Organic electroluminescent element

Abstract

An organic electroluminescent element having at least one pair of electrodes including an anode and a cathode, at least one of which having light transmissive, and at least one organic compound layer disposed between the electrodes, wherein the at least one organic compound layer contains at least one kind of non-conjugated polymer having terminal groups, and at least one of terminal groups of the non-conjugated polymer contains a fluorescent substance emitting fluorescence in a solid state.

Description

BACKGROUND OF THE INVENTION

[0001] 1. Field of the Invention

[0002] The present invention relates to an element which emits light by converting electric energy into light, and more particularly to an organic electroluminescent element which can be suitably used in the fields of display elements, back lights of liquid crystals, illumination light sources, exposing apparatus for electrophotography, labels, sign boards and the like.

[0003] 2. Description of the Related Art

[0004] Since an electroluminescent element is a spontaneously emitting wholly solid element, has high visibility, and withstands impacts, wide application thereof is expected. Currently, an electroluminescent element using an inorganic fluorescent substance is popular and is used widely. Since such an electroluminescent element requires alternating current voltage in a range of 200 V or greater and 50 to 1000 Hz for driving, it has a problem in that a running cost thereof is high and luminance is insufficient. On the other hand, study of an electroluminescent element using an organic compound first started using a single crystal of anthracene or the like, but a film thickness of the element is as great as 1 mm, and the element requires a driving voltage of 100 V or greater. For that reason, as reported in Thin Solid Films, 94, 171(1982), thinning by a deposition method has been tried.

[0005] Light emission by these electroluminescent elements is a phenomenon in which electrons are injected from one electrode and holes are injected from another electrode, whereby, a light emitting material in an electroluminescent element is excited to a high energy level, and an excited light emitting substance releases, as light, extra energy produced when returned to a ground state. However, in these electroluminescent elements, a driving voltage is still as high as 30 V, densities of electron carriers and hole carriers present in a film are low, and a probability of production of photons by recombination of carriers is low. Therefore, sufficient luminance cannot be obtained, and these electroluminescent elements have not been put to practical use.

[0006] However, in 1997, Tang et al. reported in Appl. Phys. Lett., 51, 913(1987) and Japanese Patent Application Laid-Open (JP-A) No. 59-194393 that a high luminance of 1000 cd/m2 or larger can be obtained under a low driving voltage of around 10 V by an organic electroluminescent element. This organic electroluminescent element is a function separated-type organic electroluminescent element in which a hole transporting organic low-molecular compound, and a fluorescent organic low-molecular compound having electron transporting ability are successively deposited in order, as an extremely thin film, on a transparent substrate by a vacuum deposition method. Since this study by Tang et al., organic luminescence elements have been actively studied and developed.

[0007] These multilayer electroluminescent elements have a structure in which an organic light emitting substance and a charge transporting organic compound (charge transporting material) are deposited on an electrode, and the light emission by these elements is caused by recombination of holes and electrons, which are generated in both materials and move in the charge transporting material.

[0008] In this case, as the organic light emitting substance, organic dyes emitting fluorescene such as a 8-quinlinol aluminium complex and a coumarin compound are used. In addition, examples of the charge transporting material include diamino compounds such as N,N-di(m-tolyl) N,N′-diphenylbenzidine and 1,1-bis[N,N-di(p-tolyl)aminophenyl]cyclohexane, a 4-(N,N-diphenyl)aminobenzaldehyde-N,N-diphenylhydrazone compound and the like.

[0009] Organic electroluminescent elements using these organic compounds have high light emitting properties, but they have problems with respect to heat stability upon light emission and the storage stability. A thickness of a layer formed of an organic compound in an electroluminescent element is very thin, being as thin as several tens to several hundred of nanometers. Therefore, a voltage applied per unit thickness of a layer composed of this organic compound becomes very high, and the element is driven at a high current density of a few mA/cm2. Therefore, a large amount of Joule heat is generated from this layer. For this reason, a hole transporting low-molecular compound and a fluorescent organic low-molecular compound which are formed into an amorphous film are gradually crystallized as a temperature thereof is elevated and, finally, those compounds are melted, thereby causing a reduction in luminance and dielectric breakdown in many cases. Therefore, there is a problem in that a lifetime of the organic electroluminescent element is reduced. It is considered that the low heat stability of this organic electroluminescent element is derived from a low glass transition temperature of a material used in an organic electroluminescent element. That is, low-molecular compounds used as such a material have a low melting point and have high symmetry.

[0010] Thus, in order to solve the problem regarding heat stability, an organic electroluminescent element using N,N-di(1-naphthyl)N,N′-diphenylbenzidine with an α-naphthyl group introduced therein, as a material which has an improved glass transition temperature and can obtain a stable amorphous state, has been reported in Technical Study Report of the Electronic Information Communication Society, OME95-54(1995) and, for the same purpose, an organic electroluminescent element using a star burst amine has been reported in Proceedings of the 40th Applied Physics Related Associated Seminar 30a-SZK-14(1993). However, when these materials are used alone, since there is an energy barrier derived from ionization potential of a hole transporting material, hole injectability from an anode or hole injectability into a light emitting layer can not be satisfied. Further, in a 2-layered type element in which a hole transporting layer and a light emitting layer are deposited, a mutual diffusion phenomenon is caused. In addition, it is required that a material used in an organic electroluminescent element has heat stability with respect to heat treatment during a step of preparing an organic electroluminescent element, such as deposition, baking, annealing, wiring, sealing and the like, and with respect to change over time due to long term use of the organic electroluminescent element. For this reason, it is desired that a glass transition temperature of a material used in an organic electroluminescent element is even higher.

[0011] On the other hand, an electroluminescent element using a high-molecular material in place of a low-molecular compound has also been studied and developed. For example, in Nature, 357,577(1992) and JP-A No. 10-92576, there has been proposed an element using an electrically conductive polymer such as poly(p-phenylenevinylene) or the like. In addition, in Proceedings of the 42nd Polymer Discussion Meeting 20J21(1993), there has been proposed an element using a polymer in which triphenylamine is introduced on a side chain of polyphosphazene. Further, in Proceedings of the 38th Applied Physics Related Associated Seminar 31p-GI-2(1991), there has been proposed an element using a material in which an electron transporting material and a fluorescent dye are mixed into hole transporting polyvinylcarbazole.

[0012] These high-molecular materials have a comparatively higher glass transition points than that of a low-molecular compound. However, since poly(p-phenylenevinylene) is subjected to heat treatment after spin coating with a soluble precursor, defects are easily generated in a conjugated polymer on a main chain and light emitting properties are remarkably reduced. In addition, phosphazene has a high ionization potential, and thus, charge injecting properties are reduced. Further, polyvinylcarbazole has a high glass transition point, but has a problem due to traps. In addition, when a low-molecular compound is mixed into polyvinylcarbazole, the low-molecular compound acts as a plasticizer. For this reason, an organic electroluminescent element using these high-molecular materials has not yet caught up with the multilayer-type electroluminescent element using an organic low-molecular compound, in luminance, light emitting efficiency and the like.

[0013] In addition, a method of preparing an organic electroluminescent element is desirably a coating method in view of simplification of preparation, processibility, enlargement, cost and the like and, additionally, Proceedings of the 50th Applied Physics Society Seminar, 29p-ZP-5(1989) and Proceeding of the 51th Applied Physics Society Seminar, 28a-PB-7(1990) report that an organic electroluminescent element can also be prepared by a casting method. However, since a charge transporting material has deteriorated solubility in or compatibility with a solvent or a resin, the charge transporting material is easily crystallized and, thus, the above preparation methods lead to defects in preparation and properties of an organic electroluminescent element.

SUMMARY OF THE INVENTION

[0014] An object of the present invention is to solve the various problems of the prior art as described above.

[0015] That is, an object of the invention is to provide an organic electroluminescent element which has high light emitting intensity, has high light emitting efficiency, has a long element life and is easily prepared, using a non-conjugated polymer having a light emitting function which is excellent in the heat stability during light emission, storage stability, and solubility in and compatibility with a solvent and a resin.

[0016] In order to attain the above object, the present inventors intensively studied a non-conjugated polymer having light emitting properties. As a result, the present inventors have found that a non-conjugated polymer having a fluorescent substance emitting fluorescence in a solid state on at least one terminal group has charge injecting properties, charge mobility, thin film forming ability and light emitting properties which are suitable for the organic electroluminescent element, which resulted in completion of the invention.

[0017] That is, a first aspect of the invention provides an electroluminescent element comprising at least one pair of electrodes comprising an anode and a cathode, at least one of which having light transmissive, and at least one organic compound layer disposed between the electrodes, wherein the at least one organic compound layer contains at least one kind of non-conjugated polymer having terminal groups, and at least one terminal group of the non-conjugated polymer contains a fluorescent substance emitting fluorescence in a solid state.

[0018] A second aspect of the invention provides an organic electroluminescent element according to the first aspect, wherein the non-conjugated polymer may be selected from the group consisting of polyester, polyether and polyurethane.

[0019] A third aspect of the invention provides an organic electroluminescent element according to the first aspect, wherein the non-conjugated polymer may be hole transporting polymer.

[0020] A fourth aspect of the invention provides an organic electroluminescent element according to the first aspect, wherein the non-conjugated polymer may comprises a repetition unit containing at least one partial structure selected from the group consisting of the following general formulas (I-1) and (I-2), 1

[0021] wherein, in the general formulas (I-1) and (I-2), Ar represents a group selected from the group consisting of a substituted or unsubstituted monovalent benzene ring, a substituted or unsubstituted monovalent polynuclear aromatic hydrocarbon having an aromatic ring number of 2 to 10, a substituted or unsubstituted monovalent condensed aromatic hydrocarbon having an aromatic ring number of 2 to 10, and a substituted or unsubstituted monovalent aromatic heterocyclic ring; X represents a group selected from the group consisting of a substituted or unsubstituted divalent benzene ring, a substituted or unsubstituted divalent polynuclear aromatic hydrocarbon having an aromatic ring number of 2 to 10, a substituted or unsubstituted divalent condensed aromatic hydrocarbon having an aromatic ring number of 2 to 10, and a substituted or unsubstituted divalent aromatic heterocyclic ring; T represents a group selected from the group consisting of a divalent straight hydrocarbon group having a carbon number of 1 to 6 and a divalent branched hydrocarbon group having a carbon number of 2 to 10; and k, i and j each independently represent an integer selected from 0 to 1.

[0022] A fifth aspect of the invention provides an organic electroluminescent element according to the first aspect, wherein the at least one organic compound layer may comprise 2 or more layers including at least a light emitting layer, and the light emitting layer may contain at least one kind of the non-conjugated polymer.

[0023] A sixth aspect of the invention provides an organic electroluminescent element according to the fifth aspect, wherein the at least one organic compound layer may have a construction selected from the group consisting of a construction comprising the light emitting layer and an electron transporting layer, a construction comprising the light emitting layer and an electron injecting layer, and a construction comprising the light emitting layer, an electron transporting layer and an electron injecting layer.

[0024] A seventh aspect of the invention provides an organic electroluminescent element according to the fifth aspect, wherein the at least one organic compound layer may have a construction selected from the group consisting of a construction comprising the light emitting layer and a hole transporting layer, a construction comprising the light emitting layer and a hole injecting layer, and a construction comprising the light emitting layer, a hole transporting layer and a hole injecting layer.

[0025] An eighth aspect of the invention provides an organic electroluminescent element according to the fifth aspect, wherein the at least one organic compound layer may have a construction selected from the group consisting of a construction comprising the light emitting layer, a hole transporting layer and an electron transporting layer, a construction comprising the light emitting layer, a hole transporting layer and an electron injecting layer, a construction comprising the light emitting layer, a hole transporting layer and an electron injecting layer, a construction comprising the light emitting layer, a hole injecting layer and an electron transporting layer, a construction comprising the light emitting layer, a hole injecting layer and an electron injecting layer, a construction comprising the light emitting layer, a hole injecting layer, an electron transporting layer and an electron injecting layer, a construction comprising the light emitting layer, a hole transporting layer, a hole injecting layer and an electron transporting layer, a construction comprising the light emitting layer, a hole transporting layer, a hole injecting layer and an electron injecting layer, and a construction comprising the light emitting layer, a hole transporting layer, a hole injecting layer, an electron transporting layer and an electron injecting layer.

[0026] A ninth aspect of the invention provides an organic electroluminescent element according to the first aspect, wherein the at least one organic compound layer may be composed only of a light emitting layer having a charge transporting function, and the light emitting layer having the charge transporting function may contain one or more kinds of non-conjugated polymers.

[0027] A tenth aspect of the invention provides an organic selectroluminescent element according to the fourth aspect, wherein the non-conjugated polymer may be a polyester selected from the group consisting of the following general formulas (II-1) and (II-2), 2

[0028] wherein, in the general formulas (II-1) and (II-2), Al represents at least one structure selected from the group consisting of general formulas (I-1) and (I-2), Y1 represents a divalent alcohol residue, Z1 represents a divalent carboxylic acid residue, m represents an integer from 1 to 5, and p represents an integer selected from the range of 5 to 5,000.

[0029] An eleventh aspect of the invention provides an organic electroluminescent element according to the fourth aspect, wherein the non-conjugated polymer may be a polyether represented by the following general formula (III-1), 3

[0030] wherein, in the general formula (III-1), A1 represents at least one structure selected from the group consisting of general formulas (I-1) and (I-2), and p represents an integer from 5 to 5,000.

[0031] A twelfth aspect of the invention provides an organic electroluminescent element according to the fourth aspect, wherein the non-conjugated polymer may be a polyurethane selected from the group consisting of the general formulas (IV-1) and (IV-2), 4

[0032] wherein, in the general formulas (IV-1) and (IV-2), A1 represents at least one structure selected from the group consisting of general formulas (I-1) and (I-2), T represents a group selected from the group consisting of a divalent straight hydrocarbon group having a carbon number of 1 to 6, and a divalent branched hydrocarbon group having a carbon number of 2 to 10; Y2 and Z2 each independently represents a group selected from the group consisting of divalent diisocyanate, alcohol and amine residue; m represents an integer from 1 to 5; and p represents an integer from 5 to 5,000.

[0033] A thirteenth aspect of the invention provides an organic electroluminescent element according to the first aspect, wherein the fluorescent substance may be an organic fluorescent substance.

[0034] A fourteenth aspect of the invention provides an organic electroluminescent element according to the thirteenth aspect, wherein the organic fluorescent substance may be selected from the group consisting of a compound including an aromatic hydrocarbon having an aromatic ring number of 2 or more, and a chelating metal complex.

[0035] A fifteenth aspect of the invention provides an organic electroluminescent element according to the fourteenth aspect, wherein the compound including an aromatic hydrocarbon having an aromatic ring number of 2 or more may be an organic fluorescent substance selected from the group consisting of a polyacene derivative compound, a styrylamine compound, a quinacridone derivative compound, a rubulen derivative compound, a coumarin derivative compound, and a pyran derivative compound.

[0036] A sixteenth aspect of the invention provides an organic electroluminescent element according to the fifteenth aspect, wherein the polyacene derivative compound may be selected from the group consisting of a naphthalene derivative, an anthracene derivative, a tetracene derivative, a perylene derivative, and a pyrne derivative.

[0037] A seventeenth aspect of the invention provides an organic electroluminescent element according to the fourteenth aspect, wherein the chelating metal complex may contain a metal selected from the group consisting of Al, Zn, Be, Mg, Eu, Ga, Pt and Ir.

[0038] An eighteenth aspect of the invention provides an organic electroluminescent element according to the first aspect, wherein a maximum peak wavelength of a fluorescent spectrum of the fluorescent substance may be in the a visible light region.

[0039] A nineteenth aspect of the invention provides an organic electroluminescent element according to the first aspect, wherein both terminal groups of the non-conjugated polymer may contain a fluorescent substance emitting fluorescence in a solid state.

[0040] A twentieth aspect of the invention provides an organic electroluminescent element according to the first aspect, wherein emission colors of fluorescent substances emitting fluorescence in a solid state and respectively contained in the terminal groups may be different from each other.

BRIEF DESCRIPTION OF THE DRAWINGS

[0041] FIG. 1 is a schematic view showing one example of a layer construction of the organic electroluminescent element of the present invention.

[0042] FIG. 2 is a schematic view showing another example of a layer construction of the organic electroluminescent element of the invention.

[0043] FIG. 3 is a schematic view showing another example of a layer construction of the organic electroluminescent element of the invention.

[0044] FIG. 4 is a schematic view showing another example of a layer construction of the organic electroluminescent element of the invention.

DETAILED DESCRIPTION OF THE INVENTION

[0045] The organic electroluminescent element of the present invention is an electroluminescent element, which comprises at least one pair of electrodes comprising an anode and a cathode, at least one of which having light transmissive, and at least one organic compound layer disposed between the electrodes, wherein the at least one organic compound layer contains at least one kind of non-conjugated polymer having terminal groups, and at least one of terminal groups of the non-conjugated polymer contains a fluorescent substance emitting fluorescence in a solid state.

[0046] In the invention, the “non-conjugated polymer” is a polymer having a repetition structure containing at least one σ bond on a main chain of the polymer, and is not particularly limited as long as at least one of terminal ends of the main chain has a fluorescent substance emitting fluorescence in a solid state (hereinafter, referred to as “fluorescent substance”).

[0047] In a non-conjugated molecule such as a molecule in which a plurality of light emitting compounds such as a fluorescent substance and the like continuously link together, an emitting intensity of the light emitting compound contained in the molecule is remarkably reduced as compared with a light emitting compound unlinked with any compound in some cases. In view of this point, it is preferable that the emitting compound is dispersed in a molecule. Since the non-conjugated polymer used in the invention has at least one non-connected fluorescent substance at terminal ends of a chain of the molecule, the aforementioned reduction in light emitting efficiency can be prevented and, as a result, sufficient light emitting intensity can be obtained.

[0048] Alternatively, a fluorescent substance may be added to any position other than terminal ends of a molecular chain of a polymer. However, when a non-conjugated polymer dose not have a fluorescent substance at terminal ends of the molecular chain, functional groups at terminal ends of the molecular chain may has an adverse effect on light emission of a fluorescent substance added to a part other than the terminal ends in some cases. In addition, when a charge moves on a molecular chain, functional groups at the terminal ends may suppress mobility of the charge in some cases.

[0049] However, since the non-conjugated polymer used in the invention has a fluorescent substance in place of at least one of functional groups at terminal ends of a molecular chain, it can sufficiently exert the light emitting properties of a non-connected fluorescent substance. In addition, when a charge moves on a molecular chain, mobility of the charge may be improved. Further, replacement of a functional group at a terminal end with a fluorescent substance is easy in synthesis of a non-conjugated polymer.

[0050] Further, the non-conjugated polymer used in the invention may have a fluorescent substance on both terminal ends. In this case, an emission color of the non-conjugated polymer can be easily adjusted to a desired color by choosing from combinations of fluorescent substances having different emission colors from each other. Such a non-conjugated polymer can be easily synthesized by copolymerization reaction.

[0051] Since the aforementioned non-conjugated polymer can be synthesized by selecting a structure of a part other than a fluorescent substance and adjusting a molecular weight, it is easy to obtain desired properties (e.g. heat stability, solubility in and compatibility with solvent and resin). For this reason, a non-conjugated polymer having excellent heat stability and film forming ability can be easily obtained.

[0052] As explained above, the non-conjugated polymer used in the invention has a high light emitting intensity, has high light emitting efficiency, has excellent charge moving properties, and is excellent in heat stability, and a film of the polymer can be easily made. Therefore, since in the organic electroluminescent element of the invention, the at least one organic compound layer contains the aforementioned non-conjugated polymer, light emitting intensity is high, the light emitting efficiency is high, a life of the element is long, and it is easy to make the element.

[0053] Examples of a fundamental structure of such a non-conjugated polymer include polymers comprising polyester, polyether, polyurethane, polyimide, polyamide, polyetherketone, polycarbonate, polysulfide, polyethersulfide, a silicon-containing polymer, and a germanium-containing polymer, or copolymers thereof. Among these, it is preferable that a fundamental structure of the non-conjugated polymer is any of polyester, polyether and polyurethane, in view of ease of synthesizing, heat stability, solubility in and the compatibility with a solvent and a resin, and the like.

[0054] In addition, the non-conjugated polymer may have a molecular chain on which a charge can move. In this case, it is preferable that the non-conjugated polymer is a hole transporting polymer.

[0055] It is preferable that the non-conjugated polymer as explained above comprises a repetition unit containing at least one partial structure selected from the group consisting of the following general formulas (I-1) and (I-2).

[0056] Since such a non-conjugated polymer is excellent in the heat stability during light emission, and solubility in and compatibility with a solvent and a resin, it is easy to prepare an organic electroluminescent element and, further, as an organic electroluminescent element, reliability of the light emitting property and a element life can be improved. 5

[0057] Wherein, in the general formulas (I-1) and (I-2), Ar represents a group selected from the group consisting of a substituted or unsubstituted monovalent benzene ring, a substituted or unsubstituted monovalent polynuclear aromatic hydrocarbon having an aromatic ring number of 2 to 10, a substituted or unsubstituted monovalent condensed aromatic hydrocarbon having an aromatic ring number of 2 to 10, and a substituted or unsubstituted monovalent aromatic heterocyclic ring; X represents a group selected from the group consisting of a substituted or unsubstituted divalent benzene ring, a substituted or unsubstituted divalent polynuclear aromatic hydrocarbon having an aromatic ring number of 2 to 10, a substituted or unsubstituted divalent condensed aromatic hydrocarbon having an aromatic ring number of 2 to 10, and a substituted or unsubstituted divalent aromatic heterocyclic ring; T represents a group selected from the group consisting of a divalent straight hydrocarbon group having a carbon number of 1 to 6, and a divalent branched hydrocarbon group having a carbon number of 2 to 10; and k, i and j each independently represent an integer selected from 0 to 1.

[0058] In addition, the polynuclear aromatic hydrocarbon and the condensed aromatic hydrocarbon specifically are compounds defined below in the invention.

[0059] That is, the “polynuclear hydrocarbon” represents hydrocarbon containing 2 or more aromatic rings composed of carbon and hydrogen, in which aromatic rings are connected by a carbon-carbon bond. Examples thereof include biphenyl and terphenyl. In addition, the “condensed aromatic hydrocarbon” represents hydrocarbon containing 2 or more aromatic rings composed of carbon and hydrogen, in which aromatic rings share one pair of carbon atoms. Examples thereof include naphthalene, anthracene, phenanthrene and fluorene.

[0060] In addition, as a heterocyclic ring, heterocyclic rings having the number of atoms (Nr) constituting the ring skeleton of 5 and/or 6 are preferably used. In addition, atoms (hetero atom) other than carbon atoms constituting the ring skeleton are not particularly limited, but for example, a sulfur atom, a nitrogen atom, an oxygen atom and the like are preferably used. In addition, the ring skeleton may contain two or more kinds of and/or two or more hetero atoms. In particular, as a heterocyclic ring having a 5-membered ring structure, thiophene, pyrrole and furan, or heterocyclic rings in which 3- and 4-positional carbon atoms are replaced with nitrogen atoms are preferably used. In addition, as a heterocyclic ring having a 6-membered ring structure, pyridine is preferably used.

[0061] Examples of a substituent of the benzene ring, the polynuclear aromatic hydrocarbon or the condensed aromatic hydrocarbon include a hydrogen atom, an alkyl group, an alkoxy group, an aryl group, an aralkyl group, a substituted amino group, a halogen atom and the like. As the alkyl group, alkyl groups having a carbon number of 1 to 10 are preferable, and examples thereof include a methyl group, an ethyl group, a propyl group, an isopropyl group and the like. As the alkoxy group, alkoxy groups having a carbon number of 1 to 10 are preferable, and examples thereof include a methoxy group, an ethoxy group, a propoxy group, an isopropoxy group and the like. As the aryl group, aryl groups having a carbon number of 6 to 20 are preferable, and examples thereof include a phenyl group, a toluyl group and the like. As the aralkyl group, aralkyl groups having a carbon number of 7 to 20, and examples thereof include a benzyl group, a phenethyl group and the like. Examples of the substituent of the substituted amino group include an alkyl grouop, an aryl group, an aralkyl group and the like, and specific examples are as described above.

[0062] X represents a substituted or unsubstituted divalent benzene ring, a substituted or unsubstituted divalent polynuclear aromatic hydrocarbon having an aromatic ring number of 2 to 10, a substituted or unsubstituted divalent condensed aromatic hydrocarbon having an aromatic ring number of 2 to 10, or a substituted or unsubstituted divalent aromatic heterocyclic ring, and examples thereof include a group selected from the following formulas (1) to (13). 67

[0063] In the formulas (1) to (13), R1 to R14 represent a hydrogen atom, an alkyl group having a carbon number of 1 to 10, an alkoxy group having a carbon number of 1 to 10, a substituted or unsubstituted phenyl group, a substituted or unsubstituted aralkyl group, or a halogen atom, a means 0 or 1, and b means an integer of 0 to 10. In addition, V represents a group selected from the following formulas (14) to (34). 89

[0064] In formulas (14) to (34), R15 represents a hydrogen atom, an alkyl group or a cyano group, R16 to R17 represent a hydrogen atom, an alkyl group having a carbon number of 1 to 10, an alkoxyl group having a carbon number of 1 to 10, a substituted or unsubstituted phenyl group, a substituted or unsubstituted aralkyl group, or a halogen atom, and c means an integer of 0 to 10.

[0065] In addition, T represents a divalent straight hydrocarbon group having a carbon number of 1 to 6, or a divalent branched hydrocarbon group having a carbon number of 2 to 10, and is preferably selected from a divalent straight hydrocarbon group having a carbon number of 2 to 6, and a divalent branched hydrocarbon group having a carbon number of 3 to 7. Specific structures are shown below. 1011

[0066] In addition, specific examples of the structure represented by the general formulas (I-1) are shown in Table 1 to Table 49, and specific examples of the structure represented by the general formula (I-2) are shown in Table 50 to Table 88. In Table 1 to Table 88, the number described in the “Bonding Point.” column shows that carbon in a benzene ring with this number added thereto is a bonding position, in the general formulas (I-1) and (I-2).

TABLE 1
				Bonding
Structure	k	X	Ar	Point	i	j	T
1	0	12	13	3	0	0	—
2	0	14	15	4	1	1	—CH2CH2—
3	0	16	17	3	0	1	—CH2CH2—
4	0	18	19	4	0	1	20
5	0	21	22	4	0	1	23
6	0	24	25	4	0	1	—CH2CH2—
7	0	26	27	4	0	1	—CH2CH2—

[0067]

TABLE 2
				Bonding
Structure	k	X	Ar	Point	i	j	T
8	0	28	29	4	0	1	—CH2—
9	0	30	31	4	0	1	—CH2CH2—
10	0	32	33	4	1	0	—
11	0	34	35	4	0	1	—CH2—
12	0	36	37	4	0	1	—CH2CH2—
13	0	38	39	4	0	1	—CH2—
14	0	40	41	4	0	1	—CH2CH2—

[0068]

TABLE 3
				Bonding
Structure	k	X	Ar	Point	i	j	T
15	0	42	43	4	0	1	44
16	0	45	46	4	0	1	—CH2—
17	0	47	48	4	0	1	—CH2CH2—
18	0	49	50	4	0	1	—CH2CH2—
19	0	51	52	4	0	1	—CH2CH2—

[0069]

TABLE 4
				Bonding
Structure	k	X	Ar	Point	i	j	T
20	0	53	54	4	0	1	—CH2CH2—
21	0	55	56	3	0	1	—CH2CH2—
22	0	57	58	4	0	1	—CH2CH2—
23	0	59	60	4	0	1	61
24	0	62	63	4	0	1	—CH2CH2—
25	0	64	65	4	0	1	—CH2CH2—
26	0	66	67	4	0	1	—CH2—

[0070]

TABLE 5
				Bonding
Structure	k	X	Ar	Point	i	j	T
27	0	68	69	4	0	0	—
28	0	70	71	4	1	0	—
29	0	72	73	4	0	1	—CH2CH2—
30	0	74	75	4	1	0	—
31	0	76	77	4	0	0	—
32	0	78	79	4	0	0	—
33	0	80	81	4	0	0	—

[0071]

TABLE 6
				Bonding
Structure	k	X	Ar	Point	i	j	T
34	0	82	83	4	0	0	—
35	0	84	85	4	0	0	—
36	0	86	87	3	1	1	—CH2CH2—
37	0	88	89	4	1	1	—CH2—
38	0	90	91	4	1	1	—CH2CH2—
39	0	92	93	4	1	1	—CH2—
40	0	94	95	4	1	1	—CH2—

[0072]

TABLE 7
				Bonding
Structure	k	X	Ar	Point	i	j	T
41	1	96	97	4	0	1	—CH2CH2—
42	1	98	99	4	0	1	—CH2CH2—
43	1	100	101	4	0	1	—CH2CH2—
44	1	102	103	4	0	1	—CH2CH2—
45	1	104	105	4	0	1	—CH2CH2—
46	1	106	107	4	0	1	—CH2CH2—

[0073]

TABLE 8
				Bonding
Structure	k	X	Ar	Point	i	j	T
47	1	108	109	4	0	1	—CH2—
48	1	110	111	4	0	1	112
49	1	113	114	4	0	1	115
50	1	116	117	4	0	1	—CH2CH2—
51	1	118	119	4	0	1	—CH2CH2—
52	1	120	121	4	0	1	—CH2CH2—

[0074]

TABLE 9
				Bonding
Structure	k	X	Ar	Point	i	j	T
53	1	122	123	4	0	1	—CH2CH2—
54	1	124	125	2	0	1	—CH2CH2—
55	1	126	127	3	0	1	—CH2CH2—
56	1	128	129	4	0	1	—CH2—
57	1	130	131	4	0	1	—CH2CH2—
58	1	132	133	4	0	1	—(CH2)4—

[0075]

TABLE 10
				Bond-
Struc-				ing
ture	k	X	Ar	Point	i	j	T
59	1	134	135	4	0	1	136
60	1	137	138	4	0	1	—CH2CH2—
61	1	139	140	4	0	1	—CH2CH2—
62	1	141	142	3	0	1	—CH2CH2—
63	1	143	144	4	0	1	—CH2CH2—
64	1	145	146	4	0	1	147
65	1	148	149	3	0	1	—CH2CH2—

[0076]

TABLE 11
				Bonding
Structure	k	X	Ar	Point	i	j	T
66	1	150	151	4	0	1	—CH2CH2—
67	1	152	153	4	0	1	—(CH2)3—
68	1	154	155	4	0	1	—CH2CH2—
69	1	156	157	4	0	1	158
70	1	159	160	4	0	1	—CH2CH2—
71	1	161	162	4	0	1	—CH2CH2—
72	1	163	164	4	0	1	—CH2CH2—

[0077]

TABLE 12
				Bond-
				ing
Structure	k	X	Ar	Point	i	j	T
73	1	165	166	3	0	1	—CH2—
74	1	167	168	3	0	1	—CH2CH2—
75	1	169	170	4	0	0	—
76	1	171	172	4	0	0	—
77	1	173	174	4	0	0	—
78	1	175	176	4	0	0	—

[0078]

TABLE 13
				Bonding
Structure	k	X	Ar	Point	i	j	T
79	1	177	178	4	0	1	—
80	1	179	180	4	0	1	—CH2—
81	1	181	182	4	0	1	—CH2—
82	1	183	184	4	0	1	—CH2—
83	1	185	186	4	0	1	—CH2—
84	1	187	188	4	0	1	—CH2—
85	1	189	190	4	0	1	—CH2CH2—

[0079]

TABLE 14
				Bonding
Structure	k	X	Ar	Point	i	j	T
86	1	191	192	4	0	1	—CH2CH2—
87	1	193	194	4	0	1	—CH2CH2—
88	1	195	196	4	0	1	—CH2CH2—
89	1	197	198	4	0	1	—CH2CH2—
90	1	199	200	4	0	1	—CH2CH2—
91	1	201	202	4	0	1	—CH2CH2—

[0080]

TABLE 15
				Bonding
Structure	k	X	Ar	Point	i	j	T
92	1	203	204	4	0	1	—CH2CH2—
93	1	205	206	4	0	1	—CH2CH2—
94	1	207	208	4	0	1	—CH2CH2—
95	1	209	210	4	0	1	—CH2CH2—
96	1	211	212	4	0	1	—(CH2)4—
97	1	213	214	4	0	1	215

[0081]

TABLE 16
				Bonding
Structure	k	X	Ar	Point	i	j	T
98	1	216	217	4	0	1	—CH2CH2—
99	1	218	219	4	0	1	—CH2CH2—
100	1	220	221	4	0	1	−CH2
101	1	222	223	4	0	1	—CH2CH2—
102	1	224	225	4	0	1	—CH2CH2—
103	1	226	227	4	0	1	—CH2CH2—
104	1	228	229	4	0	1	—CH2CH2—

[0082]

TABLE 17
				Bonding
Structure	k	X	Ar	Point	i	j	T
105	1	230	231	4	0	1	—CH2CH2—
106	1	232	233	4	0	1	234
107	1	235	236	4	0	1	—CH2CH2—
108	1	237	238	4	0	1	—CH2—
109	1	239	240	4	0	1	—CH2CH2—
110	1	241	242	4	0	0	—
111	1	243	244	4	0	0	—

[0083]

TABLE 18
				Bonding
Structure	k	X	Ar	Point	i	j	T
112	1	245	246	4	0	0	—
113	1	247	248	4	0	0	—
114	1	249	250	4	0	0	—
115	1	251	252	4	0	1	—CH2—
116	1	253	254	4	0	1	—CH2—
117	1	255	256	4	0	1	—CH2—
118	1	257	258	4	0	1	—CH2—

[0084]

TABLE 19
				Bonding
Structure	k	X	Ar	Point	i	j	T
119	1	259	260	4	0	1	—CH2—
120	1	261	262	4	0	1	—CH2CH2—
121	1	263	264	4	0	1	—CH2—
122	1	265	266	4	0	1	—CH2CH2—
123	1	267	268	4	0	1	—CH2CH2—
124	1	269	270	4	0	1	271
125	1	272	273	4	0	0	—

[0085]

TABLE 20
				Bonding
Structure	k	X	Ar	Point	i	j	T
126	1	274	275	4	0	1	—CH2—
127	1	276	277	4	0	1	—CH2CH2—
128	1	278	279	4	0	1	—CH2CH2—
129	1	280	281	4	0	1	—CH2CH2—
130	1	282	283	4	0	1	—CH2CH2—
131	1	284	285	4	0	1	—CH2CH2—
132	1	286	287	4	0	1	—CH2CH2—

[0086]

TABLE 21
				Bonding
Structure	k	X	Ar	Point	i	j	T
133	1	288	289	4	0	1	—CH2CH2—
134	1	290	291	4	0	1	—CH2CH2—
135	1	292	293	4	0	1	—CH2CH2—
136	1	294	295	4	0	1	—CH2CH2—
137	1	296	297	4	0	1	—CH2CH2—
138	1	298	299	4	0	1	—(CH2)4—

[0087]

TABLE 22
				Bonding
Structure	k	X	Ar	Point	i	j	T
139	1	300	301	4	0	1	302
140	1	303	304	4	0	1	—CH2CH2—
141	1	305	306	4	0	0	—
142	1	307	308	4	0	1	—CH2—
143	1	309	310	3	0	0	—
144	1	311	312	4	0	0	—
145	1	313	314	4	0	1	—CH2CH2—

[0088]

TABLE 23
				Bond-
				ing
Structure	k	X	Ar	Point	i	j	T
146	1	315	316	4	1	0	—
147	1	317	318	4	0	1	—CH2—
148	1	319	320	4	0	1	321
149	1	322	323	4	0	1	—CH2CH2—
150	1	324	325	4	0	1	—CH2CH2—
151	1	326	327	4	0	1	—CH2CH2—

[0089]

TABLE 24
				Bonding
Structure	k	X	Ar	Point	i	j	T
152	1	328	329	4	0	1	—CH2CH2—
153	1	330	331	4	0	1	—CH2CH2—
154	1	332	333	4	0	1	—CH2CH2—
155	1	334	335	4	0	1	—CH2CH2—
156	1	336	337	4	0	1	—CH2CH2—
157	1	338	339	4	0	1	—CH2CH2—

[0090]

TABLE 25
				Bonding
Structure	k	X	Ar	Point	i	j	T
158	1	340	341	4	0	1	—CH2CH2—
159	1	342	343	4	0	1	—CH2CH2—
160	1	344	345	4	0	1	—CH2CH2—
161	1	346	347	4	0	1	—CH2CH2—
162	1	348	349	4	0	1	—CH2CH2—
163	1	350	351	4	0	1	—CH2CH2—

[0091]

TABLE 26
				Bonding
Structure	k	X	Ar	Point	i	j	T
164	1	352	353	4	0	1	—CH2CH2—
165	1	354	355	4	0	1	—CH2CH2—
166	1	356	357	4	0	1	—CH2CH2—
167	1	358	359	4	0	1	—CH2CH2—
168	1	360	361	4	0	1	—CH2CH2—
169	1	362	363	4	0	1	—CH2CH2—

[0092]

TABLE 27
				Bonding
Structure	k	X	Ar	Point	i	j	T
170	1	364	365	4	0	1	—CH2CH2—
171	1	366	367	4	0	0	—
172	1	368	369	4	0	1	—CH2—
173	1	370	371	4	0	0	—
174	1	372	373	4	1	0	—
175	1	374	375	4	0	1	—CH2CH2—
176	1	376	377	4	0	1	—CH2CH2—

[0093]

TABLE 28
Structure	k	X	Ar
177	1	378	379
178	1	380	381
179	1	382	383
180	1	384	385
181	1	386	387
182	1	388	389
		Bond-
	Structure	Point	i	j	T
	177	4	0	1	—CH2CH2—
	178	4	0	1	—CH2CH2—
	179	4	0	1	—CH2CH2—
	180	4	0	1	—CH2CH2—
	181	4	0	1	—CH2CH2—
	182	4	0	1	—CH2CH2—

[0094]

TABLE 29
				Bond-
Struc-				ing
ture	k	X	Ar	Point	i	j	T
183	1	390	391	4	0	1	—CH2CH2—
184	1	392	393	4	0	1	—CH2CH2—
185	1	394	395	4	0	1	—CH2—
186	1	396	397	4	0	1	—CH2CH2—
187	1	398	399	4	0	1	—CH2CH2—
188	1	400	401	4	0	1	—CH2CH2—
189	1	402	403	4	0	0	—

[0095]

TABLE 30
Structure	k	X	Ar
190	1	404	405
191	1	406	407
192	1	408	409
193	1	410	411
194	1	412	413
195	1	414	415
196	1	416	417
		Bonding
	Structure	Point	i	j	T
	190	4	0	1	—CH2—
	191	4	0	1	—CH2—
	192	4	0	1	—CHCH2—
	193	4	0	1	418
	194	4	0	1	—CH2CH2—
	195	4	0	1	—CH2CH2—
	196	4	0	1	—CH2CH2—

[0096]

TABLE 31
				Bonding
Structure	k	X	Ar	Point	i	j	T
197	1	419	420	4	0	1	—CH2CH2—
198	1	421	422	4	0	1	—CH2CH2—
199	1	423	424	4	0	1	—CH2CH2—
200	1	425	426	4	0	1	—CH2CH2—
201	1	427	428	4	0	1	—CH2CH2—
202	1	429	430	4	0	1	—(CH2)3—

[0097]

TABLE 32
				Bonding
Structure	k	X	Ar	Point	i	j	T
203	1	431	432	4	0	1	—CH2CH2—
204	1	433	434	4	0	1	—CH2CH2—
205	1	435	436	4	0	0	—
206	1	437	438	4	0	1	—CH2—
207	1	439	440	4	0	1	—CH2CH2—
208	1	441	442	4	0	1	—CH2CH2—
209	1	443	444	4	0	1	—CH2CH2—

[0098]

TABLE 33
				Bonding
Structure	k	X	Ar	Point	i	j	T
210	1	445	446	4	0	1	—CH2CH2—
211	1	447	448	4	0	1	—CH2CH2—
212	1	449	450	4	0	1	—CH2CH2—
213	1	451	452	4	0	1	—CH2CH2—
214	1	453	454	4	0	1	—CH2CH2—
215	1	455	456	4	0	1	—CH2CH2—

[0099]

TABLE 34
				Bonding
Structure	k	X	Ar	Point	i	j	T
216	1	457	458	4	0	1	—CH2CH2—
217	1	459	460	4	0	1	—CH2CH2—
218	1	461	462	4	0	0	—
219	1	463	464	4	0	1	—CH2—
220	1	465	466	4	0	1	—CH2—
221	1	467	468	4	0	1	—CH2—
222	1	469	470	4	0	0	—

[0100]

TABLE 35
				Bonding
Structure	k	X	Ar	Point	i	j	T
223	1	471	472	4	0	1	—(CH2)3—
224	1	473	474	4	0	1	—CH2CH2—
225	1	475	476	4	0	1	—CH2CH2—
226	1	477	478	4	0	1	—CH2CH2—
227	1	479	480	4	0	1	—CH2CH2—
228	1	481	482	4	0	1	—CH2—

[0101]

TABLE 36
				Bonding
Structure	k	X	Ar	Point	i	j	T
229	1	483	484	4	0	1	—(CH2)3—
230	1	485	486	4	0	0	—
231	1	487	488	4	0	1	—CH2—
232	1	489	490	4	0	1	—CH2CH2—
233	1	491	492	4	0	1	—CH2—
234	1	493	494	4	0	1	—CH2—
235	1	495	496	4	0	1	—CH2—

[0102]

TABLE 37
				Bonding
Structure	k	X	Ar	Point	i	j	T
236	1	497	498	4	0	1	—CH2CH2—
237	1	499	500	4	0	1	—CH2—
238	1	501	502	4	0	1	—CH2CH2—
239	1	503	504	4	0	1	—CH2CH2—
240	1	505	506	4	0	1	—CH2CH2—
241	1	507	508	4	0	1	—CH2—

[0103]

TABLE 38
				Bonding
Structure	k	X	Ar	Point	i	j	T
242	1	509	510	4	0	1	—(CH2)3—
243	1	511	512	4	0	1	—CH2CH2—
244	1	513	514	4	0	1	—CH2—
245	1	515	516	4	0	1	—CH2—
246	1	517	518	4	0	1	—CH2—
247	1	519	520	4	0	1	—CH2CH2—

[0104]

TABLE 39
				Bonding
Structure	k	X	Ar	Point	i	j	T
248	1	521	522	4	0	1	—CH2—
249	1	523	524	4	0	1	—CH2—
250	1	525	526	4	0	1	—CH2—
251	1	527	528	4	0	1	—CH2CH2—
252	1	529	530	4	0	1	—CH2—

[0105]

TABLE 40
				Bonding
Structure	k	X	Ar	Point	i	j	T
253	1	531	532	4	0	1	—CH2—
254	1	533	534	4	0	1	—CH2—
255	1	535	536	4	0	1	—CH2CH2—
256	1	537	538	4	1	1	—CH2—
257	1	539	540	4	0	1	—CH2—
258	1	541	542	4	0	1	—CH2CH2—

[0106]

TABLE 41
				Bonding
Structure	k	X	Ar	Point	i	j	T
259	1	543	544	4	0	1	—CH2—
260	1	545	546	4	0	1	—CH2CH2—
261	1	547	548	4	0	1	—(CH2)3—
262	1	549	550	4	0	1	—CH2CH2—
263	1	551	552	4	0	1	—CH2CH2—

[0107]

TABLE 42
				Bonding
Structure	k	X	Ar	Point	i	j	T
264	1	553	554	4	0	1	—CH2—
265	1	555	556	4	0	1	—CH2CH2—
266	1	557	558	4	0	1	—CH2—
267	1	559	560	4	0	1	—CH2CH2—
268	1	561	562	4	0	1	—CH2—

[0108]

TABLE 43
				Bonding
Structure	k	X	Ar	Point	i	j	T
269	1	563	564	4	0	1	—CH2CH2—
270	1	565	566	4	0	1	—CH2CH2—
271	1	567	568	4	0	1	—CH2CH2—
272	1	569	570	4	0	1	—CH2CH2—
273	1	571	572	4	0	1	—CH2CH2—

[0109]

TABLE 44
				Bonding
Structure	k	X	Ar	Point	i	j	T
274	1	573	574	4	0	1	—CH2CH2—
275	1	575	576	4	0	1	—CH2CH2—
276	1	577	578	4	0	1	—CH2—
277	1	579	580	4	0	1	—CH2—
278	1	581	582	4	0	1	—CH2CH2—

[0110]

TABLE 45
				Bonding
Structure	k	X	Ar	Point	i	j	T
279	1	583	584	4	0	1	—CH2—
280	1	585	586	4	0	1	—CH2CH2—
281	1	587	588	4	0	1	—CH2CH2—
282	1	589	590	4	0	1	—CH2CH2—
283	1	591	592	4	0	1	—CH2CH2—
284	1	593	594	4	0	1	—CH2CH2—

[0111]

TABLE 46
				Bonding
Structure	k	X	Ar	Point	i	j	T
285	1	595	596	4	0	1	—CH2CH2—
286	1	597	598	4	0	1	—CH2CH2—
287	1	599	600	4	0	1	—CH2CH2—
288	1	601	602	4	0	1	—CH2CH2—
289	1	603	604	4	0	1	—CH2—

[0112]

TABLE 47
				Bonding
Structure	k	X	Ar	Point	i	j	T
290	1	605	606	4	0	1	—(CH2)3—
291	1	607	608	4	0	1	—CH2CH2—
292	1	609	610	4	0	1	—CH2CH2—
293	1	611	612	4	0	1	—CH2CH2—
294	1	613	614	4	0	1	—CH2—

[0113]

TABLE 48
				Bonding
Structure	k	X	Ar	Point	i	j	T
295	1	615	616	4	0	1	—CH2—
296	1	617	618	4	0	1	—CH2—
297	1	619	620	4	0	1	—CH2CH2—
298	1	621	622	4	0	1	—CH2CH2—
299	1	623	624	4	0	1	—CH2—

[0114]

TABLE 49
				Bonding
Structure	k	X	Ar	Point	i	j	T
300	1	625	626	4	0	1	—(CH2)3—
301	1	627	628	4	0	1	—CH2CH2—
302	1	629	630	4	0	1	—CH2CH2—

[0115]

TABLE 50
				Bonding
Structure	k	X	Ar	Point	i	j	T
303	0	631	632	4, 4′	0	0	—
304	0	633	634	4, 4′	1	1	—CH2CH2—
305	0	635	636	4, 4′	0	1	—CH2CH2—
306	0	637	638	4, 4′	0	1	639
307	0	640	641	4, 4′	0	1	—CH2CH2—
308	0	642	643	4, 4′	0	1	644
309	0	645	646	4, 4′	0	1	—CH2CH2—
310	0	647	648	4, 4′	0	1	—CH2—

[0116]

TABLE 51
				Bonding
Structure	k	X	Ar	Point	i	j	T
311	0	649	650	4, 4′	0	1	—CH2CH2—
312	0	651	652	4, 4′	0	1	—CH2CH2—
313	0	653	654	4, 4′	0	1	—CH2—
315	0	655	656	4, 4′	0	1	657
316	0	658	659	4, 4′	0	1	—CH2—
317	0	660	661	4, 4′	0	1	—CH2CH2—

[0117]

TABLE 52
				Bonding
Structure	k	X	Ar	Point	i	j	T
318	0	662	663	4, 4′	0	1	—CH2CH2—
319	0	664	665	4, 4′	0	1	—CH2CH2—
320	0	666	667	4, 4′	0	1	—CH2CH2—
321	0	668	669	4, 4′	0	1	—CH2CH2—
322	0	670	671	4, 4′	0	1	672
323	0	673	674	4, 4′	0	1	—CH2CH2—
324	0	675	676	4, 4′	0	1	—CH2CH2—

[0118]

TABLE 53
				Bonding
Structure	k	X	Ar	Point	i	j	T
325	0	677	678	4, 4′	0	1	—CH2—
326	0	679	680	4, 4′	0	0	—
327	0	681	682	4, 4′	1	0	—
328	0	683	684	4, 4′	0	1	—CH2CH2—
329	0	685	686	4, 4′	1	0	—(CH2)4—
330	0	687	688	4, 4′	0	0	—
331	0	689	690	4, 4′	0	0	—
332	0	691	692	4, 4′	0	0	—

[0119]

TABLE 54
				Bonding
Structure	k	X	Ar	Point	i	j	T
333	0	693	694	4, 4′	0	0	—
334	0	695	696	4, 4′	0	0	—CH2CH2—
335	0	697	698	4, 4′	0	0	—CH2—
336	0	699	700	4, 4′	0	0	—CH2CH2—
337	0	701	702	4, 4′	0	0	—CH2—
338	0	703	704	4, 4′	1	1	—CH2—
339	1	705	706	4, 4′	1	1	—CH2CH2—
340	1	707	708	4, 4′	1	1	—CH2CH2—

[0120]

TABLE 55
				Bonding
Structure	k	X	Ar	Point	i	j	T
341	1	709	710	4, 4′	0	1	—CH2CH2—
342	1	711	712	4, 4′	0	1	—CH2CH2—
343	1	713	714	4, 4′	0	1	—CH2CH2—
344	1	715	716	4, 4′	0	1	—CH2CH2—
345	1	717	718	4, 4′	0	1	—CH2—
346	1	719	720	4, 4′	0	1	721
347	1	722	723	4, 4′	0	1	724

[0121]

TABLE 56
				Bonding
Structure	k	X	Ar	Point	i	j	T
348	1	725	726	4, 4′	0	1	—CH2CH2—
349	1	727	728	4, 4′	0	1	—CH2CH2—
350	1	729	730	4, 4′	0	1	—CH2CH2—
351	1	731	732	4, 4′	0	1	—CH2CH2—
352	1	733	734	4, 4′	0	1	—CH2CH2—
353	1	735	736	4, 4′	0	1	—(CH2)4—
354	1	737	738	4, 4′	0	1	739

[0122]

TABLE 44
Struct-				Bonding
ure	k	X	Ar	Point	i	j	T
355	1	740	741	4, 4′	0	1	—CH2CH2—
356	1	742	743	4, 4′	0	1	—CH2CH2—
357	1	744	745	4, 4′	0	1	—CH2CH2—
358	1	746	747	4, 4′	0	1	748
359	1	749	750	4, 4′	0	1	—CH2CH2—
360	1	751	752	4, 4′	0	1	—(CH2)3—
361	1	753	754	4, 4′	0	1	755

[0123]

TABLE 58
				Bonding
Structure	k	X	Ar	Point	i	j	T
363	1	756	757	4, 4′	0	1	758
364	1	759	760	4, 4′	0	1	—CH2CH2—
365	1	761	762	4, 4′	0	1	—CH2CH2—
366	1	763	764	4, 4′	0	0	—
367	1	765	766	4, 4′	0	1	—CH2CH2—
368	1	767	768	4, 4′	0	1	—CH2CH2—
369	1	769	770	4, 4′	0	1	—CH2CH2—

[0124]

TABLE 59
				Bonding
Structure	k	X	Ar	Point	i	j	T
370	1	771	772	4, 4′	0	0	—
371	1	773	774	4, 4′	0	1	—CH2—
372	1	775	776	4, 4′	0	1	—CH2—
373	1	777	778	4, 4′	0	1	—CH2—
374	1	779	780	4, 4′	0	1	—CH2—
375	1	781	782	4, 4′	0	1	—CH2—
376	1	783	784	4, 4′	0	1	—CH2CH2—
377	1	785	786	4, 4′	0	1	—CH2CH2—

[0125]

TABLE 60
				Bonding
Structure	k	X	Ar	Point	i	j	T
378	1	787	788	4, 4′	1	1	—CH2CH2—
379	1	789	790	4, 4′	0	1	—CH2CH2—
380	1	791	792	4, 4′	0	1	—CH2CH2—
381	1	793	794	4, 4′	0	1	—CH2CH2—
382	1	795	796	4, 4′	0	1	—CH2CH2—
383	1	797	798	4, 4′	0	1	—CH2CH2—
384	1	799	800	4, 4′	0	1	—CH2CH2—

[0126]

TABLE 61
				Bond-
Struct-				ing
ure	k	X	Ar	Point	i	j	T
385	1	801	802	4, 4′	0	1	—CH2CH2—
386	1	803	804	4, 4′	0	1	—CH2CH2—
387	1	805	806	4, 4′	0	1	—(CH2)4—
388	1	807	808	4, 4′	0	1	809
389	1	810	811	4, 4′	0	1	—CH2CH2—
390	1	812	813	4, 4′	0	1	—CH2—
391	1	814	815	4, 4′	0	1	—CH2CH2—
392	1	816	817	4, 4′	0	1	—CH2CH2—

[0127]

TABLE 62
Structure	k	X	Ar
393	1	818	819
394	1	820	821
395	1	822	823
396	1	824	825
307	1	826	827
398	1	828	829
399	1	830	831
400	1	832	833
		Bonding
	Structure	Point	i	j	T
	393	4,4′	0	1	—CH2CH2—
	394	4,4′	0	1	—CH2CH2—
	395	4,4′	0	1	834
	396	4,4′	0	1	—CH2CH2—
	397	4,4′	0	1	—CH2—
	398	4,4′	0	1	—CH2CH2—
	399	4,4′	0	1	—CH2CH2—
	400	4,4′	0	1	—CH2CH2—

[0128]

TABLE 63
Structure	k	X	Ar
401	1	835	836
402	1	837	838
403	1	839	840
404	1	841	842
405	1	843	844
406	1	845	846
407	1	847	848
408	1	849	850
		Bonding
	Structure	Point	i	j	T
	401	4,4′	0	1	—CH2CH2—
	402	4,4′	0	1	—CH2CH2—
	403	4,4′	0	1	—CH2CH2—
	404	4,4′	0	1	—CH2—
	405	4,4′	0	1	—CH2—
	406	4,4′	0	1	—CH2—
	407	4,4′	0	1	—CH2—
	408	4,4′	0	1	—CH2—

[0129]

TABLE 64
				Bonding
Structure	k	X	Ar	Point	i	j	T
409	1	851	852	4,4′	0	1	—CH2CH2—
410	1	853	854	4,4′	0	1	—CH2—
411	1	855	856	4,4′	1	1	—CH2CH2—
412	1	857	858	4,4′	0	1	—CH2CH2—
413	1	859	860	4,4′	0	1	861
414	1	862	863	4,4′	0	0	—
415	1	864	865	4,4′	0	1	—CH2—
416	1	866	867	4,4′	0	1	—CH2CH2—

[0130]

TABLE 65
				Bonding
Structure	k	X	Ar	Point	i	j	T
417	1	868	869	4,4′	0	1	—CH2CH2—
418	1	870	871	4,4′	0	1	—CH2CH2—
419	1	872	873	4,4′	0	1	—CH2CH2—
420	1	874	875	4,4′	0	1	—CH2CH2—
421	1	876	877	4,4′	0	1	—CH2CH2—
422	1	878	879	4,4′	0	1	—CH2CH2—
423	1	880	881	4,4′	0	1	—CH2CH2—

[0131]

TABLE 66
				Bonding
Structure	k	X	Ar	Point	i	j	T
424	1	882	883	4,4′	0	1	—CH2CH2—
425	1	884	885	4,4′	0	1	—CH2CH2—
426	1	886	887	4,4′	0	1	—CH2CH2—
427	1	888	889	4,4′	0	1	—CH2CH2—
428	1	890	891	4,4′	0	1	892
429	1	893	894	4,4′	0	1	—CH2CH2—
430	1	895	896	4,4′	0	1	—CH2—
431	1	897	898	4,4′	0	1	—CH2CH2—

[0132]

TABLE 67
Struc-				Bonding
ture	k	X	Ar	Point	i	j	T
432	1	899	900	4,4′	0	0	—
433	1	901	902	4,4′	0	1	—CH2CH2—
434	903	904	4,4′	1	0	—
435	1	905	906	4,4′	0	1	—CH2—
436	1	907	908	4,4′	0	1	909
437	1	910	911	4,4′	0	1	—CH2CH2—
438	1	912	913	4,4′	0	1	—CH2CH2—
439	1	914	915	4,4′	0	1	—CH2CH2—

[0133]

TABLE 68
				Bonding
Structure	k	X	Ar	Point	i	j	T
440	1	916	917	4,4′	0	1	—CH2CH2—
441	1	918	919	4,4′	0	1	—CH2CH2—
442	1	920	921	4,4′	0	1	—CH2CH2—
443	1	922	923	4,4′	0	1	—CH2CH2—
444	1	924	925	4.4′	0	1	—CH2CH2—
445	1	926	927	4,4′	0	1	—CH2CH2—
446	1	928	929	4,4′	0	1	—CH2CH2—

[0134]

TABLE 69
				Bonding
Structure	k	X	Ar	Point	i	j	T
447	1	930	931	4,4′	0	1	—CH2CH2—
448	1	932	933	4,4′	0	1	—CH2CH2—
449	1	934	935	4,4′	0	1	—CH2CH2—
450	1	936	937	4,4′	0	1	—CH2CH2—
451	1	938	939	4,4′	0	1	—CH2CH2—
452	1	940	941	4,4′	0	1	—(CH2)3—
453	1	942	943	4,4′	0	1	—CH2CH2—

[0135]

TABLE 70
Structure	k	X	Ar
454	1	944	945
455	1	946	947
456	1	948	949
457	1	950	951
458	1	952	953
459	1	954	955
460	1	956	957
		Bonding
	Structure	Point	i	j	T
	454	4,4′	0	1	—CH2CH2—
	455	4,4′	0	1	—CH2CH2—
	456	4,4′	0	1	—CH2CH2—
	457	4,4′	0	1	—CH2CH2—
	458	4,4′	0	1	—CH2CH2—
	459	4,4′	0	1	—CH2—
	460	4,4′	0	1	—CH2—

[0136]

TABLE 71
Structure	k	X	Ar
461	1	958	959
462	1	960	961
463	1	962	963
464	1	964	965
465	1	966	967
466	1	968	969
467	1	970	971
		Bonding
	Structure	Point	i	j	T
	461	4,4′	1	0	—
	462	4,4′	0	1	—CH2CH2—
	463	4,4′	0	1	—CH2CH2—
	464	4,4′	0	1	—CH2CH2—
	465	4,4′	0	1	—CH2CH2—
	466	4,4′	0	1	—CH2CH2—
	467	4,4′	0	1	—CH2CH2—

[0137]

TABLE 72
				Bonding
Structure	k	X	Ar	Point	i	j	T
468	1	972	973	4, 41	0	1	—CH2CH2—
469	1	974	975	4, 41	0	1	—CH2CH2—
470	1	976	977	4, 41	0	1	—CH2CH2—
471	1	978	979	4, 41	0	1	—CH2—
472	1	980	981	4, 41	0	1	—CH2CH2—
473	1	982	983	4, 41	0	1	—CH2CH2—
474	1	984	985	4, 41	0	1	—CH2CH2—
475	1	986	987	4, 41	0	0	—

[0138]

TABLE 73
				Bonding
Structure	k	X	Ar	Point	i	j	T
476	1	988	989	4, 4′	0	1	—CH2—
477	1	990	991	4, 4′	0	1	—CH2—
478	1	992	993	4, 4′	0	1	—CH2CH2—
479	1	994	995	4, 4′	0	1	996
480	1	997	998	4, 4′	0	1	—CH2CH2—
481	1	999	1000	4, 4′	0	1	—CH2CH2—
482	1	1001	1002	4, 4′	0	1	—CH2CH2—
483	1	1003	1004	4, 4′	0	1	—CH2CH2—

[0139]

TABLE 74
				Bonding
Structure	k	X	Ar	Point	i	j	T
484	1	1005	1006	4, 4′	0	1	—CH2—
485	1	1007	1008	4, 4′	0	1	—CH2—
486	1	1009	1010	4, 4′	0	1	—CH2—
487	1	1011	1012	4, 4′	0	1	—CH2—
488	1	1013	1014	4, 4′	0	1	—(CH2)3—
489	1	1015	1016	4, 4′	0	1	—CH2—
490	1	1017	1018	4, 4′	0	1	—CH2—

[0140]

TABLE 75
				Bonding
Structure	k	X	Ar	Point	i	j	T
491	1	1019	1020	4, 4′	0	0	—
492	1	1021	1022	4, 4′	0	1	—CH2—
493	1	1023	1024	4, 4′	0	1	—CH2CH2—
494	1	1025	1026	4, 4′	0	1	—CH2CH2—
495	1	1027	1028	4, 4′	0	1	—CH2CH2—
496	1	1029	1030	4, 4′	0	1	—CH2CH2—
497	1	1031	1032	4, 4′	0	1	—CH2CH2—

[0141]

TABLE 76
				Bonding
Structure	k	X	Ar	Point	i	j	T
498	1	1033	1034	4, 4′	0	1	—CH2CH2—
499	1	1035	1036	4, 4′	0	1	—CH2CH2—
500	1	1037	1038	4, 4′	0	1	—CH2CH2—
501	1	1039	1040	4, 4′	0	1	—CH2CH2—
502	1	1041	1042	4, 4′	0	1	—CH2CH2—
503	1	1043	1044	4, 4′	0	1	—CH2CH2—
504	1	1045	1046	4, 4′	0	0	—
505	1	1047	1048	4, 4′	0	1	—CH2—

[0142]

TABLE 77
				Bonding
Structure	k	X	Ar	Point	i	j	T
506	1	1049	1050	4, 4′	0	1	—CH2—
507	1	1051	1052	4, 4′	0	1	—CH2—
508	1	1053	1054	4, 4′	0	0	—
509	1	1055	1056	4, 4′	0	1	—(CH2)3—
510	1	1057	1058	4, 4′	0	1	—CH2CH2—
511	1	1059	1060	4, 4′	0	1	—CH2CH2—
512	1	1061	1062	4, 4′	0	1	—(CH2)3—

[0143]

TABLE 78
				Bonding
Structure	k	X	Ar	Point	i	j	T
513	1	1063	1064	4, 4′	0	1	—CH2CH2—
514	1	1065	1066	4, 4′	0	1	—CH2—
515	1	1067	1068	4, 4′	0	1	—(CH2)3—
516	1	1069	1070	4, 4′	0	0	—
517	1	1071	1072	4, 4′	0	1	—CH2—
518	1	1073	1074	4, 4′	0	1	—CH2CH2—
519	1	1075	1076	4, 4′	0	1	—CH2CH2—
520	1	1077	1078	4, 4′	0	1	—CH2CH2—

[0144]

TABLE 79
				Bonding
Structure	k	X	Ar	Point	i	j	T
521	1	1079	1080	4, 4′	0	1	—(CH2)3—
522	1	1081	1082	4, 4′	0	1	—CH2—
523	1	1083	1084	4, 4′	0	1	—CH2CH2—
524	1	1085	1086	4, 4′	0	1	—CH2CH2—
525	1	1087	1088	4, 4′	0	1	—CH2CH2—
526	1	1089	1090	4, 4′	0	1	—CH2—
527	1	1091	1092	4, 4′	0	1	—(CH2)3—

[0145]

TABLE 80
				Bonding
Structure	k	X	Ar	Point	i	j	T
528	1	1093	1094	4, 4′	0	1	—CH2CH2—
529	1	1095	1096	4, 4′	0	1	—CH2—
530	1	1097	1098	4, 4′	0	1	—CH2—
531	1	1099	1100	4, 4′	0	1	—CH2—
532	1	1101	1102	4, 4′	0	1	—CH2CH2—
533	1	1103	1104	4, 4′	0	1	—CH2CH2—
534	1	1105	1106	4, 4′	0	1	—CH2—

[0146]

TABLE 81
				Bonding
Structure	k	X	Ar	Point	i	j	T
535	1	1107	1108	4, 4′	0	1	—CH2CH2—
536	1	1109	1110	4, 4′	0	1	—CH2—
537	1	1111	1112	4, 4′	0	1	—CH2—
538	1	1113	1114	4, 4′	0	1	—CH2—
539	1	1115	1116	4, 4′	0	1	—CH2CH2—
540	1	1117	1118	4, 4′	0	1	—CH2—
541	1	1119	1120	4, 4′	0	1	—CH2—

[0147]

TABLE 82
Structure	k	X	Ar	Bonding Point	i	j	T
542	1	1121	1122	4,4′	0	1	—CH2CH2—
543	1	1123	1124	4,4′	0	1	—CH2—
544	1	1125	1126	4,4′	0	1	—CH2CH2—
545	1	1127	1128	4,4′	0	1	—(CH2)3—
546	1	1129	1130	4,4′	0	1	—CH2CH2—
547	1	1131	1132	4,4′	0	1	—CH2CH2—
548	1	1133	1134	4,4′	0	1	—CH2—

[0148]

TABLE 83
Structure	k	X	Ar	Bonding Point	i	j	T
549	1	1135	1136	4,4′	0	1	—CH2CH2—
550	1	1137	1138	4,4′	0	1	—CH2—
551	1	1139	1140	4,4′	0	1	—CH2CH2—
552	1	1141	1142	4,4′	0	1	—CH2—
553	1	1143	1144	4,4′	0	1	—CH2CH2—
554	1	1145	1146	4,4′	0	1	—CH2CH2—

[0149]

TABLE 84
				Bond-
Struc-				ing
ture	k	X	Ar	Point	i	j	T
555	1	1147	1148	4,4′	0	1	—CH2CH2—
556	1	1149	1150	4,4′	0	1	—CH2CH2—
557	1	1151	1152	4,4′	0	1	—CH2CH2—
558	1	1153	1154	4,4′	0	1	—CH2CH2—
559	1	1155	1156	4,4′	0	1	—CH2—
560	1	1157	1158	4,4′	0	1	—CH2—

[0150]

TABLE 85
				Bond-
Struc-				ing
ture	k	X	Ar	Point	i	j	T
561	1	1159	1160	4,4′	0	1	—CH2CH2—
562	1	1161	1162	4,4′	0	1	—CH2—
563	1	1163	1164	4,4′	0	1	—CH2CH2—
564	1	1165	1166	4,4′	0	1	—CH2CH2—
565	1	1167	1168	4,4′	0	1	—CH2CH2—
566	1	1169	1170	4,4′	0	1	—CH2CH2—
567	1	1171	1172	4,4′	0	1	—(CH2)3—

[0151]

TABLE 86
Structure	k	X	Ar	Bonding Point	i	j	T
568	1	1173	1174	4,4′	0	1	—CH2CH2—
569	1	1175	1176	4,4′	0	1	—CH2CH2—
570	1	1177	1178	4,4′	0	1	—CH2CH2—
571	1	1179	1180	4,4′	0	1	—CH2CH2—
572	1	1181	1182	4,4′	0	1	—CH2—
573	1	1183	1184	4,4′	0	1	—(CH2)3—

[0152]

TABLE 87
				Bond-
Struc-				ing
ture	k	X	Ar	Point	i	j	T
574	1	1185	1186	4,4′	0	1	—CH2CH2—
575	1	1187	1188	4,4′	0	1	—CH2CH2—
576	1	1189	1190	4,4′	0	1	—(CH2)3—
577	1	1191	1192	4,4′	0	1	—CH2—
578	1	1193	1194	4,4′	0	1	—(CH2)3
579	1	1195	1196	4,4′	0	1	—CH2—

[0153]

TABLE 88
Structure	k	X	Ar	Bonding Point	i	j	T
580	1	1197	1198	4,4′	0	1	—CH2CH2—
581	1	1199	1200	4,4′	0	1	—CH2CH2—
582	1	1201	1202	4,4′	0	1	—CH2—
583	1	1203	1204	4,4′	0	1	—(CH2)3—
584	1	1205	1206	4,4′	0	1	—CH2CH2—

[0154] A non-conjugated polymer comprising a repetition unit at least one partial structure selected from the group consisting of the general formulas (I-1) and (I-2) is not particularly limited, but a polyester represented by the following formula (II-1) or (II-2), a polyether represented by the following general formula (III-1), and a polyurethane represented by the following general formula (IV-1) or (IV-2) are suitable. 1207

[0155] In the general formulas (II-1) and (II-2), A1 represents at least one selected from the structures represented by the above general formulas (I-1) and (I-2), Y1 represents a divalent alcohol residue, Z1 represents a divalent carboxylic acid residue, m represents an integer of 1 to 5, and p represents selected from a range of 5 to 5,000.

[0156] In the general formula (III-1), A1 represents at least one selected from the structures represented by the above general formulas (I-1) and (I-2), and p represents an integer from 5 to 5,000.

[0157] In addition, in the general formulas (IV-1) and (IV-2), A1 represents at least one selected from the structures represented by the above general formulas (I-1) and (I-2), T represents a divalent straight hydrocarbon group having a carbon number of 1 to 6, or a divalent branched hydrocarbon group having a carbon number of 2 to 10, Y2 and Z2 represent divalent diisocyanate, alcohol or amine residue, m represents an integer from 1 to 5, and p represents an integer from 5 to 5,000.

[0158] The structure represented by A1 in the general formulas (II-1), (II-2), (III-1), (IV-1) and (IV-4) represents at least one selected from the structures represented by the general formulas (I-1) and (I-2), and two or more structures may be used, if necessary.

[0159] In addition, in the non-conjugated polymer used in the invention as explained above, at least one of terminal groups has a fluorescent substance emitting fluorescence in a solid state. Such a fluorescent substance may be an inorganic fluorescent substance or an organic fluorescent substance, an organic fluorescent substance is preferable in view of a magnitude of light emitting quantum efficiency and diversity of a material, and an organic fluorescent substance which has a further high quantum efficiency, is chemically stable, and has heat resistance is more preferable.

[0160] Examples of such a organic fluorescent substance include a compound having a substituted or unsubstituted monovalent benzene ring or a substituted or unsubstituted monovalent polynuclear aromatic hydrocarbon having an aromatic ring number of 2 to 10, a compound having a substituted or unsubstituted monovalent condensed aromatic hydrocarbon having an aromatic ring number of 2 to 10, and a compound having a substituted or unsubstituted monovalent aromatic heterocyclic ring.

[0161] More specifically, examples thereof include polyacene derivative compounds such as a naphthalene derivative, an anthracene derivative, a tetracene derivative, a perylene derivative, a pyrene derivative and the like, a styrylamine compound, a quinacridone derivative compound, a rubulene derivative compound, a coumarin derivative compound and a pyran derivative compound

[0162] In addition, since chelating metal complexes containing a metal such as Al, Zn, Be, Mg, Eu, Ga, Pt, Ir and the like have high fluorescent quantum efficiency, are chemically stable and have heat resistance, they can be suitably used as a fluorescent substance.

[0163] In addition, it is preferable that a maximum peak wavelength of fluorescent spectrum of a fluorescent substance is in the visible light region (380 nm to 700 nm). When a maximum peak wavelength is outside a range of the visible light region, sufficient light emitting intensity is not obtained in some cases.

[0164] Examples of such a fluorescent substance are shown in Tables 89 to 95, but the fluorescent substance used in the invention is not limited to them.

TABLE 89
Structure Fluorscent material
585       1208
586       1209
587       1210
588       1211
589       1212
590       1213
591       1214
592       1215
593       1216
594       1217
595       1218
596       1219

[0165]

TABLE 90
Structure Fluorscent
597       1220
598       1221
599       1222
600       1223
601       1224
602       1225
603       1226
604       1227
605       1228
606       1229
607       1230
608       1231

[0166]

TABLE 91
Structure Fluorscent material
609       1232
610       1233
611       1234
612       1235
613       1236
614       1237
615       1238
616       1239
617       1240
618       1241

[0167]

TABLE 92
Structure Fluorscent material
619       1242
620       1243
621       1244
622       1245
623       1246
624       1247
625       1248
626       1249
627       1250
628       1251

[0168]

TABLE 93
Structure Fluorscent material
629       1252
630       1253
631       1254
632       1255
633       1256
634       1257
635       1258
636       1259
637       1260
638       1261

[0169]

TABLE 94
Structure Fluorscent material
639       1262
640       1263
641       1264
642       1265
643       1266
644       1267
645       1268
646       1269
647       1270
648       1271
649       1272
650       1273

[0170]

TABLE 95
Structure Fluorscent material
651       1274
652       1275
653       1276
654       1277
655       1278
656       1279
657       1280
658       1281
659       1282
660       1283

[0171] A weight average molecular weight Mw of the non-conjugated polymer used in the invention is not particularly limited, but when the non-conjugated polymer comprises a repetition unit containing at least one partial structure selected from the group consisting of the general formulas (I-1) and (I-2), it is preferable that the weight average molecular weigh Mw is in the range of 5000 to 300000.

[0172] Below, as a non-conjugated polymer, examples of polyester represented by the general formula (I-1) or (II-2) are shown in Tables 96 to 101, examples of polyether represented by the general formula (III-1) are shown in Tables 102 to 103, and examples of polyurethane represented by the general formula (IV-1) or (IV-2) are shown in Tables 104 to 107, but the polyester, the polyether and the polyurethane used in the invention are not limited to these examples.

[0173] Herein, the number in “A1” column of the “monomer” in Tables 96 to 107 corresponds to a compound having the number described in “structure” column in Tables 1 to 88 (specific examples of the above general formulas (I-1) and (I-2)). In addition, “m” means “m” shown in the general formulas (I-1) and (I-2). Hereinafter, an example (compound) with each number added thereto in Tables 96 to 107 is described as an example compound and, for example, an example with number 15 added thereto describes an exemplified compound (15).

[0174] In addition, in Table 96 to Table 101, example compounds, a partial structure of which is described only in “Y1” column, among “Y1” and “Z1” columns, mean polyester represented by the general formula (II-1). In addition, example compounds, a partial structure of which is described in both “Y1” and “Z1” columns, mean polyester represented by the general formula (II-2).

[0175] In addition, in Table 104 to Table 107, example compounds, a partial structure of which is described only in “Y2” column, among “Y2” and “Z2” columns, mean polyurethane represented by the general formula (IV-1). In addition, example compounds, a partial structure of which is described only in “Z2” column, among “Y2” and “Z2” columns, mean polyurethane represented by the general formula (IV-2).

	TABLE 96
	Mononer		Fluorscent
Compound	A1	Ratio	Y1	Z1	material	m	p
(1)	2	—	—CH2CH2—	—	585	1	12
(2)	5	—	—CH2CH2—	—	585	1	50
(3)	9	—	—CH2CH2—	—	585	1	58
(4)	9	—	—CH2CH2—	1284	585	1	62
(5)	9	—	—CH2CH2—	1285	585	1	95
(6)	9	—	—CH2CH2—	1286	585	2	48
(7)	13	—	1287	—	587	1	35
(8)	13	—	1288	—(CH2)4—	587	1	31
(9)	19	—	1289	—	587	1	25
(10)	19	—	—CH2CH2—	—	587	1	25
(11)	41	—	—CH2CH2—	—	589	1	25
(12)	42	—	—CH2CH2—	—	589	1	47
(13)	42	—	—CH2CH2—	1290	590	2	75
(14)	39	—	—CH2CH2—	—(CH2)4—	590	1	89

[0176]

	TABLE 97
	Monomer		Fluorscent
Compound	A1	Ratio	Y1	Z1	material	m	p
(15)	46	—	—CH2CH2—	—	594	1	59
(16)	46	—	—CH2CH2—	1291	594	2	44
(17)	49	—	1292	—	594	1	78
(18)	53	—	1293	—	594	1	74
(19)	80	—	1294	1295	600	1	67
(20)	80	—	—CH2CH2—	—	603	1	55
(21)	80	—	—CH2CH2—	1296	609	1	87
(22)	85	—	1297	—	609	1	48
(23)	87	—	1298	—	609	1	36
(24)	87	—	1299	1300	609	1	66
(25)	88	—	—CH2CH2—	—	616	1	48
(26)	92	—	—CH2CH2—	—	616	1	44

[0177]

	TABLE 98
	Mononer		Fluorscent
Compound	A1	Ratio	Y1	Z1	material	m	p
(27)	127	—	—CH2CH2—	1301	616	1	85
(28)	127	—	1302	—	616	1	66
(29)	127	—	1303	—	616	1	78
(30)	127	—	1304	1305	616	1	14
(31)	137	—	—CH2CH2—	—	626	1	74
(32)	156	—	—CH2CH2—	1306	629	1	74
(33)	160	—	—CH2CH2—	—	633	1	56
(34)	173	—	—CH2CH2—	—	618	1	63
(35)	175	—	—CH2CH2—	—	618	1	78
(36)	178	—	—CH2CH2—	—	618	1	75
(37)	181	—	—CH2CH2—	—	618	1	25
(38)	182	—	—CH2CH2—	—	618	1	65
(39)	183	—	—CH2CH2—	—	618	1	45
(40)	191	—	—CH2CH2—	—	630	1	42
(41)	193	—	—CH2CH2—	—	630	1	85

[0178]

	TABLE 99
	Monomer		Fluorsoent
Compound	A1	Ratio	Y1	Z1	material	m	p
(42)	233	—	—CH2CH2—	—	630	1	45
(43)	234	—	—CH2CH2—	—	630	1	54
(44)	238	—	—CH2CH2	1307	616	1	86
(45)	243	—	—(CH2)4—	—(CH2)4—	616	1	65
(46)	243	—	1308	—	616	1	23
(47)	243	—	—CH2CH2—	—	606	1	78
(48)	243	—	—CH2CH2	1309	587	1	92
(49)	248	—	1310	—	597	1	79
(50)	249	—	—CH2CH2—	—	597	1	86
(51)	251	—	—CH2CH2—	—	604	1	58
(52)	251	—	1311	—	639	1	98
(53)	255	—	1312	—	639	1	36
(54)	262	—	—CH2CH2—	—	639	1	59
(55)	267	—	—CH2CH2—	1313	645	1	48

[0179]

	TABLE 100
	Monomer		Fluorscent
Compound	A1	Ratio	Y1	Z1	material	m	p
(56)	305	—	1314	—	655	1	18
(57)	307	—	1315	—	655	1	47
(58)	305	—	1316	1317	655	1	22
(59)	267	—	—CH2CH2—	—	655	1	45
(60)	336	—	—CH2CH2—	1318	656	1	56
(61)	336	—	1319	—	656	1	44
(62)	336	—	1320	—	656	1	47
(63)	352	—	1321	1322	656	1	35
(64)	352	—	1323	—	656	1	38
(65)	376	—	1324	—	656	1	75

[0180]

	TABLE 101
	Monomer		Fluorscent
Compound	A1	Ratio	Y1	Z1	material	m	p
(66)	376	—	1325	—	659	1	53
(67)	379	—	—CH2CH2—	—	659	1	45
(68)	379	—	—CH2CH2—	1326	658	1	55
(69)	7/92	1/1	—CH2CH2—	—	658	1	63
(70)	7/92	1/1	—CH2CH2—	—	658	2	80
(71)	7/92	1/1	1327	1328	658	1	45
(72)	7/92	1/1	—CH2CH2—	—	658	1	43
(73)	7/127	1/1	—CH2CH2—	—	618	1	60
(74)	7/127	1/1	—CH2CH2—	—	613	2	26
(75)	7/175	1/1	—CH2CH2—	—	613	1	24
(76)	7/92/17	1/1/1	—CH2CH2—	—	618	1	75
(77)	173/220	1/1	—CH2CH2—	—	613	1	63
(78)	7/311	1/1	—CH2CH2—	1329	613	1	70
(79)	7/311	1/2	—CH2CH2—	—	618	1	42
(80)	311/338	2/1	—CH2CH2—	—	613	1	38

[0181]

	TABLE 102
	Monomer	Fluorscent
	Compound	A1	Ratio	material	m	p
	(81)	3	—	585	1	23
	(82)	5	—	587	2	43
	(83)	6	—	587	1	45
	(84)	7	—	587	1	70
	(85)	12	—	587	2	45
	(86)	12	—	587	1	65
	(87)	19	—	587	1	35
	(88)	20	—	587	0	31
	(89)	22	—	587	1	45
	(90)	41	—	587	1	68
	(91)	43	—	587	1	74
	(92)	44	—	587	1	35
	(93)	47	—	600	2	36
	(94)	49	—	600	1	62
	(95)	53	—	600	2	33
	(96)	56	—	600	1	65
	(97)	88	—	600	1	61
	(98)	90	—	606	1	39
	(99)	92	—	606	1	25
	(100)	93	—	606	1	45
	(101)	127	—	606	1	35
	(102)	145	—	606	1	61
	(103)	175	—	606	1	43
	(104)	176	—	606	1	58
	(105)	178	—	616	1	68
	(106)	179	—	616	1	65
	(107)	181	—	616	1	35
	(108)	188	—	616	1	34
	(109)	221	—	616	1	37
	(110)	243	—	616	1	62
	(111)	245	—	616	1	36
	(112)	247	—	616	1	46
	(113)	249	—	616	1	38
	(114)	262	—	616	1	98
	(115)	265	—	616	1	38

[0182]

	TABLE 103
	Monomer	Fluorscent
	Compound	A1	Ratio	material	m	p
	(116)	267	—	616	1	68
	(117)	273	—	618	1	78
	(118)	277	—	618	1	88
	(119)	297	—	618	1	65
	(120)	304	—	618	1	93
	(121)	305	—	618	1	75
	(122)	307	—	618	1	67
	(123)	311	—	618	1	37
	(124)	314	—	618	1	68
	(125)	317	—	652	1	62
	(126)	319	—	652	2	61
	(127)	320	—	652	1	37
	(128)	339	—	652	1	64
	(129)	340	—	652	1	35
	(130)	341	—	659	1	78
	(131)	342	—	639	1	36
	(132)	347	—	639	1	87
	(133)	417	—	659	1	45
	(134)	461	—	639	1	84
	(135)	462	—	660	1	35
	(136)	529	—	639	1	84
	(137)	7/36	1/1	639	1	36
	(138)	7/43	1/1	639	1	63
	(139)	7/44	1/2	589	1	47
	(140)	7/53	1/1	606	2	56
	(141)	7/85	1/1	600	1	59
	(142)	20/85	1/2	600	1	65
	(143)	57/90	1/1	606	1	43
	(144)	57/92	1/2	589	1	15
	(145)	57/94	5/1	589	1	34
	(146)	57/127	1/1	600	1	44
	(147)	127/196	1/2	606	1	48
	(148)	176/340	6/1	606	1	37
	(149)	243/376	2/1	589	1	39
	(150)	7/20/57	1/2/4	589	1	57

[0183]

	TABLE 104
	Monomer		Fluorscent
Compound	A1	Ratio	Y2	Z2	material	T	m	p
(151)	2	—	—(CH2)6—	—	585	—CH2—	1	65
(152)	2	—	—(CH2)6—	—	587	—CH2CH2—	1	84
(153)	4	—	—(CH2)6—	—	587	—CH2—	1	38
(154)	6	—	—(CH2)6—	—	587	—CH2—	1	64
(155)	7	—	—(CH2)6—	—	587	—CH2CH2—	1	36
(156)	7	—	1330	—	587	—CH2CH2—	1	55
(157)	9	—	—(CH2)6—	—	587	—CH2CH2—	1	36
(158)	9	—	1331	—	587	—CH2CH2—	1	63
(159)	19	—	1332	—	587	—CH2CH2—	1	65
(160)	19	—	—	—CH2CH2—	587	—CH2CH2—	1	43
(161)	41	—	—(CH2)6—	—	587	—CH2CH2—	1	36
(162)	42	—	—(CH2)6—	—	587	—CH2CH2—	1	28
(163)	44	—	1333	—	600	—CH2—	1	35

[0184]

	TABLE 105
	Monomer		Fluorscent
Compound	A1	Ratio	Y2	Z2	material	T	m	p
(164)	44	—	1334	—	600	—CH2—	1	47
(165)	46	—	—(CH2)6—	—	600	—CH2—	1	62
(166)	53	—	—(CH2)6—	—	600	—CH2—	1
(167)	54	—	—(CH2)6—	—	600	—CH2CH2—	1	45
(168)	54	—	1335	—	606	—CH2—	1	40
(169)	80	—	—	—CH2CH2—	606	—CH2—	1	75
(170)	88	—	—(CH2)6—	—	606	—CH2—	1	61
(171)	92	—	—(CH2)6—	—	606	—CH2—	1	43
(172)	127	—	—(CH2)6—	—	606	—CH2—	1	88
(173)	127	—	1336	—	606	—CH2—	1	47
(174)	156	—	—(CH2)6—	—	606	—CH2—	1	71
(175)	175	—	—(CH2)6—	—	616	—CH2—	1	22
(176)	176	—	—(CH2)6—	—	616	—CH2CH2—	1	54
(177)	178	—	—(CH2)6—	—	616	—CH2CH2—	1	36
(178)	182	—	—(CH2)6—	—	616	—CH2CH2—	1	57
(179)	183	—	—(CH2)6—	—	616	—CH2CH2—	1	85

[0185]

	TABLE 106
	Monomer		Fluorscent
Compound	A1	Ratio	Y2	Z2	material	T	m	p
(180)	185	—	—(CH2)6—	—	616	—CH2CH2—	1	63
(181)	188	—	—(CH2)6—	—	616	—CH2CH2—	1	41
(182)	192	—	—(CH2)6—	—	616	—CH2CH2—	1	52
(183)	209	—	—(CH2)6—	—	616	—CH2CH2—	1	67
(184)	220	—	—(CH2)6—	—	616	—CH2CH2—	1	52
(185)	221	—	—(CH2)6—	—	616	—CH2CH2—	1	36
(186)	222	—	—(CH2)6—	—	616	—CH2CH2—	1	78
(187)	243	—	—(CH2)6—	—	618	—CH2CH2—	1	45
(188)	244	—	—(CH2)6—	—	618	—CH2CH2—	1	74
(189)	247	—	—(CH2)6—	—	618	—CH2CH2—	1	98
(190)	249	—	—(CH2)6—	—	618	—CH2CH2—	1	78
(191)	254	—	—(CH2)6—	—	618	—CH2CH2—	1	58
(192)	256	—	—(CH2)6—	—	618	—CH2CH2—	1	98
(193)	262	—	—(CH2)6—	—	618	—CH2CH2—	1	62
(194)	297	—	—(CH2)6—	—	618	—CH2CH2—	1	85
(195)	303	—	—(CH2)6—	—	652	—CH2CH2—	1	47
(196)	305	—	—(CH2)6—	—	652	—CH2CH2—	1	65
(197)	313	—	—	—CH2CH2—	652	—CH2CH2—	1	69

[0186]

	TABLE 107
	Monomer		Fluorscent
Compound	A1	Ratio	Y2	Z2	material	T	m	p
(198)	340	—	—(CH2)6—	—	652	—CH2CH2—	1	77
(199)	376	—	—	—CH2CH2—	652	—CH2CH2—	1	48
(200)	377	—	—(CH2)6—	—	659	—CH2CH2—	1	85
(201)	379	—	—(CH2)6—	—	639	—CH2CH2—	1	25
(202)	7/43	1/1	—(CH2)6—	—	639	—CH2CH2—	1	76
(203)	7/44	1/1	—(CH2)6—	—	659	—CH2CH2—	1	87
(204)	7/53	1/1	—(CH2)6—	—	639	—CH2CH2—	1	47
(205)	57/127	1/1	—(CH2)6—	—	660	—CH2CH2—	1	74

[0187] A method of synthesizing the non-conjugated polymer used in the invention is not particularly limited, but the known methods can be utilized by combining them depending on a desired structure, and examples thereof are explained below. The following specific examples explain in detail the cases where a non-conjugated polymer comprising a repetition unit containing at least one partial structure selected from the group consisting of the above general formulas (I-1) and (I-2) is a polyester represented by the above general formula (II-1) or (II-2), a polyether represented by the above general formula (III-1), or a polyurethane represented by the above general formula (IV-1) or (IV-2).

[0188] I) In the Case of Polyester

[0189] When the non-conjugated polymer used in the invention is polyester represented by the above general formula (II-1) or (II-2), the non-conjugated polymer can be synthesized by polymerizing a monomer represented by the following general formula (II-3), for example, by the known method described in 4th edition, Experimental Chemical Course, vol. 28 (Maruzen Co., Ltd., 1992).

A′—A1—A′  (II-3)

[0190] In the general formula (II-3), A1 represents at least one selected from the structures represented by the general formulas (I-1) and (I-2), A′ represents a hydroxyl group, a halogen atom, or a group —O—R18, and R18 represents an alkyl group, a substituted or unsubstituted aryl group, or an aralkyl group.

[0191] That is, polyester represented by the above general formula (II-1) or (II-2) can be synthesized as follows:

[0192] 1) When A′ is a hydroxy group, a divalent alcohol represented by HO—(Y—O)m—H is mixed with a monomer at an approximately equivalent amount, and this is polymerized using an acid catalyst. As an acid catalyst, catalysts which are used for a normal esterification reaction such as sulfuric acid, toluenesulfonic acid, trifluoroacetic acid and the like can be used, and are used in the range of 1/10,000 to 1/10 parts by weight, preferably 1/1,000 to 1/50 parts by weight relative to 1 part by weight of a monomer. In addition, as a solvent, it is preferable to use a solvent which can be azeotroped with water in order to remove water produced during polymerization, toluene, chlorobenzene, 1-chloronaphthalene and the like are effective, and the solvent is used in the range of 1 to 100 parts by weight, preferably 2 to 50 parts by weight relative to 1 part by weight of a monomer. A reaction temperature can be set arbitrarily, but in order to remove water produced during polymerization, it is preferable that a reaction is performed at a boiling point of a solvent.

[0193] After completion of the reaction, when a solvent was not used, the reaction soultion is dissolved in a solvent which can dissolve the reaction solution. When a solvent was used, the reaction solution is added as it is dropwise to a poor solvent in which a polymer is hardly dissolved, such as alcohols such as methanol, ethanol and the like, acetone and the like, to precipitate polyester. Then, precipitated polyester is separated, washed with water or an organic solvent well, and is dried. Further, if necessary, polyester is dissolved in a suitable organic solvent, the solution is added dropwise to a poor solvent, and re-precipitating treatment for precipitating polyester may be repeated. Re-precipitating treatment is preferably performed while effectively stirring with a mechanical stirrer or the like. A solvent which dissolves polyester upon re-precipitating treatment is used in the range of 1 to 100 parts by weight, preferably 2 to 50 parts by weight relative to 1 part by weight of polyester. In addition, a poor solvent is used in the range of 1 to 1,000 parts by weight, preferably 10 to 500 parts by weight relative to 1 part by weight of polyester.

[0194] 2) When A′ is halogen, polymerization is performed by adding an organic basic catalyst such as pyridine and triethylamine to a mixture solution obtained by mixing a monomer and a divalent alcohol represented by HO—(Y—O)m—H at an approximately equivalent amount. An organic basic catalyst is used in the range of 1 to 10 equivalent, preferably 2 to 5 equivalent relative to 1 equivalent of a monomer. As a solvent, methylene chloride, tetrahydrofuran (THF), toluene, chlorobenzene, 1-chloronaphthalene and the like are effective, and the solvent is used in the range of 1 to 100 parts by weight, preferably 2 to 50 parts by weight relative to 1 part by weight of a monomer. A reaction temperature can be set arbitrarily. After polymerization, the reaction is subjected to re-precipitating treatment as described above, and is purified.

[0195] In addition, in the case of a divalent alcohol having the high acidity such as bisphenol, an interface polymerization method may be used. That is, polymerization can be performed by adding a divalent alcohol to water, adding an equivalent amount of a base to dissolve them, and adding a monomer solution at the same equivalent as that of a divalent alcohol while vigorously stirring. Upon this, water is used in the range of 1 to 1,000 parts by weight, preferably 2 to 500 parts by weight relative to 1 part by weight of a divalent alcohol. As a solvent which dissolves a monomer, methylene chloride, dichloroethane, trichloroethane, toluene, chlorobenzene, 1-chloronaphthalene and the like are effective. A reaction temperature can be set arbitrarily and, in order to promote a reaction, it is effective to use a phase transfer catalyst such as ammonium salt, sulfonium salt and the like. A phase transfer catalyst is used in the range of 0.1 to 10 parts by weight, preferably 0.2 to 5 parts by weight relative to 1 part by weight of a monomer.

[0196] 3) When A′ is —O—R18, transesterification is available for polymerization. Such transesterification can be performed by heating a reaction solution which include a monomer, an excessive amount of a divalent alcohol [represented by HO—(Y—O)m—H] relative to the monomer, and a catalyst such as titanium alkoxide, acetate or carbonate of calcium and cobalt, or oxide of zinc or lead. A divalent alcohol is used in the range of 2 to 100 equivalent, preferably 3 to 50 equivalent relative to 1 equivalent of a monomer. A catalyst is used in the range of 1/10,000 to 1 parts by weight, preferably 1/1,000 to I-2 parts by weight relative to 1 part by weight of a monomer. A reaction is performed at a reaction temperature of 200 to 300° C. and, after completion of transesterification from a group —O—R18 to a group —O—(Y—O)m—H, it is preferable to perform a reaction under reduced pressure in order to promote polymerization by leaving of HO—(Y—O)m—H. Alternatively, a reaction may be performed while removing HO—(Y—O)m—H by azeotropy under a normal pressure using a high boiling point solvent such as 1-chloronaphthalene which can be azeotroped with HO—(Y—O)m—H.

[0197] Alternatively, polyester may be synthesized as follows: In aforementioned respective cases, after a compound represented by the following general formula (II-4) is produced by a reaction by adding an excessive amount of a divalent alcohol and, by using this compound in place of a monomer represented by the above general formula (II-3), the compound may be reacted with divalent carboxylic acid or divalent carboxylic halide according to the aforementioned method, whereby, polyester can be obtained. 1337

[0198] In the general formula (II-4), A1 represents at least one selected from the structures represented by the above general formulas (I-1) and (I-2), Y1 represents a divalent alcohol residue, and m represents an integer from 1 to 5.

[0199] 4) Introduction of a fluorescent substance is not particularly limited, but there are following methods. That is, when A′ is a hydroxy group, a fluorescent substance can be introduced in a polymer by copolymerizing monocarboxylic acid of a fluorescent substance, or after a polymerization reaction for a polymer, using monocarboxylic acid of a fluorescent substance to react them. In addition, when A′ is halogen, a fluorescent substance can be introduced into a polymer by copolymerizing monoacid chloride of a fluorescent substance, or after a polymerization reaction for a polymer, using monoacid chloride of a fluorescent substance to react them. When A′ is —O—R18, a fluorescent substance can be introduced into a polymer by copolymerizing monoester of a fluorescent substance, or after a polymerization reaction for a polymer, placing monoester of a fluorescent substance to react them.

[0200] II) In the Case of Polyether

[0201] When the non-conjugated polymer used in the invention is polyether represented by the above general formula (III-1), the non-conjugated polymer can be easily prepared by condensing between molecules of a compound having a hydroxyl group represented by the following general formulas (III-2).

HO—A1—OH  (III-2)

[0202] In the general formula (III-2), A1 represents at least one selected from the structures represented by the above general formulas (I-1) and (I-2).

[0203] Polyether represented by the above general formula (III-1) can be specifically synthesized, for example, by the following method.

[0204] 1) The aforementioned polyether can be synthesized by a method of heating and dehydration-condensing a monomer having two hydroxyl groups on both ends of a structure represented by A1, as in the above general formula (III-2). In this case, it is desirable that a monomer is heated to melt without using a solvent, and a reaction is performed under reduced pressure in order to promote a polymerization reaction by leaving of water. In addition, when a solvent is used, in order to remove water, it is effective to use a solvent which is azeotoped with water, for example, trichloroethane, toluene, chlorobenzene, dichlorobenzene, nitrobenzene, 1-chloronaphthalene and the like. In this case, a solvent is used in the range of 1 to 100 equivalent, preferably 2 to 50 equivalent relative to 1 equivalent of a monomer. In addition, a reaction temperature can be set arbitrarily, but in order to remove water produced during polymerization, it is preferable to perform a reaction at a boiling point of a solvent. When polymerization does not proceed, a solvent may be removed from a reaction system, and the reaction may be heated to stir at the viscous state.

[0205] 2) The aforementioned polyether may be synthesized by a method of performing dehydration-condensation using, as an acid catalyst, protonic acids such as p-toluenesulfonic acid, hydrochloric acid, sulfuric acid, trifluoroacetic acid and the like, or Lewis acids such as zinc chloride and the like. In this case, an acid catalyst is used in the range of 1 to 1/10000 to 1/10 equivalent, preferably 1/1000 to 1/50 equivalent relative to 1 equivalent of a monomer. In order to remove water produced during polymerization, it is preferable to use a solvent which can be azeotroped with water. As such a solvent, toluene, chlorobenzene, dichlorobenzene, nitrobenzene, 1-chloronaphthalene and the like are effective, and they are used in the range of 1 to 100 equivalent, preferably 2 to 50 equivalent relative to 1 equivalent of a monomer. A reaction temperature can be set arbitrarily, but in order to remove water during a polymerization, a reaction is preferably performed at a boiling point of a solvent.

[0206] 3) The aforementioned monomer can be also synthesized by a method using a condensing agent such as alkyl isocyanate such as cyclohexyl isocyanate and the like, alkyl cyanate such as cyclohexyl cyanate and the like, cyanate ester such as p-tolyl cyanate, 2,2-bis(4-cyanatophenyl)propane and the like, dichlorohexylcarbodiimide (DCC), trichloroacetonitrile and the like. In this case, a condensing agent is used in the range of I-2 to 10 equivalent, preferably 1 to 3 equivalent relative to 1 equivalent of a monomer. As a solvent, toluene, chlorobenzene, dichlorobenene, 1-chloronaphthalene and the like are effective, and they are used in the range of 1 to 100 equivalent, preferably 2 to 50 equivalent. A reaction temperature can be set arbitrarily, but it is preferable that a reaction is performed at room temperature to a boiling point of a solvent. Among synthesizing methods 1) to 3) explained regarding polyester, the synthesizing method 1) or 3) is preferable because isomerization and side reactions are hardly caused. In particular, the synthesizing method 3) is preferable because the reaction condition is milder.

[0207] After completion of the reaction, when a solvent was not used, the reaction solution is dissolved as it is in a solvent which can dissolve it. When a solvent was used, the reaction solution is added as it is dropwise to a poor solvent which hardly dissolves a non-conjugated polymer, such as alcohols such as methanol, ethanol and the like, acetone or the like, to precipitate polyether, and polyether is separate, washed with water or an organic solvent well, and dried. Further, if necessary, re-precipitating treatment be repeated in which polyether is dissolved in a suitable organic solvent, and the solution is added dropwise to a poor solvent to precipitate a monomer. Upon re-precipitating treatment, it is preferable to perform treatment while stirring effectively with a mechanical stirrer or the like. A solvent which dissolves a monomer upon re-precipitating treatment is used in the range of 1 to 100 equivalent, preferably 2 to 50 equivalent relative to 1 equivalent of polyether. In addition, a poor solvent is used in the range of 1 to 1000 equivalent, preferably 10 to 500 equivalent relative to 1 equivalent of polyether. Further, in the aforementioned reaction, it is possible to copolymerize using two or more kinds of, preferably 2 to 5 kinds of, more preferably 2 to 3 kinds of monomers. By copolymerizing different monomers, the electric property, the film forming property, the solubility and the fluorescent property can be controlled.

[0208] When a polymerization degree of polyether is too low, the film forming property is inferior, and a firm film is hardly obtained. On the other hand, a polymerization degree is too high, solubility in a solvent is reduced, and the processibility is deteriorated in some cases. Therefore, a polymerization degree is preferably in the range of 5 to 5000, more preferably in the range of 10 to 3000, further preferably in the range of 15 to 1000.

[0209] In order to introduce L1, as in a monomer, a hydroxyl group, that is, a terminal group R may be a hydrogen atom. However, when the polymer physical properties such as the solubility, the film forming property, the mobility and the like are adversely influenced, a terminal group R can be modified to control the physical property. For example, a terminal hydroxyl group can be alkyletherized with alkyl sulfate, alkyl iodide or the like. A specific reagent can be arbitrarily selected from dimethyl sulfate, diethyl sulfate, methyl iodide, ethyl iodide and the like, and is used in the range of 1 to 3 equivalent, preferably in the range of 1 to 2 equivalent relative to a terminal hydroxyl group. Upon this, a base catalyst can be used, and can be selected from sodium hydroxide, potassium hydroxide, sodium hydride, sodium metal and the like, and is used in a range of to 3 equivalent, preferably in the range of 1 to 2 equivalent relative to a terminal hydroxyl group.

[0210] A reaction can be performed at 0° C. to a boiling point of a solvent to be used. In addition, as a solvent used thereupon, a single solvent selected from inert solvents such as benzene, toluene, methylene chloride, tetrahydrofuran, N,N-dimethylformamide, dimethyl sulfoxide, N-methylpyrrolidone, 1,3-dimethyl-2-imidazolidinone and the like, or a mixed solvent of 2 to 3 of them can be used. In addition, depending on a reaction, a quaternary ammonium salt such as tetra-n-butylammonium iodide and the like may be used as a phase transfer catalyst. Alternatively, a terminal hydroxyl group may be acylated using acid halide to convert a terminal group R into an acyl group.

[0211] Examples of acid halide are not particularly limited, but include acryoyl chloride, crotonoyl chloride, methacryloyl chloride, n-butyl chloride, 2-furoyl chloride, benzoyl chloride, cyclohexanecarbonyl chloride, enantyl chloride, phenylacethyl chloride, o-toluoyl chloride, m-toluoyl chloride, p-toluoyl chloride and the like. They are used in the range of 1 to 3 equivalent, preferably 1 to 2 equivalent relative to a terminal hydroxyl group. Upon this, a base catalyst can be used, and can be selected arbitrarily from pyridine, dimethylaminopyridine, trimethylamine, triethylamine and the like, and is used in the range of 1 to 3 equivalent, preferably 1 to 2 equivalent relative to acid chloride. Examples of a solvent to be used thereupon include benzene, toluene, methylene chloride, tetrahydrofuran, methyl ethyl ketone and the like.

[0212] A reaction can be performed at 0° C. to a boiling point of the solvent, preferably, in the range of 0° C. to 30° C. Further, acylation may be also performed using acid anhydride such as acetic anhydride and the like. When a solvent is used, specifically, inert solvents such as benzene, toluene, chlorobenzene and the like can be used. A reaction can be performed at 0° C. to a boiling point of the solvent, preferably, 40° C. to a boiling point of a solvent.

[0213] Besides, an urethane residue (—CONH—R′) can be introduced into a terminal end using monoisocyatnate. Specifically, monoisocyanate can be arbitrarily selected from benzyl isocyanate, n-butyl isocyanate, t-butyl isocyanate, cyclohexyl isocianate, 2,6-dimethyl isocyanate, ethyl isocyanate, isopropyl isocyanate, 2-methoxyphenyl isocyanate, 4-methoxyphenyl isocyanate, n-octadecyl isocyanate, phenyl isocyanate, I-propyl isocyanate, m-tolyl isocyanate, p-tolyl isocyanate, 1-naphthyl isocyanate and the like. Monoisocyanate is used in the range of 1 to 3 equivalent, preferably 1 to 2 equivalent relative to a terminal hydroxyl group.

[0214] Examples of a solvent to be used upon this include benzene, toluene, chlorobenzene, dichlorobenzene, methylene chloride, tetrahydrofuran, N,N-dimethylformamide, dimethyl sulfoxide, N-methylpyrrolidone, 1,3-dimethyl-2-imidazolidinone and the like. A reaction can be performed at a temperature of 0° C. to a boiling point of a solvent to be used. When a reaction hardly proceeds, metal compounds such as dibutyltin (II) dilaurate, tin (II) octylate, lead naphthenate and the like, or tertiary amines such as triethylamine, trimethylamine, pyridine, dimethylaminopyridine and the like may be added as a catalyst.

[0215] In addition, introduction of a fluorescent substance is not particularly limited, but the following methods are exemplified. That is, a method of acylating a terminal hydroxyl group by a monoacid salt compound of a fluorescent substance, and a method of introducing an urethane residue into a terminal hydroxyl group by using monoisocyanate of a fluorescent substance can be applied.

[0216] III) In the Case of Polyurethane

[0217] When the non-conjugated polymer used in the invention is polyurethane represented by the above general formula (IV-1) or (IV-2), the non-conjugated polymer can be synthesized by polymerizing monomers represented by the following general formulas (IV-3) to (IV-6) by the known method, for example, described in 4th Experimental Chemical Course, vol. 28 (Maruzen Co., Ltd., 1992), New Polymer Experiment, vol. 2 (Kyouritsushupan) 1995 and the like.

HO—A1—OH  (IV-3)

NCO—A1—OCN  (IV-4)

[0218] 1338  H2N—A1—NH2  (IV-5)

[0219] In the general formulas (IV-3) to (IV-6), A1 represents at least one selected from the structures represented by the above general formulas (I-1) and (I-2).

[0220] Specifically, for example, when monomers represented by the general formulas (IV-3) and (IV-4) are used, polyurethane can be synthesized as follows.

[0221] When a monomer is a divalent alcohol represented by the general formula (IV-3), the monomer is mixed with diisocyanate represented by the OCN—Y—NCO at an equivalent amount and, when a monomer is diisocyanate represented by the general formula (IV-4), the monomer is mixed with a divalent alcohol represented by HO—Y—OH at an equivalent amount, whereby, polyaddition is performed.

[0222] As the catalyst, catalysts which are used in a reaction of synthesizing polyurethane by normal polyaddition, such as organometal compounds such as dibutyltin (II) dilaurate, dibutyltin (II) diacetate, lead naphthenate and the like can be used. In addition, when aromatic diisocyanate is used in synthesis of polyurethane, tertiary amines such as triethylenediamine and the like can be used as a catalyst. These organometal compounds and tertiary amines may be used by mixing them as a catalyst. An amount of a catalyst is in the range of 1/10,000 to 1/10 parts by weight, preferably 1/1,000 to 1/50 parts by weight relative to 1 part by weight of a monomer. Any solvents may be used as far as they dissolve a monomer and diisocyanate, or divalent alcohols. However, in view of the reactivity, it is preferable to use a solvent having the low polarity or a solvent forming no hydrogen bond to alcohols, and toluene, chlorobenzene, dichlorobenzene, 1-chloronaphthalene are effective. An amount of a solvent is in the range of 1 to 100 parts by weight, preferably 2 to 50 parts by weight relative to 1 part by weight of a monomer. A reaction temperature can be arbitrarily set.

[0223] After completion of the reaction, the reaction solution is added as it is dropwise to a poor solvent in which a polymer is hardly dissolved, such as alcohols such as methanol, ethanol and the like, acetone and the like, and polyurethane is precipitated and separated from the reaction solution, washed with water or an organic solvent well, and is dried. Further, if necessary, re-precipitating treatment may be repeated in which polyurethane is dissolved in a suitable organic solvent, and the solution is added dropwise to a poor solvent, to precipitate polyurethane. Upon re-precipitated treatment, it is preferable to perform the treatment while effectively stirring with a mechanical stirrer or the like. A solvent which dissolves polyurethane upon re-precipitating treatment is used in the range of 1 to 100 parts by weight, preferably 2 to 50 parts by weight relative to 1 part by weight of polyurethane. In addition, a poor solvent is used in the range of 1 to 1,000 parts by weight, preferably 10 to 500 parts by weight relative to 1 part by weight of charge transporting polyurethane.

[0224] On the other hand, when monomers represented by the general formulas (IV-5) and (IV-6) are used, polyurethane can be synthesized as follows:

[0225] That is, when a monomer is bischloroformate represented by the general formula (IV-5), synthesis of polyurethane can be performed by mixing with diamine represented by 2HN—Y2—NH2 at an equivalent amount and conducting polycondensation. In addition, when a monomer is diamine represented by the general formula (IV-6), synthesis of polyurethane can be performed by mixing with bischloroformate represented by ClOCO—Y2—OCOCl at an equivalent amount and conducting polycondensation.

[0226] As a solvent, methylene chloride, dichloroethane, trichloroethane, tetrahydrofuran (THF), toluene, chlorobenzene, 1-chlorohaphthalene and the like are effective, and they are used in the range of 1 to 100 parts by weight, preferably 2 to 50 parts by weight relative to 1 part by weight of a monomer. A reaction temperature can be arbitrarily set. After polymerization, polyurethane is purified by re-precipitating treatment as described above.

[0227] In addition, when basicity of diamine represented by 2HN—Y—NH2 is high, an interface polymerization method may be used. That is, polymerization can be performed by adding water to diamine, adding an equivalent amount of an acid to dissolve the material, and adding diamine and a solution of an equivalent amount of a monomer represented by the aforementioned general formula (IV-5) while vigorously stirring. Upon this, water is used in the range of 1 to 1,000 parts by weight, preferably 10 to 500 parts by weight relative to 1 part by weight of diamine.

[0228] As a solvent which dissolves a monomer, methylene chloride, dichloroethane, trichloroethane, toluene, chlorobenzene, 1-chlorohaphthalene and the like are effective. A reaction temperature can be arbitrarily set. In addition, in order to promote a reaction, it is effective to use a phase transfer catalyst such as ammonium salt, sulfonium salt and the like. A phase transfer catalyst is used in the range of 0.1 to 10 parts by weight, preferably 0.2 to 5 parts by weight relative to 1 part by weight of a monomer.

[0229] In addition, introduction of a fluorescent substance is not particularly limited, but following methods are exemplified. When a monomer represented by the general formula (IV-3) is used, a fluorescent substance can be introduced by copolymerizing a monovalent alcohol of a fluorescent substance, or after a polymerization reaction of a polymer, using a monovalent alcohol of a fluorescent substance to conduct a reaction.s

[0230] When a monomer represented by the general formula (IV-4) is used, a fluorescent substance can be introduced by copolymerizing monoisocyanate of a fluorescent substance, or after a polymerization reaction of a polymer, using monoisocyanate of a fluorescent substance to conduct a reaction.

[0231] When a monomer represented by the general formula (IV-5) is used, a fluorescent substance can be introduced by copolymerizing a monovalent carboxyilic acid of a fluorescent substance, or after a polymerization reaction of a polymer, using monovalent carboxyilic acid of a fluorescent substance to conduct a reaction.

[0232] When a monomer represented by the general formula (IV-6) is used, a fluorescent substance can be introduced by copolymerizing monoamine of a fluorescent substance, or after a polymerization reaction of a polymer, using monoamine of a fluorescent substance to conduct a reaction.

[0233] Then, a layer construction of the organic electroluminescent element of the invention will be described in detail.

[0234] A layer construction of the organic electroluminescent element of the invention is not particularly limited as far as the element comprises at least one pair of electrodes comprising an anode and a cathode, at least one of which having light transmissive, and at least one organic compound layer held by the electrodes, and the aforementioned non-conjugated polymer is contained in the at least one organic compound layer.

[0235] In the organic electroluminescent element of the invention, when the at least one organic compound layer is a single layer, this organic compound layer means a light emitting layer having the charge transporting function, and this light emitting layer having the charge transporting function contains the aforementioned non-conjugated polymer.

[0236] On the other hand, when the at least one organic compound layer is composed of a plurality of layers (that is, when this organic compound layer is function-separated type that functions of respective layers are different), at least one layer comprises a light emitting layer, and this light emitting layer may be a light emitting layer having a charge transporting function. In this case, examples of a layer construction comprising the aforementioned light emitting layer or the light emitting layer having the charge transporting function, and other layers include (1) a layer construction comprising a light emitting layer, an electron transporting layer and/or an electron injecting layer, (2) a layer construction comprising a hole transporting layer and/or a hole injecting layer, a light emitting layer, and an electron transporting layer and/or an electron injecting layer, and (3) a layer construction comprising a hole transporting layer and/or a hole injecting layer, and a light emitting layer having the charge transporting function. Layers other than the light emitting layer and the light emitting layer having the charge transporting function in these layer constructions (1) to (3) have function as a charge transporting layer or a charge injecting layer.

[0237] In addition, in any layer construction of the layer constructions (1) to (3), the non-conjugated polymer may be contained in any one layer, and it is preferable that the non-conjugated polymer is contained in a light emitting layer in the layer construction (1) and (2) and it is preferable that the non-conjugated polymer is contained in a light emitting layer having the electron transporting function in the layer construction (3).

[0238] In addition, the light emitting layer having the charge transporting layer, the hole transporting layer, the hole injecting layer, the electron transporting layer and the electron injecting layer may further contain a charge transporting compound (hole transporting material, electron transporting material) other than the aforementioned non-conjugated polymer. The details of such a charge transporting compound will be described below.

[0239] Hereinafter, the invention will be explained in detail by referring to the drawings, but is not limited to them.

[0240] FIGS. 1 to 4 are schematic cross-sectional views for explaining a layer construction of the organic electroluminescent element of the invention. FIGS. 1-2 and 4 show one example of the case where the organic compound layer comprises a plurality of layers, and FIG. 3 shows an example of the case where the organic compound layer comprises one layer. In FIGS. 1 to 4, the same symbol is given to a member having the same function.

[0241] In the organic electroluminescent element shown in FIG. 1, a transparent electrode 2, a light emitting layer 4, an electron transporting layer and/or an electron injecting layer 5, and a rear surface electrode 7 are deposited in this order on a transparent insulating substrate 1. When a layer shown by the symbol 5 comprising an electron transforming layer and an electron injecting layer, an electron transporting layer, an electron injecting layer and a rear surface electrode 7 are deposited in this order on a side where a rear surface electrode 7 of a light emitting layer 4 is provided.

[0242] In the organic electroluminescent element shown in FIG. 2, a transparent electrode 2, a hole transporting layer and/or a hole injecting layer 3, a light emitting layer 4, an electron transporting layer and/or an electron injecting layer 5, and a rear surface electrode 7 are deposited in this order on transparent insulating substrate 1. When a layer shown by the symbol 3 comprises a hole transporting layer and a hole injecting layer, a hole injecting layer, a hole transporting layer and a light emitting layer 4 are deposited in this order on a side where a rear electrode 7 of a transparent electrode 2 is provided. In addition, when a layer shown by the symbol 5 comprises an electron transporting layer and an electron injecting layer, an electron transporting layer, an electron injecting layer, and a rear surface electrode 7 are deposited in this order on a side where a rear electrode 7 of a light emitting layer 4 is provided.

[0243] In the organic electroluminescent element shown in FIG. 3, a transparent electrode 2, a light emitting layer 6 having the charge transporting function, and a rear surface electrode 7 are deposited in this order on a transparent insulating substrate 1. In the organic electroluminescent element shown in FIG. 4, a transparent electrode 2, a hole transporting layer and/or a hole injecting layer 3, a light emitting layer 6 having the charge transporting function, and a rear electrode 7 are deposited in this order on a transparent insulating substrate 1. When a layer shown by the symbol 3 comprises a hole transporting layer and a hole injecting layer, a hole injecting layer, a hole transporting layer, and a light emitting layer 6 having the charge transporting function are deposited in this order on a side where a rear electrode 7 of a transparent electrode 2 is provided. Each constituent member will be explained in detail below.

[0244] In the case of a layer construction of the organic electroluminescent element shown in FIGS. 1 to 4, a transparent insulating substrate 1 is preferably transparent for taking out the emitted light and glass, plastic film and the like are used. The transparency means that transmittance of the light in a visible region is 10% or more, and further, it is preferable that this transmittance is 75% or more.

[0245] A transparent electrode 2 is transparent for taking out the emitted light as in the transparent insulating substrate, and it is preferable that the electrode has the large work function for carrying out the injection of holes. It is preferable that the value of this work function is 4 eV or more. Examples of the transparent electrode 2 include oxidized films such as tin indium oxide (ITO), tin oxide (NESA), indium oxide, zinc oxide, indium zinc oxide and the like, and gold, platinum, palladium and the like formed by deposition or sputtering. A lower sheet resistance of a transparent electrode 2 is desirable, a few hundreds Ω/□ or less is preferable, further 100 Ω/□ or less is more preferable. In addition, in a transparent electrode 2, transmittance of the light in a visible region is 10% or more as in the transparent insulating substrate, and further, it is preferable that this transmittance is 75% or more.

[0246] In addition, for the purpose of improving the durability or the light emitting efficiency of the organic electroluminescent element, a hole transporting material other than the aforementioned non-conjugated polymer for regulating the hole mobility may be mixed and dispersed in the range of 0.1% by weight to 50% by weight relative to the non-conjugated polymer used in the invention. Examples of such a hole transporting material include a tetraphenylenediamine derivative, a triphenylamine derivative, a carbazole derivative, a stilbine derivative, an arylhydrazone derivative and a porphyrin compound. Among them, a tetraphenylenediamine derivative and a triphenylamine derivative are preferable because they have the better compatibility with the non-conjugated polymer.

[0247] In addition, similarly, when the electron mobility is adjusted, an electron transporting material may be mixed and dispersed in the range of 0.1% by weight to 50% by weight relative to the non-conjugated polymer. Examples of such a electron transporting material include an oxadiazole derivative, a nitro-substituted fluorenone derivative, a diphenoquinone derivative, a thiopyrandioxide derivative, a fluorenylidenmethane derivative and the like.

[0248] In addition, when both of the hole mobility and the electron mobility are required to be adjusted, both of the hole transporting material and the electron transporting material may be mixed into the non-conjugated polymer.

[0249] Further, for the purpose of improvement of the film forming property and prevention of pinhole, a suitable resin (polymer) and additive may be added. As a resin, for example, a polycarbonate resin, polyester resin, a methacryl resin, an acryl resin, a polyvinyl chloride resin, a cellulose resin, an urethane resin, an epoxy resin, a polystyrene resin, a polyvinyl acetate resin, a styrene butadiene copolymer, vinylidene chloride-acrylonitrile copolymer, a vinyl chloride-vinyl acetate-maleic anhydride copolymer, a silicon resin, a poly-N-vinylcarbazole resin, and a polysilane resin, and electrically conducting resins such as polythiophene and polypyrrole can be used. In addition, as an additive, the known antioxidant, ultraviolet ray absorber, plasticizer and the like can be used.

[0250] In addition, for improving the light emitting intensity and adjusting the color purity and the light emitting spectrum, different dye compounds as a guest material may be doped. A dye compound to be doped may be an organic low-molecular compound or an organic high-molecular compound.

[0251] When a dye compound to be doped is an organic low-molecular compound, preferable example of this organic low-molecular compound include a chelating type organic metal complex, a polynuclear aromatic ring compound, a condensation aromatic ring compound, a perylene derivative, a coumarin derivative, a styrylarylene derivative, a silol derivative, an oxazole derivative, a oxathiazole derivative, an oxadiazole derivative and the like. In addition, when a dye compound to be doped is a high-molecular compound, as this high-molecular compound, a polyparaphenylene derivative, a polyparaphenylenevinylene derivative, a polythiophene derivative, a polyacetylene derivative and the like are used. As a suitable example of a dye compound, the following dye compounds (V-1) to (V-15) are used, being not limiting. In addition, in dye compounds (V-13) to (V-15), n and x represent an integer of 1 or more. 133913401341

[0252] A ratio of doping of a dye compound is around 0.001% by weight to 40% by weight, preferably around 0.001% by weight to 10% by weight. As dye compound to be used for such a doping, organic compounds having the better compatibility with a light emitting material and do not prevent better film forming of a light emitting layer are used and, suitably, a DCM derivative, a quinacridone derivative, a rublene derivative, porphyrin and the like are used. Suitable examples include the following dye compounds (VI-1) to (VI-4), being not limiting. 1342

[0253] In the case of a layer construction of the organic electroluminescent element shown in FIGS. 1 to 4, a metal, metal oxide, metal fluoride and the like which can be vacuum-deposited and has small work function for carrying out electron injection are used in a rear surface electrode 7. Examples of the metal include magnesium, aluminum, silver, indium, lithium, calcium and alloys thereof. Examples of the metal oxide include lithium oxide, magnesium oxide and aluminum oxide. In addition, examples of the metal fluoride include lithium fluoride, magnesium fluoride, strontium fluoride, calcium fluoride and aluminum fluoride. Further, in order to prevent deterioration of an organic electroluminescent element due to water or oxide, a protecting layer may be provided on a rear surface electrode 7.

[0254] Examples of a material for the protecting layer include metals such as In, Sn, Pb, Au, Cu, Ag, Al and the like, metal oxides such as MgO, SiO2, TiO2 and the like, and resins such as a polyethylene, a polyurea resin, a polyimide resin and the like. For forming a protecting layer, a vacuum-deposition method, a sputtering method, a plasma polymerization method, a CVD method and a coating method can be applied.

[0255] These organic electroluminescent elements shown in FIGS. 1 to 4 can be prepared by first forming individual layers corresponding to a layer construction of each organic electroluminescent element, in this order, on a transparent electrode 2.

[0256] In addition, a hole transporting layer and/or a hole injecting layer 3, a light emitting layer 4 and an electron transporting layer and/or an electron injecting layer 5, or a light emitting layer 6 having the charge transporting function is formed using the aforementioned respective materials by a vacuum-deposition method, or is formed on a transparent electrode 2 using a coating solution obtained by dissolving or dispersing the aforementioned respective materials in a suitable organic solvent by a spin-coating method, a casting method, a dipping method or the like.

[0257] Thicknesses of a hole transporting layer and/or hole injecting layer 3, a light emitting layer 4, an electron transporting layer and/or an electron injecting layer 5, as well as a light emitting layer 6 having the charge transporting function are preferably in the range of 10 μm or smaller, particularly 0.001 to 5 μm, respectively. The dispersed state for the aforementioned respective materials (non-conjugated polymer, light emitting material etc.) may be the state where materials are dispersed at a molecular level, or the state where fine particles such as fine crystals are dispersed. In the case of a method of forming a film using a coating solution, in order to obtain the state of dispersion at a molecular level, it is necessary to select a dispersing solvent in view of the dispersing property and the solubility of the aforementioned respective materials. In order to obtain dispersion of fine particles, a ball mill, a sand mill, a paint shaker, an attritor, a homogenizer, ultrasound method and the like can be utilized.

[0258] Finally, in the case of the organic electroluminescent element shown in FIG. 1 and FIG. 2, the organic electroluminescent element of the invention is completed by forming a rear electrode 7 on an electron transporting layer and/or an electron injecting layer 5 by a vacuum-deposition method, or a sputtering method or the like. In addition, in the case of the organic electroluminescent element shown in FIGS. 3 and 4, the organic electroluminescent element of the invention is completed by forming a rear electrode 7 on a light emitting layer 6 having the charge transporting function by a vacuum-deposition method, a sputtering method or the like.

EXAMPLES

[0259] The present invention will be explained more specifically by way of Examples below. However, the invention is not limited the following Examples.

Example 1

[0260] By using a substrate (manufactured by Sanyosinku) in which an ITO film is formed on a glass substrate, subjecting this ITO film of a substrate to patterning by photolithography using a photomask on which a strip-like pattern is formed, and subjecting the patterned ITO film to etching treatment, a strip-like ITO electrode (width 2 mm) was formed. Then, this glass substrate equipped with an ITO electrode was washed with neutral detergent, pure water, acetone (for electronic industry, manufactured by Kanto Kagaku) and isopropanol (for electronic industry, manufactured by Kanto Kagaku) by adding ultrasound for each 5 minutes, and dried with a spin coater. Thereafter, the substrate was washed with ultraviolet-ray ozone.

[0261] Then, a solution obtained by filtering dichloroethane containing 5% by weight of a non-conjugated polymer [exemplified compound (11)] with a PTFE filter having an opening of 0.1 μm, was coated on the surface of an ITO electrode of a substrate equipped with the ITO electrode, whereby, a light emitting layer of a thickness of 0.100 μm having the charge transporting layer function was formed.

[0262] Finally, a metal mask on which a strip-like hole is provided was arranged on the surface of a light emitting layer having the charge transporting layer function, and a Mg—Ag alloy was deposited thereon by codeposition to form a rear electrode having a width of 2 mm and a thickness of 0.15 μm so as to cross with the ITO electrode. An effective area of the formed organic electroluminescent element was 0.04 cm2.

Example 2

[0263] Dichloroethane containing 10% by weight of a mixture comprising 1 part by weight of the non-conjugated polymer [exemplified compound (11)] used in Example 1, 4 parts by weight of poly(N-vinylcarbazole) and 0.02 part by weight of the aforementioned dye compound (V-1), was filtered with a PTFE filter having an opening of 0.1 μm to prepare a solution.

[0264] Then, the above solution was coated on a surface of a side where an ITO electrode of a glass substrate equipped with an ITO electrode prepared and washed as in Example 1 was provided, by a spin coater method, to form a light emitting layer of a thickness of about 0.110 μm having the charge transporting function, which was sufficiently dried. Finally, a Mg—Ag alloy was deposited by codeposition on the surface of a light emitting layer having the charge transporting function as in Example 1, to form a rear electrode having a width of 2 mm and a thickness of 0.15 μm so as to cross the ITO electrode. An effective area of the formed organic electroluminescent element was 0.04 cm2.

Example 3

[0265] A non-conjugated polymer [exemplified compound (15)] as a layer functioning as a hole transporting layer and a light emitting layer was formed at a thickness of 0.050 μm, on a surface of a side where an ITO electrode of a glass substrate equipped with an ITO electrode prepared and washed as in Example 1 was provided.

[0266] Then, a light emitting layer of a thickness of 0.065 μm containing the dye compound (V-1) and the dye compound (VI-1) was formed by a vacuum-deposition method and, further, on the surface of a light emitting layer, the following compound (VII-1) as an electron transporting layer was formed at a thickness of 0.030 μm by a vacuum deposition method.

[0267] Finally, a Mg—Ag alloy was deposited by codeposition, on the surface of an electron transporting layer as in Example 1, to form a rear electrode having a width of 2 mm and a thickness of 0.15 μm so as to cross with the ITO electrode. An effective area of the formed organic electroluminescent element was 0.04 cm2. 1343

Example 4

[0268] According to the same manner as that of Example 1 except that an exemplified compound (59) was used in place of an exemplified compound (11) used in Example 1, an organic electroluminescent element was prepared.

Example 5

[0269] According to the same manner as that of Example 2 except that an exemplified compound (87) was used in place of an exemplified compound (11) used in Example 2, an organic electroluminescent element was prepared.

Example 6

[0270] According to the same manner as that of Example 3 except that an exemplified compound (103) was used in place of an exemplified compound (11) used in Example 1, an organic electroluminescent element was prepared.

Example 7

[0271] According to the same manner as that of Example 3 except that an exemplified compound (110) was used in place of an exemplified compound (11) used in Example 1, an organic electroluminescent element was prepared.

Example 8

[0272] According to the same manner as that of Example 3 except that an exemplified compound (165) was used in place of an exemplified compound (11) used in Example 1, an organic electroluminescent element was prepared.

Example 9

[0273] According to the same manner as that of Example 3 except that an exemplified compound (166) was used in place of an exemplified compound (11) used in Example 1, an organic electroluminescent element was prepared.

Example 10

[0274] According to the same manner as that of Example 3 except that an exemplified compound (190) was used in place of an exemplified compound (11) used in Example 1, an organic electroluminescent element was prepared.

Comparative Example 1

[0275] Dichloroethane containing 2% by weight of polyvinylcarbazole (PVK) was filtered with a PTFE filter having an opening of 0.1 μm to prepare a solution. Then, the above solution was coated on the surface of a side where an ITO electrode of a glass substrate equipped with an ITO electrode prepared and washed as in Example 1 was provided, by a dipping method, to form a hole transporting layer having a thickness of 0.06 μm, which was sufficiently dried. Then, a light emitting layer having a thickness of 0.05 μm comprising the dye compound (V-1) as a light emitting material was formed by a vacuum deposition method.

[0276] Finally, a Mg—Ag alloy was deposited by codeposition on the surface of this light emitting layer as in Example 1, to form a rear electrode having a width of 2 mm and a thickness of 0.15 μm so as to cross with the ITO electrode. An effective area of the formed organic EL element was 0.04 cm .

Comparative Example 2

[0277] A dichloroethane solution containing 10% by weight of a mixture obtained by mixing 2 parts by weight of polyvinylcarbazole (PVK), 0.1 part by weight of the dye compound (VI-1) as a light emitting material, and 1 part by weight of the above compound (VII-1) as an electron transporting material, was filtered with a PTFE filter having an opening of 0.1 μm, to prepare a solution.

[0278] Then, the above solution was coated on the surface of a side where an ITO electrode of a glass substrate equipped with an ITO electrode prepared and washed as in Example 1 was provided, by a dipping method, to form a hole transporting layer having a thickness of 0.15 μm, which was sufficiently dried. Finally, a Mg—Ag alloy was deposited by codeposition on the surface of this hole transporting layer as in Example 1, to form a rear electrode having a width of 2 mm and a thickness of 0.15 μm so as to cross with the ITO electrode. An effective area of the formed organic EL element was 0.04 cm2.

[0279] -Assessment-

[0280] A direct voltage was applied to the thus prepared organic EL element in vacuum (133.3×10−3 Pa), in which an ITO electrode side was plus and a Mg—Ag rear electrode side was minus, and light emitting was measured, and the maximum luminance and the emission color were assessed. The results are shown in Table 108. In addition, a light emitting life of the organic EL element was measured in dry nitrogen. In assessment of a light emitting life, a current value was set so that the initial luminance became 100 cd/m2, and a time required for reduction of the luminance from an initial value to half by constant current driving was adopted as an element life (hour). The driving current density upon this is shown together with an element life in Table 108.

	TABLE 108
			Driving
			current	Element
	Emission	Luminance	density	life
	Color	(cd/m2)	(mA/m2)	(hour)
Example 1	Green	115	18	175
Example 2	Green	130	20	230
Example 3	Orange	150	18	200
Ecample 4	Bluegreen	140	18	170
Example 5	Bluegreen	180	21	120
Example 6	Blue	165	20	150
Example 7	Bluegreen	105	23	210
Example 8	Blue	200	19	260
Example 9	Green	190	24	120
Example 10	Bluegreen	155	22	150
Comparative	Green	85	31	80
Example 1
Comparative	Green	88	29	90
Example 2

[0281] As explained above, the organic electroluminescent element of the present invention is an electroluminescent element comprising one or more organic compound layers held between one pair of electrodes comprising an anode and a cathode, at least one of which is transparent or translucent, wherein at least one layer of the one or more organic compound layers contains at least one kind of non-conjugated polymer, and at least one of terminal groups of the non-conjugated polymer has a fluorescent substance emitting fluorescence in a solid state.

[0282] Thus, according to the invention, there can be provided an organic electroluminescent element which has the high luminance, the high efficiency and a long element life, and has little defect such as pinhole, and can be easily enlarged, using a light emitting non-conjugated polymer excellent in the heat resistance and solubility in and compatibility with a solvent and a resin.

Claims

1. An organic electroluminescent element comprising at least one pair of electrodes comprising an anode and a cathode, at least one of which having light transmissive, and at least one organic compound layer disposed between the electrodes, wherein the at least one organic compound layer contains at least one kind of non-conjugated polymer having terminal groups, and at least one of terminal groups of the non-conjugated polymer contains a fluorescent substance emitting fluorescence in a solid state.

2. An organic electroluminescent element according to claim 1, wherein the non-conjugated polymer is selected from the group consisting of polyester, polyether and polyurethane.

3. An organic electroluminescent element according to claim 1, wherein the non-conjugated polymer is a hole transporting polymer.

4. An organic electroluminescent element according to claim 1, wherein the non-conjugated polymer comprises a repetition unit containing at least one partial structure selected from the group consisting of -the following general formulas (I-1) and (I-2),

5. An organic electroluminescent element according to claim 1, wherein the at least one organic compound layer comprises 2 or more layers including at least a light emitting layer, and the light emitting layer contains at least one kind of the non-conjugated polymer.

6. An organic electroluminescent element according to claim 5, wherein the at least one organic compound layer has a construction selected from the group consisting of a construction comprising the light emitting layer and an electron transporting layer, a construction comprising the light emitting layer and an electron injecting layer, and a construction comprising the light emitting layer, an electron transporting layer and an electron injecting layer.

7. An organic electroluminescent element according to claim 5, wherein the at least one organic compound layer has a construction selected from the group consisting of a construction comprising the light emitting layer and a hole transporting layer, a construction comprising the light emitting layer and a hole injecting layer, and a construction comprising the light emitting layer, a hole transporting layer and a hole injecting layer.

8. An organic electroluminescent element according to claim 5, wherein the at least one organic compound layer has a construction selected from the group consisting of a construction comprising the light emitting layer, a hole transporting layer and an electron transporting layer, a construction comprising the light emitting layer, a hole transporting layer and an electron injecting layer, a construction comprising the light emitting layer, a hole transporting layer, an electron transporting layer and an electron injecting layer, a construction comprising the light emitting layer, a hole injecting layer and an electron transporting layer, a construction comprising the light emitting layer, a hole injecting layer and an electron injecting layer, a construction comprising a light emitting layer, a hole injecting layer, an electron transporting layer and an electron injecting layer, a construction comprising the light emitting layer, a hole transporting layer, a hole injecting layer and an electron transporting layer, a construction comprising the light emitting layer, a hole transporting layer, a hole injecting layer and an electron injecting layer, and a construction comprising the light emitting layer, a hole transporting layer, a hole injecting layer, an electron transporting layer and an electron injecting layer.

9. An organic electroluminescent element according to claim 1, wherein the at least one organic compound layer is composed only of a light emitting layer having a charge transporting function, and the light emitting layer having the charge transporting function contains one or more kinds of non-conjugated polymers.

10. An organic electroluminescent element according to claim 4, wherein the non-conjugated polymer is a polyester selected from the group consisting of the following general formulas (II-1) and (II-2),

11. An organic electroluminescent element according to claim 4, wherein the non-conjugated polymer is a polyether represented by the following general formula (III-1),

12. An organic electroluminescent element according to claim 4, wherein the non-conjugated polymer is a polyurethane selected from the group consisting of the following general formulas (IV-1) and (IV-2),

13. An organic electroluminescent element according to claim 1, wherein the fluorescent substance is an organic fluorescent substance.

14. An organic electroluminescent element according to claim 13, wherein the organic fluorescent substance is selected from the group consisting of a compound including an aromatic hydrocarbon having an aromatic ring number of 2 or more, and a chelating metal complex.

15. An organic electroluminescent element according to claim 14, wherein the compound including an aromatic hydrocarbon having an aromatic ring number of 2 or more is an organic fluorescent substance selected from the group consisting of a polyacene derivative compound, a styrylamine compound, a quinacridone derivative compound, a rublene derivative compound, a coumarin derivative compound and a pyran derivative compound.

16. An organic electroluminescent element according to claim 15, wherein the polyacene derivative compound is selected from the group consisting of a naphthalene derivative, an anthracene derivative, a tetracene derivative, a perylene derivative and a pyrene derivative.

17. An organic electroluminescent element according to claim 14, wherein the chelating metal complex contains a metal selected from the group consisting of Al, Zn, Be, Mg, Eu, Ga, Pt and Ir.

18. An organic electroluminescent element according to claim 1, wherein a maximum peak wavelength in a fluorescent spectrum of the fluorescent substance is in the visible light region.

19. An organic electroluminescent element according to claim 1, wherein both terminal groups of the non-conjugated polymer contain a fluorescent substance emitting fluorescence in a solid state.

20. An organic electroluminescent element according to claim 1, wherein emission colors of the fluorescent substances emitting fluorescence in a solid state and respectively contained in the terminal groups are different from each other.