Patent Application
20080275034
The present invention relates to the use of a phenothiazine derivative having a calpain inhibiting activity and an activity which traps the reactive oxygen species (ROS) for the preparation of a medicament intended to prevent and/or treat hearing loss. The invention also relates to a product comprising at least one such compound and a pharmaceutical composition containing it.
Among the many causes of hearing loss, there may be mentioned in particular diseases such as meningitis or otitis, genetic causes, injuries, tumours, drugs, the administration of medicaments such as certain antibiotics, anti-cancer drugs, non-steroidal anti-inflammatory agents, diuretics, ulcer drugs or anticonvulsants, prolonged exposure to aromatic organic solvents such as toluene or xylene, ageing and exposure to noise. Presbycusis (age-related deafness), prolonged exposure to noise and the administration of medicaments are the main causes of hearing loss.
Today it is well known that certain antibiotics of the aminoglycoside family, such as gentamicin and tobramycin, which are used in the treatment of serious infections are responsible for cochlear deafness. The toxicity to aminosides (aminoglucosides such as amikacin, dibekacin, gentamicin, isepamicin, netilmicin, spectinomycin, tobramycin) initially expresses itself by an impairment of hearing at high frequencies and is not at first recognized by the patient. The latter will only gradually be bothered by this. Unfortunately it is often irreversible.
The noise around us lowers our hearing ability. Hearing loss caused by noise occurs when the acoustic hair cells which convey sound towards the inner ear are damaged and can no longer order the auditory nerve to send electrical pulses to the brain.
The volume of the sound and the duration of exposure are the two main factors influencing hearing loss. Although the reaction to exposure to noise varies from one person to the next, some facts can be reported with certainty. Research has shown that prolonged exposure to 85 decibels (dB) or more will, over time, cause permanent hearing loss.
European and North American statistics show that 8 to 10% of the population suffer from cochlear pathologies (deafness, tinnitus). Given the sound levels produced in discotheques, techno concerts and also by walkmans, a whole generation of deaf people and tinnitus sufferers is being created. Thus age-related problems (presbycusis) which these days start at around 60 years of age, could start much earlier, i.e. around 35-40 years of age.
The problem with auditory pathologies is that the great majority of them result from the loss of the acoustic hair cells and nerve cells of the inner ear (or cochlea). These cells, beyond a development phase which is essentially intra-uterine, do not have the ability to renew themselves after their last stage of differentiation.
The progressive loss of the sensitive and nervous powers of the ear related to different cochlear pathologies even today still appears to be beyond the scope of any treatment.
The subject of the invention is therefore the use of a heterocyclic derivative which corresponds to the formula (I)
in the form of diastereoisomers or any combinations of these forms,
in which R represents the hydrogen atom, a (C1-C6)alkyl, arylalkyl or —C(O)R′ radical
in which R′ represents a heterocycloalkyl, (C1-C6)alkyl, aryl or aralkyl radical;
In the present application, by “traumatism” is meant a group of local lesions involving the tissues and organs, caused by an external agent. In the case of acoustic traumatism, the external agent is mainly noise.
By (C1-C6)alkyl is meant a linear or branched alkyl radical containing from 1 to 6 carbon atoms such as, for example, the methyl, ethyl, propyl, isopropyl, butyl, isobutyl, sec-butyl and tert-butyl, pentyl, neopentyl, isopentyl, hexyl, isohexyl radicals. The (C1-C6)alkoxy radicals can correspond to the alkyl radicals mentioned above such as for example the methoxy, ethoxy, propyloxy or isopropyloxy radicals but also linear, secondary or tertiary butoxy. The alkylcarbonyl radicals can correspond to the alkyl radicals mentioned above such as for example the methylcarbonyl, ethylcarbonyl, propylcarbonyl. By halogen is meant the fluorine, chlorine, bromine, or iodine atoms.
By aryl is meant a carbocyclic or heterocyclic system comprising at least one aromatic ring, a system being called heterocyclic when at least one of the rings of which it is composed comprises a heteroatom (O, N or S). As an example of a carbocyclic aryl radical, phenyl or naphthyl can be mentioned. As an example of a heterocyclic aryl (or heteroaryl) radical, thienyl, furyl, pyrrolyl, imidazolyl, pyrazolyl, isothiazolyl, thiazolyl, isoxazolyl, oxazolyl, pyridyl, pyrazinyl, pyrimidyl, benzothienyl, benzofuryl and indolyl can be mentioned.
The term heterocycle (or heterocycloalkyl), preferably represents a mono- or bicyclic heterocycle, saturated or unsaturated, comprising from 1 to 5 heteroatoms chosen from O, S and N. The nitrogen atom can optionally be substituted by a radical chosen from: alkyl, aryl, aralkyl and alkylcarbonyl. As an example of a saturated heterocycle, there can be mentioned: tetrahydrofuran, tetrahydropyran, oxetane, oxepane, tetrahydrothiophene, tetrahydrothiopyran, thietane, pyrrolidine, piperidine, azetidine, 1,3-dioxane, 1,3-dioxolane, 1,3-dithiolane, 1,3-dithiane, 1,3-oxathiolane, 1,3-oxazolidine, 1,3-imidazolidine or 1,3-thiazolidine. As an example of an unsaturated heterocycle, there may be mentioned: dihydrothiophene, dihydrofuran, dihydropyrrole, dihydroimidazole, dihyropyrazole, dihydropyridine, indoline.
The arylalkyl (or aralkyl) radicals designate the radicals in which respectively the aryl and alkyl radicals are as defined above such as for example benzyl, phenethyl or naphthylmethyl.
In the case of the radical of formula —NR1R2 where R1 and R2 form together with the nitrogen atom to which they are attached an optionally substituted heterocycle, the heterocycle is preferably saturated and comprises from 4 to 7 members and from 1 to 3 heteroatoms including the nitrogen atom already present, the additional heteroatoms being chosen independently from the group constituted by the O, N and S atoms. Said heterocycle can be, for example, the azetidine, pyrrolidine, piperidine, piperazine, morpholine or thiomorpholine ring. Said heterocycle can be substituted by one or more identical or different substituents chosen from the hydroxy group, an alkyl, aryl, aralkyl or alkoxy radical or a halogen atom.
More particularly a subject of the invention is a use as defined above, characterized in that R represents —C(O)R′ and preferably R′ represents an alkyl radical.
Very preferably, the compound (I) is characterized in that R represents —C(O)—CH3. The latter compound will hereafter be known as compound (1).
More particularly a subject of the invention is a use as defined above, characterized in that R represents hydrogen.
Also very preferably, the compound (I) as defined above has the formula
and more particularly one of the following formula
Also very preferably, the compound (I) as defined above has the formula
and more particularly
The compounds as defined above are protective agents combining antioxidizing and anti-calpain effects and described in the application WO 01/32654.
A subject of the present invention is therefore also a use of a compound of formula (I) as defined above, in pre- or post-treatment relating to the origin of the hearing loss.
A subject of the present invention is also a use of a compound of formula (I) as defined above, for the preparation of a medicament intended to prevent and/or treat hearing loss following the administration of another medicament. Preferably, the other medicament is an antibiotic such as gentamicin, an anti-cancer drug such as cisplatin, a non-steroidal anti-inflammatory agent such as derivatives of salicylic acid or ibuprofen, a diuretic such as furosemide, an antiulcerative such as cimetidine or omeprazole, an anticonvulsant agent such as carbamazepine or valproic acid. Very preferably, the other medicament is an antibiotic agent and more particularly gentamicin.
A subject of the present invention is also a use of a compound of formula (I) as defined above, for the preparation of a medicament intended to prevent and/or treat hearing loss following presbycusis.
A subject of the present invention is also a use of a compound of formula (I) as defined above, for the preparation of a medicament intended to prevent and/or treat hearing loss following an acoustic traumatism.
The compounds according to the invention can be used alone or in combination with at least one other substance with pharmaceutical activity and preferably a substance which is able to prevent and/or treat hearing loss or to prevent and/or treat any pathologies associated with hearing loss.
The compounds can be combined with antioxidants, calpain inhibitors such as leupeptin or Neurodur, peripheral vasodilitators such as EGb 761®, agonists or antagonists of the NMDA receptor, peptide inhibitors of c-Jun N-terminal kinase such as D-JNK-1.
A subject of the invention is also the use as defined above, characterized in that it is combined with at least one other substance with pharmaceutical activity, and preferably with a substance chosen from: antioxidants, calpain inhibitors, peripheral vasodilitators, agonists or antagonists of the NMDA receptor, peptide inhibitors of c-Jun N-terminal kinase.
A compound of formula (I) and preferably the compound (1) as defined above, can be administered at a dose comprised between 50 to 500 μM as a local application. In the case of a local intracochlear treatment, it can be administered at a dose comprised between 50 and 200 μM. In the case of a local extracochlear treatment, it can be administered at a dose comprised between 200 and 500 μM. The substances which are optionally combined with them, known in pharmacology, are administered at the normally recommended doses.
The compounds as defined above as well as the substances with pharmaceutical activity which are optionally combined with them, can be administered by the standard administration routes such as oral, intraperitoneal, subcutaneous or intravenous. They can be administered simultaneously or separately, via the same or different administration routes. Preferably, the compound (I) as defined above is administered locally by techniques commonly used in the treatment of the inner ear such as microcatheters, syringes for transtympanic injection or tubes equipped with a wick of the Silverstein Microwick type.
A subject of the invention is also a product comprising the heterocyclic derivative of formula (I) as defined above, in the form of diastereoisomers or any combinations of these forms, and at least one substance with therapeutic activity, as a combination product for a use which is simultaneous, separate or spread over time in order to prevent and/or treat hearing loss. Preferably, a subject of the invention is a product as defined above, to prevent and/or treat hearing loss, either after the administration of a medicament, or after presbycusis, or after an acoustic traumatism.
Finally a subject of the invention is, as a medicament, a product as defined above.
In the case of hearing loss after the administration of a medicament, the latter is preferably an antibiotic, and preferably gentamicin.
The substances with pharmaceutical activity with which it is optionally combined are administered via the administration routes usually envisaged for these substances in the therapeutic field considered.
In the case of hearing loss caused by an acoustic traumatism, the administration of a compound (I) as defined above, can occur a few days before the acoustic traumatism preferably 2 to 3 days before the traumatism, and 24 hours after the traumatism. Preferably, this administration occurs in the 7 days following the traumatism. Preferably also, this administration can occur in the 2 hours following the traumatism.
A subject of the invention is therefore the use described above, characterized in that the compound (1), in the form of diastereoisomers or any combination of these forms, is administered in the 7 hours and preferably in the hour following the traumatism.
The results showing the therapeutic effectiveness of compound (1) on functional recovery after acoustic traumatism are presented in the experimental part.
The following examples are presented in order to illustrate the above procedures and should in no event be considered to be a limit to the scope of the invention.
1) Ototoxicity Induced by a Treatment with Gentamicin
Demonstration of the Protective Effect of Compound 1, Administered as a Co-Treatment, Vis-à-Vis the Acoustic Hair Cell Loss Induced by Gentamicin.
Gentamicin and other aminoglycosides have been shown to cause damage to the acoustic hair cells and hearing loss in humans. Zebrafish display the sensory organs on the surface of their bodies, called neuromasts. In these fish, the neuromast acoustic hair cells can be stained with DASPEI and this staining reflects the number of acoustic hair cells. These acoustic hair cells are structurally and functionally similar to the internal acoustic hair cells of the human ear.
Damage to the internal acoustic hair cells is induced in zebrafish by gentamicin. In order to test the effect of compound (1) on the protection of the acoustic hair cells damaged by gentamicin, the compound (1) was administered as a co-treatment with gentamicin. The internal acoustic hair cells are then stained and quantified.
The study is undertaken on fish aged 5 days incubated with 1 μg/ml of gentamicin for 24 hours in the presence or in the absence of compound (1). Controls are carried out in parallel; single vehicle (1% DMSO; positive control). The fish treated with gentamicin are the negative controls.
DASPEI (2,4-dimethyl-aminostyryl-N-ethyl pyridinium iodide) staining is carried out in order to visualize the acoustic hair cells in vivo (n=5 per group). Morphometric analysis is used in order to quantify the staining signal of the acoustic hair cells. The signal for DASPEI staining of the positive controls was defined as 100%.
The results are presented in
The results of
This involves the study in guinea pigs of the protective effects of the compound (1) in pre- and post-treatment on the protection of the acoustic hair cells of the inner ear on the one hand and the functional recovery of hearing on the other hand, following hearing loss caused by an acoustic trauma. The compound (1) was administered by local route “intra- and extracochlear” so as to simulate its use in surgical clinical medicine for humans.
The functional recovery obtained with this novel protective agent is quantified using a functional test which is the reading of the audiogram of the animals. This audiogram is produced by recording the activity of the potential composite action of the auditory nerve. The audiograms are recorded before and after the acoustic traumatism. Analyses by scanning electron microscopy complete this functional data by a study of the cell loss along the cochlear spiral as well as the protective effect of compound (1).
All the experiments are carried out on guinea pigs; each experiment is carried out according to a similar schema.
The general schema of an experimental phase is as follows:
The cochlear is approached by a dorsal access. After having shaved and cleaned the scalp, an incision of 2 cm is made behind the auricle. The parotid and the muscular planes covering the tympanic bulla are reclined. Once dried and cleaned, the bone is pierced in its upper wall below where the facial nerve emerges. The active electrode (platinum wire with a diameter of 0.13 mm, sheathed with Teflon) is then introduced into the bulla and placed in contact with the membrane of the round window under the control of an operating microscope (WILD M650). After recording the metric hearing thresholds, a small hole of 0.2 mm in diameter is manually countersunk in the basal turn of the tympanic canal just beneath the round window.
A glass pipette (0.1 mm in diameter at the tip), connected to the micropump via a catheter, is inserted into the cochlea using a second micromanipulator. The tympanic bulla, including the recording electrode and the perfusion pipette, is closed with dental resin.
The micropump is slid beneath the skin of the animal, the muscular and cutaneous planes are swabbed with betadine, sutured with absorbable sutures and covered with an antibiotic solution (Rifocin 5P100®).
A second incision of approximately 1.5 cm is then made on the vertex with a view to fixing a connector (Connectral, ref.: 8/45-05.050.000) on the skull of the animal. After having scraped the periosteum of the bone, this area is carefully dried, swabbed with silver nitrate then covered with a film of cyanolite.
The (active and reference) electrodes are slid beneath the skin to the connector to which they are welded. The connector is then fixed on the skull with dental resin.
The sound stimulations are produced using two Hewlett Packard synthesizers (HP 3314 A and HP 8904 A) and delivered in free field by means of a loudspeaker (JBL 075) placed 10 cm from the ear. The calibration of the acoustical system is carried out in an artificial ear using a ½-inch microphone (type 4134, Bruel and Kjaer) and a measuring amplifier (type 2606) allowing direct reading of the sound level in decibels SPL (dB SPL, reference: 2.10-5 Pa). In order to display the acoustic signals, the output of the measuring amplifier is connected to an oscilloscope. The animals are exposed to a sound of 6 kHz, at 120 dB SPL for 30 minutes.
The cochlear responses recorded by the electrode implanted in the cochlea via the connector fixed on the head of the animal are amplified (gain 1000) and filtered (32 Hz-3200 Hz) using a preamplifier and a differential amplifier of the GRASS P 511 K type. The direct trace is displayed on an oscilloscope (Tektronix type 513). This signal is averaged (256 passes) to reduce the background noise, and stored on a 486 PC computer, 66 megahertz (Hewlett-Packard-Vectra 05/65). The threshold criterion is defined as being the value in dB SPL necessary to produce a measurable response (>2 μV). Two electrodes placed in contact with the cochlea (round window) allow recording of the cochlear responses and production of audiograms for each ear. The metric audio thresholds are recorded 20 minutes after the sound traumatism and every day for one month.
Involvement of the Activation of Calpain after an Acoustic Trauma:
The cleavage of a specific substrate of calpain, fodrin, is quantified in order to determine the activation of the calpain enzyme after an acoustic trauma. Calpain cleaves the 240 KD fodrin to form a 150 KD degradation product. A double marking is carried out with a polyclonal antibody specific to the 150 KD fragment and an anti-calbindin antibody allowing identification of the acoustic hair cells. The fluorescence is displayed with a confocal microscope.
Molecular Mechanisms of the Death of Acoustic Hair Cells after an Acoustic Trauma:
In order to determine the nature of cell death, the fragmentation of the DNA of the cochlear cells is quantified using the TUNEL method.
Determination of the Integrity of the Acoustic Hair Cells after an Acoustic Trauma
The integrity of the cochlear cells is determined by immunocytochemistry using an anti-cytochrome C antibody. In healthy cells, the cytochrome C is localized in the mitochondria. After an acoustic trauma, the cytochrome C is diffused and distributed in the cytoplasm.
Phase 1: Demonstration of the Protective Effect of Compound (1), Administered as a Pre-Treatment, Vis-à-Vis the Hearing Loss and Cell Loss Along the Cochlear Spiral Caused by the Traumatism
An osmotic minipump, placed under the skin, delivers the compound (1).
The animals undergo the sound traumatism inside the cochlea via a catheter (intracochlear infusion), two days after the implantation of the minipump.
This experiment is carried out on 7 animals then 30 animals for the dose-response.
The compound (1) is applied directly into the cochlea (intracochlear perfusion) via an osmotic minipump (flow rate of 1 μl/h, 200 μl volume, diffusion duration 7 days) permanently implanted in the cochlea 2 days before the traumatism. This technique allows determination of the protective effect of compound (1), at a dose of 100 μM, vis-à-vis the cell loss along the cochlear spiral caused by the traumatism as well as the functional recovery of hearing. Then a dose effect of the product allows determination of the effective dose allowing 50% of hearing to be preserved.
The compound (1) at a concentration of 100 μM.
Functional Test Measured by Audiogram. Hearing Loss after an Acoustic Trauma and Protection with Compound 1.
Five days after a traumatism of 120 dB for a period of 30 min, the reading of the audiograms allows the effectiveness of compound (1) to be demonstrated; this product allows recovery of 100% of hearing (
Morphological Study: Histology of the Cells Along the Cochlear Spiral after an Acoustic Trauma. Protection with Compound (1).
At the end of the electrophysiological evaluation (audiogram), 30 days after the acoustic trauma, the cochlea of the animals are sampled, and prepared for electron microscopy.
The cell loss is determined by counting the ciliary tufts with a scanning microscope. Qualitative data is sought by undertaking highly magnified observations of the surface of the organs of Corti.
After a traumatism of 120 dB for a duration of 30 min, the internal acoustic hair cells are destroyed as well as some of the three rows of external acoustic hair cells. The histology of these cells allows the effectiveness of compound (1) to be demonstrated. This product allows 100% of the internal acoustic hair cells and a large part of the external acoustic hair cells to be protected when it is perfused at 100 μM, 2 days before this traumatism (
Involvement of the Activation of Calpain after an Acoustic Trauma. Inhibition with Compound 1.
The activation of the calpain enzyme is determined by the quantification of the degradation of a specific substrate of the enzyme, fodrin, to a 150 KD fragment.
This cleavage of fodrin is never detected in the cochlear cells in controls.
After an acoustic trauma, the immunomarking of the 150 KD fragment, originating from the cleavage of fodrin due to the activation of the calpain enzyme, is visible on the external cochlear cells due to marking with the anti-FBDP antibody (“Fodrin Breakdown products”, green fluorescence;
The local application of 100 μM of compound (1), a calpain activation inhibitor antioxidant, prevents the cleavage of fodrin by the calpain enzyme in the cochlear cells exposed to an acoustic trauma. This absence of green fluorescent marking, thus of the non-degradation of the specific substrate of calpain is related to a protection of the cochlear cells (marking with anti-calbindin antibodies;
Molecular Mechanisms of the Death of Acoustic Hair Cells after an Acoustic Trauma. Protection with Compound 1.
In order to determine the nature of the death of the cochlear cells caused by an acoustic trauma, the fragmentation of the DNA (quantified by the TUNEL method) is carried out on animals which have undergone an acoustic trauma. The effect of compound 1 is tested on this parameter in order to determine its involvement via this mechanism of cell death by apoptosis.
No “TUNEL-positive” cells are observed in the cochlea obtained from the control animals not exposed to noise.
The cochlea exposed to an acoustic trauma have TUNEL-positive cell nuclei in the region of the organ of Corti (
The local application of 100 μM of compound (1), a calpain activation inhibitor and antioxidant, prevents the marking of the nuclei of the acoustic hair cells (TUNEL method,
Loss of the Integrity of the Acoustic Hair Cells after an Acoustic Trauma. Protection with Compound (1).
In order to determine the loss of integrity of the acoustic hair cells after an acoustic trauma, the diffusion of the cytochrome C by immunocytochemistry via the use of an anti-cytochrome C antibody is carried out on animals which have undergone an acoustic trauma.
Compound (1) is tested on the release of cytochrome C, from the mitochondrial compartment to the cytoplasmic compartment, in order to determine its effect on the loss of integrity of the acoustic hair cells after an acoustic trauma.
In the cochlea obtained from the control animals not exposed to noise, the cytochrome C is localized in the mitochondria.
The cochlea exposed to an acoustic trauma show a marking of cytochrome C which is diffused and distributed in the cytoplasm (
The local application of 100 μM of compound (1), a calpain activation inhibitor and antioxidant, prevents the dispersion of cytochrome C from the mitochondria towards the cytoplasm of the acoustic hair cells exposed to the acoustic trauma and thus maintains the integrity of the cells (
The protective effect of compound (1) was evaluated by varying the dose in order to define the effective dose allowing to recover 50% of the hearing lost (ED50). Eight groups of 5 animals including those receiving artificial perilymph only and those receiving 1, 3, 10, 33, 100 μM of compound (1), i.e. 30 animals are used.
Five days after a traumatism of 120 dB for a duration of 30 min, the reading of the audiograms allows determination of the effective dose of compound (1) (ED50=3.61 μM) allowing recovery of 50% of the hearing lost after the traumatism (
Phase 2: Demonstration of the Protective Effect of Compound (1), Administered by Extracochlear Perfusion in a Post Treatment, Vis-à-Vis the Cell Loss Along the Cochlear Spiral and Hearing Loss. Determination of the Time in which, after a Traumatism, the Compound (1) Allows Recovery of 50% of Hearing.
Preliminary studies have shown that a cochleostomy carried out after the exposure aggravates the traumatic effects of the sound. In this way, the animals implanted after the traumatism do not recover as well as the non-implanted animals. In order to eliminate the traumatism related to the cochleostomy, we have developed a non-traumatic method by applying the compound directly to the round window (extracochlear).
An osmotic minipump, is implanted under the skin and delivers the compound (1) into the cochlear via a catheter (extracochlear perfusion), 30 minutes or 1, 3, 6, 12 or 24 hours after the animals have undergone the sound traumatism.
This experiment is carried out on 30 animals.
The compound (1) is applied 48 hours before or 1, 3, 6, 12 or 24 hours after the traumatism in the middle ear (extracochlear perfusion) via an osmotic minipump (flow rate 1 μl/h, 200 μl volume, diffusion duration 7 days). This minipump is permanently implanted into the middle ear and diffuses the product directly onto the round window.
These experiments allow determination of the drug holiday of compound (1) (DH), i.e. the maximum time at which the compound (1) can be given after a traumatism while demonstrating a protective effect. The effective time allowing recovery of 50% of the lost hearing after the traumatism (ET50) is also determined. This technique also allows determination, one month after the acoustic trauma, of the protective effect of compound (1), at a dose of 300 μM, vis-à-vis cell loss along the spiral cochlea caused by the traumatism.
Compound (1) at a concentration of 300 μM.
One hour after the traumatism, the compound (1) preserves 90% of hearing. The time at which the compound (1) can be given after the traumatism while preserving 50% of hearing is determined as between 6 to 7 hours. The therapeutic window of the compound (1) is 24 hours after an acoustic traumatism of 120 dB for a duration of 30 minutes. This means that the compound (1) in this model is active in the first 24 hours after the acoustic trauma (cf.
Morphological Study: Histology of the Cells Along the Cochlear Spiral One Month after the Acoustic Traumatism.
The extracochlear perfusion of 300 μM of compound (1) started six hours after the acoustic trauma still protects a large part of the acoustic hair cells one month after the acoustic trauma. In fact only 32% of the internal acoustic hair cells and 18% of the external acoustic hair cells are absent in the area damaged by the acoustic trauma compared with the contralateral side which is exposed to the noise but not treated with the compound (1) where 86% of the internal acoustic hair cells and 62% of the external acoustic hair cells are absent in the area damaged by the acoustic trauma.
| Number | Date | Country | Kind |
|---|---|---|---|
| 0403203 | Mar 2004 | FR | national |
| 0406404 | Jun 2004 | FR | national |
| Filing Document | Filing Date | Country | Kind | 371c Date |
|---|---|---|---|---|
| PCT/FR2005/000713 | 3/25/2005 | WO | 00 | 9/29/2006 |
