGATAACAGCGTAAT
AY622	Parapenaeus	GGGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	874
210	politus	TTAGATTATAAATTGTTAGTATAACTTAATTTAATTGATA
		TTTGTTTCGTTGGGGCGACGAGAATATAATTTTAAGTAAC
		TGTTCTTTTATGGTTAATTACAGATTTATTTGGGTAAAAA
		TTGATCCTTTATTAGAGATTAAAAGATTAAGTTACTTTAG
		GGATAACAGCGTAAT
FR849	Solenocera	GGGGGACGATAAGACCCTATAAAGCTTTACAATAATTTAA	875
633	membranacea	TTAAATTATAAATTGTTAGTATAACTTAATTTAATTAATA
		TTTGTTTCGTTGGGGCGACGGGAATAAAATAGTATAACTG
		TTCTTTTATAAAATTAAACAGATTTAATTGGATAAAGATT
		GATCCTTTAATAAAGATTAAAAGATTAAGTTACTTTAGGG
		ATAACAGCGA
FJ435	Solenocera	AGGGGACGATAAGACCCTATAAAGCTTTACAATAAGTTAA	876
649	koelbeli	TTAAATTATAAATTGTTAGTATAACTTGGTTTAGTTATTA
		TTTGTTTCGTTGGGGCGACGAGAATATAATTATATATAAC
		TGTTCTTTTAAGAAGAAAACAAGGTTAATTGGATTAGAAT
		TGATCCTTTAATAAAGATTAAAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
NC_03	Alcockpenaeopsis	GGGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	877
8069	hungerfordii	TTAAATTGTAAATTGTTTATTTAACATGGTTTAGTTAATG
		TTTGTTTCGTTGGGGCGACGGGAATATAATTTAGTAACTG
		TTCTTTATGAGAGACAATAATTTTTGGTATTATGATCCTC
		TATTAGAGATTAAAAGATTAAGTTACTTTAGGGATAACAG
		CGTAAT
FJ435	Batepenaeopsis	GGGTGACGATAAGACCCTATAAAACTTTACAATTATTTAA	878
641	tenella	TTGAATGATGAATTGTTAGTATAAATTTGATTCAATTAAT
		GTTTGTTTCGTTGGGGCGACGAAAATATAATTTTATAACT
		GTTTTATAATTTTGTAACAATGATTTTTGGTGAAGATGAT
		CCTTTATTAGAGATTAAAAGATTAAGTTACTTTAGGGATA
		ACAGCGTAAT
EU548	Pandalus	ATAAAATTTTACAAGATGGGGATTTTTTTTTGAATTAAGG	879
178	platyceros	TTTAAATTCTATAAGTTCCTGTTTGTTGTGTTGGGGCGGC
		AAAGATAAAAATTAGTAACTGTCATTTAATTAGAATAATT
		ATAATTAGTTTAGTTGATCCTTTATTAGAGATTAAAAG
FJ435	Metapenaeus	GGGGGACGATAAGACCCTATAAAGCTTTACAGTGTATTGA	880
639	moyebi	TTAAATTATAAACTGTTAGTATAAACTTAATTTAGTTAAT
		AACTGTTTCGTTGGGGCGACGAGAATATAATAAACAGTAA
		CTGTTCTTTTTTTATAATAACAATAAATATTTGGTATTAA
		TTGATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAG
		GGATAACAGCGTAAT
NC_04	Metapenaeus	GGGGGACGATAAGACCCTATAAAGCTTTACAGTGTGTTAA	881
2173	joyneri	TTAAATTTTAAACTGTTAGTATTAACTTAATTTATTTAAT
		AACTGTTTCGTTGGGGCGACGAAAATATAATGAATAGTAA
		CTGTTTTTCTTTGTAAAATAACAATAAATTTTTGGAAGTA
		ATTGATCCTTTTTTAAAGATTAAAAGATTAAGTTACTTTA
		GGGATAACAGCGTAAT
EU868	Pandalus	GGGGGACGATAAGACCCTATAAAATTTTACAAAATCGGGG	882
698	montagui	TTTTTTTCTGAATTAAGGTGTAAATTTTATAAATCCCTGT
		TTGTTGTGTTGGGGCGGCAAAGATAAAAATTAGTAACTGT
		CATTTAATTAGAATAATTATAATTAGTTTAATTGATCCTT
		TATTAGAGATTAAAAGATTAAGTTACTTTAGGGATAACAG
		CGTAAT
HQ241	Heterocarpus	GGGGGACGATAAGACCCTATAAAACTTTACAAGCGAAGAT	883
514	parvispin	TTGTATTTTTTAAATTAAAGTATAACGTTATGTACTGTTC
	a	TGTTTGTTATGTTGGGGCGACAAAGATATAATAAGTAACT
		GTTAATTTTATTGAATAGTGATAATTAGTTTAATTGATCC
		TCTCTTAGAGATTACAAGATTAAGTTACTTTAGGGATAAC
		AGCGTAAT
HM014	Penaeus	AGGGGACGATAAGACCCTATAAAGCTTGACAATAAATCGT	884
402	brasiliensis	TTATATTATAAACTGTTAGTGTAACTTGATTTTAAACGGT
		GTTTGTTGCGTTGGGGCGACGGGAATATAAAAGGTAACTG
		TTCTTATAACATTTAATAACAGAAATATCTGAAAAATTAA
		TGATCCTTTTTTAAAGATCATAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
GU972	Aristeus	GGGGGACGATAAGACCCTATAAAGCTTTACAATAACCAGA	885
651	antennatus	ATGCATTAAGATTTGTTAGTATAATTTGGTCTATTTCGGG
		TTTGTTTCGATGGGGCGACGAGAATATAAGTTAGATAACT
		GTTCTTTTTAGGTATACAATATTAATTGGTTAAAAATTGA
		TCCTTTATTAAAGATTATAAGATTAAGTTACTTTAGGGAT
		AACAGCGTAAT
GQ302	Heterocarpus	GGGGGACGATAAGACCCTATAAAACTTTACAGGTAAATCT	886
761	laevigatus	GTGCTTCTTAAATTAAAGTTTAACATTGGTCATCGTCTTG
		CCTGTTGTGTTGGGGCGACAAAGATATAATTTAAATAACT
		GTCAATTTTATTAAATAGCGATAATTAGATTAGTTGATCC
		TTTATTAGAGATTATAAGATTAAGTTACTTTAGGGATAAC
		AGCGTAAT
GQ302	Heterocarpus	GGGGGACGATAAGACCCTGTAAAACTTTACAGACATTGTT	887
759	lepidus	TGTATTTTTGAATTAAGGTTTAATATCAATTGTTATTGTT
		GTTTGTTATGTTGGGGCGACAAAGATATAATTAGAATAAC
		TGTCAATTTTATTAAATAATGATAATTAGTTAATTGATCC
		TTTATTAGAGATTATAAGATTAAGTTACTTTAGGGATAAC
		AGCGTAAT
GQ302	Heterocarpus	GGGGGACGATAAGACCCTATAAAACTTTACAGACATTGTT	888
745	gibbosus	TGTATTTTTGAATTAAAGTTTAATATCAATTGTTATTGTT
		GTTTGTTATGTTGGGGCGACAAAGATATAATTGGAATAAC
		TGTCAATTTTATTAAATAGTAATAATTAGTTAATTGATCC
		TTTATTAGAGATTATAAGATTAAGTTACTTTAGGGATAAC
		AGCGTAAT
JX403	Funchalia	AGGGGACGATAAGACCCTATAAAACTTGACAATAATTTAA	889
852	villosa	TTAAATTATAAATTGTAAGTATAACTTGATTTAATTGATA
		CTTGTTCCGTTGGGGCGACGAGAATATAAAATAACTGTTC
		TTTTAAATATTTACATATATATTTGGTAAAGATTGATCCT
		TTATTAAAGATTAAAAGATTAAGTTACTTTAGGGATAACA
		GCGTAAT
JX403	Hemipenaeus	GGGGGACGATAAGACCCTATAAAGCTTTACAATAATCTAA	890
847	carpenter	ATATTCCAAGATTTGTTAGTCTAATTTGGGTTATTTAGAG
		TTTGTTTCGTTGGGGCGACGAGAATATAAATTAAATAACT
		GTTCTTTTCAGTACTACAATATTAATTGATTAAAAATTGA
		TCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGGGAT
		AACAGCGTAAT
JX403	Mesopenaeus	AGGGGACGATAAGACCCTATAAAGCTTTACAATAAAATTA	891
849	tropicalis	TTAAATTATAAATTGTTAGTCTAACTTAGTTTAATAATTG
		TTTGTTTCGTTGGGGCGACGAGAATATAATAATATAACTG
		TTCTTTTAAAAATTATTTAACAGATTTAATTGGATTATAA
		TTGATCCTTTAATAAAGATTAAAAGATTAAGTTACTTTAG
		GGATAACAGCGTAAT
JF899	Pelagope	AGGGGACGATAAGACCCTATAAAACTTAACAATATTTTAA	892
809	naeus	CTAAATTATAAATTGTAAACGTAACTTAATTTTAGTTAAT
	balboae	ACTTGTTTCGTTGGGGCGACGAGAATATAAATAATAACTG
		TTCTTTTAAATATAATTCACATATATGTATGGTAAAAATT
		GATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGGG
		ATAACAGCGTAAT
JF899	Penaeus	GGGGGACGATAAGACCCTATAAAGCTTGACAATAACTTAG	893
806	hathor	TTAAATTATAAATTGTTAGTATAACTTGATTTTAGCCAGG
		GTTTGTTTCGTTGGGGCGACGAGAATATAATGAATAACTG
		TTCTTTTAAATATAATTACAAAGATAATTGGTGAGCGATT
		GATCCTCTAATAGAGATTAAAAGATAAAGTTACTTTAGGG
		ATAACAGCGTAAT
JF899	Metapenaeopsis	AAGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	894
805	provocatoria	TTAGATTATAAATTGTTGGTGTAACTTGATTTAATTAATA
		TTTGTTTCGTTGGGGCGACGGGAATAAAATTGAAATAACT
		GTTCTTTTATTAGTAGTCACAGATTTGTTTGATTAAAAAT
		TGATCCTTTATTAGAGATTAAAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
NC_03	Aristeus	GGGGGACGATAAGACCCTATAAAGCTTTACAATAACCAAG	895
9154	virilis	ATGCACTAAGATTTGTTAGTATAATTTGGTCTATTTGGGG
		TTTGTTTCGTTGGGGCGACGAGAATATAAATTAAATAACT
		GTTCTTTTTAGATATACAATATTAATTGGTTAAAAATTGA
		TCCTTTATTAAAGATTACAAGATTAAGTTACTTTAGGGAT
		AACAGCGTAAT
KJ486	Aristeus	GGGGGACGATAAGACCCTATAAAGCTTTACAATAACTGAA	896
492	alcock	ATACATTAAGATTTGTTAGTATAATTTGGTTTATTTTGGG
		TTTGTTTCGTTGGGGCGACGAGAATATAAGTTAGATAACT
		GTTCTT
KF983	Penaeus	AGGGGACGATAAGACCCTATAAAGCTTGACAATAAGTCAT	897
532	aztecus	TTATATTATAAATTATTAGTATAACTTGATATTAAGTGGT
		GTTTGTTGCGTTGGGGCGACGAGAATATAAAAGGTAACTG
		TTCTTATAACATTTAATAACAGAAATATCTGGAAATTTAA
		TGATCCTTTTTTAAAGATCATAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
KF023	Heterocarpus	GGGGGACGATAAGACCCTATAAAACTTTACAGACATTGTT	898
186	abulbus	TGTATTTTTGAATTAAGGTTTAATATCAATTGTTATTGTT
		GTTTGTTATGTTGGGGCGACAAAGATATAATTGGAATAAC
		TGTCAATTTTATTAAATAGTAATAATTAGTTAATTGATCC
		TTTATTAGAGATTATAAGATTAAGTTACTTTAGGGATAAC
		AGCGTAAT
JX403	Penaeussetiferus	AGGGGACGATAAGACCCTATAAAGCTTTACAATAAATTAC	899
862		TTATATTATAAACTGTTAGTATAACTTGATTTTAGGTAAT
		ATTTGTTGCGTTGGGGCGACGAGAATATAATGAGTAACTG
		TTCTTAAGTTAATTAATAACATAAATATATGGAAGATGAA
		TGATCCTCTTTTAGAGATCATAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
JX403	Cerataspis	GGGGGACGATAAGACCCTATAAAGCTTTACAATAACTCAG	900
860	monstrosus	GTGTACTAAGATTTGTTTGTATAATTTGGTTTACCTGAGA
		CTTGTTTCGTTGGGGCGACGAGAATATAATTAAATAACTG
		TTCTTTTGGAGTTTACAGTATTAATTGGTTAAAAATTGAT
		CCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGGGATA
		ACAGCGTAAT
JX403	Pleoticus	GGGGGACGATAAGACCCTATAAAGCTTTATAATAATTTAA	901
857	robustus	TTAAATTATAAATTGTTAGTATAACTTAATTTAATTAGTA
		TTTATTTCGTTGGGGCGACGAGAATATAATAATATAACTG
		TTCTTTTATAGATTAAACAAATTTAATTGGATAAAAATTG
		ATCCTTTTATAAAGATTAAAAGATTAAGTTACTTTAGGGA
		TAACAGCGTAAT
JX403	Aristaeopsis	GGGGGACGATAAGACCCTATAAAGCTTTACAATAACTTGA	902
854	edwardsiana	ATATACTAAAATTTGTTAGTGTAACTTAATATATTTGAGA
		TTTGTTTCGTTGGGGCGACGAGAATATAAATAAATAACTG
		TTCTTTTGCTTAAATATACAATAATAATTGGTTAAATATT
		GATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGGG
		ATAACAGCGTAAT
JX403	Solenoce	GAGGGACGATAAGACCCTATAAAGCTTTACAATAAGATAA	903
853	ra	TTAAATTATAAATTGTTAGTTTAACTTAATTTAATTATTA
	necopina	TTTGTTTCGTTGGGGCGACGAGAATATAATAGTATAACTG
		TTCTTTTGCAATTTAAACAAAATTAATTGGATAAAAATTG
		ATCCTTTAATAAAGATTAAAAGATTAAGTTACTTTAGGGA
		TAACAGCGTAAT
KP059	Parapenaeus	GGGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	904
272	indicus	TTAAATTATAAATTGTTAGTATAACTTAATTTAGTTAATA
		TTTGTTTCGTTGGGGCGACGAGAATATAATTTTAAGTAAC
		TGTTCTTTTATAGTTAATTACAAATTTATTTGGGTAAAGA
		TTGATCCTTTATTATAGATTAAAAGATTAAGTTACTTTAG
		GGATAACAGCGTAAT
KP059	Parapenaeus	GGGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	905
270	cayrei	TTAAATTATAAATTGTTAGTATAACTTAACTTAGTTAATA
		TTTGTTTCGTTGGGGCGACGAGAATATAATTTTAAGTAAC
		TGTTCTTTTATAGTTAATTACAAATTTATTTGGGTAAAGA
		TTGATCCTTTATTATAGATTAAAAGATTAAGTTACTTTAG
		GGATAACAGCGTAAT
KP059	Parapenaeus	GGGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	906
273	fissurus	TTAAATTATAAATTGTTAGTATAACTTAGTTTAGTTGATA
		TTTGTTTCGTTGGGGCGACGAGAATATAATTTTAAGTAAC
		TGTTCTTTTATAGTTAATTACAAATTTATTTGGGTAAAGA
		TTGATCCTTTATTATAGATTAAAAGATTAAGTTACTTTAG
		GGATAACAGCGTAAT
KP059	Parapenaeus	GGGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	907
274	investigatoris	TTGGATTATAAATTGTTAGTATAACTTAATTTAGTTGATA
		TTTGTTTCGTTGGGGCGACGAGAATATAATTTTTAAGTAA
		CTGTTCTTTTGTAGTTAATTACAGATTTATTTGGGTAAAA
		ATTGATCCTTTATTAGAGATTAAAAGATTAAGTTACTTTA
		GGGATAACAGCGTAAT
KP059	Parapenaeus	GGGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	908
271	fissuroides	TTAAATTATAAATTGTTAGTATAACTTAATTTAGTTAATA
		TTTGTTTCGTTGGGGCGACGAGAATATAATTTTAAGTAAC
		TGTTCTTTTATAGTTAATTACAAATTTATTTGGGTAAAGA
		TTGATCCTTTATTATAGATTAAAAGATTAAGTTACTTTAG
		GGATAACAGCGTAAT
KP059	Parapenaeus	GGGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	909
269	australiensis	TTAAATTATAAATTGTTAGTATAACTTAATTTAGTTGATA
		TTTGTTTCGTTGGGGCGACGAGAATATAATTTTAAGTAAC
		TGTTCTTTTATAGTTAATTACAAATTTATTTGGGTAAAGA
		TTGATCCTTTATTATAGATTAAAAGATTAAGTTACTTTAG
		GGATAACAGCGTAAT
KP059	Parapenaeus	GGGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	910
267	americanus	TTAAATTATAAATTGTTAGTATAACTTAATTTAATTAATA
		TTTGTTTCGTTGGGGCGACGAGAATATAATTTTAAGTAAC
		TGTTCTTTTGTGGTTAATTACAGATTTATTTGGGTAAAAA
		TTGATCCTTTATTAGAGATTAAAAGATTAAGTTACTTTAG
		GGATAACAGCGTAAT
KP059	Parapenaeus	GGGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	911
268	ruberoculatus	TTAAATTATAAATTGTTAGTATAACTTAATTTAGTTGATA
		TTTGTTTCGTTGGGGCGACGAGAATATAATTTTAAGTAAC
		TGTTCTTTTATAGTTAATTACAAATTTATTTGGGTAAAGA
		TTGATCCTTTATTATAGATTAAAAGATTAAGTTACTTTAG
		GGATAACAGCGTAAT
NC_04	Heterocarpus	GGGGGACGATAAGACCCTATAAAACTTTACAAGCGAAGAT	912
0855	ensifer	TTGTATTTTTTAAATTAAAGTATAACGTTATGTACTGTTC
		TGTTTGTTATGTTGGGGCGACAAAGATATAATAAGTAACT
		GTTAATTTTATTGAATAGTGATAATTAGTTTAATTGATCC
		TCTCTTAGAGATTACAAGATTAAGTTACTTTAGGGATAAC
		AGCGTAAT
KP059	Kishinouyepenaeopsis	GGGGGACGATAAGACCCTATAAAGCTTTACAATTGTTTAA	913
284	cornuta	TTAGATTGTAAATTGTTTATTTAACATAATTTAATTAATG
		CTTGTTTCGTTGGGGCGACGGAAATATAATTAGTAACTGT
		TTTTTATAAAAAACAATTATTTTTGGTAAAATGATCCTCT
		ATTAGAGATTAAAAGATCAAGTTACTTTAGGGATAACAGC
		GTAAT
KP059	Parapenaeus	GGGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	914
283	sextuberculatus	TTAAATTATAAATTGTTAGTATAACTTAATTTAGTTAATA
		TTTGTTTCGTTGGGGCGACGAGAATATAATTTTAAGTAAC
		TGTTCTTTTATAGTTAATTACAAATTTATTTGGGTAAAGA
		TTGATCCTTTATTATAGATTAAAAGATTAAGTTACTTTAG
		GGATAACAGCGTAAT
KP059	Parapenaeus	GGGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	915
281	perezfarf	TTAGATTATAAATTGTTAGTATAACTTAATTTAGTTAATA
	antae	TTTGTTTCGTTGGGGCGACGAGAATATAATTTTAAGTAAC
		TGTTCTTTTATAGTTAATTACAAATTTATTTGGGTAAAAA
		TTGATCCTTTATTATAGATTAAAAGATTAAGTTACTTTAG
		GGATAACAGCGTAAT
KP059	Parapenaeus	GGGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	916
280	murrayi	TTGGATTATAAATTGTTAGTATAACTTAGTTTAGTTGATA
		TTTGTTTCGTTGGGGCGACGAGAATATAATTTTTAAGTAA
		CTGTTCTTTTGTAGTTAATTACAGATTTATTTGGGTAAAA
		TTGATCCTTTATTAGAGATTAAAAGATTAAGTTACTTTAG
		GGATAACAGCGTAAT
KP059	Parapenaeus	AGGGGACGATAAGACCCTATAAAGCTTTACAATTGTTTAG	917
278	longipes	TTGGATTATAAATTGTTAGTATAACTTAATTTAGTTAGTA
		TTTGTTTCGTTGGGGCGACGAGAATATAATTTAAGATAAC
		TGTTCTTTTTAATTAATTACAAATTTGTTTGGGAGAAGAT
		TGATCCTTTATTAAAGATTATAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
KP059	Parapenaeus	GGGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	918
276	lanceolatus	TTAAATTATAAATTGTTAGTATAACTTAATTTAGTTAATA
		TTTGTTTCGTTGGGGCGACGAGAATATAATTTTAAGTAAC
		TGTTCTTTTATAGTTAATTACAAATTTATTTGGGTAAAGA
		TTGATCCTTTATTATAGATTAAAAGATTAAGTTACTTTAG
		GGATAACAGCGTAAT
KP059	Parapenaeus	GGGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	919
275	kensleyi	TTAAATTATAAATTGTTAGTATAACTTAATTTAGTTAATA
		TTTGTTTCGTTGGGGCGACGAGAATATAATTTTAAGTAAC
		TGTTCTTTTATAGTTAATTACAAATTTATTTGGGTAAAGA
		TTGATCCTTTATTATAGATTAAAAGATTAAGTTACTTTAG
		GGATAACAGCGTAAT
KT372	Heterocarpus	GGGGGACGATAAGACCCTATAAAACTTTACAGACATTGTT	920
710	chani	TGTATTTTTGAATTAAGGTTTAATATCAATTGTTATTGTT
		GTTTGTTATGTTGGGGCGACAAAGATATAATTGGAATAAC
		TGTCAATTTTATTAAATAGTGATAATTAGTTAATTGATCC
		TTTATTAGAGATTATAAGATTAAGTTACTTTAGGGATAAC
		AGCGTAAT
KP725	Heterocarpus	AGGGGACGATAAGACCCTATAAAACTTTACAGATATAATT	921
531	woodmasoni	ATACTTATTAAAATAAAGTTTAATAGTATTTATTATTTTA
		TCTGTTATGTTGGGGCGACAAAGATATAATAAAGTAACTG
		TTAGTTTTATTTGATAATAATAATTAGTTTAATTGATCCT
		TTATTAAAGATTATAAGAATAAGTTACTTTAGGGATAACA
		GCGTAAT
KP725	Heterocarpus	GGGGGACGATAAGACCCTATAAAACTTTACAAGCAAAGAT	922
530	sibogae	TTGTATTTTTTAAATTAAAGTATAACGTTATGTACTGTTC
		TGTTTGTTATGTTGGGGCGACAAAGATATAATAAGTAACT
		GTTAATTTTATTGAATAATGATAATTAGTTTAATTGATCC
		TCTCTTAGAGATTACAAGATTAAGTTACTTTAGGGATAAC
		AGCGTAAT
KP725	Heterocarpus	GAGGGACGATAAGACCCTATAAAACTTTACAAATATATTT	923
528	dorsalis	GTAATTTTTAAATTTTAGTTTAACATCAATTACTGGTTTG
		TTTGTTGTGTTGGGGCGACAATGATATAATTAAATAACTG
		TCAATTTTATTAAATAGTGATAATTAGTTTAATTGATCCT
		TTACTAGAGATTATAAGATTAAGTTACTTTAGGGATAACA
		GCGTAAT
KP721	Metapenaeopsis	GAGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	924
230	andamanensis	TTAGATTATAAATTGTTGGTATAACTTGATTTAATTAATA
		TTTGTTTCGTTGGGGCGACGAGAATAAAATTAAAATAACT
		GTTCTTTTATTAGTAGTTACAAATTTGTTTGGTTAAAAAT
		TGATCCTTTATTAGAGATCAAAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
KP725	Heterocarpus	GGGGGACGATAAGACCCTATAAAACTTTACAGACATTGTT	925
527	corona	TGTATTTTTGAATTAAAGTTTAATATCAATTGTTATTGTT
		GTTTGTTATGTTGGGGCGACAAAGATATAATTGGAATAAC
		TGTCAATTTTATTAAATAGTAATAATTAGTTAATTGATCC
		TTTATTAGAGATTATAAGATTAAGTTACTTTAGGGATAAC
		AGCGTAAT
KP721	Metapenaeopsis	GAGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	926
226	coniger	TTAGATTATAAATTGTTGGTATAACTTGATTTAATTAATA
		TTTGTTTCGTTGGGGCGACGAGAATAAAATTAAAATAACT
		GTTCTTTTATTAGTAGTTACAGATTTGTTTGGTTAAAAAT
		TGATCCTTTATTAGAGATCAAAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
KP081	Macrobrachium	AATGGGACGATAAGACCCTATAAAACTTAATATAATTTTG	927
666	idella	GCTTAATTTGTGATTATTAGTGAAAAGTAGTTTTGCCGGG
		TTTATATTTCGTTGGGGAGATGTAGATATAATATGTAACT
		GTCTATATAATTTAATAATTATAATTAGTATTTGATCCTT
		CTTTGTGGATTAGAAGAATAAGTTACTTTAGGGATAACAG
		CGTGAT
KX162	Trachysal	GAGGGACGATAAGACCCTATAAAGCTTTATAACTAGCTGA	928
742	ambria	TTAAATTATAAATTATTAGTATAAACTTAGTTTAATTGGT
	brevisutur	GCTTATTTTGTTGGGGCGACAAGAACATAAAATTGTAACT
	ae	GTTCTTTTATAGTTTATATCATTAATGTTTGGTAAATAAT
		TGATCCTTTGTTAAAGATTAAAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
KX162	Trachysal	GGGGGACGATAAGACCCTATAAAGCTTTACAATTATCTAG	929
734	ambria	TTGAATTATAAATTATTAGTATAAACTTAGTTTAATTAGT
	aspera	GTTTGTTTCGTTGGGGCGACGAGAATATAATTTTGTAACT
		GTTCTTTTATGATTTGTTACAATGATTTTTGGAAAAAATT
		GATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGGG
		ATAACAGCGTAAT
KX162	Trachysal	GGGGGACGATAAGACCCTATAAAGCTTTACAATTATTTGA	930
733	ambria	TTAACTTATAAATTATTAGTATAAACTTAACTTAATCAAT
	albicoma	GTTTGTTTCGTTGGGGCGACGAGAATATAATTTTGTAACT
		GTTCTTTAGTAGTTTGTTACAATAATTTTTGGTAAAAAAT
		TGATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
NC_04	Euphausia	AAGTGACGATAAGACCCTATAAAACTTGATAAATAAAATA	931
0987	superba	AAAAAAGTGGAGTAGTTGATTAAAACTTTTATTGTGGAAT
		TTATTTTATTGGGGCGATAAAAATATAAAAAGTAACTGTT
		TTTAAAGTTTTAATGATTTATAATCAGATTGTGTGAATGA
		TCCTTTAATAAAGATTATAAGATTAAGTTACTTTAGGGAT
		AACAGCGTAAT
KU133	Solenocera	GGGGGACGATAAGACCCTATAAAGCTTTACAATAAATTAA	932
278	hextii	TTAAATTATAAATTATTAGTTTAACTTAATTTAATTAGTG
		TTTGTTTCGTTGGGGCGACGAGAATATAAATTATATAACT
		GTTCTTTTAGGTGTATAACAAGATTAATTGGAGAAATATT
		GATCCTTTAGTAAAGATTAAAAGATTAAGTTACTTTAGGG
		ATAACAGCGTAAT
KU133	Hymenopenaeus	AAGGGACGATAAGACCCTATAAAGCTTTACAATAAGTTAA	933
288	equalis	TTAAATTATAAATTGTTAGTATAACTTAATTTAATTAATG
		TTTGTTTCGTTGGGGCGACGGGAATATAATTATATAACTG
		TTCTTTTATAAATTTAACAAAATTAATTGGATAATAATTG
		ATCCTTTAATAAAGATTAAAAGATTAAGTTACTTTAGGGA
		TAACAGCGTAAT
KT959	Rimapenaeus	AGGGGACGATAAGACCCTATAAAGCTTTACAATTATCTAA	934
496	constrictus	TTAAATTATAAATTGTTAGTTTAATCTTAATTTAATTAGT
		GTTTGTTTCGTTGGGGCGACGAGAATATAATGTTTTGTAA
		CTGTTCTTTTGTAATTTGTTACAGTTAATAGTTGGTAAAA
		GATTGATCCTTTATTAAAGATTAAAAGATTAAGTTACTTT
		AGGGATAACAGCGTAAT
KT952	Crangon	AATGGGAAGACAAGACCCTATAAAACTTTACAAAATATAT	935
497	crangon	TAATAAATAATTTGGTAGTTTAAAATTATATTAGGTTATT
		TTTGTTGAGCTGGGGCGGTTTTTATAAAAAAATTAACTGT
		AAGTTAAATTAAAATATAAATATATAGTTTAATAAGATCC
		TTAGGTTTGGAGATTAAAAGACTAAGTTACTTTAGGGATA
		ACAGCATAATTT
KX162	Trachypenaeus	GAGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	936
771	anchoralis	TTAGATTATAAATTGTTAGTATAAACTTAGTTTAATTAAT
		GCTTGTTTCGTTGGGGCGACGAGAATATAATTTTGGTAAC
		TGTTCTTTTGTAAGCTATTACAATAAATTTTTGGAGAAAA
		AATGATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTA
		GGGATAACAGCGTAAT
KX162	Megokris	GGGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	937
770	pescadoreensis	TTAGATTATAAACTGTTAGTATAAACTTAATTTAATTAAT
		ACTTGTTTCGTTGGGGCGACGAGAATATAATTTTGGTAAC
		TGTTCTTTTGTAAATTATTACAATAAATTTTTGGAGAAAA
		AATGATCCTTTATTAGAGATTAAAAGATTAAGTTACTTTA
		GGGATAACAGCGTAAT
KX162	Trachysal	GAGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	938
768	ambria	CTAAATTATGAACTGTTAGTATAAATTTAATTTAATTAAT
	longipes	GTTTGTTTCGTTGGGGCGACGAGAATATAATTTTTGTAAC
		TGTTCTTTTGTAGTTTGTTGCAATAGTTTTTGGAAAAAGA
		TTGATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAG
		GGATAACAGCGTAAT
KX162	Trachysal	GGGGGACGATAAGACCCTATAAAGCTTTACAATTATTTGG	939
764	ambriastaro	TTAAATTATAAATTGTTAGTATAAACTTAATTTAATTGAT
	bogatovi	GTTTGTTTCGTTGGGGCGACGAGAATATAATTTAGTAACT
		GTTCTTTTATAATTTGTTACAATGATTTTTGGAAAAGAAA
		TGATCCTCTATTAGAGATTAAAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
KX162	Trachysal	GGGGGACGATAAGACCCTATAAAGCTTTACAATTATTTGG	940
758	ambria	TTAAATTATGAATTGTTAGTATAAATTTAATTTAATTGAT
	nansei	GTTTGTTTCGTTGGGGCGACGGGAATATAATTTTGTAACT
		GTTCTTTTATAATTTGTTACAATAATTTTTGGTAAAAGAT
		TGATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
KX162	Trachysal	GAGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	941
757	ambria	TTAGATTATAAATTGTTAGTATAAACTTAATTTAGTTAGT
	malaiana	GTTTGTTTCGTTGGGGCGACGAGAATATAATTTTGGTAAC
		TGTTCTTTTGTAAATTATTACAATAAATTTTTGGAGAAAA
		AATGATCCTTTATTAGAGATTAAAAGATTAAGTTACTTTA
		GGGATAACAGCGTAAT
KX162	Trachysal	GGGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAG	942
755	ambria	TTAAATTATAAATTGTTAGTATAAACTTAATTTAATTGAT
	dentata	GTTTGTTTCGTTGGGGCGACGAGAATATAATTTTGTAACT
		GTTCTTTTATAGTTTGTTACAATTATTTTTGGTAAAAGAT
		TGATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
KX162	Trachysal	GGGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAG	943
749	ambria	TTGGATTATAAATTGTTAGTATAAACTTAATTTAACTGGT
	parvispina	GTTTGTTTCGTTGGGGCGACGGGAATATAATTTTGTAACT
		GTTCTTTTATAACTTGTTACAATTATTTTTGGTAAAAATT
		GATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGGG
		ATAACAGCGTAAT
LC464	Crangon	ACTTTACATAATATATTAATAAATAATTTGGTAGTTTAAA	944
546	uritai	ATTATGTTAGGTTATTTATGTTGAGCTGGGGCGGTTTTTA
		TAAAAAAAATAACTGTAAGTTAAATTAAAATATAAATATA
		TAGTTTAATAAGATCCTTAAATTTGGAGATTGGAAGACTA
		AGTT
LC341	Pandalus	GGGGGACGATAAGACCCTATAAAATTTTACAAAATTGGGA	945
266	borealis	TTTTTTTTTGAATTAAGGTTTAAATTCTATAAGTTCTTAT
		TTGTTTTGTTGGGGCGGCAAAGATAAAAATTAGTAACTGT
		CATTTAATTAGAATAATTATAATTAGTTTAATTGATCCTT
		TATTAGAGATTAAAAGATTAAGTTACTTTAGGGATAACAG
		CGTAAT
LC150	Metapenaeus	GGGGGACGATAAGACCCTATAAAGCTTTACGGTTTGTTAA	946
203	monoceros	TTAAATTATAAATTGTTAGTATAAACTTAATTTAGCTAAC
		AGCTGTTTCGTTGGGGCGACGAAAATATAATAGATAGTAA
		CTGTTTTTCTTTTATAATAACAATGATTTTTGGTAGTAAT
		TGATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
LC121	Pandalus	GGGGGACGATAAGACCCTATAAAATTTTACAGAGTCGGGA	947
756	nipponensis	TCTTTTTTTAAATTAGTGTTTAAATTCTATAGGTTCTTGT
		TTGTTTTGTTGGGGCGACAAAGATAAAATTTAGTAACTGT
		CATTTAATTAGAATAAGTATAATTAGTTTAGTTGATCCTT
		TATTAGAGATTAAAAGATTAAGTTACTTTAGGGATAACAG
		CGTAAT
KY419	Hadropenaeus	GAGGGACGATAAGACCCTATAAAGCTTTACAATAAAATGG	948
832	lucasii	TTAAATTATAAATTATTAGTATAACTTAATTTAATTATTG
		TTTGTTTCGTTGGGGCGACGAGAATATAATAATATAACTG
		TTCTTTATGAAAATAAACAAAATTAATTGGATAAAGATTG
		ATCCTTTAATAAAGATTAAAAGATTAAGTTACTTTAGGGA
		TAACAGCGTAAT
KY316	Ganjampenaeopsis	TTAAAAAGTTTATTATACCCAGGTAATAAGCAGTTATGAT	949
150	uncta	CTTGAAACTTAAAGGATTTGGCGGTAATTTAGTCTAGTTA
		GAGGAACCTGTCCTGTAATCGATAAACCACGCAGTATCTT
		ACTTTATCTTGAAAATTTATCAGTTTATATACCATCATTA
		TTAGATAACTTTAAAAAGGTAGAGAAGTTATTGAAATAAT
		TTTAAGTTAGTATATTAGATCAAGGTGTAGCTAATGATAA
		AGTAGAGAT
KX530	Solenocera	GGGGGACGATAAGACCCTATAAAGCTTTACAATAATTTAA	950
803	annectens	TTAAATTATAAATTATTAGTTTAACTTAATTTAATTAATA
		ATTGTTTCGTTGGGGCGACGAGAATATAAATTATATAACT
		GTTCTTTTAAAAATTTAACAAATTTAATTGGATGAAAATT
		GATCCTTTAATAAAGATTAAAAGATTAAGTTACTTTAGGG
		ATAACAGCGTAAT
KX574	Solenocera	AGGGGACGATAAGACCCTATAAAGCTTTACAATAAGTTAA	951
332	melantho	TTAAATTATAAATTATTAGTTTAACTTAATTTAATTAGTG
		TTTGTTTCGTTGGGGCGACGAGAATATAAATTATATAACT
		GTTCTTTTAAAGTAAATAACAAGATTAATTGGAGGAAGAT
		TGATCCTTTAATAAAGATTAAAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
MH045	parapenaeopsis	TTAGAGGGACGATAAGACCCTATAAAGCTTTACAATTATT	952
067	stylifera	AAATTGAGCTGTAAATTGTTTGTTATAACGTGGCTAAGTT
		AATGTTTGTTTCGTTGGGGCGACGGGAATATAATTAGTAA
		CTGTTCTTATATATATATATATAACAATAATTTTTGGAAA
		AATGATCCTCTAATAGAGATTAAAAGATTAAGTTACTTTA
		GGGATAACAGCGTAAT
MG77	Penaeus	GGGGGACGATAAGACCCTATAAAGCTTGACAATAATTTCG	953
2559	japonicus	TTATATTATAAATTGTTAGTATAACTTGATTTTAACGGGA
		GTTTGTTTCGTTGGGGCGACGGGAATATAATAAATAACTG
		TTCTTTTAAATATAATTACAAAAATACTTGGTAAATAATT
		GATCCTCTATTAGAGATTAAAAGATTAAGTTACTTTAGGG
		ATAACAGCGTAAT
MG00	Penaeus	AGGGGACGATAAGACCCTATAAAGCTTGACAATAAGTTGT	954
1109	brevirostris	TTATATTATAAATTGTTAGTATAACTTGATTTTAAGCGGT
		GTTTGTTACGTTGGGGCGACGAGAATATAAAAGGTAACTG
		TTCTTATATTGTTTAGTGACAGATATATTTGGAGAGTTAA
		TGATCCTTTCTTAAAGATCACAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
MG00	Penaeus	GGGGGACGATAAGACCCTATAAAGCTTGACAATAAGCCGT	955
1088	notialis	TTATATTATAAATTGTTAGTATAACTTGATTTTAAATGGT
		GTTTGTTGCGTTGGGGCGACGAGAATATAAAAGATAACTG
		TTCTTATAATATTTAATAACAGAAATAGTTGGAAAATTAA
		TGATCCTTTCTTTAAGATCATAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
MG00	Penaeus	GGGGGACGATAAGACCCTATAAAGCTTGACAATAAGCCGT	956
1081	duorarum	TTATATTATAAATTGTTAGTATAACTTGATTTTAAATGGT
		GTTTGTTGCGTTGGGGCGACGAGAATATAAAAGATAACTG
		TTCTTATAATATTTAATAACAGAAATAGCTGGAAAATTAA
		TGATCCTTTCTTTAAGATCATAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
MF490	Penaeusschmitti	AGGGGACGATAAGACCCTATAAAGCTTTACAATAAATTAC	957
229		TTATATTATAAACTGTTAGTATAACTTGATTTTAGGTAAT
		ATTTGTTGCGTTGGGGCGACGAGAATATAACGAGTAACTG
		TTCTTAAGTTAATTAATAACATAGATATATGGAAGATGAA
		TGATCCTCTTTTAGAGATCATAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
MF490	Artemesia	AAGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	958
228	longinaris	TTAAATTGAAAATTATTAGTATAACTTGATTTAGTTAATA
		GTTGTTTCGTTGGGGCGACGAGAATATAATTATAAATAAC
		TGTTCTTTTTACAAATAACAAATTTGTTTGGTTAAAAATT
		GATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGGG
		ATAACAGCGTAAT
MF490	Penaeus	AGGGGACGATAAGACCCTATAAAGCTTAACAATAAGTTGT	959
143	subtilis	CTATATTATAAATTGTTAGTATAACTTGATATCAGACGGC
		GTTTGTTGCGTTGGGGCGACGAGAATATAAGAGGTAACTG
		TTTTTAGATTATTTAATAACAGAAATATCTGGAAATTTAA
		TGATCCTTTTTTAGAGATCATAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
NC_01	Penaeus	AGGGGACGATAAGACCCTATAAAGCTTTACAATAAGTTAT	960
2060	stylirostris	CTATATTATAAATTGTTAGTATAACTTGATTTTAGATAAT
		ATTTGTTGCGTTGGGGCGACGGGAATATAATGAGTAACTG
		TTCTTAAGCTATTTAATAACAGGAATTTCTGGAAAATTAA
		TGATCCTCTTTTAGAGATCATAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
NC_00	Penaeus	AGGGGACGATAAGACCCTATAAAGCTTTACAATAAGTTAC	961
9626	vannamei	CTATATTATAAATTGTTAGTATAACTTGAGTTTAGGTAAC
		GTTTGTTGCGTTGGGGCGACGAGAATATAATAAGTAACTG
		TTCTTAAGTTATTTAATGACAGAAATTTCTGGAAAATTAA
		TGATCCTCTACTAGAGATCATAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
NC_00	Macrobrachium	GGGGGACGATAAGACCCTATAAAACTTAATATAATTTAGG	962
6880	rosenbergii	CTTAACTTGCGATGTGGGTGAAAAGTAGTTTTGTCTGGTT
		TATATTTCGTTGGGGAGATGAAGATATAATGAGTAACTGT
		CTATAAAATTTTATAGCATTGACTAGAATTTGATCCTTCC
		TTGGGGATTAGGAGAATAAGTTACTTTAGGGATAACAGCG
		TGAT
NC_00	Penaeus	AGGGGACGATAAGACCCTATAAAACTTAACAATAATTTGA	963
2184	monodon	TTAAATTATAAATTGTTAGTATAACTTGATTTTAATTAAT
		GTTTGTTGCGTTGGGGCGACGGGAATATAATTAGTAACTG
		TTCTTAAATATTTTATTAACAAGTATAATTGAAGAATAAT
		TGATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
MK470	Pandalus	GGGGGACGATAAGACCCTATAAAATTTTACAAAATTAGGA	964
792	hypsinotus	TTTTTTTTTAAATTAAGGTTTAAATTCTATAAGTTCTTGT
		TTGTTGTGTTGGGGCGGCAAAGATAAAAATTAGTAACTGT
		CATTTAATTAGAATAAGTATAATTAGTTTAGTTGATCCTT
		TATTAGAGATTAAAAGATTAAGTTACTTTAGGGATAACAG
		CGTAAT
MK430	Ganjam	GGGTGACGATAAGACCCTATAAAACTTTACAATTATTTAA	965
861	penaeopsis	TTGAATGATGAATTGTTAGTATAAATTTGATTCAATTAAT
	uncta	GTTTGTTTCGTTGGGGCGACGAAAATATAATTTTATAACT
		GTTTTATAATTTTGTAACAATGATTTTTGGTGAGGATGAT
		CCTTTATTAGAGATTAAAAGATTAAGTTACTTTAGGGATA
		ACAGCGTAAT
MK000	Pandalus	GGGGGACGATAAGACCCTATAAAATTTTACAAAATTGGGA	966
270	jordani	TTTTTTTTTTGAATTAATGTTTAAATTTTATGAGTTCCTG
		TTTGTTTTGTTGGGGCGGCAAAGATAAAAATTAGTAACTG
		TCATTTAATTAGAATAATTATAATTAGTTTAATTGATCCT
		TTATTAGAGATTAAAAGATTAAGTTACTTTAGGGATAACA
		GCGTAAT
NC_02	Macrobrachium	ATGGGACGATAAGACCCTATAAAACTTGATATAAATTTGA	967
7602	bullatum	CTTAATTTGCGATTGTTTGTGAAAAGTAGTTTTGCTGTGT
		TTATATTTCGTTGGGGAGATGTAGATATAATATGTAACTG
		TCTGTTTAATGTAATAATTATAATTAGTTTGTGATCCTTC
		ATTTGTGGATTAGAAGAATAAGTTACTTTAGGGATAACAG
		CGTGAT
NC_02	Penaeus	AGGGGACGATAAGACCCTATAAAGCTTGACAATAATTTAA	968
6885	penicillatus	TTATACTATCAATTGTTAGTATAACTTGGTTTTAATTAAG
		ATTTGTTGCGTTGGGGCGACGAGAATATAATAGGTAACTG
		TTCTTAAATATTTAATAACAAATATAATTGAAAATTAGTG
		TGATCCTCTATTAGCGATTAAAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
NC_02	Penaeus	AGGGGACGATAAGACCCTATAAAGCTTGACAATAATTTAA	969
6884	merguiensis	TTATACTATCAATTGTTAGTGTAACTTGGTTTTAATTAAA
		ATTTGTTGCGTTGGGGCGACGAGAATATAATAGGTAACTG
		TTCTTAAATATTTAATAACAAATATAATTGAAAATTAGTG
		TGATCCTCTATTAGCGATTAAAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
NC_02	Metapenaeus	GGGGGACGATAAGACCCTATAAAGCTTTACAGTGTGCTAA	970
6834	ensis	TTAAATTATAAATTGTTAGTATAAACTTGGTTTGGTTAGT
		AGCTGTTTCGTTGGGGCGACGAAAATATAATTGATAGTAA
		CTGTTTTTCTTTTATAATAACAATAAATTTTTGGTAGAAA
		TTGATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAG
		GGATAACAGCGTAAT
NC_01	Acetes	GAGGGACGATAAGACCCTATAAAGCTTTACTGTTTAAATT	971
7600	chinensis	TTTTGATATTAGTATTAAATGATCCTCTAATAAAGATTAA
		AAATTTAAGTTACTTTAGGGATAACAGCGTAAT
NC_01	Macrobrachium	AGTGGGACGATAAGACCCTATAAAACTTTATATAAGTTTA	972
5073	nipponense	ATTTGGCTTACAATTTGAGTGAAAAGTAGCTTTATTAGGC
		TTATATTTCGTTGGGGAGATGTAGATGGGATAATCGACTG
		TAGAGGCCTGCATGCTATTTAATTTAATAATTATAATTAG
		TGTGTGATCCTTCTTTGTGGATTAAAAGTATAAGTTACTT
		TAGGGATAACAGCGTGAT
NC_01	Penaeus	AGGGGACGATAAGACCCTATAAAGCTTGACAATAAGTCGT	973
2738	californiensis	TTATATTATAAATTGTTAGTGTAACTTGATTTTAAACGGT
		GTTTGTTGCGTTGGGGCGACGGGAATATAAAAGGTAACTG
		TTCTTATAATATTTAATAACAGAAATATTTGGAAAATTAA
		TGATCCTTTCTTAAAGATCATAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
NC_01	Macrobrachium	ATGGGACGATAAGACCCTATAAAACTTAATATAATCTAGT	974
2217	lanchesteri	TAATACTTGCGATTTAGGTAAAAAGGAGTTTTGTTTAGAT
		TATATTTCGTTGGGGAGATGAAGATATAATGTATAACTGT
		CTATTGAATAATATAATGCTAATTAGAGTTTGATCCTTCT
		TTGTGGATTAAAAGAATAAGTTACTTTAGGGATAACAGCG
		TAAT
NC_03	Pleoticus	AGGGGACGATAAGACCCTATAAAGCTTTACAATAAATTAA	975
9964	muelleri	TTAAATTATAAATTATAAGTTTAACTTAATTTAATTAGTA
		TTTGTTTCGTTGGGGCGACGAGAATATAATTATATAACTG
		TTCTTTTATTGTTATAACAAATTTAATTGGGTGAAAATTG
		ATCCTTTTATAAAGATTAAAAGATTAAGTTACTTTAGGGA
		TAACAGCGTAAT
NC_03	Metapenaeus	GGGGGACGATAAGACCCTATAAAGCTTTACAGTTTGTTGA	976
9179	affinis	TTAAATTATAAATTGTTAGTGTGAACTTAATTTATTTGAT
		AGCTGTTTCGTTGGGGCGACGAAAATATAATAAATAGTAA
		CTGTTTTTCTTTTATAATAACAATGATTTTTGGTAGTAAT
		TGATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
NC_03	Hymenopenaeus	AAGGGACGATAAGACCCTATAAAGCTTTACAATAAGAAAA	977
9169	neptunus	TTAAACTATAAATTATTAGTATAACTTAATTTAATTGGTA
		TTTGTTTCGTTGGGGCGACGGGAATATAATAATATAACTG
		TTCTTTTATAAGTTTAACAAAATTAATTGGATAAAAATTG
		ATCCTTTAATAAAGATTAAAAGATTAAGTTACTTTAGGGA
		TAACAGCGTAAT
NC_03	Penaeus	AGGGGACGATAAGACCCTATAAAGCTTGACAATAATTTAA	978
1366	indicus	TTATACTATCAATTGTTAGTATAACTTGGTTTTAATTAAT
		ATTTGTTGCGTTGGGGCGACGAGAATATAATAGGTAACTG
		TTCTTAAATATTTAATAACAAATATAATTGGAAATTAGTA
		TGATCCTCTATTAGCGATTAAAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
NC_03	Aristaeomorpha	AGGGGACGATAAGACCCTATAAAGCTTTACAATAAATTAA	979
9153	foliacea	ATATATTAAAATCTGTTAGTGTAACTTATTATATTTAGAG
		TTTGTTTCGTTGGGGCGACGAGAATATAATGAATAACTGT
		TCTTTTTAAAAATAGACAATAATAATTGGTTAAAGATTGA
		TCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGGGAT
		AACAGCGTAAT
NC_03	Solenocera	AGGGGACGATAAGACCCTATAAAGCTTTACAATAAGTTAA	980
0280	crassicornis	TTAAATTATAAATTGTTAGTATAACTTGGTTTAGTTATTA
		TTTGTTTCGTTGGGGCGACGAGAATATAATTATATATAAC
		TGTTCTTTTAAGAAGAAAACAAGGTTAATTGGATTAGAAT
		TGATCCTTTAATAAAGATTAAAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
NC_03	Mierspen	AGGGGACGATAAGACCCTATAAAGCTTTACAATAAATTAA	981
0277	aeopsis	TTAAATTATAAATTGTTAGTTTAACTTAATTTAATTAGTG
	hardwickii	TTTGTTTCGTTGGGGCGACGAGAATATAAATTATATAACT
		GTTCTTTTAGATAAATAACAAGGTTAATTGGAGGAAGATT
		GATCCTTTAATAAAGATTAAAAGATTAAGTTACTTTAGGG
		ATAACAGCGTAAT
NC_04	Penaeus	GGGGGACGATAAGACCCTATAAAGCTTGACAATAACTTCG	982
0140	latisulcatus	TTAAATTGTAAATTGTTAGTGTAACTTGATTTTAACTAGG
		GTTTGTTTCGTTGGGGCGACGGGAATATAATAAATAACTG
		TTCTTTTAAGTATAGTTACAAAAATGCTTGGTGAATAATT
		GATCCTCTACTAGAGATTAAAAGATAAAGTTACTTTAGGG
		ATAACAGCGTAAT
MG82	Penaeus	AGGGGACGATAAGACCCTATAAAGCTTGACAATAAGTTAA	983
1354	semisulcatus	TTATATTATAAATTGTTAGTATAACTTGATTTTAATTGAC
		GTTTGTTACGTTGGGGCGACGAGAATATAATGAGTAACTG
		TTCTTAAATGTTTATTGACAAATATAATTGGTATTTGATT
		GATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGGG
		ATAACAGCGTAAT
AF401	Penaeussilasi	AGGGGACGATAAGACCCTATAAAGCTTGACAATAATTTAA	984
305		TTATACTATCAATTGTTAGTATAACTTGGTTTTAATTAAG
		ATTTGTTGCGTTGGGGCGACGAGAATATAATAGGTAACTG
		TTCTTAAATATTTAATAACAAATATAATTGAAAATTAGTG
		TGATCCTCTATTAGCGATTAAAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
MG00	Penaeus	AGGGGACGATAAGACCCTATAAAGCTTAACAATAAGCTGT	985
1049	isabelae	CTATATTATAAACTGTTAGTATAACTTGATACTAGATGGT
		ATTTGTTGCGTTGGGGCGACGAGAATATAAAAGGTAACTG
		TTCTTATAACATATAATAACAGAAATATCTGGAAATTTAA
		TGATCCTTTTTTAAAGATCATAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
NC_03	Sicyonia	GGGGGACGATAAGACCCTATAAAGCTTTACAAACCCTTTT	986
9168	lancifer	TTTAGTTAAAAATTATAAGTGTAAACTAACTTAAAAATTA
		TTTGTTTCGTTGGGGCGACGAGAATATAATTTAGTAACTG
		TTCTTTTAAAATATTACAGTATTAGTTGATTGAAAATTGA
		TCCCTTAATAAGGATTAAAAGTTTAAGTTACTTTAGGGAT
		AACAGCGTAAT
NC_02	Metapenaeopsis	GAGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAG	987
9457	dalei	TTAAGTTATAAATTGTTGGTCTAACTTAATTTAATTAATA
		TTTGTTTCGTTGGGGCGACGAGAATAAAATTAAGTAACTG
		TTCTTTTGTAAATAATTACAAATCTATTTGGTAAAAAATT
		GATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGGG
		ATAACAGCGTAAT
MK971	Metapenaeopsis	AAGGGACGATAAGACCCTATAAAGCTTTACAATTAGTCAA	988
537	gerardoi	CTAAATCATAAATTATTGGTTTAACTTGGTTTAGTTGATG
		TTTGTTTCGTTGGGGCGACGAGAATATAATTAAAATAACT
		GTTCTTTAATAATTAATTACAGTTTTTTCTGATATAAAAT
		TGATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
KP059	Parapenaeus	GGGGGACGATAAGACCCTATAAAGCTTTACAATTATTTAA	989
279	longirostris	TTAAATTATAAATTGTTAGTATAACTTAATTTAATTGATA
		TTTGTTTCGTTGGGGCGACGAGAATATAATTTTAAGTAAC
		TGTTCTTTTATGGTTAATTACAGATTTATTTGGGTAAAAA
		TTGATCCTTTATTAGAGATTAAAAGATTAAGTTACTTTAG
		GGATAACAGCGTAAT
MK470	Pandaluseous	GGGGGACGATAAGACCCTATAAAATTTTACAAAATTGGGA	990
790		TTTTTTTTTGAATTAAGGTTTAAATTCTATAAGTTCTTAT
		TTGTTTTGTTGGGGCGGCAAAGATAAAAATTAGTAACTGT
		CATTTAATTAGAATAATTATAATTAGTTTAATTGATCCTT
		TATTAGAGATTAAAAGATTAAGTTACTTTAGGGATAACAG
		CGTAAT
LC431	Pandalus	GGGGGACGATAAGACCCTATAAAATTTTACAAAATCGGGA	991
729	miyakei	TTTTTTTTGAATTAAGGTTTAAGTTCTATAATTCCTTGTT
		TGTTGTGTTGGGGCGGCAAAGATAAAAATTAGTAACTGTC
		ATTTAATTAGAATAAGTATAATTAGTTTAGTTGATCCTTT
		ATTAGAGATTAAAAGATTAAGTTACTTTAGGGATAACAGC
		GTAAT
MK470	Pandalus	GGGGGACGATAAGACCCTATAAAATTTTACAAAATTGGAA	992
785	japonicas	TTTTTATTTGAATTAGGGTTTAAATTCTATGATTTCTTGT
		TTGTTGTGTTGGGGCGACAAAGATAAAAGTTAGTAACTGT
		CATTTAAGTAGAATAAGTATAATTAGTTTAGTTGATCCTT
		TATTAGAGATTAAAAGATTAAGTTACTTTAGGGATAACAG
		CGTAAT
LC431	Pandalus	GGGGGACGATAAGACCCTATAAAATTTTACAAAATCGGGA	993
728	glabrus	TCTTTTTTGAATTAAGGTTTAAATTCTATGATTCCTTGTT
		TGTTGTGTTGGGGCGGCAAAGATAAAAATTAGTAACTGTC
		ATTTAATTAGAATAAGTATAATTAGTTTAGTTGATCCTTT
		ATTAGAGATTAAAAGATTAAGTTACTTTAGGGATAACAGC
		GTAAT
MK470	Pandalus	GGGGGACGATAAGACCCTATAAAATTTTACAGAGTTGGGA	994
796	teraoi	CCTTTATTTTAAATTAGTGTTTAAATCTTATGGGTTCTTA
		TTTGTTTTGTTGGGGCGACAAAGATAAAATTTAGTAACTG
		TCATTTAATTAGAATAAGTATAATTAGTTTAGTTGATCCT
		TTATTAGAGATTAAAAGATTAAGTTACTTTAGGGATAACA
		GCGTAAT
MK470	Pandalus	GGGGGACGATAAGACCCTATAAAATTTTACAAAATTAGGA	995
793	ivanovi	TTTTTTTTTAAATTAAGGTTTAAATTCTATAAGTTCTTGT
		TTGTTGTGTTGGGGCGGCAAAGATAAAAATTAGTAACTGT
		CATTTAATCAGAATAAGTATAATTAGTTTAGTTGATCCTT
		TATTAGAGATTAAAAGATTAAGTTACTTTAGGGATAACAG
		CGTAAT
MK470	Pandalus	GGGGGACGATAAGACCCTATAAAATTTTACAAAATCGGGG	996
784	coccinatus	TTTTTTTTTAATTAAGGTTTAAATTCTGTAATTTCTTGTT
		TGTTGTGTTGGGGCGGCAAAGATAAAAATTAGTAACTGTC
		ATTTAATTAGAATAAGTATAATTAGTTTAGTTGATCCTTT
		ATTAGAGATTAAAAGATCAAGTTACTTTAGGGATAACAGC
		GTAAT
MK470	Pandalus	GGGGGACGATAAGACCCTATAAAATTTTACAGAGTCGGGT	997
791	formosanus	CTTTTTTTAAATTAGTGTTTAAATTCTGCAGGTTCTTATT
		TGTTTTGTTGGGGCGACAAAGATAAAATTTAGTAACTGTC
		ATTTAATCAGAATAGATATAATTAGTTTAGTTGATCCTTT
		ATTAGAGATTAAAAGATTAAATTACTTTAGGGATAACAGC
		GTAAT
LC431	Pandalus	GGGGGACGATAAGACCCTATAAAATTTTACAAAATTGGGA	998
732	princeps	TTTTTTTTGAATTAAGGTTTAAATTCTATAATTCCTTGTT
		TGTTGTGTTGGGGCGGCAAAGATAAAAATTAGTAACTGTC
		ATTTAATTAGAATAAGTATAATTAGTTTAGTTGATCCTTT
		ATTAGAGATTAAAAGATTAAGTTACTTTAGGGATAACAGC
		GTAAT
MK470	Pandalus	GGGGGACGATAAGACCCTATAAAATTTTACAGAGTCGGGA	999
789	chani	TCTTTTTTTAAATTAGTGTTTAAATTCTATGGGTTCTTAT
		TTGTTTTGTTGGGGCGACAAAGATAAAATTTAGTAACTGT
		CATTTAATTAGAATAAGTATAATTAGTTTAGTTGATCCTT
		TATTAGAGATTAAAAGATTAAGTTACTTTAGGGATAACAG
		CGTAAT
LC431	Pandalus	GGGGGACGATAAGACCCTATAAAATTTTACAAAATCGGAG	1000
73	houyuu	TTTTTTTTGAATTAAGGTTTAAATTCTTTAATTCCTTGTT
		TGTTGTGTTGGGGCGACAAAGATAAAAATTAGTAACTGTC
		ATTTAATTAGAATAAGTATAATTAGTTTAGTTGATCCTTT
		GTTAGAGATTAAAAGATTAAGTTACTTTAGGGATAACAGC
		GTAAT
LC431	Pandalus	GGGGGACGATAAGACCCTATAAAATTTTACAAAATTGGGA	1001
730	capillus	TTTTTTTTGAATTAAGGTTTAAATTCTATAATTCCTTGTT
		TGTTGTGTTGGGGCGGCAAAGATAAAAATTAGTAACTGTC
		ATTTAATTAGAATAAGTATAATTAGTTTAGTTGATCCTTT
		ATTAGAGATTAAAAGATTAAGTTACTTTAGGGATAACAGC
		GTAAT
MK470	Pandalus	GGGGGACGATAAGACCCTATAAAATTTTACAAAATTGGGA	1002
786	longirostris	TTTTTTTTGAATTAAGGTTTAAATTCTATAATTCCTTGTT
		TGTTGTGTTGGGGCGGCAAAGATAAAAATTAGTAACTGTC
		ATTTAATTAGAATAAGTATAATTAGTTTAGTTGATCCTTT
		ATTAGAGATTAAAAGATTAAGTTACTTTAGGGATAACAGC
		GTAAT
MK470	Pandalus	GGGGGACGATAAGACCCTATAAAATTTTACAAAATCGGAG	1003
787	ochotensis	TTTTTTTTGAATTAAGGTTTAAATTCTTTAATTCCTTGTT
		TGTTGTGTTGGGGCGACAAAGATAAAAATTAGTAACTGTC
		ATTTAATTAGAATAAGTATAATTAGTTTAGTTGATCCTTT
		GTTAGAGATTAAAAGATTAAGTTACTTTAGGGATAACAGC
		GTAAT
AB244	Pandalus	AGGGGACGATAAGACCCTATAAAATTTTACAAAATAGGGA	1004
633	latirostris	TTTTTTTTAAATTAAGGTTTAAATTCTATAAGTCTCTGTT
		TGTTGTGTTGGGGCGGCAAAGATAAAAATTAGTAACTGTC
		ATTTAATTAGAATAAGCATAATTAGTTTAGTTGATCCTTT
		ATTAGAGATTAAAAGATTAAGTTAGTTTAGGGATAACAGC
		GTAAT
MK500	Metapenaeus	GGGGGACGATAAGACCCTATAAAGCTTTACAGTGTATTAA	1005
702	brevicornis	TTAAATTTTAAATTGTTAGTATTAACTTAGTTTATTTAGT
		AACTGTTTCGTTGGGGCGACGAAAATATAATAAATAGTAA
		CTGTTTTTCTTTATAATATAACAAAAATTTTTGGAAGTAA
		TTGATCCTTTCTTAAAGATTAAAAGATTAAGTTACTTTAG
		GGATAACAGCGTAAT
MK500	Metapenaeus	GGGGGACGATAAGACCCTATAAAGCTTTACAGTGTATTAA	1006
704	dobsoni	TTAAATTTTAAATTGTTAGTATTAACTTAGTTTATTTAGT
		AACTGTTTCGTTGGGGCGACGAAAATATAATAAATAGTAA
		CTGTTTTTCTTTATAATATAACAAAAATTTTTGGAAGTAA
		TTGATCCTTTCTTAAAGATTAAAAGATTAAGTTACTTTAG
		GGATAACAGCGTAAT
MK470	Heterocarpus	GGGGGACGATAAGACCCTATAAAACTTTACAAGCGAAGAT	1007
779	hayashii	TTGTATTTTTTAAATTAAAGTATAACGTTATGTACTGTTC
		TGTTTGTTATGTTGGGGCGACAAAGATATAATAAGTAACT
		GTTAATTTTATTGAATAGTGATAATTAGTTTAATTGATCC
		TCTCTTAGAGATTACAAGATTAAGTTACTTTAGGGATAAC
		AGCGTAAT
MK470	Heterocarpus	AGGGGACGATAAGACCCTATAAAACTTTACAGATATAATT	1008
780	fascirostratus	ATACTTATTAAAATAAAGTTTAATAGTATTTATTATTTTA
		TCTGTTATGTTGGGGCGACAAAGATATAATAAAGTAACTG
		TTAGTTTTATTTGATAATAATAATTAGTTTAATTGATCCT
		TTATTAAAGATTATAAGAATAAGTTACTTTAGGGATAACA
		GCGTAAT
NC_05	Palaemon	AGGGGACGATAAGACCCTATAAAACTTTATAAATGAAGTA	1009
0168	adspersus	TGTAATCTCTAAATTATATTAAAATGTTGATAAGTATTTT
		ATTTATTTCGTTGGGGCGACGTTGATATAATTTGTAACTG
		TCTAAATGAATAATATAATCGTCATTATACTTTGATCCTT
		CTTTGTGGATTATAAGACTAAGTTACTTTAGGGATAACAG
		CGTAAT
NC_05	Palaemon	AGGGGACGATAAGACCCTATAAAACTTTATACATAGAATA	1010
0266	serratus	TAAAATCTTTAAATTATATTAAAATATTGATGGATATTTT
		ATGTATTTCGTTGGGGAGACGTTGATATAATTTGTAACTG
		TCTGAATGAATAATATAATTATCATTATAGTTTGATCCTT
		CTTTGTGGATTATAAGAATAAGTTACTTTAGGGATAACAG
		CGTAAT
NC_04	Palaemon	AGGGGACGATAAGACCCTATAAAACTTAATATTTATTTAT	1011
5090	sinensis	ATTTTGTTTTTAAATTTTAAATAAACTTTACAAAGTTTAG
		TATATATTTTGTTGGGGAGACATTGACATAATTAATAACT
		GTCTAATTTAAATGTTTATAGCTATTGTTATTATATGATC
		CTTCTTTGAGGATGAAAAGAGCAAGTTACTTTAGGGATAA
		CAGCGTAAT
NC_03	Palaemon	AGGGGACGATAAGACCCTATAAAACTTTATATAAATTAAG	1012
9373	capensis	AATTATTGTGAATTGGACTTAAATATTTTAATGCTTAATT
		TATATTTCGTTGGGGAGACGCTGATATAATTTGTAACTGT
		CAGTTAAATAAAATATTTATAATTAGTAAATTGATCTTTC
		AATGAGAATTTAAGAGAAGTTACTTTAGGGATAACAGCGT
		AAT
NC_03	Palaemon	GGGGGACGATAAGACCCTATAAAACTTGATAAAAAGTTTA	1013
8117	annandalei	TTTTAACTTTAAATTATATTTAAAAATTGTGAAGTTTTCT
		TTTTATTTTGTTGGGGCGACATTGATATAAATTGTAACTG
		TTTTAGCAAAAAGTATAATTATCATTATAGTTTGATCCTT
		CTTTGGGGATAAAAAGAATAAGTTACTTTAGGGATAACAG
		CGTGAT
NC_02	Palaemon	AAGGGACGATAAGACCCTATAAAACTTTATAAGAGATTTA	1014
9240	gravieri	TTTTATTTTTAAATTCTTCTTTAAAAATTGTGAAGTATTT
		CTCTTATTTTGTTGGGGCGACATTGATATAAGCTGTAACT
		GTTTAAATAAAAACTATAATTATCATTATTGTTTGATCCT
		TCTTTGTGGATAAAAAGACTAAGTTACTTTAGGGATAACA
		GCGTAAT
NC_02	Palaemon	GTGGGACGATAAGACCCTATAAAACTTTATATGTTGCCTG	1015
7601	serenus	CTTTTTGTTAAAATTCTACCTAAAATTTGAAAAGCACTCT
		ACATATTTTGTTGGGGAGACATTGATATAAATTGTAACTG
		TCTAAATAAAAAATATAATTATCATTATAATCTGATCCTT
		CTTTGTGGATAAAAAGAATAAGTTACTTTAGGGATAACAG
		CGTGAT
NC_01	Palaemon	AGGGGACGATAAGACCCTATAAAACTTAATAAAAGGTTAA	1016
2566	carinicauda	TTTTAACTATGAATTGTATTTAAAAGTTGTGAAATTCTCT
		TTTTATTTTGTTGGGGCGACATTGATATAAGCTGTAACTG
		TCTTGATAATAAAATAGTTATCACTATAAGCTGATCCTTT
		TTTAGGGATAATAAGTATAAGTTACTTTAGGGATAACAGC
		GTAAT
KT959	Palaemon	AAGGGACGATAAGACCCTATAAAACTTGACACGCCACTGT	1017
474	pugio	ATTTAGCTTTAAATTTTAATCTAAAATTGTAAGGGTAGCT
		GTGTGTTTTGTTGGGGAGACATTGATATAAGTAGTAACTG
		TCTGATCAAAAATTATAATTATAATTAGCATATGATCCCT
		ATTTTAGGATTATAAGAATAAGTTACTTTAGGGATAACAG
		CGTAAT
KF923	Palaemon	AGGGGACGATAAGACCCTATAAAACTTCACATGAAACGTT	1018
713	pandaliformis	GTAGTTTATGGATCTTGTTTAATGTAATTTCAGCGTTTTT
		TGTTTTGTTGGGGCGACATGGATAAAAAGTAACTGTCTAT
		TAAAATTCAATAACAATAATTAGTTTGTGATCCTTTATTA
		AGGATTAAAAGAATAAGTTACTTTAGGGATAACAGCGTGA
		T
MT340	Palaemon	AGGGGACGATAAGACCCTATAAAACTTTATGCACGACATG	1019
087	elegans	TCTTGTCTTTAAATTATATCTAAATATTGGTTGGTTAAAA
		GTGCATTCCGTTGGGGAGACGTTGATATAAGCTGTAACTG
		TTTTATTAAATAGAATAATTATTATTATAATTTGATCCTT
		CTTTGTGGATAAAAAGAATAAGTTACTTTAGGGATAACAG
		CGTAAT
MT340	Palaemon	ATTACGCTGTTATCCCTAAAGTAACTTATTCTTATAACCC	1020
091	longirostris	ACAAAGAAGGATCAAAATATAATGATAGTTATTTTATTCA
		CTCAGACAGTTACAAATTATATCAACGTCTCCCCAACGAA
		ATATATTAAGAATTTATCAGTATTTTAATATAATTTAAAG
		ATTATATACTTTATATATAAAGTTTTATAGGGTCTTATCG
		TCCCTC
JQ042	Palaemon	GTGGGACGATAAGACCCTGTAAAACTTTATACGCATAGTA	1021
296	peringuey	TTTAGCCTTTAAATTATATTAAAATATTGATATATACTTT
		GGGTATTTCGTTGGGGAGACGTTGATATAATTTGTAACTG
		TCTAATTAAATAAAATAATTATCATTATACTTTGATCCTT
		CTTTGTGGGTTATAAGAATAAGTTACTTCAGGGATAACAG
		CGTAAT
KP725	Palaemon	GGGGGACGATAAGACCCTATAAAACTTTATGTGATTTGTG	1022
611	debilis	GTTATTTATTAAAATTTTACTTAAAATTTAGAAAATCTCA
		TTTACATTTTGTTGGGGAGACATAGATATAATTTGTAACT
		GTCTGTTGTAAAAATATAGCTATCGTTAGAATTTGATCCC
		TCTGTGGGGATAATAAGAATAAGTTACTTTAGGGATAACA
		GCGTAAT
KF923	Palaemon	AGGGGACGATAAGACCCTATAAAACTTTATATAAAATAAG	1023
720	carteri	TATATCTACATATTATGTTAATAGGGGTATGCTATTTTAT
		ATTTTGTTGGGGCGACATAGATATGTAAGCAAATTAACTG
		TTTATTAAAATAAAATAATAATAATTAGTTTATGATCCTT
		TAGTGAAGATTAAAAGAGTAAGTTACTTTAGGGATAACAG
		CGTGAT
JN674	Palaemon	AGGGGACGATAAGACCCTATAAAACTTGATATAGAGCTGA	1024
344	ritteri	CTTTAGTTTTAAATTTTAAAATAAAATTGTAAAGTAAACT
		TTATATTTTGTTGGGGAGACATTGATATAAGTAGTAACTG
		TCTGTTAAAAATTATAATTATATTTAGTTTTTGATCCTTC
		TTTGTGGATTAGAAGAATAAGTTACTTTAGGGATAACAGC
		GTGAT
KC515	Palaemon	AGGGGACGATAAGACCCTATAAAACTTAATAAAAGGTTAA	1025
036	orientis	TTTTAACTATGAATTGTATTTAAAAGTTGTGAAATTCTCT
		TTTTATTTTGTTGGGGCGACATTGATATAAGCTGTAACTG
		TCTTGATAATAAAATAGTTATCACTATAAGCTGATCCTTT
		TTTAGGGATAATAAGTATAAGTTACTTTAGGGATAACAGC
		GTAAT
DQ194	Macrobrachium	TGTGTAATTTATTACAAAGTCTAGCCTGCCCACTGATTTA	1026
924	gracilirostre	AGGGGACGATAAGACCCTATAAAACTTAATATAAGTTGGG
		CTTAATTTATGATTTAGGTGAAAAATGATTTTGTTTGGTT
		TATATTTCGTTGGGGAGATGAAGATATAAAATGTAACTGT
		CTATTTAAATTTAATAATATTAATTAGTATGTGATCCTTC
		TTTGTGGATTATAAGAATAAGTTACTTTAGGGATAACAGC
		GTAAT
KT959	Palaemon	AAGGGACGATAAGACCCTATAAAACTTAACACATTGTTAT	1027
473	vulgaris	TTCTAGCTTTGAATTTTAACCTAAAATTTTAGAGATAATC
		TTGTGTTTTGTTGGGGAGACATTGATAAAACTAGTAACTG
		TCTAAGTAAAAATTATAATTATAATTAGCATGTGATCCCT
		CTATGAGGATTAGAAGAATAAGTTACTTTAGGGATAACAG
		CGTAAT
JQ042	Palaemon	GGGGGACGATAAGACCCTATAAAACTTTATAAAAGACTAA	1028
295	serrifer	TTTCATTTTTAAATTCTGTTAAAAAATTATGAAATTTTTC
		TTTTATTTTGTTGGGGCGACATTAATATAAGCTGTAACTG
		TTTAAATAAAAATTATAATTATCATTATTGTTTGATCCCT
		CTTTGAGGATAAGAAGACTAAGTTACTTTAGGGATAACAG
		CGTAAT
MT340	Palaemon	GGGGGACGATAAGACCCTATAAAACTTTATACACGACTCA	1029
090	varians	GTTCATCTTTAAATTTTAATTAAATTAAAGTGAAATGGGA
		CGTGTATTTCGTTGGGGAGACGTTGATATAAACTGTAACT
		GTCTAATTGAAAAATATAAAAATAATTATTATATGATCCT
		TCTTTGTGGATAAAAAGATTAAGTTACTTTAGGGATAACA
		GCGTAAT
JQ042	Palaemon	AAGGGACGATAAGACCCTATAAAACTTTATAAGAGATTTA	1030
297	macrodactylus	TTTTATTTTTAAATTCTTCTTTAAAAATTGTGAAGTAATT
		CTTTTATTTTGTTGGGGCGACATTGATATAAGCTGTAACT
		GTTTAAATAAAAACTATAATTATCATTATTGTTTGATCCT
		TCTTTGTGGATAAAAAGACTAAGTTACTTTAGGGATAACA
		GCGTAAT
KC515	Palaemon	GGGGGACGATAAGACCCTATAAAACTTTATATAAATATAG	1031
035	tonkinensis	GTTTTTTTTAATTTTACTAAAATATTAGAGATCCTTATTT
		ATATTTTGTTGGGGAGACATTGATATAAGCAGTAACTGTC
		TGATTAAAAATAATAATGATATTTATAAAGTGAACCCTCA
		CTGAGGATTAAAAGAATAAGTTACTTTAGGGATAACAGCG
		TAAT
JQ042	Palaemon	CGGGGACGATAAGACCCTATAAAACTTTATACATAAAGTG	1032
294	xiphias	TGTAATCTCTATATTATATTGAAATGTCGATAAGTACTCT
		ATTTATTTCGTTGGGGAGAGGTCCATATACCTTGTAACTG
		TCTGAGTGAACAAAATAATTATCATTATATTTTGATCCTT
		CTTTGTGGATTATAAGAGTAAGTTACTTTAGGGATAACAG
		CGTAAT
KF923	Palaemon	TGGGGACGATAAGACCCTATAAAACTTTATATAAAATATA	1033
729	ivonicus	TTTGTTTATAAATTATGTTTATAAGAAATTTATTATTTTA
		TATTTTGTTGGGGCGACATAAATAAAACATGTAACTGTTT
		ATATAAATAAAATAATGATAATTAAATTTTGATCCTTTAA
		TAAGGATTACAAGAATAAGTTACTTTAGGGATAACAGCGT
		AAT
JN674	Palaemon	GGGGGACGATAAGACCCTGTAAAACTTTATACGTAGGGTA	1034
340	pacificus	TTTAGTCTTTAAATTATACTAAATTGTTGATATATATCTT
		AGGTATTTCGTTGGGGAGACGTGGATATAATTTGTAACTG
		TCTAATTAATAATATAATTATCTTTATATTTTGAACCTTC
		TTTGTGGGTTATAAGAATAAGTTACTTCAGGGATAACAGC
		GTAAT
JN674	Palaemon	GTGGGACGATAAGACCCTATAAAACTTTATATGAATTGAG	1035
352	atrinubes	ATTATTTGTCAAAATTTTAATTAAAATTTAAAAGATCTTA
		TTTATATTTTGTTGGGGAGACATTGATATAACTTGTAACT
		GTCTAGTTGAAAAATATAGTTATTGCTAGAATTTGATCCC
		TCTATGAGGATAAAAAGAATAAGTTACTTTAGGGATAACA
		GCGTGAT
KF923	Palaemon	GTGGGACGATAAGACCCTATAAAACTTTACATGTGGTACG	1036
725	intermedius	CTTTTTTTTAAAATTTTAATTAAACTTTGGAAAGTGTTCT
		TCATGTTTTGTTGGGGAGACATTGATATAATTTGTAACTG
		TCTAAATAAAACATATAATAATCATTAGAATTTGATCCTT
		CTTTGTGGATAAAAAGAATAAGTTACTTTAGGGATAACAG
		CGTAAT
KC515	Palaemon	GGGGGACGATAAGACCCTATAAAACTTTACATAAGTTACA	1037
043	concinnus	TTTAGTTTGTGAATAAAGTAAAAAACTGTTTTAGATACCT
		TATGTTTCGTTGGGGAGACGTTTATATAACTGTAACTGTC
		AGATAAATTTAATAATTCTAATTAGTATATGATCCTTCTG
		TGGGGATTATAAGAGTAAGTTACTTTAGGGATAACAGCGT
		GAT
KF923	Palaemon	GGGGGACGATAAGACCCTATAAAACTTTATATAAAATATG	1038
716	yuna	TTTGTTTATAAATTGCGTTTAAAGGAAATTTATTGTTTTA
		TATTTTGTTGGGGCGACATAAATAAAATTTGTAACTGTTT
		ATATAAATAAAATAACGATAATTAGATTTTGATCTTTTAA
		TAAGGATTATAAGAATAAGTTACTTTAGGGATAACAGCGT
		AAT
JQ042	Palaemon	GGGGGACGATAAGACCCTATAAAACTTTATACGCTGTTTA	1039
306	antennarius	ATTTGTCTTTGAATTTTAAATAAATTAAAGTGAATTAGCC
		AGTGTATTTCGTTGGGGAGACGTTAATATAAATTGTAACT
		GTTTAATTAAAAAATATAAATATAATTATGGTATGATCCT
		TCTTTGTGGATTAAAAGATTAAGTTACTTTAGGGATAACA
		GCGTAAT
JN674	Palaemon	GTGGGACGATAAGACCCTATAAAACTTTATATGTGGCCTG	1040
333	dolospinus	CTTTTTCTTAAAATTTCAGATAAACTTTGAAAAGCAGTTC
		TCGTATTTTGTTGGGGAGACATTGATATAAATCGTAACTG
		TCTGAATAAAATATATAGTAATCACTATAATTTGATCCTC
		CTATGCGGCTAAAAAGAACAAGTTACTTTAGGGATAACAG
		CGTAAT
KF923	Palaemon	GGGGGACGATAAGACCCTATAAAACTTTACATAAAAAACT	1041
714	gracilis	ATAGTCTATGAATTATATTTAAGGGGAGTCTAGTCTTTTG
		TGTTTTGTTGGGGCGACATGGATAAAAAGTAACTGTCTAT
		TAAAATTTAATAATAATAATTAGTTTTTGATCCTTTAGTA
		TGGATTAAAAGAATAAGTTACTTTAGGGATAACAGCGTGA
		T
JN674	Palaemon	AAGGGACGATAAGACCCTATAAAACTTGATACGCCGTTAT	1042
354	mundusn	GCTTAGCTTTAAATTTTAATCTAAAATTGTAAGGGTGGCT
	ovus	GTGTGTTCTGTTGGGGAGACATTGATATAAATAGTAACTG
		TCTGATTAAAAAATATAATTATAATTAGTATGTGATCCTT
		CTTTGTGGATTATAAGAGTAAGTTACTTTAGGGATAACAG
		CGTAAT
KF923	Palaemon	ATGGGACGATAAGACCCTATAAAACTTTATATGTTATATA	1043
712	suttkusi	TTTTATTTTTGAATTATTTTAAAATATTGTTTAATGTTTT
		ACATATTTCGTTGGGGAGACGTTGACATAAAATGTAACTG
		TTTAAATAAAAAATATAATTATCATTATATTTTGATCCTT
		CTTTGTGGATAAAAAGAATAAGTTACTTTAGGGATAACAG
		CGTAAT
JQ042	Palaemon	GGGGGACGATAAGACCCTATAAAACTTTATACATTATTTA	1044
299	zariquieyi	GTTCGTCTTTAAATTTTAAGTAAATTATAGTGAATTGATA
		TGTGTATTTCGTTGGGGAGACGTTGATATAAATTGTAACT
		GTCTAATTAAAAAATATAAATATGATTATGATGCGATCCT
		TCTTTGTGGATAAAAAGATTAAGTTACTTTAGGGATAACA
		GCGTAAT
JN674	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTTATATGTCGTTTG	1045
353	australiense	CTTTTTCTTAAAATTTTATGTAAACTTTGAGAAGCATTTC
		TCATATTTTGTTGGGGAGACATTGATATAAGCTGTAACTG
		TCTAAATAAAATATATAATAATCATTAGAATTTGATCCTT
		CTTTGTGGATAAAAAGAATAAGTTACTTTAGGGATAACAG
		CGTAAT
JN674	Palaemon	GGGGGACGATAAGACCCTATAAAACTTTATATTTTAATTT	1046
345	semmelin	TTTGCTTTAGATTATAGATTAAAATTGCAAAGTTATTTAA
	kii	ATATTTCGTTGGGGCGACGTTGATAAAATCTTAACTGTCT
		GTGTAAAAGTTATAGTAATTACTAGAATATGATCCTTCTT
		TTGAGGATAACAAGAATAAGTTACTTTAGGGATAACAGCG
		TAAT
JN674	Palaemon	GTGGGACGATAAGACCCTATAAAACTTTATATGTTGCCTG	1047
337	litoreus	CTTTTTGTTAAAATTCTATCTAAAATTTGAAAAGCACTCT
		ACATATTTTGTTGGGGAGACATTGATATAAATTGTAACTG
		TCTAAATAAAAAATATAATTATCATTATAATTTGATCCTT
		CTTTGTGGATAAAAAGAATAAGTTACTTTAGGGATAACAG
		CGTGAT
LC425	Palaemon	AAGGGACGATAAGACCCTATAAAACTTAATATAAATTATA	1048
608	septemtri	CTATATTTTTAAATTATAAATAATCATGATAAAGTTTAGT
	onalis	TTATATTTTGTTGGGGAGATATTGATATAAATTGTAACTG
		TCTAATTTAAAAAAAATAATAATCATTATAATGTGATCCT
		TCATTGAGGATAAAAAGAATAAGTTACTTTAGGGATAACA
		GCGTAAT
JN674	Palaemon	AAGGGACGATAAGACCCTATAAAACTTTATAAGAGATTTG	1049
335	guangdon	TTTTATTTTTAAATTCTTCTTTAAAAGTTGTGAAGTAATT
	gensis	CTTTTATTTTGTTGGGGCGACATTGATATAAGCTGTAACT
		GTTTAAATAAAAACTATAATTATCATTATTGTTTGATCCT
		TCTTTGTGGATAAAAAGACTAAGTTACTTTAGGGATAACA
		GCGTAAT
KF923	Palaemon	GGGGGACGATAAGACCCTATAAAACTTTACATTAAAAACT	1050
715	hancocki	ATAGTCTATAAATTATATTTAAGGGGAGTCTAGCGTTTAT
		ATGTTTTGTTGGGGCGACATGGATAAAAAGTAACTGTCTA
		TAAAAATTTAATAATAATAATTAGTTTTTGATCCTTTATT
		ATGGATTAAAAGAATAAGTTACTTTAGGGATAACAGCGTG
		AT
KC515	Palaemon	GGGGGACGATAAGACCCTATAAAACTTAATAAAAGGTTTA	1051
037	vietnamicus	TTTTAACTATAAATTATATTTAAAAGTTGTGAAATCTTCT
		TTTTATTTTGTTGGGGCGACATTGATATAAACTGTAACTG
		TCTTAATAATAAAATAATTATCATTATGAGCTGATCCTTT
		TTTAGGGATAATAAGTATAAGTTACTTTAGGGATAACAGC
		GTAAT
JQ042	Palaemon	AAGGGACGATAAGACCCTATAAAACTTGATACGCCGTTAT	1052
303	texanus	GCTTAGCTTTAAATTTTAATCTAAAATTGTAAGGATGGCT
		GTGTGTTCTGTTGGGGAGACATTGATATAAATAGTAACTG
		TCTGATTAAAAAATATAATTATAATTAGTATGTGATCCTT
		CTTTGTGGATTATAAGAGTAAGTTACTTTAGGGATAACAG
		CGTAAT
JN674	Palaemon	AAGGGACGATAAGACCCTATAAAACTTTATAAGAGACTTA	1053
339	ortmanni	TTTTATTTTTAAATTCTTTTTAAAAATTATAAAATATTTC
		TTTTATTTTGTTGGGGCGACATTGATATAACCTGTAACTG
		TTTAAATAAAAATTATAATTATCATTATTGTTTGATCCTT
		CTTTGTGGATAAAAAGAATAAGTTACTTTAGGGATAACAG
		CGTAAT
JQ042	Palaemon	GGGGGACGATAAGACCCTATAAAACTTTATACGTTACCCT	1054
302	turcorum	ATTCATCTTTGAAGTTTAGATAAATTATAGTGAATGGGGG
		GGTGTATTTCGTTGGGGAGACGTTGATATAATCTGTAACT
		GTCTAATTGAAAAATATAAATATAATTAGTACATGATCCT
		TCTTTGTGGATAAAAAGATTAAGTTACTTTAGGGATAACA
		GCGTAAT
KF923	Palaemon	AAGGGACGATAAGACCCTATAAAACTTTATATGTAAGGTA	1055
718	kadiakensis	TTTTGTTTTTAAATTATTTTGAAATATTAGTTAATATTTT
		ACATATTTCGTTGGGGAGACGTTGATATAACATGTAACTG
		TCTAAATAAAAAAAATAATTATTATTATATTTTGATCCTT
		CTTTGTGGATAAAAAGAATAAGTTACTTTAGGGATAACAG
		CGTAAT
EU493	Macrobrachium	GAGGGACGATAAGACCCTATAAAACTTTATATAGACTTAA	1056
137	asperulum	TTTAACTTGTGACTTAAGTGAAAAATAGTTTTGTTGAGTT
		TATATTTTGTTGGGGAGATGTAGATATAATATGTAACTGT
		CTATTTAATTTAATAATTATAATTAGTGTTTGATCCTTCT
		TTGTGGATTAAAAGTGTAAGTTACTTTAGGGATAACAGCG
		TGAT
GU987	Macrobrachium	ATGGGACGATAAGACCCTATAAAACTTAATATAAATTTAG	1057
057	australe	TTTAATTTGTGACATAAGTGAAAAGTGGTTATACTTCATT
		TATATTTCGTTGGGGAGATGTAGATATAAAAGTAACTGTC
		TATTAAATTTAATAGCCATAGTTAGTAATTGATCCTTCTT
		TGGGGATTAAAAGAGTAAGTTACTTTAGGGATAACAGCGT
		GAT
MH253	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTGATATAAGTTGAA	1058
292	olfersii	CTTGATTTGTGATTTAAGTGAAAAGCAGTTTTGTTTGACT
		TATATTTTGCTGGGGCGGCATAGATATAAAATGTAACTGT
		CTATTAAATTTAATAGTGCTAATTAGTATTTGATCCTTCC
		TTGTGGATTAAAAGAATAAGTTACTTTAGGGATAACAGCG
		TGAT
GU929	Macrobrachium	GAGGGACGATAAGACCCTATAAAACTTAACATAAGTTTTG	1059
448	jelskii	TTTTATTTATAATTTTAGTGTAAAATGGTTTTACTAAGTT
		TATGTTTCGTTGGGGAGATGAAGATATAAAGAGTAACTGT
		CTTTTGAATAGAATAATTATAATTAGTTTTTGATCCTTCT
		TTGGGGATTAAGAGAATAAGTTACTTTAGGGATAACAGCG
		TGAT
KJ544	Macrobrachium	GGGGGACGATAAGACCCTATAAAACTTTATATAATCTAAA	1060
746	villosimanus	CTTGACTTGGGATTTAAGTGAAAAGTAGTTTTGTTCGGTT
		TATATTTCGTTGGGGAGATGAAGATATAATTTGTAACTGT
		CTATTGAATATTATAGTATTAATTAGTATTTGATCCTTCT
		TTGAGGATTAGGAGAATAAGTTACTTTAGGGATAACAGCG
		TGAT
KP763	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTAATATAAGTTAAA	1061
693	equidens	TTGGATTTGTGATTTCAGTAAAAAGTGGTCCTTTTAAGTT
		TATATTTCGTTGGGGAGATGTAGATATAATGTGTAACTGT
		TTATAAAACTAAATAATCATAATTAGTTTGTGATCCTGCA
		GATGTGGATTGAAAGAGTAAGTTACTTTAGGGATAACAGC
		GTAAT
JX466	Macrobrachium	GAGGGACGATAAGACCCTATAAAACTTAATATAAATTGTA	1062
930	potiuna	ATTTTGTTTATGATTTAGGTGGAAAATAATTTAATTTAAT
		TTATATTTCGTTGGGGAGATGTAGATATAAAATGTAACTG
		TCTATAAAATTTAATAATTATTGTTAGTGGTTGATCCTTC
		TTTGGGGATTAAAAGAATAAGTTACTTTAGGGATAACAGC
		GTAAT
MK782	Macrobrachium	GAGGGACGATAAGACCCTATAAAACTTGATATAATTTGAA	1063
955	malcolmsonii	CTTGACTTGTGATTTGAGTGAAAAATAGTCTTGTTTGGTT
		TATATTTCGTTGGGGAGATGAAGATATAATGTGTAACTGT
		CTATTGAATTTTATAGTATTAATTAGAATTTGATCCTTCT
		TTGAGGATTAGGAGAATAAGTTACTTTAGGGATAACAGCG
		TGAT
KC515	Macrobrachium	AGGGGACGATAAGACCCTATAAAACTTTATATAAAGTTCA	1064
041	superbum	TATTCGATTAAATTTTAATGTTAATAAAAATTGGATGTTA
		GCTTTATATTTTGTTGGGGCGACAAAAATAAAATTGATAG
		CAACTGTTTAAATAATTAGACAAAAATATTTGATTATATA
		ATTAAATGATCCTAATTAAAGATTAAAAGTTTAAGTTACT
		TTAGGGATAACAGCGTTAT
KM610	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTGATATAAGTTTGA	1065
135	striatum	TTGGATTTGTGATTTCAGTAAAAAATGGTCCTCTGAGGCT
		TATATTTCGTTGGGGAGATGTAGATATAATATGTAACTGT
		TTGTAAAATTAAATAATTATAATTAGTTTGTGATCCTGCC
		GTGTGGATTGAAAGAGTAAGTTACTTTAGGGATAACAGCG
		TAAT
JF310	Macrobrachium	AAGGGACGATAAGACCCTATAAAACTTGATACGAGTTTAG	1066
722	latidactylus	CTTAATTTGTGATTTATGTGAAAAGTAGTTTTGCTTGGTT
		CGTATTTCATTGGGGAGATGTAGATATAATCTGTAACTGT
		CTATGAAATTTAATAATCATAATTAGTAGTTGATCCTTCT
		TTGTGGATTAAAAGAGTAAGTTACTTTAGGGATAACAGCG
		TGAT
JQ805	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTGATATAAGTGAAC	1067
822	hancocki	CTTGATTTGTGATTTGTGTGAAAAATAGTGTTGCTTTACT
		TATATTTTGCTGGGGCGGCATAGATATAAAATGTAACTGT
		CTGTTAAATTTAATAGTGTTAATTAGTTTTTGATCCTTCC
		TTGTGGATTAGAAGAATAAGTTACTTTAGGGATAACAGCG
		TGAT
GU929	Macrobrachium	GGGGGACGATAAGACCCTATAAAACTTGATATTGATCTGG	1068
449	acanthurus	CATGATTTGCGATTTTAGTGAAAAGTAGTTTTGTTTGATC
		TATATTTCGTTGGGGAGATGAAGATATAAATTGTAACTGT
		CTATTTAATTTAATAATTATAGTTAGTGTTTGATCCTTCT
		TTGTGGATTAAGAGATTAAGTTACTTTAGGGATAACAGCG
		TGAT
DQ194	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTTATATAAGTTTAA	1069
931	inflatum	TTTGGCTTACAATTTGAGTGAAAAGTAGCTTTATTAGGTT
		TATATTTCGTTGGGGAGATGTAGATATAATGTGTAACTGT
		CTGTTTAATTTAATAATTATAATTAGTGTGTGATCCTTCT
		TTGTGGATTAAAAGTATAAGTTACTTTAGGGATAACAGCG
		TGAT
JQ805	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTGATATAAGTGAAG	1070
801	crenulatum	CTTGATTTGTGATTTGGGTGAAAAATAGTGTTGCTTTGCT
		TATATTTTGCTGGGGGGGCATGGATATAAAATGTAACTGT
		CTGTTAAATTTAATAGTGTTAATTAGTTTATGATCCTTCT
		TTGTGGATTAAAAGAATAAGTTACTTTAGGGATAACAGCG
		TGAT
KM101		GTGGGACGATAAGACCCTATAAAACTTTATACAGGTTGGG	1071
474	carcinus	TCAAACTTGTGATTTGTGTGAAAAGTAGTTTTATTTGATC
		TGTATTTTGTTGGGGCGACATAGATATAATGTGTAACTGT
		CTATTAAATTAAATAGTGTTAATTAGTCTTTGATCCTTCT
		TTGTGGATTAGAAGAATAAGTTACTTTAGGGATAACAGCG
		TGAT
GU929	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTTATACAGGTTGGG	1072
463	americanum	TTCAATTTGTGATTTGTGTGAAAAGTAGTTTTATTCGGTC
		TGTATTTTGTTGGGGCGACATAGATATAATATGTAACTGT
		CTATCAAATTAAATAGTGTTAATTAGTTTTTGATCCTTCT
		TTGTGGATTAGAAGAATAAGTTACTTTAGGGATAACAGCG
		TGAT
EU493	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTGATATATGCTGAG	1073
143	latimanus	TTTAATTTATGATATAAGTGAAAAGTAGTTATACTTGGTT
		TATATTTCGTTGGGGAGATGTAGATATAAATTGTAACTGT
		CTATTTAATTTAATAATGTTAATTAGTGTGTGATCCCTCT
		TTGGGGATTAAAAGAATAAGTTACTTTAGGGATAACAGCG
		TGAT
FM986	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTGATATAAGCTTGA	1074
629	mammillo	TTTAATTTGCGATTATTAGTGAAAAGTAGTTTTGTTAGGT
	dactylus	TTATATTCCGTTGGGGAGATGTAGATATAATGTGTAACTG
		TCTATTAAATTTAATAGTTATAATTAGTTTTTGATCCTTC
		TTTGTGGATTAGAAGAATAAGTTACTTTAGGGATAACAGC
		GTGAT
JQ805	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTAATATGAGTTAAG	1075
812	faustinum	CTTGATTTGTGATCTAAGTGAAAAATAGTTTTGTTTGATT
		TATATTTTGCTGGGGCGGCATAGATATAAAATGTAACTGT
		CTATTAAATTTAATAGTGTTAATTAGTCTTTGATCCTTCT
		CTGTGGATTAAAAGAATAAGTTACTTTAGGGATAACAGCG
		TGAT
AY377	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTGATATTATCTAGA	1076
842	heterochirus	TTTGATTTGCGATTTGAGTGAAGAGCGGTTTTATTTATAT
		GATATTTTGTTGGGGAGACATAGATATAATTAGTAACTGT
		CTATTAAATTTAATAGTGTTAGTTAGCATTTGATCCTTCT
		TTGTGGATTAAAAGAATAAGTTACTTTAGGGATAACAGCG
		TGAT
KP756	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTGATATAAGTTTAG	1077
688	scabriculum	CTTGATTTGTGATTTAGGTGAAAGACGATTTTGTTTGGTT
		TATATTTCGTTGGGGAGATGTAGATATAATGTGTAACTGT
		CTATTTAATTTAATAAATATAATTAGTATGTGATCCTTCA
		TTTGTGGATTGGAAGAATAAGTTACTTTAGGGATAACAGC
		GTGAT
KM101	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTGATATAAGCTGGA	1078
476	digueti	CTTGATTTGTGATTTAAGTGAAAAGCAGTTTTGTTTAACT
		TATATTTTGCTGGGGGGGCATAGATATAAAATGTAACTGT
		CTGTTAAATTTAATAGCGCTAACTAGTATTTGATCCTTCT
		TTGTGGATTAAAAGAATAAGTTACTTTAGGGATAACAGCG
		TGAT
KF383	Macrobrachium	GGGGGACGATAAGACCCTATAAAACTTAATATCAATTTGG	1079
310	tenellum	TTTGATTTGCGATTTTAGTGAAAAGTAGTCGTGCTTGACT
		GATATTTCGTTGGGGAGATGAAGATATAAATTGTAACTGT
		CTATTTAATTCAATAGCTATGGTTAGTGTGTGATCCTTCT
		TTGTGGATTAAGAGAGTAAGTTACTTTAGGGATAACAGCG
		TGAT
KP037	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTAATATAATTTTGA	1080
053	idae	TTTGATTTGCGATTTTCGGTGAAAAGTAGTCTTGTCGGGT
		TTATATTTCGTTGGGGAGATGTAGATATAATATGTAACTG
		TCTATTTAATTTAATAGCTATAACTAGTCTTTGATCCTTC
		TTTGTGGATTAAAAGAGTAAGTTACTTTAGGGATAACAGC
		GTGAT
JX025	Macrobrachium	GGGGGACGATAAGACCCTATAAAGCTTGACAATAACTTCG	1081
200	japonicum	TTATATTATAAATTGTTAGTATAACTTGATTTTAACGGGG
		GTTTGTTTCGTTGGGGCGACGGGAATATAATAAATAACTG
		TTCTTTTAAATATAATTACAAAAATGTTTGGTAAATAATT
		GATCCTCTATTAGAGATTAAAAGATTAAGTTACTTTAGGG
		ATAACAGCGTAAT
EU493	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTTATATAAGTTTAA	1082
150	formosense	TTTGGCTTACAATTTGAGTGAAAAGTAGCTCTATTAAGCT
		TATGTTTCGTTGGGGAGATGTAGATATAATGTGTAACTGT
		CTGTTTAATTTAATAATTATAATTAGTGTGTGATCCTTCT
		TTGTGGATTAAAAGTATAAGTTACTTTAGGGATAACAGCG
		TGAT
JQ390	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTAATATGGGTGTGG	1083
474	dienbienp	CTTGATTTGCGATTAGTAGGTGAAAAGTAATTTTGTTTGG
	huense	CTCATATTTTGTTGGGGAGATGTGGATATAATGTGTAACT
		GTCTGTTGAATTTAATAGTTATAATTAGTGTATGATCCTT
		CATTTGTGGATTAGGAGAATAAGTTACTTTAGGGATAACA
		GCGTGAT
EU493	Macrobrachium	GGGGGACGATAAGACCCTATAAAACTTTATATAAGTTTGG	1084
139	placidulum	TTTAGTCTATGATTTAGGTAAAAAGTGGTTTTGTCTGGTT
		TATATTTCGTTGGGGAGATGAGGATATAAAATGTAACTGT
		CTGTTTAAATTTAATAGTTTTAATTAGTTTGTGATCCCCC
		TTTGGGGATTAAAAGAGTAAGTTACTTTAGGGATAACAGC
		GTGAT
JQ362	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTTATATAAGAGTAA	1085
449	sintangense	CTTGGTTTATGATTTAGGTGAAAAGTAGCTTTGTTGGGTT
		TATATTTCGTTGGGGAGATGTAGATATAATATATAACTGT
		CTGTTTAATTTAATAGCTGTAGTTAGTGTGTGATCCTTCT
		TTGTGGATTAAAAGTATAAGTTACTTTAGGGATAACAGCG
		TGAT
JQ359	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTAATATAGGTTTGA	1086
750	niphanae	CTTAATTTTATAAAATGGGTGATAAAGTGATTTTGTTTAG
		TTTATATTTTGTTGGGGCGATATAGATATAATATGTAACT
		GTCTATTAAATTTAATAATTATAATTAGTTTTTGATCCTA
		CTTTGTGGATTGAAAGAATAAGTTACTTTAGGGATAACAG
		CGTGAT
KF383	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTGATATAAGTTTAG	1087
311	totonacum	TTTAATTTGTGATTTGAGTGAAGAGCAATTTTGTTAAATT
		TATATTTTGTTGGGGAGATGTAGATATAAAATATAACTGT
		CTATTGAATTTAATAGTAATAATTAATTTTTGATCCTTCT
		NTGAAGATTAGGAGAATAAGTTACTTTAGGGATAACCGCG
		CTGA
JF491	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTGATATAAGTTTAA	1088
346	tuxtlaense	TTTAATTTGTGATTTAAGTGAAGAACAATTTTGTTAAATT
		TATATTTTGTTGGGGAGATGTAGATATAAAATATAACTGT
		CTATTAAATTTAATAGTAATAATTAATTTTTGATCCTTCT
		GTGGGGATTAGGAGAATAAGTTACTTTAGGGATAACAGCG
		TGAT
KF383	Macrobrachium	ATGGGACGATAAGACCCTATAAAACTTAATATAAATTTAG	1089
313	vicconi	TTTAATTTGTGATTTAAGTGAAGAGCAGTTTTATTAAATT
		TATATTTTGTTGGGGAGATGTAGATATAAAGTGTAACTGT
		CTAATAAATTTAATAATAATAATTAATTTTTGATCCTTCC
		ATGAGGATTAGGAGAGTAAGTTACTTTAGGGATAACAGCG
		TGAT
KF383	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTGATATAAGTTTAA	1090
314	villalobosi	TTTAATTTGTGATTTAAGTGAAGAGCGATTTTGTTGAATT
		TATATTTTGTTGGGGAGATGTAGATATAAAGTGTAACTGT
		CTATTGAATTTAATAGTAATAATTAGTTTTTGATCCTTCT
		GTGGAGATTAAGAGAGTAAGTTACTTTAGGGATAACAGCG
		TGAT
KM101	Macrobrachium	GGGGGACGATAAGACCCTATAAAACTTAATATCTGTTTAG	1091
468	amazonicum	CTTGATTTGTGATTTTAGTGAAAAGTAGTTTTGTTAAGTT
		GATATTTCGTTGGGGAGATGAAGATATAAATTGTAACTGT
		CTATTATAATTTGATAATTATAGTTAGTGTGTGATCCTTC
		TTTGTGGATTAAAAGAATAAGTTACTTTAGGGATAACAGC
		GTAAT
JF774	Macrobrachium	AAGGGACGATAAGACCCTATAAAACTTGATATAGTTCAAG	1092
072	canarae	CTTGACTTGTGATTATGAGTAAAAAGTAGTTTTGTTTGGT
		TTATATTTTGTTGGGGAGATAAAGATATAATGTGTAACTG
		TCTATTGAATTTTATAGTATTAATTAGAATTTGATCCTTC
		TTTGAGGATTAAGAGAATAAGTTACTTTAGGGATAACAGC
		GTGAT
JQ362	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTTATATAAAAGTAA	1093
452	tratense	CTTGGTTTATGATTTAGGTGAAAAGTAGCTTTGTTGGGTT
		TATATTTCGTTGGGGAGATGTAGATATAATATATAACTGT
		CTGTTTAATTTAATAGCTGTAGTTAGTGTGTGATCCTTCT
		TTGTGGATTAAAAGTATAAGTTACTTTAGGGATAACAGCG
		TGAT
JQ362	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTAATATGGGTTTGG	1094
454	forcipatum	CTTGATTTGCGATTAGTGGGTGAAAAGTAATTTTGTTTAG
		CTCATATTTTGTTGGGGAGATGTGGATATAATGTGTAACT
		GTCTGTTGAATTTAATAGTTATGATTAGTGTGTGATCCTT
		CATTTGTGGATTAGGAGAATAAGTTACTTTAGGGATAACA
		GCGTGAT
JQ390	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTAATATAGGTTTAG	1095
475	hirsutimanus	CTTGATTTGCAATTATGGGTGAAAAGTGGTTTTGTCTAGG
		CTTATATTTTGTTGGGGAGATGTAGATATAATGTGTAACT
		GTCTGTTGAATTTAATAGTTATGATTAGTGTGTGATCCTT
		CATTTGTGGATTAAGAGAATAAGTTACTTTAGGGATAACA
		GCGTAAT
GU929	Macrobrachium	GGGGGACGATAAGACCCTATAAAATTTAATATAAGTTTAA	1096
445	borellii	TTTTATTTGTAATTTAAGTGAAAAATAGTTTAATTAAATT
		TATATTTCGTTGGGGAGATGTGGATATAAAGTGTAACTGT
		CTATAAAATTTAATAGTAATTATTAGTAAGTGATCCTTCT
		TTGTGGATTTGAAGAATAAGTTACTTTAGGGATAACAGCG
		TAAT
GU929	Macrobrachium	GGGGGACGATAAGACCCTATAAAACTTGATATAAATTTAG	1097
446	brasiliense	TTTTACTAGTGATTTAAGTGAAAAGTGGTTTAATTAAAGT
		TATATTTCGTTGGGGAGATGTAAATATAAATGTAACTGTT
		TATAAAATTAAATAATTATTGTTAGTAGGTGATCCTGCAT
		ATGCGGATTGAGAAAATAAGTTACTTTAGGGATAACAGCG
		TAAT
JF310	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTGATATAAATTTAG	1098
709	aemulum	TTTGATTTATGATGTGAGTGAAAAGTTGTTTTGCTAGGTT
		TATATTCCGTTGGGGCGATGAAGATATAAAATGTAACTGT
		CTATTTAATTTAATAGTATTAATTAGTACTTGATCCTTCT
		TTGGGGATTAAAAGAATAAGTTACTTTAGGGATAACAGCG
		TGAT
JF310	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTGATATAAGTTTTG	1099
717	handschini	CTTGATTTGTGATTTGTAGTGAAAAGTGGTTTCGTTTAAT
		TTATATTTCGTTGGGGAGATGTAGATATAATATGTAACTG
		TCTATTTAATTTAATAGTTATAATTAGTATTTGATCCTTC
		TTTGTGGATTAAGAGAATAAGTTACTTTAGGGATAACAGC
		GTGAT
JF310	Macrobrachium	ATGGGACGATAAGACCCTATAAAACTTAATATAAGTTGAT	1100
719	horstii	CTTGATTTGTGATTTGGGTGAAAAATGATTTTGCTTGGCT
		TATATTTCGTTGGGGAGATGAAGATATAAAATGTAACTGT
		CTGTGAAATTTAATAGTGTTAATTAGTTTTTGATCCTTCT
		TTGTGGATTAAGAGAATAAGTTACTTTAGGGATAACAGCG
		TGAT
GU929	Macrobrachium	GGGGGACGATAAGACCCTATAAAACTTAATATAAATTTGA	1101
447	ferreirai	TTTTATTTATAATTTTAGTGAAAAGAAGTTTTAATAAGTT
		TATATTTTGTTGGGGTGACGTGGATATAAAGTGTAACTGT
		CCGTAAAATTTAATAATTTTAATTAGTGTCTGATCTTTCT
		TATGGGGATTAAAAGAGTAAGTTACTTTAGGGATAACAGC
		GTGAT
DQ194	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTGATATGAGTTTAG	1102
911	lanatum	CTTGATTTGTGATTTAGGTGAAAGACGATCTTGTTTGGTT
		TATATTTCGTTGGGGAGATGTAGATATAATGTGTAACTGT
		CTATTTAATTTAATAAATATAGTTAGTATGTGATCCTTCA
		TTTGTGGATTAGAAGAATAAGTTACTTTAGGGATAACAGC
		GTGAT
JF310	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTGATATAAGTCTGA	1103
725	novaeholl	GGGGATTTGTGATTTCAGTAAAAAATAGTCCTATTAGGTA
	andiae	TATATTTCGTTGGGGAGATGTAGATATAATGTGTAACTGT
		CTTTAAAATTGAATAAATATAGTTAGTTTGTGATCCTGTA
		TTTACGGATTAAAAGAGTAAGTTACTTTAGGGATAACAGC
		GTAAT
EF588	Macrobrachium	ATGGGACGATAAGACCCTATAAAACTTAATATAAGTCTGA	1104
319	tolmerum	TTTAATTTGTGATTTAAGTGAAAATCGATTTTGTTTGACT
		TATATTTCGTTGGGGAGATGAAGATATAAAGTGTAACTGT
		CTGTTATAATTTAATAATATTAATTAGTTTTTGATCCTTC
		TTTGTGGATTAAAAGAATAAGTTACTTTAGGGATAACAGC
		GTAAT
HM352	Macrobrachium	AAGGGACGATAAGACCCTATAAAACTTAATATAAATTTTA	1105
432	iheringi	TTTTTTATGTGATTTAAGTGAAACTCAGTTTAGTTTGATT
		TATATTTCGTTGGGGAGATGTGGATATAAAGTGTAACTGT
		CTGCTGAATTTAATAATTATTGTTAGTGCGCGATCCTTCT
		TTGTGGGTTGTAAGAATAAGTTACTTTAGGGATAACAGCG
		TGAT
JF310	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTTATATAAAAGTAG	1106
728	saigonense	TTTGGTTTATAATTTAAGTAAAAAGTAACTTTGCTAAATT
		TATATTTCGTTGGGGAGATGTAGATATAATGTGTAACTGT
		CTGTTTAATTTGATAATTGTAGTTAGTATATGATCCTTCT
		TTGTGGATTAAAAGTATAAGTTACTTTAGGGATAACAGCG
		TGAT
HM352	Macrobrachium	GGGGGACGATAAGACCCTATAAAACTTGATATAGATTTAA	1107
428	nattereri	TTTTGCTTGTGATTTCAGTAGAGAGGGGTTTTGATTAGAT
		CATGTTTCGTTGGGGAGATGTGGATATAAAGTGTAACTGT
		CTGTAGAATTATATAATTATTATTAGTAGATGATCCTTCT
		TTGGGGATTAGAAGAATAAGTTACTTTAGGGATAACAGCG
		TAAT
HM352	Macrobrachium	GGGGGACGATAAGACCCTATAAAACTTAATATAAATTTAA	1108
430	aracamuni	TTTATTATATGATTTAAGTGAAAAGTAGTTTAAGGTAGTT
		TATATTTTGTTGGGGTGATATAGATATAAAATGTAACTGT
		CTGGAAAATTTAATAATTTTAATTAGTGTTTGATCCTTCT
		TTGTGGATTAAGAGAATAAGTTACTTTAGGGATAACAGCG
		TGAT
HM352	Macrobrachium	GGGGGACGATAAGACCCTGTAAAACTTAATATAAATTTGG	1109
433	inpa	TTTTATTTGTGATTTTAGTGAAAAGAAGTTTAAATTAGTT
		TATATTTTGTTGGGGTGACATAGATATAAAATGTAACTGT
		CTAAAAAATTTAATAATTTTAATTAGTGTTTGATCCTTCT
		TTGGGGATTTAAAGAGTAAGTTACTTTAGGGATAACAGCG
		TAAT
HM352	Macrobrachium	GGGGGACGATAAGACCCTATAAAACTTTATATAAATTTAA	1110
435	depressimanum	TTTAGTTTATGATATAGGTGAAAAATTGTTTTAATAATTT
		TATATTTTGTTGGGGAGACATAGATATAATATGTAACTGT
		TTGTTAAATTTAATAATTATAGTTAATATTTGATCCTTCC
		TTGAGGATTAAGAGAATAAGTTACTTTAGGGATAACAGCG
		TAAT
HM352	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTGATATAGGTTAAG	1111
446	surinamicum	TTTGATTTGTGATTTAAGTGAAGAGTGGTTTTGCTTGACT
		TATATTTTGCTGGGGCGGCATGGATATAAAGTGTAACTGT
		CTATTAAATTTAATAACATTAATTAGTTTCTGATCCTTCT
		TTGTGGATTAAAAGAATAAGTTACTTTAGGGATAACAGCG
		TGAT
HM352	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTGATATAAGTTGAA	1112
462	denticulatum	CTTGGTTTGTGATTTAGGTGAAAAATAGTCTTGCTTGACT
		TATATTTCGCTGGGGGGGCATAGATATAAAATGTAACTGT
		CTATTAAATTTAATAGTGCTAATTAGTCTTTGATCCTTCT
		CTGTGGATTAAAAGAATAAGTTACTTTAGGGATAACAGCG
		TGAT
GQ487	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTAATATAGGTTTAG	1113
497	pilimanus	TTTGATTCGCGATTGTGGGTGAAAAGTAGTGTTGCTAGTC
		CTATATTTTGTTGGGGCGATGCGGATAAAATCGGTAACTG
		TTTGTAAAATTTAATAATTATGATTGATCCTTCGTTTGTG
		TGGATTAGGAGAATAAGTTACTTTAGGGATAACAGCGTGA
		T
HM352	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTGATATTAGTTTAA	1114
464	ohione	TTTGATTTGCGATTTGAGTGAAGAGCGGTTTTATCTATAT
		TATATTTTGTTGGGGAGACATAGATATAAACAGTAACTGT
		CTATTAAATTTAATAGCGTTAGTTAGTACTTGATCCTTCT
		TTGTGGATTAAAAGAATAAGTTACTTTAGGGATAACAGCG
		TGAT
EF501	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTGATATAAGTTTAA	1115
999	hainanense	TTAACTTATAATTTAAGTGAAAAGTATTTTAAGTGGTTTT
		ATATTTTGTTGGGGAGATGTAGATATAATGTGTAACTGTT
		TATAAAATTTAATAATTATAATTAGTATGTGATCCTTCTT
		TGTGGATTAAAAGTATAAGTTACTTTAGGGATAACAGCGT
		AAT
EU493	Macrobrachium	GAGGGACGATAAGACCCTATAAAACTTGACATAATCCAAA	1116
138	lepidactyloides	TATGACTTGAGATTTGAGTGAAGATCGGTCCCGTTTGGCT
		TGCGTTTCGTTGGGGAGATGAAGATATAAAATGTAACTGT
		CTGTTTAAATTAAATAGTGTTCAGTAGTTTGTGATCCTTC
		TCTGTGGATTAAAAGAATAAGTTACTTTAGGGATAACAGC
		GTGAT
EU493	Macrobrachium	ATGGGACGATAAGACCCTATAAAACTTAATATGATCCGAC	1117
146	jaroense	CTTGATTTGTGATTTGAGTGAAAAGTGATCTTGTTTGGTT
		TATATTTCGTTGGGGAGATGAAGATATAAAATGTAACTGT
		CTATGAAATTTAATAGTGTTAATTAGTTTTTGATCCTTCT
		TTGTGGATTAAGAGAATAAGTTACTTTAGGGATAACAGCG
		TGAT
EU493	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTGATATAAGTTTTG	1118
145	esculentum	CTTGATTTGTGATTTATGGTGAAAAATGGTTTTGTTTAAC
		TTATATTTTGTTGGGGAGATGTAGATATAATATGTAACTG
		TCTATTTAATTTAATAATTATAATTAGTGTTTGATCCTTC
		TTTGTGGATTAAGAGAATAAGTTACTTTAGGGATAACAGC
		GTGAT
DQ194	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTAATATAAATTTAT	1119
910	maculatum	TTAATTTATGATTTAAGTGAAAAGTAATTTAAGTGGGTTT
		ATATTTTGTTGGGGAGATGTAGATATAATATGTAACTGTT
		TATTAAATTTAATAATTATAATTAGTGTGTGATCCTTCTT
		TGTGGATTAAAAGTATAAGTTACTTTAGGGATAACAGCGT
		GAT
DQ194	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTGATATAAATATAA	1120
912	edentatum	TTTAACTTGTGATTTAGGTAAAAAGTGGTTTTATTGGGTT
		TATATTTCGTTGGGGAGATGTGGATATAATATGTAACTGT
		CTGTTTAATTTAATAATTATGATTAGTGTGTGATCCTTCT
		TTGGGGATTAAGAGTTTAAGTTACTTTAGGGATAACAGCG
		TGAT
DQ194	Macrobrachium	GAGGGACGATAAGACCCTATAAAACTTTACATGAATTCAG	1121
926	grandimanus	TTTGATTCTGTGAGCTGATGTGAAAAACAATCCTGCTTAA
		TTCATGTTTCGTTGGGGAGACGAATATATAATTTGTAACT
		GTCTGTTTAATTAAATAGTGATAGTTAGTATCTGATCCCT
		CTATGAGGATTAAAAGAATAAGTTACTTTAGGGATAACAG
		CGTGAT
DQ194	Macrobrachium	GAGGGACGATAAGACCCTATAAAACTTAATACAGGTTTGA	1122
947	malayanum	TTAGGTTACGATTTTAGTATAAAGTGGTATTATTAAGTTT
		GTATTTCGTTGGGGCGATGAAGATATAATTTGTAACTGTC
		TGTTAAATATAATAGTTATTGCTAGAATTTGATCCTGCTT
		TGTGGATTATAAGAATAAGTTACTTTAGGGATAACAGCGT
		AAT
DQ194	Macrobrachium	ATGGGACGATAAGACCCTATAAAACTTGATATAGGTTTAG	1123
949	meridionale	CTTGGTTTGTGATGTAAGTGAAAAGTTGCTTTGCTTGGCT
		TATATTTCGTTGGGGAGATGAAGATATAAAGTGTAACTGT
		CTATTAAATTTAATAGTGCTAATTAGTGTTTGATCCTTCT
		TTGTGGATTAAAAGAATAAGTTACTTTAGGGATAACAGCG
		TGAT
DQ194	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTAATATAAGTTTTG	1124
953	neglectum	CTTGATTTATGATGTGTGTGAAAAGTAGTTTTGTTTGGTT
		TATATTTTGTTGGGGAGATATAGATATAATTTGTAACTGT
		CTATTTAATTTAATAGTTATTGTTAGTGTGTGATCCTTCT
		TTGTGGATTAAAAGAATAAGTTACTTTAGGGATAACAGCG
		TGAT
DQ194	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTGATATAGGTAAGG	1125
954	platycheles	CTTGGTTTGTAATTGTAGGTTAAAAGTTGTTTTGCTTGGC
		TTATATTTTGTTGGGGAGATGTAGATATAATGTGTAACTG
		TCTGTTGAATTTAATAGTTATAATTAGTGTGTGATCCTTC
		ATTTGTGGATTAGGAGAATAAGTTACTTTAGGGATAACAG
		CGTGAT
DQ194	Macrobrachium	GAGGGACGATAAGACCCTATAAAACTTGATATAAATTTAT	1126
950	naso	CTTAATTTGTGATGTGAGTTAAAAGTAATTTTGTTTAAAT
		TATATTTCGTTGGGGAGATGAAGATATAACATGTAACTGT
		CTGATTAATTTAATAATCATAATTAGTATTTGATCCTTCT
		TTGTGGATTTTAAGAAAAAGTTACTTTAGGGATAACAGCG
		TGAT
DQ194	Macrobrachium	GGGGGACGATAAGACCCTATAAAACTTTATATAAGTTTGG	1127
957	placidum	TTTAGTCTATGATTTAGGTGAAAAGTGGTTTTGTCTAGTT
		TATATTTCGTTGGGGAGATGAGGATATAAAATGTAACTGT
		CTGTTTTAATTTAATAGTTCTAACTAGTTTGTGATCCTTC
		TTTGGGGATTAAAAGAATAAGTTACTTTAGGGATAACAGC
		GTGAT
DQ194	Macrobrachium	ATGGGACGATAAGACCCTATAAAACTTAATATAGGTTTAG	1128
960	yui	TTTAATTTGTAATTTACGTAAAAAGGGGTTTTATTAAATT
		TATATTTCGTTGGGGAGATGTGGATATAATTTGTAACTGT
		CTGTAGAATTTAATAATTATAGTTAGAGTTTGATCCTTCG
		TTGGGGATTAGTAGAATAAGTTACTTTAGGGATAACAGCG
		TAAT
DQ194	Macrobrachium	GGGGGACGATAAGACCCTATAAAACTTTATATAAATTTAA	1129
961	shokitai	TTTAACTTGTGAGTTAAGTGAAAAGTAGTTTTGTTGAGTT
		TATATTTCGTTGGGGAGATGTAGATATAATATGTAACTGT
		CTATTTAATTTAATAATAATGATTAGTGTGTGATCCTTCT
		TTGTGGATTAAAAGTTTAAGTTACTTTAGGGATAACAGCG
		TGAT
AY377	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTGATATGAGTGAAG	1130
852	sundaicum	TTTAGTTTGTGGTATAGGTGGAAAGTAATTAAATTTAGTT
		TATATTTTGTTGGGGTGATGTAGATATAATGTGTAACTGT
		CTGTTAGAATTTAATAATTATAATTAGTGTTTGATCCTGC
		TTTGCGGATTAAAAGAATAAGTTACTTTAGGGATAACAGC
		GTAAT
AY858	Macrobrachium	GTGGGACGATAAGACCCTATAAAACTTGACACAGACTTAG	1131
836	rude	CTGAATTTGTGATTTTAGTAAAAAGTGATTCTGCGAAGCC
		TTTGTTTCGTTGGGGAGATGTAGATATAACTTGTAACTGT
		CTATAAAATTAAATAACTGTGATTAGTTGTTGATCCTTCA
		CTTGTGGATTAAAAGAATAAGTTACTTTAGGGATAACAGC
		GTGAT
AY730	Macrobrachium	AAGGGACGATAAGACCCTATAAAACTTGATATAGTTTGAA	1132
051	lamarrei	CTTAACTTGCGGTTTAAGTGAAAAGTAGTTTTGTTTGTTT
		TATATTTTGTTGGGGAGATAGAGATATAATGTGTAACTGT
		CTATTGAATTTTATAGTTTTAATTAGTATTTGATCCTTCT
		TTGGGGATTAAGAGAGTAAGTTACTTTAGGGATAACAGCG
		TGAT
AY730	Macrobrachium	GAGGGACGATAAGACCCTATAAAACTTAATATAGTTTAAA	1133
052	sankolli	TTTAGCTTTCAACTTAAGTAAAAAGTAGTTTTGTTTAGTT
		TATATTTTGTTGGGGAGATGAAGATATAATGTGTAACTGT
		CTATTGAATTTTATAGTGTTAATTAGTATTTGATCCTTCT
		TTGGGGATTAAGAGAATAAGTTACTTTAGGGATAACAGCG
		TGAT
AY730	Macrobrachium	GGGGGACGATAAGACCCTATAAAACTTTATATAATCTAAA	1134
054	gangeticum	CTTGACTTGCGATTTAAGTGAAAAGTAGTTTTGTTCGGTT
		TATATTTCGTTGGGGAGATGAAGATATAATTTGTAACTGT
		CTATTGAATTTTATAGTATTAAATTAGTATTTGATCCTTC
		TTTGAGGATTAGGAGAATAAGTTACTTTAGGGATAACAGC
		GTGAT
KX162	Trachysal	GGGGGACGATAAGACCCTATAAAGCTTTACAGTTATTTAG	1135
763	ambria	TTGAATTATAAATTGTTAGTATAAAGTTAATTTAACTAAT
	palaestinensis	GTTTGTTTCGTTGGGGTGACGAGAATATAATTTTGTAATT
		GTTCTTTTATGTTTTATTACAATGATTTTTGGTATAAGAA
		TGATCCTTTATTAAAGATTAAAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
NC_01	Euphausia	AAGTGACGATAAGACCCTATAAAACTTGATAAATAAAATT	1136
6184	pacifica	AAAAAAGCGTATTAGTTTATTAAAACTTTTTTTCTGGAAT
		TTATTTTATTGGGGCGATAAAAATATAAAAAGTAACTGTT
		TTTAAAATTTTAATGGTTAATAACTAAATTAAATAAATGA
		TCCTTTAATAAAGATTAAAAGATTAAGTTACTTTAGGGAT
		AACAGCGTAAT
GQ890	Euphausia	AAGTGACGATAAGACCCTATAAAACTTAATAAGAAAGATA	1137
518	lucens	AAAAAAGTGCAGTAGTTAATTAAAACTTTTTTTATTAAAC
		TTATTTTATTGGGGCGATAAAAATGTAAAAAGTAACTGTT
		TTTAACTTATTAATGATTATAGTCAGAAAGATTGAATGAT
		CCTTTACTAAAGATTATAAGATTAAGTTACTTTAGGGATA
		ACAGCGTAAT
MG67	Euphausia	AAGTGACGATAAGACCCTATAAAACTTAATAAGAAAGATA	1138
7874	vallentini	AAAAAAGTGTAGTAGTTAATTAAAACTTTTTTTGTTAAAC
		TTATTTTATTGGGGCGATAAAAATGTAAAAAGTAACTGTT
		TTTAACTTCTTAATGATTATAGTCAGTAAGATTGAATGAT
		CCTTTAGTAAAGATTATAAGATTAAGTTACTTTAGGGATA
		ACAGCGTAAT
DQ356	Euphausia	AAGTGACGATAAGACCCTATAAAACTTGATAAATAAAATT	1139
240	triacantha	AAAAAAGGATATTAGTTAAATTAAAACTTTTTTTGTGGAA
		TTTATTTTATTGGGGCGATAAAAATATAATTAGTAACTGT
		TTTTAATATTTTAATGATTAATAATCAGAGTTTAGTAAAT
		GATCCTCTAATAGAGATTATAAGATTAAGTTACTTTAGGG
		ATAACAGCGTGAT
AF177	Euphausia	AAGTGACGATAAGACCCTATAAAACTTGATAAATAAAATT	1140
180	longirostris	AAAAAATGATATTAGTTAATTTAAACTTTTTTTTATGGTA
		TTTATTTTATTGGGGCGATAAAAATATAATAAGTAACTGT
		TTTTCATATTTTAATGATAAATAATCAGAGTAAATAAATG
		ATCCTTTAATAAAGATTGTAAGATTAAGTTACTTTAGGGA
		TAACAGCGTAAT
AF177	Euphausia	AAGTGACGATAAGACCCTATAAAACTTTATAAATAAAATA	1141
178	similis	AAAAAAAGATATTAGTTGATTGAAACTTTTTTTTATGGAA
		TTTATTTTATTGGGGCGATAAAAATATAATAAGTAACTGT
		TTTTAATATTATAATGATTAATAGTCAAAATATAAATAAA
		TGATCCTTTAATAAAGATTGCAAGATTAAGTTACTTTAGG
		GATAACAGCGTAAT
MG67	Euphausia	AAGTGACGATAAGACCCTATAAAACTTTATAAATTAAACT	1142
7872	recurve	AAAAAAAAATATTAGTTAATTGAAATTTTTTATTGTTGAA
		TTTATTTTATTGGGGCGATACAAATATAATAAGTAACTGT
		TTTTCATATTTAAATGATAAATAATCATGAACAATTAAAT
		GATCCTTTAATAAAGATTGTAAGATTAAGTTACTTTAGGG
		ATAACAGCGTAAT
MG67	Euphausia	AAGTGACGATAAGACCCTATAAAACTTTATAAACTAAACT	1143
7869	krohni	AAAAAAAAATATTAGTTAATTGAAATTTTTTATTGTTGAA
		TTTATTTTATTGGGGCGATTAAAATATAATAAGTAACTGT
		TTTTTATATTTAAATGATAATTAGTCATGAGTAATTAAAT
		GATCCTTTAGTAAAGATTGTAAGATTAAGTTACTTTAGGG
		ATAACAGCGTAAT
DQ356	Euphausia	AAGTGACGATAAGACCCTATAAAACTTAATAAGGAAAACA	1144
239	frigida	AAAAAAGTGCACTAGTTTATTAAAGCTTCTCTTGTTAAAC
		TTATTTTATTGGGGCGATAAAAATGTAACAAGTAACTGTT
		TTTAACTTCTTAATGATTATAGTCAGTAAGATTGAATGAT
		CCTTTAATAAAGATTATAAGATTAAGTTACTTTAGGGATA
		ACAGCGTAAT
MG67	Euphausia	AAGTGACGATAAGACCCTATAAAACTTGATAAATAAAGTT	1145
7867	gibboides	AAAAAAAGATATTAGTTAATTGAAACTTTTTTTTGTGGTG
		TTTATTTTATTGGGGCGATTAAAATATAATAAGTAACTGT
		TTTTTACATTTTTATGATAAATAGTCAAGACAAATAAATG
		ATCCTTTATTAGAGATTATAAGATTAAGTTACTTTAGGGA
		TAACAGCGTAAT
DQ079	Euphausia	AGGGGACGATAAGACCCTATAAAACTTTATGCACGACATG	1146
713	eximia	TCCTGTCTTTGAATTATATCCAAATATTGGTTGGCTAAAA
		GTGCATTCCGTTGGGGAGACGTTGATATAAGCTGTAACTG
		TCTTATTAAATAGAATAATTATTATTATAATTTGATCCTT
		CTTTGTGGATAAAAAGAATAAGTTACTTTAGGGATAACAG
		CGTAAT
MG67	Euphausia	AAGTGACGATAAGACCCTATAAAACTTTATAAATTAAACT	1147
7865	americana	AAAAAAAAATATTAGTTAATTGAAATTTTTTATTGTTAAA
		TTTATTTTATTGGGGCGATACAAATATATTAAGTAACTGT
		TTTTTATATTTAAATGATAAATAATCATAATTAATTAAAT
		GATCCTCTATTAGAGATTGAAAGATTAAGTTACTTTAGGG
		ATAACAGCGTAAT
MG67	Euphausia	AAGTGACGATAAGACCCTATAAAACTTGATAAATAATATT	1148
7873	tenera	AAAAATGAGCATTAGTTAGCTAAATCTTTTTTTGTAAAGT
		TTATTTTATTGGGGCGATAAAAATATAAATAGTAACTGTT
		TTTAAAATTTTAATGGTAGTAAACAAAAATATTAAATGAT
		CCTTTAATAAAGATTATAAGATTAAGTTACTTTAGGGATA
		ACAGCGTAAT
MG67	Euphausia	AAGTGACGATAAGACCCTATAAAGCTTAATAAACAAAACT	1149
7871	pseudogibba	AAAAATAAATATTAGTTAATTAAATTTTTTTTTGTGTAGT
		TTATTTTATTGGGGCGATAAAAATATAAATAGTAACTGTT
		TTTAATATTTTAATGATAAATAATCAAAAATTAAATGATC
		CTTTAATAAAGATTATAAGATTAAGCTACTTTAGGGATAA
		CAGCGTAAT
MG67	Euphausia	AAGTGACGATAAGACCCTATAAAACTTGATAAATAAAATT	1150
7868	hemigibba	AAAAATAAATATTAGTTAATTAAATTTTTTTTTGTGAAGT
		TTATTTTATTGGGGCGATAAAAATATAAATAGTAACTGTT
		TTTAATATTTTAATGATAATAGTCAAAAATTAAATGATCC
		TTTAATAAAGATTATAAGATTAAGTTACTTTAGGGATAAC
		AGCGTGAT
MG67	Euphausia	AAGTGACGATAAGACCCTATAAAACTTTATAAATTTAAAT	1151
7866	brevis	TAAAAAAAGTATTAGTAGTTTAAAATTTTTTATTGTTAAA
		TTTATTTTATTGGGGCGATACAAATATAATAAATAACTGT
		TTATATATTTAAATGACGAATAATCATGAATAATTAAATG
		ATCCTTTAATAAAGATTGTAAGATTAAGTTACTTTAGGGA
		TAACAGCGTAAT
KF182	Hymenopenaeus	AAGGGACGATAAGACCCTATAAAGCTTTACAATAAATAAA	1152
582	debilis	TTAAATTATAAATTATTAGTTTAACTTAATTTAATTTGTG
		TTTGTTTCGTTGGGGCGACGAGAATATAATAATAACTGTT
		CTTTTATAAAATTAACAAAATTAATTGGATAATAATTGAT
		CCTTTAATAAAGATTAAAAGATTAAGTTACTTTAGGGATA
		ACAGCGTAAT
KC515	Nematopalaemon	GTGGGACGATAAGACCCTATAAAACTTTATATAAATGGAT	1153
042	tenuipes	TGAGCCTGTGATTTATCTGGTAAAGCGGGCTGGGTTTTTT
		TATATTTTGTTGGGGCGACATTGATAAAATTTGTTGGTAA
		CTGTTCTGTGAATTTTATAATGGTGGTTAGGTAAAGATCC
		TTTTATAGGGATTAAGAGTTTAAGTTACTTTAGGGATAAC
		AGCGTAAT

Primer Systems

Primers were designed manually on a multiple DNA sequence alignment of the mitochondrial 16S rDNA of approximately 90 bivalve species using the CLC Genomics Workbench 10.1.1. The designed primers were checked for their physical and structural properties (e.g. formation of dimers, secondary structure, annealing temperature) using Oligo Calc, the OligoAnalyzer Tool provided by Integrated DNA Technologies (IDT) and the online product descriptions from TIB Molbiol (Berlin, Germany). The primers, listed in Table 5, were synthesized by TIB Molbiol. Table 5 also shows the Illumina overhang adapter sequences which were linked to the target-specific primers.

TABLE 5
		SEQ ID
Name	Sequence 5′ → 3′	NO:
mussel
For_Mu	CCTTTTGCATAAGGGTTTTTCAAG	14
Rev1_Mu	CGAATAGTATCTAGCCGCCATTC	24
Rev2_Mu	GCAAATAGCATATCACTTTCACCTC	25
scallop
For_Mu	TGCTAAGGTAGCTAAATTATGGCC	13
Rev_Mu	CTTCACGGGGTCTTCTCGTC	23
oyster
For_Mu	GGTAGCGAAATTCCTTGCCTT	12
Rev_Mu	AAAGTTGCACGGGGTCTT	22
overhang
Forward	TCGTCGGCAGCGTCAGATGTG	26
	TATAAGAGACAG
Reverse	GTCTCGTGGGCTCGGAGATGT	27
	GTATAAGAGACAG

All in-house designed primers were tested in real-time PCR with DNA extracted from the eleven reference samples, comprising three mussel, six scallop, and two oyster species. During optimization, the following PCR conditions/parameters were kept constant and applied as published previously: DNA input amount of 12.5 ng, ‘ready-to-use’ HotStarTaq Master Mix Kit, annealing temperature (62° C.), 25 cycles (Dobrovolny, S. et al., 2019). Only one variable, the addition of magnesium chloride solution, was modified (addition of 1.5 mM or 3 mM MgCl2). Real-time PCR reactions were carried out using a fluorescent intercalating dye (EvaGreen® (20× in water)) in strip tubes or in 96-well plates, depending on the thermocycler used, the Rotor-Gene Q (Qiagen) or the LightCycler® 480 System (Roche, Penzberg, Germany), respectively. The total volume of the PCR reactions was 25 μL, consisting of 22.5 μL reaction mix and 2.5 μL of template DNA (diluted DNA samples (5 ng/μL)) or water as negative control. In the reaction mix, the HotStarTaq Master Mix Kit (Qiagen) was used at a final concentration of 1× and the final concentration of primers was 0.2 μM, expect the forward primer for mussels (0.4 μM). PCR cycling conditions were 15 min initial denaturation at 95° C., 25 cycles at 95° C., 62° C. and 72° C. for 30 s each, and a final elongation for 10 min at 72° C. The primer pairs for mussels, scallop and oysters with and without Illumina overhang adapter sequences were first used in singleplex PCR assays. Then, the seven primers (three forward and four reverse primers) listed in Table 5 were combined in a triplex assay. The identity of the PCR products was confirmed by melting curve analysis and/or agarose gel electrophoresis.

Library Preparation and NGS

In general, samples were sequenced by using either the MiSeq® or the iSeq® platform (Illumina, San Diego, California, USA). DNA extracts were diluted to a DNA concentration of 5 ng/μL. Extracts with a DNA concentration <5 ng/μL were used undiluted.

DNA library preparation was performed according to Dobrovolny, S. et al. (2019) with minor modifications (excess of magnesium chloride, final concentration 3 mM; average library size: 278 bp; diluted libraries of the iSeq© system were denatured automatically on the instrument).

For the MiSeq© and iSeq® platform, the DNA library was adjusted to 4 nM and 1 nM, respectively, with 10 mM Tris-HCL, pH 8.6. After pooling individual DNA libraries (5 μL MiSeq®, 7 μL iSeq®), the DNA concentration was determined using Qubit© 2.0 fluorimeter.

All sequencing runs were performed using either the MiSeq® Reagent Kit v2 (300-cycles) or the iSeq® 100 i1 Reagent v2 (300-cycles) with a final loading concentration of 8 μM. The pooled DNA libraries contained a 5% PhiX spike-in.

Reference samples were sequenced in six replicates (three sequencing runs, two replicates per run), while DNA extract mixtures were sequenced in nine replicates (three sequencing runs, three replicates per run). Commercial food products (O5-Mi86, above the double line in Table 9) were sequenced in one replicate (three sequencing runs, one replicate per run) and food products (O1-S61, below the double line in Table 9) were sequenced at least once by using either the MiSeq® or the iSeq® platform.

NGS Data Analysis Using Galaxy

After paired-end sequencing, the resulting FastQ files, generated by the instrument control software, were used as input for data analysis. The sequencing output in FastQ format was then processed with an analysis pipeline as described previously by using Galaxy (Version 19.01) (Dobrovolny, S. et al., 2019). The published amplicon analysis workflow was modified as follows: the target-specific primers were trimmed from both ends using the tool Cutadapt and reads were not clustered into Operational Taxonomic Units (OTUs) (Martin, M., 2011). Completely identical sequences were collapsed into a single representative sequence with the tool Dereplicate to minimize the number of reads, and then compared against a customized database for bivalves using BLASTn (Edgar, R. C., 2010).

Results

Barcode Region and Primer Systems

The aim was to develop a DNA metabarcoding method allowing the differentiation between species belonging to the bivalves Pectinidae, Ostreidae, and Mytilidae. To be applicable in routine analysis, the method should allow identifying the economically most important bivalve species in raw and highly processed food products.

Three primer sets were designed, one for each of the three bivalves, Pectinidae, Ostreidae, and Mytilidae. Primer pairs consisting of one forward and one reverse primer allowed amplifying the DNA barcode region in scallop and oyster species (Table 5). However, in case of mussels, a primer set consisting of one forward primer and two reverse primers (Table 5) was necessary to obtain a PCR product for the mussel species listed in Table 3. With the three primer sets, PCR products differing in at least one base should be obtained for all bivalve species of interest.

Further sequence alignments indicated that the DNA barcode region selected does not allow distinguishing between all species of the following genera: Chlamys spp., Euvola spp., Pecten spp., Crassostrea spp., Magallana spp., Ostrea spp. and Saccostrea spp. These species cannot be distinguished: Chlamys rubida and Chlamys behringiana; Pecten albicans, Pecten fumatus, Pecten jacobaeus, Pecten keppelianus, Pecten novaezelandiae, Pecten sucicostatus, Crassostrea hongkongensis and Crassostrea rivularis; Ostrea angelica and Ostrea lurida; as well as Ostrea permollis and Ostrea puelchana; and Saccostrea echinata, Saccostrea glomerata and Saccostrea mytiloides. In addition, two mussel species, Mytilus platensis and Mytilus chilensis, can also not be distinguished (for Mytilus platensis only one DNA sequence entry was in the public databases provided by NCBI). However, differentiation at the genus level (Chlamys spp., Pecten spp., Crassostrea spp. Ostrea spp., Mytilus spp.) is sufficient according to the “Codex Alimentarius Austriacus” chapter B35 (see BMGF-75210/0026-II/B/13/2017, 2007).

When the primers were tested in singleplex PCR assays, for each of the reference samples a PCR product of about 150 bp in length was obtained by increasing the concentration of the forward primer for mussels to 0.4 μM and keeping the concentration of the other six primers at 0.2 μM. In addition, it was tested whether the seven primers could be combined to a triplex system. PCR products for the bivalve species of interest were obtained in one and the same vial by increasing the magnesium chloride concentration to a final concentration of 3 mM. Thus, it was achieved to perform the triplex PCR assay.

Library Preparation, Pooling of Libraries and Sequencing

Library preparation, pooling of 5 μL or 7 μL per normalized DNA library and the sequencing process were performed as described previously (Dobrovolny, S. et al., 2019). Sequencing runs were performed in triplicates and the average run metrics were as follows: cluster density (969 K/mm²) on the flow cell, cluster passing filter (70.22%) as well as the Q-scores (Q30) for read1 and read2 were 92.6% and 89.28%, respectively. 5.02% of the total reads were identified as PhiX control sequences with an error rate of 1.49%.

Analysis of DNA Extracts from Reference Samples

PCR products were obtained for each of the reference samples, comprising three mussel samples (M12, M13 and M27, Table 2), six scallop samples (S42, S46, S47, S49, S50, and S55, Table 2) and two oyster samples (O2 and O3, Table 2). Sequencing results for reference samples are summarized in Table 6.

Table 6 shows results for DNA extracts from reference samples. The numbers are mean values (n=6, three sequencing runs, 2 replicates per run). The table shows the mean values of the total number of raw reads, the total number of reads that passed the analysis pipeline in Galaxy as well as the total number and percentage of reads that were assigned correctly to the eleven species (based on 6 replicates).

No significant differences were observed in the total number of reads (before data analysis process) between these species, except Mytilus galloprovincialis (162843), Perna canaliculus (169631), and Mytilus edulis (134500). With the exception of Perna canaliculus, >70% of the reads passed the amplicon analysis workflow. All three mussel species, six scallop species and two oyster species could be identified with this workflow at high rate (>97.5%), except Mytilus edulis.

TABLE 6
				Total
	Declaration on		Total	number of	Number	Percentage
	the product:		number	reads	of reads	of reads
Sample	Scientific/Latin	Species	of raw	passing the	assigned	assigned
ID	name	identified1	reads	workflow	correctly	correctly %
O2	Ostrea edulis	Ostrea edulis	78559	63491	61875	97.46
O3	Crassostrea	Magallana	76143	65389	64125	98.07
	gigas	gigas
M12	Mytilus	Mytilus	162843	150678	149315	99.09
	galloprovincialis	galloprovincialis
M13	Perna	Perna	169631	104861	103350	98.56
	canaliculus	canaliculus
M27	Mytilus edulis	Mytilus edulis	134500	120686	105024	87.02
S42	Mizuhopecten	Mizuhopecten	75927	58069	57058	98.26
	yessoensis	yessoensis
S46	Pecten	Pecten spp.	79472	61484	60514	98.42
	jacobaeus
S47	Zygochlamys	Zygochlamys	77747	59245	58429	98.62
	patagonica	patagonica
S49	Placopecten	Placopecten	79131	61531	60886	98.95
	magellanicus	magellanicus
S50	Argopecten	Argopecten	77383	55455	54588	98.44
	purpuratus	purpuratus
S55	Aequipecten	Aequipecten	79141	56064	55800	99.53
	opercularis	opercularis

Analysis of DNA Extract Mixtures

Six ternary DNA extract mixtures were analysed containing the DNA of the three bivalve species Pectinidae, Ostreidae, and Mytilidae in ratios of 98.0:1.5:0.5 (v/v/v). The composition of the DNA extract mixtures and the results obtained by DNA metabarcoding are summarized in Table 7. Table 7 shows the results for ternary DNA extract mixtures representing the three bivalve species of interest. DNA extracts (5 ng/μL) were mixed in a ratio of 98.0:1.5:0.5 (v/v/v). Numbers are mean values (n=9, three sequencing runs, 3 replicates per run). The total number of raw reads ranged from 80856 to 147443 and the reads that passed the workflow were in the range from 65961 to 147196. For the main components (98.0%), the number of reads assigned correctly ranged from 62434 to 140147. In addition, both minor components (1.5% and 0.5%) could be identified. The number of reads assigned correctly was in the range from 1710 to 4356 and 555 to 1478, respectively.

	TABLE 7
		Total
	Total	number
Proportion	number	of reads	Reads assigned correctly
Species 1	Species 2	Species 3	of raw	passing the	Species		Species		Species
(98%)	(1.5%)	(0.5%)	reads	workflow	1	(%)	2	(%)	3	(%)
Crassostrea	Mytilus	Pecten spp.	80856	69506	66430	95.57	1985	2.86	658	0.95
gigas	galloprovincialis
Crassostrea	Pecten spp.	Mytilus	89552	76669	73114	95.36	2182	2.85	894	1.17
gigas		galloprovincialis
Pecten spp.	Crassostrea	Mytilus	88971	69682	66291	95.13	1710	2.45	922	1.32
	gigas	galloprovincialis
Pecten spp.	Mytilus	Crassostrea	84085	65961	62434	94.65	2281	3.46	555	0.84
	galloprovincialis	gigas
Mytilus	Pecten spp.	Crassostrea	159737	147196	140147	95.21	4356	2.96	1478	1.00
galloprovincialis		gigas
Mytilus	Crassostrea	Pecten spp.	147443	136629	130986	95.87	3304	2.42	1156	0.85
galloprovincialis	gigas

In addition, three DNA extract mixtures containing DNA from species belonging to one bivalve species were analysed (Table 8). Table 8 shows the results for DNA extract mixtures representing one bivalve species. DNA from minor components was present in a proportion of 1% each. In addition, results for a DNA extract mixture containing DNA from a squid species (Sepiella inermis) as main component (97.0%) and DNA from three bivalve species (1% each) is shown. Numbers are mean values (n=9, three sequencing runs, 3 replicates per run). The mixtures contained DNA from a scallop or mussel species, respectively. DNA from other bivalve species was present in a proportion of 1.0% each. Both species being present as main components, Placopecten magellanicus and Perna canaliculus, could be identified, with the number of reads assigned correctly ranging from 58156 to 77483. However, quite different numbers of reads were correctly assigned to the minor components, ranging from 626 (Mizuhopecten yessoensis) to 50391 (Mytilus galloprovincialis).

A further DNA extract mixture was analysed containing DNA from the squid species Sepiella inermis as main component (97.0%) and DNA from the bivalve species Placopecten magellanicus, Ostrea edulis and Perna canaliculus as minor components (1.0% each). As expected, in this mixture, the main component could not be detected because the primers are not suitable for amplification of the target region for Sepiella inermis. 31424, 28162, and 806 reads, respectively, were assigned correctly to the three bivalve species.

TABLE 8
		Total	Total number
	Minor	number	of reads	Reads	Percentage of
Main	component	of raw	passed the	assigned	reads assigned
component	(1.0% each)	reads	workflow	correctly	correctly (%)
Placopecten		83526*	65446	58156	88.86
magellanicus
	Mizuhopecten			626	0.96
	yessoensis
	Pecten spp.			817	1.25
	Zygochlamys			4534	6.93
	patagonica
	Argopecten			663	1.01
	purpuratus
	Aequipecten			35	0.05
	opercularis
Placopecten		84282*	66691	63628	95.41
magellanicus
	Magallana gigas			1298	1.95
	Ostrea edulis			1088	1.63
Perna		179227*	128882	77483	60.12
canaliculus
	Mytilus			50391	39.10
	galloprovincialis
	Mytilus edulis			824	0.64
Sepiella inermis		78467	61415
	Placopecten			31424	51.17
	magellanicus
	Ostrea edulis			28162	45.86
	Perna canaliculus			806	1.31
*Number of values (n = 6, three sequencing runs, 2 replicates per run)

Analysis of Commercial Seafood Samples

In order to investigate the applicability of the DNA metabarcoding method to foodstuffs, DNA extracts from 75 commercial food products were analysed. According to declaration, eight samples (O1 and O4-O10) contained oyster species, 27 samples (M11, M14-M26, and M28-M40) mussel species, 15 samples (S41, S43-45, S48, S51-S55, and S56-S61) scallop species and 25 samples (Mi62-Mi86) were mixed-species seafood products (Table 9). Table 9 shows the results obtained for commercial seafood samples. Samples listed above the double line were sequenced with the MiSeq® (three sequencing runs, 1 replicate per run, numbers are mean values); samples listed below the double line were sequenced either with the MiSeq® or the iSeq®. The ingredient list of 30 out of 75 food products did not give any information on the bivalve species. 39 samples were declared to contain “Crassostrea gigas”, “Mytilus galloprovincialis”, “Mytilus chilensis”, “Mytilus edulis”, “Zygochlamys patagonica”, “Chlamys opercularis”, “Placopecten magellanicus”, “Pecten maximus”, or “Patinopecten yessoensis”. The remaining samples (n=6) were labelled with “Mytilus spp.” and “Pecten spp.”.

Three oyster species (Saccostrea malabonensis, Magallana bilineata, Magallana gigas), three mussel species (Mytilus galloprovincialis, Mytilus edulis, Perna canaliculus), and three scallop species (Aequipecten opercularis, Placopecten magellanicus, Pecten spp.) were detected in food products (O4, O8, M17, M19, M23, M25, M26, M28, M31, M32, M35, M38-M40, S51, S56, S58-S60, Mi63, Mi65, Mi70, Mi71, Mi73-Mi76, Mi81, Mi83, Mi85, and Mi86) although they were not declared on the label. In four (O1 and O5-O7) out of eight oyster products declared to contain “Crassostrea gigas”, this species was identified.

In 21 products (M11, M16, M18, M21, M24, M33-M35, M37, M39, M40, Mi62, Mi64, Mi66, Mi69, Mi72, Mi77-Mi80, and Mi84), the mussel species Mytilus galloprovincialis was detected, indicating that it is one of the most commonly used bivalve species. In addition to Mytilus galloprovincialis, Mytilus edulis was identified (percentage of reads assigned correctly >1%) in 13 products (M24, M33, M34, M39, Mi62, Mi64, Mi66, Mi69, Mi72, Mi78-Mi80, and Mi84). However, in none of the products declared to contain Mytilus chilensis, Mytilus chilensis was detected. In four products, Mytilus edulis could not be detected although it was declared on the label.

Placopecten magellanicus and Patinopecten yessoensis were listed as ingredients in samples S41, S45, S54, and S57 and samples S48, S52, and S61, respectively. The results confirmed the presence of these two species, except for sample S57. In sample S43, declared to contain Pecten maximus, the species Mizuhopecten yessoensis was detected. In sample S44 and S53, declared as Pecten spp., the species Mizuhopecten yessoensis was also analysed.

Thus, the method of the invention allows to specifically control food declaration.

	TABLE 9
	Total
	Declaration on the product		number of		Percentage
		Product		Total	reads	Reads	of reads
Sample		description		number of	passed the	assigned	assigned
ID	Scientific/Latin name	[Eng]	Species identified	raw reads	workflow	correctly	correctly %
O5	Crassostrea gigas	Oyster in sunflower oil	Magallana gigas	769301	65728	64369	97.93
O6	Crassostrea gigas	Oyster in sunflower oil	Magallana gigas	448481	38547	37610	97.57
O7	Crassostrea gigas	Oyster in water	Magallana gigas	76247	64917	63700	98.13
O8	not declared	Oyster sauce	Saccostrea malabonensis	14470	11658	5442	46.68
			Magallana bilineata			4652	39.91
M23	not declared	Mussel with sherry	Mytilus galloprovincialis	33517	30794	30358	98.58
		vinegar
M25	not declared	Mussel in marinade	Mytilus galloprovincialis	163188	151688	150700	99.35
		sauce
M26	not declared	Grilled blue mussel	Mytilus galloprovincialis	163106	151608	150433	99.23
M29	Mytilus galloprovincialis	Blue mussel in	Mytilus galloprovincialis	153435	140475	132354	94.22
		tomato sauce	Mytilus edulis			7937	5.65
M30	Mytilus galloprovincialis	Blue mussel	Mytilus galloprovincialis	185479	171890	170624	99.26
		A la mariniere	Mytilus edulis			1156	0.67
M31	not declared	Blue mussel in	Mytilus galloprovincialis	170303	158379	157015	99.14
		organic marinade	Mytilus edulis			1267	0.80
M32	not declared	Marinated blue	Mytilus galloprovincialis	159181	144788	143399	99.04
		mussel	Mytilus edulis			1308	0.90
M33	Mytilus chilensis	Mussel in	Mytilus galloprovincialis	167903	151219	118879	78.61
		Escabeche	Mytilus edulis			31737	20.99
M34	Mytilus chilensis	Mussel	Mytilus galloprovincialis	152112	138768	87964	63.39
			Mytilus edulis			49601	35.74
M36	Mytilus galloprovincialis	Blue mussel	Mytilus galloprovincialis	176963	163721	162224	99.09
		marinated	Mytilus edulis			1323	0.81
M37	Mytilus edulis	Mussel in honey	Mytilus galloprovincialis	149364	136868	135249	98.82
		mustard sauce	Mytilus edulis			1400	1.02
M38	not declared	Blue mussel	Mytilus galloprovincialis	138801	127244	125980	99.01
		in marinade	Mytilus edulis			1056	0.83
S58	not declared	Rillettes de	Aequipecten opercularis	62787	44307	42716	96.41
		Saint-Jacques	Mytilus galloprovincialis			1330	3.00
S59	not declared	Small scallop in	Aequipecten opercularis	82550	59722	58296	97.61
		galician sauce
Mi62	Mytilus chilensis	Seafood mix	Mytilus galloprovincialis	618324	569815	433439	76.07
			Mytilus edulis			134543	23.61
Mi63	not declared	Sauce with	Mytilus edulis	152170	139306	73550	52.80
		seafood	Mytilus galloprovincialis			64729	46.47
Mi64	Mytilus chilensis,	Seafood mix	Mytilus galloprovincialis	131285	119350	81590	68.36
	Mytilus edulis		Mytilus edulis			37211	31.18
Mi65	not declared	Bouillabaisse	Mytilus galloprovincialis	157311	143479	138535	96.55
		Marseille	Mytilus edulis			4777	3.33
Mi66	Mytilus chilensis	Seafood mix	Mytilus galloprovincialis	152535	140047	92024	65.71
			Mytilus edulis			47415	33.86
Mi67	Mytilus spp.	Seafood mix	Mytilus galloprovincialis	76544	69081	48275	69.88
			Mytilus edulis			20459	29.62
Mi68	Mytilus galloprovincialis	Sea fruit salad in	Mytilus galloprovincialis	157861	145671	144468	99.17
		sunflower oil	Mytilus edulis			1046	0.72
Mi69	Mytilus chilensis	Seafood mix	Mytilus galloprovincialis	140227	128007	85679	66.93
			Mytilus edulis			41686	32.57
Mi70	not declared	Sea fruit salad	Mytilus galloprovincialis	120677	106674	101121	94.80
		fantasy	Mytilus edulis			5413	5.07
Mi71	not declared	Seafood mix	Mytilus galloprovincialis	160546	147278	79680	54.10
			Mytilus edulis			66675	45.27
Mi72	Mytilus chilensis	Seafood mix	Mytilus galloprovincialis	160059	146539	91557	62.48
			Mytilus edulis			54271	37.03
Mi73	not declared	Seafood mix	Mytilus edulis	150500	137634	78942	57.36
			Mytilus galloprovincialis			57608	41.86
Mi74	not declared	Seafood mix	Mytilus galloprovincialis	168841	155701	79035	50.76
			Mytilus edulis			75612	48.56
Mi75	not declared	Pizza Frutti di	Mytilus galloprovincialis	1818221	172620	95184	55.14
		mare	Mytilus edulis			71440	41.39
Mi76	not declared	Paella	Mytilus galloprovincialis	150431	139511	138335	99.16
			Mytilus edulis			1070	0.77
Mi77	Mytilus edulis,	Paella	Mytilus galloprovincialis	141816	132092	130768	99.00
	Mytilus chilensis		Mytilus edulis			1242	0.94
Mi78	Mytilus chilensis	Seafood all'Olio	Mytilus galloprovincialis	134717	122906	73482	59.79
			Mytilus edulis			48774	39.68
Mi79	Mytilus chilensis	Seafood mix	Mytilus galloprovincialis	148773	137122	73035	53.26
			Mytilus edulis			63249	46.13
Mi80	Mytilus chilensis	Seafood mix	Mytilus galloprovincialis	136695	126608	88130	69.61
			Mytilus edulis			37970	29.99
Mi81	not declared	Sea fruit salad	Mytilus galloprovincialis	153499	142736	141578	99.19
			Mytilus edulis			1022	0.72
Mi82	Zygochlamys patagonica,	Scallop terrine	Zygochlamys patagonica	76554	59181	57329	96.87
	Chlamys opercularis
Mi83	not declared	Terrine of salmon	Pecten spp.	646751	51387	75476	146.88
		and great scallop
Mi84	Mytilus chilensis	Seafood mix	Mytilus galloprovincialis	163885	150852	124468	82.51
			Mytilus edulis			25916	17.18
Mi85	not declared	Instant noodle	Mytilus galloprovincialis	15409	14118	13750	97.39
		seafood, mild
Mi86	not declared	Instant noodle	Mytilus galloprovincialis	9787	8892	8473	95.29
		seafood, spicy
O1	Crassostrea gigas	Oyster	Magallana gigas	1393192	134073	133493	99.57
O4	not declared	Oyster	Magallana gigas	460892	40991	40279	98.26
O9	not declared	Oyster sauce		not evaluable3
O10	not declared	Oyster sauce		not evaluable3
M11	Mytilus edulis	Mussel	Mytilus galloprovincialis	237662	22546	22147	98.23
M14	Mytilus spp.	Blue mussel	Mytilus galloprovincialis	1268802	119717	79522	66.42
M15	Mytilus spp.	Blue mussel	Mytilus edulis	1268802	119717	39555	33.04
			Mytilus galloprovincialis			220226	99.79
M16	Mytilus edulis	Bouchot mussel	Mytilus galloprovincialis	512922	49604	48832	98.44
M17	not declared	Grilled blue	Mytilus galloprovincialis	98882	6750	3956	58.61
		mussel	Mytilus edulis			1998	29.60
M18	Mytilus chilensis	Blue mussel	Mytilus galloprovincialis	537102	51670	50733	98.19
M19	not declared	Blue mussel	Mytilus galloprovincialis	572382	54822	53829	98.19
M20	Mytilus spp.	Blue mussel	Mytilus galloprovincialis	721132	69576	68969	99.13
M21	Mytilus edulis	Mussel	Mytilus galloprovincialis	513282	49908	49459	99.10
M22	Mytilus galloprovincialis	Blue mussel	Mytilus galloprovincialis	1159502	110777	109262	98.63
			Mytilus edulis			1466	1.32
M24	Mytilus chilensis	Blue mussel in	Mytilus galloprovincialis	1139422	107150	94449	88.15
		tomato sauce	Mytilus edulis			12505	11.67
M28	not declared	Dry cat food	Pecten spp.	1286933	126380	79764	63.11
		with green	Mytilus galloprovincialis			40450	32.01
		lipped mussel	Perna canaliculus			4712	3.73
M35	Mytilus chilensis	Mussel in	Mytilus galloprovincialis	1978993	190771	189540	99.35
		tomato sauce
M39	Mytilus chilensis	Blue mussel	Mytilus galloprovincialis	1826123	175982	96502	54.84
			Mytilus edulis			75204	42.73
M40	Mytilus edulis	Blue mussel	Mytilus galloprovincialis	1829583	179399	178024	99.23
S41	Placopecten magellanicus	Deep-sea scallop	Placopecten magellanicus	1437942	132140	131583	99.58
S43	Pecten maximus	Great scallop	Mizuhopecten yessoensis	1221562	113706	113128	99.49
S44	Pecten spp.	Great scallop	Mizuhopecten yessoensis	28731352	2718126	2717426	99.97
S45	Placopecten magellanicus	Deep-sea scallop	Placopecten magellanicus	1116732	107119	106632	99.55
S48	Patinopecten yessoensis	Great scallop/	Mizuhopecten yessoensis	473972	41076	407873	99.51
		Yesso scallop
S51	not declared	Great scallop	Placopecten magellanicus	515652	45007	44915	99.80
S52	Patinopecten yessoensis	Great scallop	Mizuhopecten yessoensis	466732	39769	39627	99.64
S53	Pecten spp.	Great scallop	Mizuhopecten yessoensis	428572	36443	35265	96.77
S54	Placopecten magellanicus	Great scallop	Placopecten magellanicus	554752	48703	47915	98.38
S56	not declared	Great scallop	Placopecten magellanicus	12681693	1061137	1060653	99.95
S57	Placopecten magellanicus	Great scallop	Pecten spp.	1744973	171299	170404	99.48
S60	not declared	Deep-sea scallop	Placopecten magellanicus	3644743	350953	350869	99.98
S61	Patinopecten yessoensis	Great scallop	Mizuhopecten yessoensis	1591453	152930	152849	99.95
1value of two replicates;
2samples were analysed with the MiSeq instrument;
3samples were analysed with the iSeq instrument

Example 2—Crustacean

In example 2, the identification of Crustacean in food samples according to the invention is shown. The identification was done similar to example 1 using the primer set specific for the identification of seafood species of the respective family in a singleplex setup (two forward primer SEQ ID NO: 1 and SEQ ID NO: 2; and one reverse primer SEQ ID NO: 15). The final concentration of two forward Crustacean primers (SEQ ID NO: 1 and SEQ ID NO: 2) was 0.2 μM each and 0.4 μM for reverse Crustacean primer (SEQ ID NO: 15). Then, the primers of Crustacean und Cephalopods (two Crustacean forward primers (SEQ ID NO: 1 and SEQ ID NO: 2), one Crustacean reverse primer (SEQ ID NO: 15), one Cephalopod forward primer (SEQ ID NO: 3 respectively SEQ ID NO: 4 and SEQ ID NO: 5) and one Cephalopod reverse primer (SEQ ID NO: 16)) were combined in a duplex assay. Furthermore, duplex setups are shown for the combined identification of species of the family of Crustacean and Gastropoda (two forward Crustacean primer SEQ ID NO: 1 and SEQ ID NO: 2, one reverse Crustacean primer SEQ ID NO: 15, one Gastropoda primer SEQ ID NO: 6 and two reverse Gastropoda primer SEQ ID NO: 17 and SEQ ID NO: 18) and also for the combined identification of species of the family of Crustacean and Cephalopods (two Crustacean forward primers (SEQ ID NO: 1 and SEQ ID NO: 2), one Crustacean reverse primer (SEQ ID NO: 15), one Cephalopod forward primer (SEQ ID NO: 3 respectively SEQ ID NO: 4 and SEQ ID NO: 5) and one Cephalopod reverse primer (SEQ ID NO: 16)). Sanger Sequencing was performed as a control experiment for the identification of seafood species.

Results

The results are shown in the following Tables 10 and 11.

	TABLE 10
		Duplex	Duplex
	Singelplex	Crustacean +	Crustacean +
	Product Description		Crustacean	Gastropoda	Cephalopods
	Product	Sanger Sequencing	[MiSeq]	[MiSeq]	[MiSeq]
Sample	Scientific name	description		Customer	Sanger 16S	Customer	Customer	Customer
No	of species	[Eng]	Treatment	Database	[310 bp]	Database	Database	Database
3	Nephrops	Norway lobster/	cooled	Nephros	no result	Nephros	Nephros	Nephros
	norvegicus	scampie		norvegicus		norvegicus	norvegicus	norvegicus
14	Procambarus	Lusiana crayfish	cooled	Procambarus	Procambarus	Procambarus	not determined	Procambarus
	clarkii			clarkii	clarkii	clarkii		clarkii
15	Panulirus argus	Crayfish	cooled	Panulirus argus	no result	Panuliurs spp	Panuliurs argus	Panuliurs argus
17	Homarus	Lobster	frozen	Homarus	Homarus	Homarus	Homarus	Homarus
	americanus			americanus	americanus	americanus	americanus	americanus
20		Swimming crab	processed	Monomia	no result	Monomia	Monomia
				gladiator		gladiator	gladiator
26	Paralithodes	Kamchatka Crab/	cooled	Paratithodes	no result	Paratithodes	Paratithodes	Paratithodes
	camtschaticus	King Crab		camtschaticus		camtschaticus	camtschaticus	camtschaticus
40	Chionoecetes	Snow crab	frozen	Chionnoecetes	no result	Chionnoecetes	Chionnoecetes	Chionnoecetes
	opilio			opilio		spp	spp	spp
				Chionocetes
				bairdi
45	Procambarus	Crayfish	frozen	no result	(Pont)Astacus	Pontastacus	Pontastacus	Pontastacus
	clarkii				leptodactylus	leptodactylus	leptodactylus	leptodactylus
66	Homarus	European lobster	frozen	Homarus	no result	Homarus	Homarus	Homarus
	gammarus			gammarus		gammarus	gammarus	gammarus

	TABLE 11
	Product Description
	Scientific	Product	Sanger Sequencing
Sample	name	description	Treat-	Customer	Sanger 16S
No	of species	[Eng]	ment	Database	[310 bp]
4	Pleoticus	Argentine red	frozen	Pleoticus	Pleoticus
	muelleri	shrimp		muellerie	muellerie
6	Penaeus	Partei	cooled	Penaeus	Penaeus
	monodon	Crevetten		monodon	monodon
8	Macrobrachium	Rosenberg	cooled	Macrobrachium	Macrobrachium
	rosenbergii	freshwater		rosenbergii	rossenbergeri
		shrimp
12	Pandalus	Ice sea	cooled	Panadalus	Panadalus
	borealis	shrimps		borealis	borealis =
					Panadaluseous
16	Crangon	North Sea	cooled	Crangon	no result
	crangon	crab		crangon
31	Litopenaeus	White Tiger	frozen	Penaeus	Litopenaeus
	vannamei	Shrimp		vannamei	vanamei
33	Macrobrachium	Rosenberg	cooled	Peanaeus	Peanaeus
	rossenbergerii	freshwater		monodon	monodon
		shrimp
34	Litopenaeus	White Tiger	cooled	Penaeus	Penaeus
	vannamei	Shrimp		vannamei	vannamei
36	Metapenaeus	Shrimp	cooled	Mierspenaeopsis	Parapenaeopsis
	monoceros			hardwickii	sculptilis
				Xiphopenaeus	Parapenaeopsis
				kroyeri	hardwickii
38	Heterocarpus	Shrimp	cooled	Heterocarpus	no result
	reedi			spp.
42	Penaeus	Tiger shrimp	frozen	Penaeus	Peanaeus
	monodon			vannamei	monodon
43	Macrobrachium	Rosenberg	frozen	Peanaeus	Peanaeus
	rossenbergerii	freshwater		monodon	monodon
		shrimp
50	Penaeus	Organic Black	frozen	Panaeus	Panaeus
	monodon	Tiger Prawn		monodon	monodon
58	Crangon	North Sea crab	cooled	Crangon	no result
	crangon			crangon
59	Crangon	North Sea crab	cooled	Crangon	no result
	crangon			crangon
64	Aristaeopsis	Carabineros	cooled	Aristaeopsis	Aristaeopsis
	edwardsiana			edwardsiana	edwardsiana
					Aristaeomorpha
					foliacea
65	Pleoticus	Shrimp ring	frozen	Pleoticus	no result
	muelleri			muelleri
70	Penaeus	Pacific white	cooled	Pleoticus	no result
	occidentalis	shrimp		muelleri
71	Penaeus	white shrimp	cooled	Penaeus	Penaeus
	notialis			duorarum	duorarum
					Penaeus nr.
					notialis
73	Penaeus	Greenland	cooled	Pandalus	Pandalus eous =
	borealis	shrimp		borealis	Pandalus borealis
76	Dendrobranchiata	Red shrimp	processed		not determined
	(Suborder)
			Duplex	Duplex
		Singelplex	Crustacea +	Crustacean +
		Crustacean	Gastropoda	Cephalopods
		[MiSeq]	[MiSeq]	[MiSeq]
	Sample	Customer	Customer	Customer
	No	Database	Database	Database
	4	Pleoticus	not determined	Pleoticus
		muellerie		muellerie
	6	no result	Penaeus	Penaeus
			monodon	monodon
	8	Macrobrachium	not determined	Macrobrachium
		rosenbergii		rosenbergii
	12	Pandalus spp.	not determined	Pandalus spp.
	16	Crangon crangon	Crangon crangon	Crangon
				crangon
	31	Penaeus	Litopenaeus	Litopenaeus
		vannamei	vannamei	vannamei
	33	Penaeus spp.	Genus Penaeus	Penaeus spp.
		no match to	no match to	no match to
		Rosenbergerii	Rosenbergerii	Rosenbergerii
	34	Penaeus	Penaeus	Penaeus
		vannamei	vannamei	vannamei
	36	Ganjampenaeopsis	Ganjampenaeopsis	Ganjampenaeopsis
		uncta	uncta	uncta
	38	Heterocarpus	Heterocarpus	Heterocarpus
		spp.	spp.	spp.
	42	Penaeus	Penaeus	Penaeus
		vannamei	vannamei	vannamei
	43	Genus Penaeus	Genus Penaeus	Genus Penaeus
		no match to	no match to	no match to
		Rosenbergerii	Rosenbergerii	Rosenbergerii
	50	Penaeus spp.	not determined	Penaeus spp.
	58	Crangon crangon	Crangon crangon	Crangon crangon
	59	Crangon crangon	Crangon crangon	Crangon crangon
	64	Aristaeopsis	Aristaeopsis	Aristaeopsis
		spp	spp	spp)
	65	no result	Pleoticus	not determined
			muellerie
	70	Pleoticus muelleri	Pleoticus	Pleoticus
			muellerie	muellerie
	71	no result	Penaeus spp.	Penaeus spp.
	73	no result	Pandalus spp.	Pandalus spp.
	76	Penaeus	Penaeus	Penaeus
		vannamei	vannamei	vannamei

Example 3—Cephalopods

In example 3, the identification of Cephalopods in food samples according to the invention is shown. The identification was done similar to example 1 using the primer set specific for the identification of Cephalopods seafood species of the respective family in a singleplex setup (one forward primer SEQ ID NO: 3 respectively SEQ ID NO: 4 and SEQ ID NO: 5; and one reverse primer SEQ ID NO: 16). The final concentration of forward (SEQ ID NO: 3 respectively SEQ ID NO: 4 and SEQ ID NO: 5) and reverse primer (SEQ ID NO: 16) was 0.2 μM. Furthermore, a duplex setup is shown for the combined identification of species of the family of Crustacean and Cephalopods. The primers of Crustacean und Cephalopods (two Crustacean forward primers (SEQ ID NO: 1 and SEQ ID NO: 2), one Crustacea reverse primer (SEQ ID NO: 15), one Cephalopod forward primer (SEQ ID NO: 3 respectively SEQ ID NO: 4 and SEQ ID NO: 5) and one Cephalopod reverse primer (SEQ ID NO: 16)) were combined in a duplex assay. Sanger Sequencing was performed as a control experiment for the identification of seafood species.

Results

The results are shown in the following Table 12.

TABLE 12
Cephalopods
	Product Description
Sam-		Product	Sanger Sequencing
ple	Scientific name	description	Treat-	Customer	Sanger COI
No	of species	[Eng]	ment	Database	[720 bp]
2	Loligo edulis	Squid cleaned	frozen	Illex illecebrosus	Uroteuthis
				Uroteuthis	chinensis
				(photololigo)
				chinensis
7	Octopus vulgaris	Octopus tentacle	cooled	no result	Octopus vulgaris
9	Loligo chinensis	Squid	cooled	Doryteuthis	kein Ergebnis
				(Amerigo) gahi
24	Loligo duvauceli	Squid	frozen	Loligo duvauceli	Loligo gahi
28	Sepiella japonica	Sepie	frozen	Sepiella inermis	Sepiella inermis
29	Octopus vulgaris	Octopus	cooled	Octopus vulgaris	Octopus vulgaris
32	Sepia officinalis	Squid	cooled	Sepia pharaonis	Sepia pharaonis
35	Loligo vulgaris	Squid	cooled	Doryteuthis	Loligo gahi
				(Amerigo) gahi
37	Octopus aegina	Octopus	cooled	Amphioctopus	Octopus aegina
				aegina
41	Loligo opalescens	Squid	frozen	Doryteuthis	kein Ergebnis
				opalescens
44	Sepiella inermis	Sepie	frozen	Sepiella inermis	Sepiella inermis
48	Octopus maya	Ocotpus	frozen	Octopus maya	Octopus maya
51	Sepiella inermis	Sepie	frozen	Sepiella inermis	Sepiella inermis
56	Loligo edulis	Squid	frozen	Illex illecebrosus	Loligo
				Uroteuthis	chinensis
				(photololigo)
				chinensis
60	Eledone	Musky octopus in	processed	Amphioctopus	Amphioctopus
	moschata	oil		aegina	aegina
69	Loligo chinensis	Squid	cooled	Illex illecebrosus	Loligo chinensis
				Uroteuthis
				(photololigo)
				chinensis
72	Loligo galhi	Squid	cooled	Doryteuthis	Loligo gali
				(Amerigo) gahi
124		fried calamari	processed	not determined	not determined
129		Ocopus	processed	not determined	not determined
		Carpaccio
132	Uroteuthis	Squid tubes	frozen	not determined	not determined
	duvaucelii
137	Dosidicus gigas	Squid in ink	processed	not determined	not determined
		sauce
141	Dosidicus gigas	Squid in	processed	not determined	not determined
		vegetable oil
142	Dosidicus gigas	Squid in its own	processed	not determined	not determined
		Ink
149		Squid in ink sauce	processed	not determined	not determined
156	Octopus	Musky octopus in	processed	not determined	not determined
	membranaceus	Oil
194		fried calamari	processed	not determined	not determined
		Rings
			Duplex	Duplex
		Singelplex	Crustacean +	Crustacean +
		Cephalopods	Cephalopods	Cephalopods
	Sam-	[MiSeq]	[MiSeq]	[Iseq]
	ple	Customer	Customer	Customer
	No	Database	Database	Database
	2	no result	no result	Illex illecebrosus
				Uroteuthis
				(photololigo)
				chinensis
	7	no result	Octopus spp	Octopus spp.
	9	no result	Doryteuthis	Doryteuthis
			(Amerigo) gahi	(Amerigo) gahi
	24	Loligo spp.	Loligo spp.	not determined
	28	no result	Sepiella inermis	Sepiella inermis
	29	no result	Octopus spp.	Octopus spp.
	32	Sepia spp.	Sepia spp	not determined
	35	Doryteuthis	Doryteuthis	not determined
		(Amerigo) gahi	(Amerigo) gahi
	37	Amphioctopus	not determined	Amphioctopus
		aegina		aegina
	41	Doryteuthis	not determined	Doryteuthis
		opalescens		opalescens
	44	Sepiella inermis	not determined	Sepiella inermis
	48	Octopus maya	not determined	Octopus maya
	51	Sepiella inermis	not determined	Sepiella inermis
	56	Uroteuthis	not determined	Uroteuthis
		chinensis		chinensis
		llex ilecebrosus		llex ilecebrosus
	60	Amphioctopus	Amphioctopus	not determined
		aegina	aegina
	69	Uroteuthis	Uroteuthis	not determined
		chinensis	chinensis
		llex ilecebrosus	llex ilecebrosus
	72	Doryteuthis	not determined	Doryteuthis
		Amerigo gahi		(Amerigo) gahi
	124	not determined	not determined	Doryteuthis
				(Amerigo) gahi
	129	not determined	not determined	Octopus cyanea
	132	not determined	not determined	Uroteuthis spp.
	137	not determined	not determined	Dosidicus gigas
	141	not determined	not determined	Dosidicus gigas
	142	not determined	not determined	Todarodes
				pacificus
	149	not determined	not determined	Todarodes
				pacificus
	156	not determined	not determined	Amphioctopus
				spp.
	194	not determined	not determined	Dosidicus gigas

Example 4—Gastropoda

In example 4, the identification of Gastropoda in food samples according to the invention is shown. The identification was done similar to example 1 using the primer set specific for the identification of seafood species of the respective family in a singleplex setup (one forward primer SEQ ID NO: 6 and two reverse primer SEQ ID NO: 17 and SEQ ID NO: 18). The final concentration of forward Gastropoda primer (SEQ ID NO: 6) was 0.4 μM and 0.2 μM each for the two reverse Gastropoda primer (SEQ ID NO: 17 and SEQ ID NO: 18). Furthermore, a duplex setup is shown for the combined identification of species of the family of Crustacean and Gastropoda. Sanger Sequencing was performed as a control experiment for the identification of seafood species.

Results

The results are shown in the following Table 13.

TABLE 13
Gastropoda
	Duplex
			Singelplex	Crustacean +
	Product Description		Gastropoda	Gastropoda	Gastropoda
	Scientific	Product	Sanger Sequencing	[MiSeq]	[MiSeq]	[Iseq]
Sample	name	description		Customer	Sanger COI	Customer	Customer	Customer
No	of species	[Eng]	Treatment	Database	[720 bp]	Database	Database	Database
5	Helix lucorum	Snail with butter	processed	Helix lucorum	no result	Helix spp.	Helix spp	not determined
		and white wine
39		Agate snail	cooled	Achatina reticulata	no result	Achantina spp	Achantina spp.	not determined
53	Helix lucorum	Roman snail	frozen	Helix promatia	Helix promatia	Helix spp.	no result	Helix spp.
75		Food supplement	processed	not determined	not determined	no result	Helix spp.	Helix thessalica
		with snail powder
144		Roman snail	processed	not determined	not determined	not determined	not determined	Helix spp.
145		Vine snail with	processed	not determined	not determined	not determined	not determined	Helix spp.
		balsamic onion
146		Agate snail	processed	not determined	not determined	not determined	not determined	Achantina fulica

Example 5—Veneridae

In example 5, the identification of Veneridae in food samples according to the invention is shown. The identification was done similar to example 1 using the primer set specific for the identification of seafood species of the respective family in a singleplex setup (five forward primer SEQ ID NO: 7, SEQ ID NO: 8, SEQ ID NO: 9, SEQ ID NO: 10, and SEQ ID NO: 11 and three reverse primer SEQ ID NO: 19, SEQ ID NO: 20, and SEQ ID NO: 21). The final concentration of forward primer (SEQ ID NO: 7, SEQ ID NO: 8, SEQ ID NO: 9, SEQ ID NO: 10, and SEQ ID NO: 11) was 0.2 μM each, 0.2 μM each for two reverse primer (SEQ ID NO: 20 and SEQ ID NO: 21) and 0.6 μM for the reverse primer (SEQ ID NO: 19). Sanger Sequencing was performed as a control experiment for the identification of seafood species.

Results

The results are shown in the following Table 14.

TABLE 14
Veneridae
	Product Description		Singelplex Veneridae
	Product	Sanger Sequencing	[MiSeq]
Sample	Scientific name	description		Customer	Sanger COI	Customer
No	of species	[Eng]	Treatment	Database	[720 bp]	Database
10	Ensis ensis	Clam	cooled	Ensis directus	Ensis directus	Ensis spp
				Ensis terranovensis
11	Ruditapes philippinarum	Venus clam	cooled	Ruditapes philippinarum	no result	Ruditapes philipinarum
18	not declared	Pickled cockles	processed	Cerastoderma edule	no result	Cerastoderma edule
21	Meretrix lyrata	Venus clam	frozen	Meretrix lyrate	Meretrix lyrata	Meretrix lyrata
52	Callista Chione	Venus clam	frozen	no result	no result	no result
61	Solen marinatus	Vagina shell	cooled	Ensis directus	Ensis directus	Ensis spp
				Ensis terranovensis
63	Ruditapes philippinarum	Venus clam	cooled	Ruditapes philippinarum	kein Ergbenis	Ruditapes philipinarum
67	Cerastoma edulis	Cockle	cooled	Cerastoma edulis	Cerastoma edulis	Cerastoderma edule
68	Chamelea gallina	Venus clam	cooled	Chamelea gallina	Chamelea gallina	Chamelea gallina
86	Cerastoderma edule	Cockle	cooled	not determined	not determined	Cerastoderma edule
87	Ruditapes philipinarum	Carpet shell	cooled	not determined	not determined	Ruditapes philipinarum
93	Ensis direktus	Seaside	cooled	not determined	not determined	Ensis spp
95	Venus spp	Venus clam	cooled	not determined	not determined	Ruditapes philipinarum
96	Metrix lyrate	Brown clam	frozen	not determined	not determined	Metrix lyrate
100	not declared	Clams au naturel	processed	not determined	not determined	Chamelea gallina
121	not declared	Clams au naturel	cooled	not determined	not determined	Ruditapes philipinarum

REFERENCES

• Dobrovolny, S.; et al. Development of a DNA metabarcoding method for the identification of fifteen mammalian and six poultry species in food. Food Chemistry 2019, 272, 354-361, doi:10.1016/j.foodchem.2018.08.032.
• Edgar, R. C. Search and clustering orders of magnitude faster than BLAST. Bioinformatics 2010, 26, 2460-2461, doi:10.1093/bioinformatics/btq461.
• Espiñeira, M.; et al., Development of a method for the genetic identification of commercial bivalve species based on mitochondrial 18S rRNA sequences. J. Agric. Food Chem. 2009, 57, 495-502, doi:10.1021/jf802787d.
• Fernández, A.; et al. Identification of the clam species Ruditapes decussatus (Grooved carpet shell), Venerupis pullastra (Pullet carpet shell), and Ruditapes philippinarum (Japanese carpet shell) by PCR-RFLP. J. Agric. Food Chem. 2000, 48, 3336-3341, doi:10.1021/jf0002185.
• Gense K. et al., Development of a DNA Metabarcoding Method for the Identification of Bivalve Species in Seafood Products, Foods, 2021, Vol. 10(11), p. 2618
• Klapper R. et al., Verification of authenticity: A rapid identification method for commercial scallop species through multiplex real-time PCR, Food Control, 2021, Vol. 121
• Marin A. et al., The variable 5′ end of the 16S rRNA gene as a novel barcoding tool for scallops (Bivalvia, Pectinidae), Fish Sci, 2015, Vol. 81(1), pp. 73-81
• Marin A. et al., Novel decaplex PCR assay for simultaneous detection of scallop species with species-specific primers targeting highly variable 5′ end of the 16S rRNA gene, Aquaculture Research, 2017, Vol. 48(3), pp. 920-930
• Martin, M. Cutadapt removes adapter sequences from high-throughput sequencing reads. EMBnet j. 2011, 17, 10, doi:10.14806/ej.17.1.200.
• Näumann, G.; Stumme, B.; Rehbein, H. Differenzierung von Kammmuscheln durch DNA-Analyse. Informationen aus der Fischereiforschung—Information on Fishery Research 2012, 1-7, doi:10.3220/Infn59_1-7_2012.
• Pardo, Miguel Ángel; Jiménez, Elisa; Pérez-Villarreal, Begoña: Misdescription incidents in seafood sector. In: Food Control, 2016, 62, S. 277-283. DOI: 10.1016/j.foodcont.2015.10.048.
• Robson, K., Dean, M., Haughey, S., Elliott, C. A comprehensive review of food fraud terminologies and food fraud mitigation guides. In: Food Control, 2021, 120, S. 107516. DOI: 10.1016/j.foodcont.2020.107516.
• Rodriguez, E. M.; Ortea, I. Food Authentication of Seafood Species. In Proteomics in food science: From farm to fork, 3rd; Colgrave, M. L., Ed.; Academic Press: London, 2017; pp 331-342, ISBN 9780128040072.
• Spielmann G. et al., Comparison of three DNA marker regions for identification of food relevant crustaceans of the order Decapoda, European Food Research and Tech., 2019, Vol. 245(5), pp. 987-995
• Stephan, R.; et al. Rapid and reliable species identification of scallops by MALDI-TOF mass spectrometry. Food Control 2014, 46, 6-9, doi:10.1016/j.foodcont.2014.04.047.
• Sun S. et al., Molecular Identification of Dried Shellfish Products Sold on the Market Using DNA Barcoding, J. Ocean Univ. China, 2021, Vol. 20(4), pp. 931-938
• Wen J. et al., An insight into the Chinese traditional seafood market: Species characterization of cephalopod products by DNA barcoding and phylogenetic analysis using COI and 16SrRNA genes, Food Control, 2017, Vol. 82, pp. 333-342
• Fernandes, T. J. R.; Amaral, J. S.; Mafra, I. DNA barcode markers applied to seafood authentication: an updated review. Critical reviews in food science and nutrition 2020, 1-32. DOI: 10.1080/10408398.2020.1811200

Claims

1. A method for identifying seafood species of different origin and processing degree in a food sample, comprising the steps of: a) isolating DNA from the sample,b) amplifying fragments of said DNA with at least 2 primer sets (ps) selected from the group ofi. ps 1 for identifying seafood species of the family of Crustaceans comprising one or more primer pairs of one forward primer selected from any one of SEQ ID NOs: 1 and 2, and a corresponding reverse primer SEQ ID NO: 15 and/or reverse complement sequences of the primer sequences;ii. ps 2 for identifying seafood species of the family of Cephalopods comprising one or more primer pairs of one forward primer selected from any one of SEQ ID NOs: 3 to 5, and a corresponding reverse primer SEQ ID NO: 16 and/or reverse complement sequences of the primer sequences;iii. ps 3 for identifying seafood species of the family of Gastropoda comprising one or more primer pairs of forward primer SEQ ID NO: 6, and one reverse primer selected from any one of SEQ ID NOs: 17 to 18 and/or reverse complement sequences of the primer sequences;iv. ps 4 for identifying seafood species of the family of Veneridae comprising one or more primer pairs of one forward primer selected from any one of SEQ ID NOs: 7 to 11, and one reverse primer selected from any one of SEQ ID NOs: 19 to 21 and/or reverse complement sequences of the primer sequences;v. ps 5 for identifying seafood species of the family of Ostreidae comprising the forward primer SEQ ID NO: 12 and a corresponding reverse primer SEQ ID NO: 22 and/or reverse complement sequences of the primer sequences;vi. ps 6 for identifying seafood species of the family of Pectinidae comprising the forward primer SEQ ID NO: 13 and a corresponding reverse primer SEQ ID NO: 23 and/or reverse complement sequences of the primer sequences; andvii. ps 7 for identifying seafood species of the family of Mytilidae comprising one or more primer pairs of forward primer SEQ ID NO: 14, and one reverse primer selected from any one of SEQ ID NOs: 24 to 25 and/or reverse complement sequences of the primer sequences,c) sequencing the amplified DNA fragments of step b), andd) identifying the seafood species by comparison of the sequences obtained by steps a) to c) with reference sequences of seafood species.

2. The method of claim 1, wherein amplifying of fragments of DNA in step b) is performed by a polymerase chain reaction (PCR) comprising 25-30 cycles at an annealing temperature of 60-65° C.

3. The method of claim 1, wherein amplifying fragments of the DNA in step b) is performed with 3, 4, 5, 6, or 7 primer sets.

4. The method of claim 1, wherein the amplified DNA fragments of step b) are 16S rDNA fragments.

5. The method of claim 1, wherein the reference sequences of seafood species comprise the DNA sequence of the 16S rDNA of said seafood species.

6. The method of claim 5, wherein the reference sequences are any one of SEQ ID NOs: 28 to 1153, or any combination thereof.

7. The method of claim 1, wherein the identified species of the family of Crustaceans are selected from Varuna litterata, Hemisquilla ensigera, Gonodactylus smithii, Pullosquilla thomassini, Chorisquilla trigibbosa, Telmessus acutidens, Lithodes aequispinus, Panulirus echinatus, Jasus paulensis, Jasus caveorum, Parastacus pilimanus, Parastacus brasiliensis, Parastacus defossus, Parastacus nicoleti, Gonodactylus graphurus, Jasus lalandii, Lopholithodes mandtii, Lithodes spp., Lithodes maja, Jasus edwardsii, Panulirus regius, Panulirus pascuensis, Panulirus laevicauda, Panulirus gracilis, Panulirus guttatus, Panulirus femoristriga, Chionoecetes spp., Paralomis granulosa, Panulirus spp., Scyllarus arctus, Palinurus elephas, Episesarma mederi, Austropotamobius torrentium, Cycloachelous granulatus, Eriocheir recta, Cervimunida johni, Achelous fioridanus, Portunus sayi, Portunus anceps, Palinurus mauritanicus, Palinurus charlestoni, Pseudosquilla ciliata, Pleuroncodes monodon, Portunus ventralis, Achelous spinicarpus, Callinectes toxotes, Callinectes danae, Callinectes ornatus, Callinectes marginatus, Callinectes affinis, Callinectes rathbunae, Callinectes bocourti, Callinectes similis, Callinectes bellicosus, Callinectes arcuatus, Metanephrops armatus, Metanephrops mozambicus, Metanephrops japonicus, Metanephrops spp., Metanephrops binghami, Parastacus pugnax, Paranephrops zealandicus, Callinectes exasperatus, Palinurus spp., Sagmariasus verreauxi, Metanephrops rubellus, Metanephrops challengeri, Metanephrops neptunus, Metanephrops australiensis, Metanephrops arafurensis, Metanephrops boschmai, Metanephrops formosanus, Metanephrops sinensis, Lithodes ferox, Oratosquillina interrupta, Odontodactylus japonicus, Miyakella nepa, Erugosquilla woodmasoni, Clorida decorata, Dictyosquilla foveolata, Anchisquilla fasciata, Scyllarides herklotsii, Astacus astacus, Portunus hastatus, Achelous ordwayi, Carcinus maenas, Portunus inaequalis, Astacoides madagascariensis, Erimacrus isenbecki, Hemisquilla australiensis, Austrosquilla tsangi, Fallosquillafallax, Echinosquilla guerinii, Coronis scolopendra, Chorisquilla tweediei, Chorisquilla hystrix, Chorisquilla excavate, Busquilla plantei, Alima pacifica, Alima orientalis, Alachosquilla vicina, Gonodactylellus espinosus, Gonodactylellus affinis, Kempella mikado, Hemisquilla cahforniensis, Haptosquilla trispinosa, Haptosquilla glyptocercus, Gonodactylus platysoma, Gonodactylaceus falcatus, Gonodactylus childi, Gonodactylellus annularis, Odontodactylus scyllarus, Odontodactylus latirostris, Odontodactylus havanensis, Odontodactylus cultrifer, Neogonodactylus oerstedii, Neogonodactylus bredini, Neogonodactylus bahiahondensis, Lysiosquillina sulcata, Squilla rugosa, Raoulserenea spp., Raoulserenea oxyrhyncha, Pseudosquillopsis marmorata, Raoulserenea komaii, Protosquilla folini, Ibacus alticrenatus, Scyllarides nodifer, Scyllarides haanii, Scyllarides brasiliensis, Taku spinosocarinatus, Jasus frontalis, Procambarus paeninsulanus, Puerulus sewelli, Panulirus polyphagus, Panulirus longipes, Panulirus interruptus, Panulirus marginatus, Ibacus peronii, Ibacus chacei, Faxonella clypeata, Fallicambarus kountzeae, Arenaeus mexicanus, Cambarus tartarus, Chionoecetes tanneri, (Currently amended) Thenus unimaculatus, (Currently amended) Thenus indicus, Haptosquilla hamifera, Lithodes turritus, Bouchardina robisoni, Troglocambarus maclanei, Hobbseus yalobushensis, Hobbseus prominens, Charybdis spp., Hobbseus petilus, Faxonella creaseri, Thranita danae, Monomia petrea, Neogonodactylus wennerae, Xiphonectes pseudohastatoides, Gonodactylellus viridis, Gonodactylaceus ternatensis, Belosquilla laevis, Procambarus okaloosae, Procambarus morrisi, Procambarus milleri, Procambarus mancus, Procambarus lunzi, Hobbseus cristatus, Procambarus acutissimus, Faxonius pagei, Manningia pilaensis, Pontastacus leptodactylus, Procambarus zonangulus, Procambarus youngi, Procambarus seminolae, Procambarus pycnogonopodus, Procambarus orcinus, Procambarus pallidus, Alima maxima, Scyllarides deceptor, Monomia argentata, Xiphonectes pulchricristatus, Paralithodes platypus, Lopholithodes foraminatus, Faughniaformosae, Faughnia profunda, Bathysquilla crassispinosa, Eriocheir sinensis, Harpiosquilla harpax, Callinectes sapidus, Squilla mantis, Portunus trituberculatus, Panulirus japonicus, Cancer pagurus, Chionoecetes japonicus, Scylla tranquebarica, Scylla serrata, Eriocheir japonica, Eriocheir hepuensis, Cherax destructor, Squilla empusa, Lysiosquillina maculata, Gonodactylus chiragra, Panulirus homarus, Homarus americanus, Panulirus ornatus, Oratosquilla oratoria, Panulirus stimpsoni, Charybdis japonica, Scylla paramamosain, Scylla olivacea, Cherax quadricarinatus, Cherax cainii, Paralithodes brevipes, Paralithodes camtschaticus, Scyllarides latus, Procambarus clarkii, Procambarus fallax, Homarus gammarus, (Currently amended) Thenus orientalis, Lithodes nintokuae, Cherax cairnsensis, Cherax dispar, Cherax quinquecarinatus, Cherax robustus, Cherax monticola, Cherax glaber, Cherax holthuisi, Astacopsis gouldi, Portunus pelagicus, Paranephrops planifrons, Nephrops norvegicus, Ibacus ciliatus, Charybdis feriata, Metanephrops sibogae, Panulirus cygnus, Metanephrops thomsoni, Faxonius limosus, Squilloides leptosquilla, Cherax bicarinatus, Austropotamobius pallipes, Cherax tenuimanus, Cherax boesemani, Charybdis (Charybdis) natator, Procambarus acutus, Pacifastacus leniusculus, Munida gregaria, Panulirus versicolor, Faxonius rusticus, Portunus sanguinolentus, Procambarus alleni, Metacarcinus magister, Puerulus angulatus, Lupocycloporus gracilimanus, Monomia gladiator, Varuna yui, Panulirus argus, Munida isos, Scyllarides squammosus, Cambaroides similis, Charybdis bimaculata, Cambarus robustus, Thalamita sima, Thranita crenata, Orconectes luteus, Orconectes punctimanus, Orconectes sanbornii, Cherax spp., Cherax crassimanus, Cherax preissii, Munida spinosa, Munida asprosoma, Munida leagora, Munida alonsoi, Munida taenia, Munida gordoae, Munida zebra, Munida distiza, Munida psamathe, Munida thoe, Munida guttata, Munida stia, Munida ommata, Munida roshanei, Munida compressa, Munida clinata, Munida chydaea, Munida compacta, Munida eclepsis, Munida tyche, Munida philippinensis, Munida armilla, Munida mesembria, Munida spilota, Munida benguela, Munida endeavourae, Munida agave, Munida idyia, Munida militaris, Munida flinti, Munida congesta, Munida rubridigitalis, Munida iris, Munida microphthalma, Munida rufiantennulata, Munida pusilla, Munida remota, Munida leptosyne, Munida rosula, Munida munin, Munida valida, Munida proto, Enriquea leviantennata, Munida multilineata, Munida pagesi, Munida stomifera, Munida quadrispina, Munida tiresias, Munida psylla, Munida heteracantha, Paralomis formosa, Paralomis spinosissima, Paralomis birsteini, Paralomis hirtella, Scyllarus subarctus, Scyllarus pygmaeus, Scyllarus chacei, Scyllarus caparti, Scyllarus americanus, Episesarma palawanense, Episesarma singaporense, Austropotamobius fulcisianus orientalis, Achelous tumidulus, Achelous asper, Achelous sebae, Portunus acuminatus, Achelous tuberculatus, Achelous iridescens, Portunus xantusii, Achelous depressifrons, Achelous rufiremus, Achelous gibbesii, Portunus minimus, Achelous stanfordi, Achelous brevimanus, Portunus affinis, Achelous angustus, Achelous binoculus, Oratosquillina inornata, Oratosquillina asiatica, Oratosquillina anomala, Oratosquillina perpensa, Erugosquilla graham, Busquilla quadraticauda, Kempella stridulans, Gonodactylaceus graphurus, Gonodactylaceus randalli, Carcinus aestuarii, Menippe rumphii, Menippe nodifrons, Menippe spp., Procambarus liberorum, Procambarus toltecae, Procambarus curdi, Procambarus digueti, Procambarus nigrocinctus, Procambarus versutus, Procambarus gibbus, Cambarus pecki, Procambarus geminus, Charybdis acuta, Creaserinus fodiens, Fallicambarus jeanae, Creaserinus gordoni, Creaserinus caesius, Fallicambarus dissitus, Creaserinus danielae, Fallicambarus oryktes, Fallicambarus byersi, Creaserinus burrisi, Creaserinus gilpini, Fallicambarus harpi, Fallicambarus macneesei, Fallicambarus petilicarpus, Fallicambarus wallsi, Fallicambarus strawni, Fallicambarus devastator, Fallicambarus houstonensis, Fallicambarus hortoni, Arenaeus cribrarius, Cambarus spp., Cambarus deweesae, Cambarus striatus, Cambarus graysoni, Cambarus monongalensis, Cambarus pyronotus, Cambarus maculatus, Cambarus latimanus, Cambarus strigosus, Cambarus parrishi, Cambarus bouchardi, Cambarus fasciatus, Cambarus harti, Cambarus nerterius, Cambarus setosus, Cambarus batchi, Cambarus halli, Cambarus unestami, Cambarus reburrus, Cambarus gentry, Cambarus hubbsi, Cambarus friaufi, Cambarus obeyensis, Cambarus cracens, Cambarus asperimanus, Cambarus hobbsorum, Cambarus williami, Cambarus howardi, Cambarus obstipus, Cambarus girardianus, Cambarus cryptodytes, Cambarus sciotensis, Cambarus georgiae, Cambarus pristinus, Cambarus aculabrum, Cambarus englishi, Cambarus brachydactylus, Cambarus cumberlandensis, Cambarus dubius, Cambarus reflexus, Cambarus scotti, Cambarus longirostris, Cambarus hubrichti, Monomia lucida, Faughnia serenei, Harpiosquilla melanoura, Harpiosquilla annandalei, Cherax cuspidatus, Cherax paniaicus, Cherax lorentzi, Cherax albertisii, Cherax rotundus, Cherax leckii, Cherax murido, Cherax wasselli, Cherax parvus, Cherax pallidus, Cherax cartalacoolah, Cherax rhynchotus, Cherax pulcher, Cherax peknyi, Cherax setosus, Cherax misolicus, Cherax warsamsonicus, Cherax snowden, Cherax boschmai, Cherax nucifraga, Cherax barrette, Oratosquillafabricii, Astacopsis tricornis, Thalamita admete, Faxonius virilis, Thranita prymna, Astacopsis franklinii, Cambaroides schrenckii, Orconectes australis, Thalamita chaptalii, Zygita longifrons, Thalamita picta, Thalamita seurati, Thranita pelsarti, Orconectes barri, Faxonius ronaldi, Faxonius neglectus, Orconectes compressus, Orconectes forceps, Orconectes pellucidus, Neoeriocheir leptognathus, Penaeus kerathurus, Penaeus marginatus, Penaeus longistylus, Penaeus plebejus, Metapenaeopsis liui, Metapenaeopsis lamellata, Metapenaeopsis acclivis, Metapenaeopsis commensalis, Atypopenaeus stenodactylus, Aristeus antillensis, Solenocera vioscai, Penaeus chinensis, Penaeus spp., Metapenaeopsis barbata, Penaeus esculentus, Heteropenaeus longimanus, Atypopenaeus dearmatus, Funchalia taaningi, Xiphopenaeus kroyeri, Trachypenaeopsis mobilispinis, Rimapenaeus similis, Parapenaeus politus, Solenocera membranacea, Alcockpenaeopsis hungerfordii, Batepenaeopsis tenella, Pandalus platyceros, Metapenaeus moyebi, Metapenaeus joyneri, Pandalus montagui, Penaeus brasiliensis, Aristeus antennatus, Heterocarpus laevigatus, Heterocarpus lepidus, Funchalia villosa, Hemipenaeus carpenter, Mesopenaeus tropicalis, Pelagopenaeus balboae, Penaeus hathor, Metapenaeopsis provocatoria, Aristeus virilis, Aristeus alcock, Penaeus aztecus, Heterocarpus abulbus, Penaeus setiferus, Cerataspis monstrosus, Pleoticus robustus, Aristaeopsis edwardsiana, Solenocera necopina, Parapenaeus cayrei, Parapenaeus fissurus, Parapenaeus investigatoris, Parapenaeus fissuroides, Parapenaeus americanus, Heterocarpus ensifer, Kishinouyepenaeopsis cornuta, Parapenaeus perezfarfantae, Parapenaeus murrayi, Parapenaeus longipes, Parapenaeus spp., Heterocarpus chani, Heterocarpus sibogae, Heterocarpus dorsalis, Metapenaeopsis andamanensis, Metapenaeopsis coniger, Macrobrachium idella, Trachysalambria brevisuturae, Trachysalambria aspera, Trachysalambria albicoma, Euphausia superba, Solenocera hextii, Hymenopenaeus equalis, Rimapenaeus constrictus, Crangon crangon, Trachypenaeus anchoralis, Megokris spp., Trachysalambria longipes, Trachysalambria starobogatovi, Trachysalambria nansei, Trachysalambria malaiana, Trachysalambria spp., Trachysalambria parvispina, Crangon uritai, Pandalus borealis, Metapenaeus monoceros, Pandalus nipponensis, Hadropenaeus lucasii, Ganjampenaeopsis uncta, Solenocera annectens, Solenocera melantho, Parapenaeopsis stylifera, Penaeus japonicus, Penaeus brevirostris, Penaeus notialis, Penaeus duorarum, Penaeus schmitti, Artemesia longinaris, Penaeus subtilis, Penaeus stylirostris, Penaeus vannamei, Macrobrachium rosenbergii, Penaeus monodon, Pandalus hypsinotus, Heterocarpus spp., Pandalus jordani, Macrobrachium bullatum, Penaeus merguiensis, Metapenaeus ensis, Acetes chinensis, Macrobrachium nipponense, Penaeus cahforniensis, Macrobrachium lanchesteri, Pleoticus muelleri, Metapenaeus affinis, Hymenopenaeus neptunus, Penaeus indicus, Aristaeomorphafoliacea, Solenocera spp., Mierspenaeopsis hardwickii, Penaeus latisulcatus, Penaeus semisulcatus, Penaeus isabelae, Sicyonia lancifer, Metapenaeopsis dalei, Metapenaeopsis gerardoi, Parapenaeus longirostris, Pandalus eous, Pandalus miyakei, Pandalus japonicas, Pandalus glabrus, Pandalus teraoi, Pandalus ivanovi, Pandalus coccinatus, Pandalus formosanus, Pandalus chani, Pandalus spp., Pandalus longirostris, Pandalus latirostris, Metapenaeus spp., Palaemon spp., Palaemon serratus, Macrobrachium nipponense, Palaemon capensis, Palaemon sinensis, Palaemon annandalei, Palaemon gravieri, Palaemon serenus, Palaemon carinicauda, Palaemon pugio, Palaemon pandaiformis, Palaemon elegans, Palaemon longirostris, Palaemon peringueyi, Palaemon debilis, Palaemon carteri, Palaemon ritteri, Palaemon orientis, Macrobrachium gracilirostre, Palaemon vulgaris, Palaemon serrifer, Palaemon varians, Palaemon macrodactylus, Palaemon tonkinensis, Palaemon xiphias, Palaemon ivonicus, Palaemon pacificus, Palaemon atrinubes, Palaemon intermedius, Palaemon concinnus, Palaemon yuna, Palaemon antennarius, Palaemon dolospinus, Palaemon gracilis, Palaemon mundusnovus, Palaemon suttkusi, Palaemon zariquieyi, Macrobrachium australiense, Palaemon semmelinkii, Palaemon litoreus, Palaemon septemtrionalis, Palaemon guangdongensis, Palaemon hancocki, Palaemon vietnamicus, Palaemon texanus, Palaemon ortmanni, Palaemon turcorum, Palaemon kadiakensis, Macrobrachium asperulum, Macrobrachium australe, Macrobrachium olfersii, Macrobrachium jelskii, Macrobrachium villosimanus, Macrobrachium equidens, Macrobrachium potiuna, Macrobrachium malcolmsonii, Macrobrachium superbum, Macrobrachium striatum, Macrobrachium latidactylus, Macrobrachium hancocki, Macrobrachium acanthurus, Macrobrachium inflatum, Macrobrachium crenulatum, Macrobrachium carcinus, Macrobrachium americanum, Macrobrachium latimanus, Macrobrachium mammillodactylus, Macrobrachium faustinum, Macrobrachium heterochirus, Macrobrachium scabriculum, Macrobrachium digueti, Macrobrachium tenellum, Macrobrachium idae, Macrobrachium formosense, Macrobrachium dienbienphuense, Macrobrachium placidulum, Macrobrachium sintangense, Macrobrachium niphanae, Macrobrachium totonacum, Macrobrachium tuxtlaense, Macrobrachium vicconi, Macrobrachium villalobosi, Macrobrachium amazonicum, Macrobrachium canarae, Macrobrachium tratense, Macrobrachium forcipatum, Macrobrachium hirsutimanus, Macrobrachium borellii, Macrobrachium brasiliense, Macrobrachium aemulum, Macrobrachium handschini, Macrobrachium horstii, Macrobrachium ferreirai, Macrobrachium lanatum, Macrobrachium novaehollandiae, Macrobrachium tolmerum, Macrobrachium iheringi, Macrobrachium saigonense, Macrobrachium nattereri, Macrobrachium aracamuni, Macrobrachium inpa, Macrobrachium depressimanum, Macrobrachium surinamicum, Macrobrachium denticulatum, Macrobrachium pilimanus, Macrobrachium ohione, Macrobrachium hainanense, Macrobrachium lepidactyloides, Macrobrachium jaroense, Macrobrachium esculentum, Macrobrachium maculatum, Macrobrachium edentatum, Macrobrachium grandimanus, Macrobrachium malayanum, Macrobrachium meridionale, Macrobrachium neglectum, Macrobrachium platycheles, Macrobrachium naso, Macrobrachium placidum, Macrobrachium yui, Macrobrachium shokitai, Macrobrachium sundaicum, Macrobrachium rude, Macrobrachium lamarrei, Macrobrachium sankolli, Macrobrachium gangeticum, Trachysalambria palaestinensis, Euphausia pacifica, Euphausia lucens, Euphausia vallentini, Euphausia triacantha, Euphausia longirostris, Euphausia similis, Euphausia recurve, Euphausia krohni, Euphausia frigida, Euphausia gibboides, Euphausia eximia, Euphausia americana, Euphausia tenera, Euphausia pseudogibba, Euphausia hemigibba, Euphausia brevis, Hymenopenaeus debilis and Nematopalaemon tenuipes.

8. The method of claim 1, wherein the identified species of the family of Cephalopods are selected from Loligoforbesii, Nototodarus sloanii, Sepia spp., Sepia lorigera, Sepia pardex, Rossia pacifica, Berryteuthis magister, Eledone massyae, Sepia robsoni, Loligo reynaudii, Doryteuthis (Amerigo) pealeii, Doryteuthis (Amerigo) gahi, Sepiola rondeletii, Adinaefiola ligulata, Sepia smithi, Sepia elliptica, Eledone palari, Eledone moschata, Rossia palpebrosa, Gonatus madokai, Gonatus kamtschaticus, Eledone cirrhosa, Sepia elegans, Rossia bipillata, Sepiola atlantica, Lolliguncula (Lolliguncula) panamensis, Octopus maya, Ilex illecebrosus, Nototodarus gouldi, Gonatopsis octopedatus, Illex coindetii, Berryteuthis anonychus, Gonatus fabricii, Lusepiola birostrata, Octopus tetricus, Uroteuthis (Photololigo) sibogae, Doryteuthis (Doryteuthis) pleii, Doryteuthis sanpaulensis, Doryteuthis (Amerigo) surinamensis, Octopus hubbsorum, Macrotritopus defilippi, Octopus insularis, Loliolus (Nipponololigo) sumatrensis, Sepia recurvirostra, Sepia madokai, Sepia kobiensis, Amphioctopus aegina, Sepia officinalis, Sepioteuthis lessoniana, Todarodes pacificus, Octopus vulgaris, Heterololigo bleekeri, Octopus sinensis, Octopus americanus, Narrowteuthis nesisi, Ommastrephes bartramii, Sepiella japonica, Uroteuthis (Photololigo) edulis, Doryteuthis (Amerigo) opalescens, Architeuthis dux, Dosidicus gigas, Sepia esculenta, Amphioctopus fangsiao, Loligo vulgaris, Sepiola spp., Octopus mimus, Octopus spp., Octopus bimaculoides, Uroteuthis (Photololigo) chinensis, Uroteuthis (Photololigo) duvaucelii, Illex argentinus, Sepia aculeata, Sepiella inermis, Sepia lycidas, Sepia latimanus, Sepia apama, Sepia pharaonis, Loliolus (Nipponololigo) beka, Alloteuthis subulata, Nototodarus hawaiiensis, Sepia orbignyana, Sepia papuensis, Rossia macrosoma, Lolliguncula (Lolliguncula) brevis, Lolliguncula (Loliolopsis) diomedeae, Afrololigo mercatoris, Octopus bimaculatus, Octopus cyanea, Callistoctopus ornatus, Enteroctopus megalocyathus, Sasakiopus salebrosus, Octopus berrima, Amphioctopus marginatus, Octopus maorum, Octopus fitchi, Amphioctopus neglectus, Loliolus (Nipponololigo) uyii, Loliolus (Nipponololigo) japonica, Bathyteuthis abyssicola, Semirossia patagonica, Cistopus taiwanicus, Sthenoteuthis oualaniensis, Watasenia scintillans, Gonatopsis okutanii, Uroteuthis (Aestuariolus) noctiluca, Sepioteuthis australis, Sepioteuthis sepioidea, Amphioctopus kagoshimensis, Amphioctopus membranaceus, Amphioctopus exannulatus, Amphioctopus rex and Sepia peterseni.

9. The method of claim 1, wherein the identified species of the family of Gastropoda are selected from Helixpomatia, Achatina fulica, Helix aspersa, Helix aspersa maxima, Helix thessalica, Helix lucorum, Helix nicaeensis, Achatina reticulata, Helix aperta, Helix albescens, Tyrrhenaria ceratina, Helix vladika, Helix spp., Pleurodonte discolor, Pleurodonte lychnuchus, Erctella mazzullii, Erctella cephalaeditana, Pleurodonte formosa, Helix christophi, Helix nordmanni, Pleurodonte nucleola, Pleurodonte parilis, Gonostomopsis auridens, Caracolus caracollus, Lacteoluna selenina, Cernuella cisalpine, Cochlicella acuta, Disculella maderensis, Dialeuca nemoraloides, Monadenia fidelis, Cepaea nemoralis, Sphincterochila candidissima, Microphysula ingersolli, Helicodonta obvoluta and Cernuella virgata.

10. The method of claim 1, wherein the identified species of the family of Veneridae are selected from Tridacna mbalavuana, Siliqua alta, Megangulus zyonoensis, Megangulus venulosus, Donax faba, Donax cuneatus, Donax kiusiuensis, Mactra quadrangularis, Ensis ensis, Chamelea gallina, Spisula subtruncata, Polititapes rhomboides, Callista chione, Venerupis corrugata, Polititapes aureus, Venus crebrisulca, Mercenaria campechiensis, Antigona lamellaris, Ameghinomya antiqua, Ameghinomya spp., Callista erycina, Venerupis aspera, Paphia philippiana, Venus casina, Ensis spp., Mactra stultorum, Ensis macha, Siliqua minima, Ensis leei, Polititapes durus, Cerastoderma glaucum, Tridacna spp., Donax longissimus, Solen vaginoides, Venus verrucosa, Ezocallista brevisiphonata, Procardium indicum, Cardium maxicostatum, Cardium costatum, Acanthocardia paucicostata, Acanthocardia echinata, Acanthocardia aculeata, Solen spp., Ruditapes philippinarum, Corculum cardissa, Spisula solida, Scrobicularia plana, Mactra spp., Chamelea striatula, Ensis siliqua, Serripes groenlandicus, Tridacna elongatissima, Tridacna rosewateri, Meretrix lamarckii, Meretrix lusoria, Paphia euglypta, Meretrix spp., Acanthocardia tuberculata, Tridacna maxima, Lutraria rhynchaena, Meretrix lyrata, Arctica islandica, Solen strictus, Paratapes undulatus, Paratapes textilis, Paphia amabilis, Solen grandis, Lutraria maxima, Donax vittatus, Donax variegatus, Donax trunculus, Donax semistriatus, Ruditapes decussatus, Cerastoderma edule, Tridacna squamosa, Mactra chinensis and Mercenaria mercenaria.

11. The method of claim 1, wherein the identified species of the family of Ostreidae are selected from Magallana bilineata, Magallana gigas, Crassostrea virginica, Magallana spp., Magallana angulata, Magallana sikamea, Magallana ariakensis, Ostrea denselamellosa, Magallana nippona, Ostrea edulis, Crassostrea spp., Crassostrea tulipa, Ostrea angasi, Magallana belcheri, Crassostrea rhizophorae, Talonostrea talonata, Crassostrea corteziensis, Ostrea spp., Ostrea chilensis, Ostrea algoensis, Ostrea megodon, Saccostrea cuccullata, Saccostrea palmula, Saccostrea malabonensis, Saccostrea scyphophilla, Saccostrea kegaki, and Saccostrea spp.

12. The method of claim 1, wherein the identified species of the family of Pectinidae are selected from Euvola spp., Mimachlamys crassicostata, Gloripallium pallium, Flexopecten glaber, Aequipecten opercularis, Nodipecten nodosus, Scaeochlamys livida, Pecten spp., Talochlamys multistriata, Patinopecten caurinus, Chlamys behringiana, Placopecten septemradiatus, Pecten maximus, Zygochlamys delicatula, Chlamys hastata, Ylistrum japonicum, Talochlamys gemmulata, Zygochlamys patagonica, Argopecten purpuratus, Argopecten irradians, Azumapecten farreri, Mizuhopecten yessoensi, Placopecten magellanicus, Chlamys islandica, Argopecten ventricosus, Mimachlamys varia, Amusium pleuronectes, Mimachlamys sanguinea, Talochlamys dichroa, Mimachlamys gloriosa, Mimachlamys cloacata, Mimachlamys asperrima, Annachlamys striatula, Decatopecten radula, Bractechlamys vexillum, Aequipecten glyptus, Scaeochlamys lemniscata, Chlamys rubida, Karnekampia sulcata, Crassadoma gigantea, and Ylistrum balloti.

13. The method of claim 1, wherein the identified species of the family of Mytilidae are selected from Mytilus spp., Perna perna, Mytilus unguiculatus, Perna viridis, Mytilus californianus, Mytilus trossulus, Mytilus galloprovincialis, Mytilus edulis and Perna canaliculus.

14. A kit for identifying seafood species of different origin and processing degree in a food sample, comprising at least 2 primer sets (ps) selected from the group consisting of: i. ps 1 for identifying seafood species of the family of Crustaceans comprising one or more primer pairs of one forward primer selected from any one of SEQ ID NOs: 1 and 2, and a corresponding reverse primer SEQ ID NO: 15 and/or reverse complement sequences of the primer sequences;ii. ps 2 for identifying seafood species of the family of Cephalopods comprising one or more primer pairs of one forward primer selected from any one of SEQ ID NOs: 3 to 5, and a corresponding reverse primer SEQ ID NO: 16 and/or reverse complement sequences of the primer sequences;iii. ps 3 for identifying seafood species of the family of Gastropoda comprising one or more primer pairs of forward primer SEQ ID NO: 6, and one reverse primer selected from any one of SEQ ID NOs: 17 to 18 and/or reverse complement sequences of the primer sequences;iv. ps 4 for identifying seafood species of the family of Veneridae comprising one or more primer pairs of one forward primer selected from any one of SEQ ID NOs: 7 to 11, and one reverse primer selected from any one of SEQ ID NOs: 19 to 21 and/or reverse complement sequences of the primer sequences;v. ps 5 for identifying seafood species of the family of Ostreidae comprising forward primer SEQ ID NO: 12 and a corresponding reverse primer SEQ ID NO: 22 and/or reverse complement sequences of the primer sequences;vi. ps 6 for identifying seafood species of the family of Pectinidae comprising forward primer SEQ ID NO: 13 and a corresponding reverse primer SEQ ID NO: 23 and/or reverse complement sequences of the primer sequences; andvii. ps 7 for identifying seafood species of the family of Mytilidae comprising one or more primer pairs of forward primer SEQ ID NO: 14, and one reverse primer selected from any one of SEQ ID NOs: 24 to 25 and/or reverse complement sequences of the primer sequences,optionally further comprising PCR components, buffers, reagents and/or an instruction manual.

15. A library of primer sequences comprising any one of SEQ ID NOs: 1 to 25, or any combination thereof.

16. The method of claim 2, wherein amplifying of fragments of DNA in step b) is performed by a PCR comprising 25 cycles at an annealing temperature of 62° C.

17. The method of claim 4, wherein the amplified DNA fragments comprise 120 bp-220 bp of the 16S rDNA.