CN106062079B - Thermoplastic resin composition comprising silsesquioxane composite polymer - Google Patents
Thermoplastic resin composition comprising silsesquioxane composite polymer Download PDFInfo
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- C08L83/00—Compositions of macromolecular compounds obtained by reactions forming in the main chain of the macromolecule a linkage containing silicon with or without sulfur, nitrogen, oxygen or carbon only; Compositions of derivatives of such polymers
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Abstract
The present invention relates to a thermoplastic resin composition containing a silsesquioxane composite polymer, and more particularly, to a thermoplastic resin composition having excellent heat resistance, chemical resistance, stain resistance, gas permeation prevention property, permeability, colorability, abrasion resistance, surface hardness, and the like, by containing a silsesquioxane composite polymer containing a linear silsesquioxane chain having a specific structure and a cage silsesquioxane in one polymer.
Description
Technical field
It the present invention relates to the use of the thermoplastic resin composition of silsesquioxane composite high-molecular, more specifically, related to
And the sesquialter silicon by the inclusion of line style silsesquioxane chain and cage-type silsesquioxane containing specific structure in a macromolecule
Oxygen alkane composite high-molecular is to which heat resistance, chemical resistance, soil resistance, gas are through preventing characteristic, permeability, coloring, wear-resisting
The excellent thermoplastic resin composition such as property and surface hardness.
Background technique
Thermoplastic resin passes through molding, the film, fiber filament of injection or extrusion because of workability in various fields
Equal variforms are applied and are applied flexibly, (poly- using PC (polycarbonate), PMMA as representative thermoplastic resin
Methyl methacrylate), PES (polyether sulfone), PET (polyethylene terephthalate), PEN (poly- naphthalenedicarboxylic acid ethylene glycol
Ester), COC (cyclic olefine copolymer), PAc (polyacrylate), PE (polyethylene), PEEK (polyether-ether-ketone), PEI (polyetherimide
Amine), PI (polyimides), PSF (polysulfones), PVA (polyvinyl alcohol), PVCi (polyvinyl cinnamate), (triacetyl is fine by TAC
Dimension element), polysilicon (Poly Silicone), polyurethane (Polyurethane) and epoxy resin (Epoxy Resin) etc..
Thermoplastic resin as described above due to heat resistance, chemical resistance, gas through prevent characteristic, water repellency, the transparency,
Coloring, wearability and surface hardness etc. are low, therefore are meeting physical characteristic side required by the scene gone forward side by side with industry development
Face Shortcomings carry out following effort to solve the shortcoming by persistence: various thermoplastic resins are mixed and
It uses, or adds various functional additives to enhance physical property.
For example, Korean Patent Publication No. 10-2002-0034542 discloses and adds in thermoplastic polycarbonate resin
There is rubber-modified graft copolymer and in the matrix resin being made of vinyl copolymer added with N- acyl group morpholine phosphoric acid
The thermoplastic resin composition of the excellent in flame retardance of ester compounds and fluorinated polyolefin, and Korean Patent Publication 10-2011-
No. 0069592 disclose with relative to 100 parts by weight of polycarbonate resin include silicon-type compound 0.01-10 parts by weight,
The metal organic sulfonate 0.01-1.5 parts by weight and polyfluoroethylene resin 0.01-1 parts by weight that average grain diameter is 100-400 μm are
The Polycarbonate flame retardant film resin combination of feature, but there are the following problems: it is insufficient for the high flame retardant of demander
And chemical resistance, and gas can not be solved through preventing characteristic, soil resistance, water repellency, coloring, wearability and surface hardness
Deng.
Summary of the invention
Project to be solved
As described above in order to solve the problems, such as, the object of the present invention is to provide include by the inclusion of in a macromolecule
There are the line style silsesquioxane chain of specific structure and the silsesquioxane composite high-molecular of cage-type silsesquioxane, thus heat-resisting
Property, chemical resistance, soil resistance, gas is through the warm that prevents characteristic, permeability, coloring, wearability and surface hardness etc. excellent
Thermoplastic resin composition.
It is further an object that provide by being manufactured by above-mentioned thermoplastic resin composition, thus heat resistance,
Chemical resistance, soil resistance, gas are through the article for preventing characteristic, permeability, coloring, wearability and surface hardness etc. excellent.
The method to solve the problem
To achieve the goals above, the present invention provides a kind of thermoplastic resin composition, which is characterized in that includes followingization
Silsesquioxane composite high-molecular represented by any of formula 1 to 9:
[chemical formula 1]
[chemical formula 2]
[chemical formula 3]
[chemical formula 4]
[chemical formula 5]
[chemical formula 6]
[chemical formula 7]
[chemical formula 8]
[chemical formula 9]
In above-mentioned chemical formula 1 to 9,
A isB isD isE is
Y is each independently O, NR21Or [(SiO3/2R)4+2nO], and at least one is [(SiO3/2R)4+2nO],
X is each independently R22Or [(SiO3/2R)4+2nR], and at least one is [(SiO3/2R)4+2nR],
R、R1、R2、R3、R4、R5、R6、R7、R8、R9、R10、R11、R12、R13、R14、R15、R16、R17、R18、R19、R20、R21、R22
It is each independently hydrogen;Deuterium;Halogen;Amido;Epoxy group;Cyclohexyl ring oxygroup;(methyl) acryloyl group;Mercapto;Isocyanic acid
Ester group;Itrile group;Nitro;Phenyl;By deuterium, halogen, amido, epoxy group, (methyl) acryloyl group, mercapto, isocyanate group, nitrile
The substituted or non-substituted C of base, nitro, phenyl1~C40Alkyl;C2~C40Alkenyl;C1~C40Alkoxy;C3~C40Ring
Alkyl;C3~C40Heterocyclylalkyl;C6~C40Aryl;C3~C40Heteroaryl;C3~C40Aralkyl;C3~C40Fragrant oxygen
Base;Or C3~C40Aryl mercaptan base, preferably include by deuterium, halogen, amido, (methyl) acryloyl group, mercapto, isocyanates
The substituted or non-substituted C of base, itrile group, nitro, phenyl, cyclohexyl ring oxygroup1~C40Alkyl, C2~C40Alkenyl, amido, ring
Oxygroup, cyclohexyl ring oxygroup, (methyl) acryloyl group, mercapto, phenyl or isocyanate group,
A and d is each independently 1 to 100,000 integer, and preferably a is that 3 to 1000, d is 1 to 500, and more preferable a is 5
It is 2 to 100 to 300, d,
B is each independently 1 to 500 integer,
E is each independently 1 or 2, preferably 1,
N is each independently integer of 1 to 20, preferably 3 to 10.
In addition, the present invention provides a kind of article, which is characterized in that manufactured by above-mentioned thermoplastic resin composition.
Invention effect
Thermoplastic resin composition of the invention is by the inclusion of the line style sesquialter in a macromolecule containing specific structure
The silsesquioxane composite high-molecular of siloxane chain and cage-type silsesquioxane, thus heat resistance, chemical resistance, soil resistance, gas
Body, which penetrates, prevents characteristic, permeability, coloring, wearability and surface hardness etc. excellent.
Specific embodiment
Hereinafter, the present invention will be described in detail.
Thermoplastic resin composition of the invention is characterized in that, comprising represented by any of following chemical formula 1 to 9
Silsesquioxane composite high-molecular:
[chemical formula 1]
[chemical formula 2]
[chemical formula 3]
[chemical formula 4]
[chemical formula 5]
[chemical formula 6]
[chemical formula 7]
[chemical formula 8]
[chemical formula 9]
In above-mentioned chemical formula 1 to 9,
A isB isD isE is
Y is each independently O, NR21Or [(SiO3/2R)4+2nO], and at least one is [(SiO3/2R)4+2nO],
X is each independently R22Or [(SiO3/2R)4+2nR], and at least one is [(SiO3/2R)4+2nR],
R、R1、R2、R3、R4、R5、R6、R7、R8、R9、R10、R11、R12、R13、R14、R15、R16、R17、R18、R19、R20、R21、R22
It is each independently hydrogen;Deuterium;Halogen;Amido;Epoxy group;Cyclohexyl ring oxygroup;(methyl) acryloyl group;Mercapto;Isocyanic acid
Ester group;Itrile group;Nitro;Phenyl;By deuterium, halogen, amido, epoxy group, (methyl) acryloyl group, mercapto, isocyanate group, nitrile
The substituted or non-substituted C of base, nitro, phenyl1~C40Alkyl;C2~C40Alkenyl;C1~C40Alkoxy;C3~C40Ring
Alkyl;C3~C40Heterocyclylalkyl;C6~C40Aryl;C3~C40Heteroaryl;C3~C40Aralkyl;C3~C40Fragrant oxygen
Base;Or C3~C40Aryl mercaptan base, preferably include by deuterium, halogen, amido, (methyl) acryloyl group, mercapto, isocyanates
The substituted or non-substituted C of base, itrile group, nitro, phenyl, cyclohexyl ring oxygroup1~C40Alkyl, C2~C40Alkenyl, amido, ring
Oxygroup, cyclohexyl ring oxygroup, (methyl) acryloyl group, mercapto, phenyl or isocyanate group,
A and d is each independently 1 to 100,000 integer, and preferably a is that 3 to 1000, d is 1 to 500, and more preferable a is 5
It is 2 to 100 to 300, d,
B is each independently 1 to 500 integer,
E is each independently 1 or 2, preferably 1,
N is each independently integer of 1 to 20, preferably 3 to 10.
Thermoplastic resin composition of the invention by the inclusion of in above-mentioned macromolecule there is above-mentioned [A] a and [D] d to repeat
Unit, selectivity have the silsesquioxane of the specific structure of [B] b or [E] e repetitive unit, so as to make by thermoplastic resin
Oil/fat composition manufacture article have heat resistance, chemical resistance, soil resistance, gas through prevent characteristic, permeability, coloring,
Wearability and surface hardness.
Silsesquioxane composite high-molecular represented by above-mentioned chemical formula 1 of the invention can be made as follows
It makes, the step includes: first step, in the reactor after mixed-alkali catalyst and organic solvent, adds organic-silylation
It closes object and is condensed, manufacture following chemical formula 10;Second step, after above-mentioned first step, in order to by [D] d (OR2)2Structure is led
Enter in chemical formula 10, acidic catalyst is added into reactor, reaction solution is adjusted to acidity, then adds organic-silylation and close
Object simultaneously stirs;And third step adds basic catalyst into reactor after the second step described above, and reaction solution is changed
For alkalinity, implement condensation reaction.
[chemical formula 10]
In above-mentioned formula, R1、R2、R16, D, a and d it is identical as the definition in above-mentioned chemical formula 1 to 9.
Silsesquioxane composite high-molecular represented by above-mentioned chemical formula 2 of the invention can by carry out following steps come
Manufacture: first step, in the reactor after mixed-alkali catalyst and organic solvent, addition organic silane compound is simultaneously condensed,
Manufacture above-mentioned chemical formula 10;Second step, after above-mentioned first step, in order to as chemical formula 2 by [D] d (OR3)2With
[D]d(OR4)2Structure imports chemical formula 10, and acidic catalyst is added into reactor, reaction solution is adjusted to acidity, is then added
Add excessive organic silane compound and stirs;Third step adds alkalinity into reactor and urges after the second step described above
Reaction solution is changed into alkalinity, implements condensation reaction by agent;And purification step, by recrystallization removal as by third step
Suddenly cage modle (cage) structure for the by-product being individually created.
Silsesquioxane composite high-molecular represented by above-mentioned chemical formula 3 of the invention can be made as follows
It makes, the step includes: first step, in the reactor after mixed-alkali catalyst and organic solvent, adds organic-silylation
It closes object and is condensed, manufacture above-mentioned chemical formula 10;Second step, after above-mentioned first step, in order to by [D] d (OR5)2Structure is led
Enter in chemical formula 10, acidic catalyst is added into reactor, reaction solution is adjusted to acidity, then adds organic-silylation and close
Object simultaneously stirs;Third step adds basic catalyst into reactor after the second step described above, and reaction solution is changed into
Alkalinity implements condensation reaction;And four steps, after above-mentioned third step, in order to by [E] eX2Structure imports compound high score
The end of son, acidic catalyst is added into reactor, reaction solution is changed into acidic atmosphere, mixing organic silane compound is simultaneously
Stirring.
Silsesquioxane composite high-molecular represented by above-mentioned chemical formula 4 of the invention can be made as follows
It makes, the step includes: first step, in the reactor after mixed-alkali catalyst and organic solvent, adds organic-silylation
It closes object and adjusts condensation degree, manufacture above-mentioned chemical formula 10;Second step, after above-mentioned first step, in order to by [B] b structure
[D] d (OR7)2Structure imports chemical formula 10, and acidic catalyst is added into reactor, reaction solution is adjusted to acidity, then
Addition organic silane compound simultaneously stirs;And third step adds base catalysis into reactor after the second step described above
Reaction solution is changed into alkalinity, implements condensation reaction by agent.
Silsesquioxane composite high-molecular represented by above-mentioned chemical formula 5 of the invention can be made as follows
It makes, the step includes: first step, in the reactor after mixed-alkali catalyst and organic solvent, adds organic-silylation
It closes object and is condensed, manufacture above-mentioned chemical formula 10;Second step, after above-mentioned first step, in order to by [B] b structure and [D] d
(OR8)2、[D]d(OR9)2Structure imports chemical formula 10, and acidic catalyst is added into reactor, reaction solution is adjusted to acidity,
Then the organic silane compound of excessive addition and stirring;Third step is added into reactor after the second step described above
Reaction solution is changed into alkalinity, implements condensation reaction by basic catalyst;And four steps, after the third step, by tying again
Brilliant and filter process, removes the cagelike structure being individually created.
Silsesquioxane composite high-molecular represented by above-mentioned chemical formula 6 of the invention can be made as follows
It makes, the step includes: first step, in the reactor after mixed-alkali catalyst and organic solvent, adds organic-silylation
It closes object and is condensed, manufacture above-mentioned chemical formula 10;Second step, after above-mentioned first step, in order to by [B] b structure and [D] d
(OR10)2Structure imports chemical formula 10, and acidic catalyst is added into reactor, reaction solution is adjusted to acidity, is then added with
Organic silane compound simultaneously stirs;Third step adds basic catalyst into reactor after the second step described above, will be anti-
It answers liquid to be changed into alkalinity, implements condensation reaction;And four steps, after the third step, in order to by [E] eX2Structure imports multiple
High molecular end is closed, acidic catalyst is added into reactor, reaction solution is changed into acidic atmosphere, mixes organic-silylation
It closes object and stirs.
Preferably, in the method for manufacturing above-mentioned chemical formula 1 to 6, the pH of the reaction solution of first step of the invention is preferred
It is 9 to 11.5, the pH of the reaction solution of second step is preferably 2 to 4, and the pH of the reaction solution of third step is preferably 8 to 11.5, is led
The pH for entering the reaction solution of the four steps of Ee is preferably 1.5 to 4.In the case where within the above range, manufactured sesquialter
The high income of siloxanes composite high-molecular, and can be improved the mechanical properties of manufactured silsesquioxane composite high-molecular.
Silsesquioxane composite high-molecular represented by above-mentioned chemical formula 7 of the invention can be made as follows
It makes, the step includes: first step, in the reactor after mixed-alkali catalyst and organic solvent, adds organic-silylation
Object is closed, manufacture has adjusted the above-mentioned chemical formula 10 of two kinds of forms of condensation degree;Second step, in order to by [B] b structure and [D] d
(OR12)2Structure imports chemical formula 10 obtained in above-mentioned first step, acidic catalyst is added into reactor, by reaction solution
It is adjusted to acidity, then add organic silane compound and is stirred;Third step, after above-mentioned each second step reaction, to
Basic catalyst is added in reactor, and reaction solution is changed into alkalinity, implements condensation reaction;And four steps, it will be by above-mentioned
The two or more substances that third step obtains are condensed under alkaline condition and connect.
Silsesquioxane composite high-molecular represented by above-mentioned chemical formula 8 of the invention can be made as follows
It makes, the step includes: first step, in the reactor after mixed-alkali catalyst and organic solvent, adds organic-silylation
Object is closed, manufacture has adjusted the above-mentioned chemical formula 10 of two kinds of forms of condensation degree;Second step, in order to by [B] b structure, [D] d
(OR14)2Structure imports chemical formula 10 obtained in above-mentioned first step, acidic catalyst is added into reactor, by reaction solution
It is adjusted to acidity, then add organic silane compound and is stirred;Third step, after above-mentioned each second step reaction, to
Basic catalyst is added in reactor, and reaction solution is changed into alkalinity, implements condensation reaction;Four steps will pass through above-mentioned
The two or more substances that three steps obtain are condensed under alkaline condition and connect;5th step, after above-mentioned four steps,
To for importing [D] d (OR13)2Reactor in add acidic catalyst, reaction solution is adjusted to acidity, is then added organic
Silane compound simultaneously stirs;And the 6th step basic catalyst is added into reactor after above-mentioned 5th step, will be anti-
It answers liquid to be changed into alkalinity, implements condensation reaction.
Silsesquioxane composite high-molecular represented by above-mentioned chemical formula 9 of the invention can be made as follows
It makes, the step includes: first step, in the reactor after mixed-alkali catalyst and organic solvent, adds organic-silylation
Object is closed, manufacture has adjusted the above-mentioned chemical formula 10 of two kinds of forms of condensation degree;Second step, it is above-mentioned in order to import [B] b structure
Chemical formula 10 obtained in first step, acidic catalyst is added into reactor, and reaction solution is adjusted to acidity, is then added
Organic silane compound simultaneously stirs;Third step adds base catalysis into reactor after above-mentioned each second step reaction
Reaction solution is changed into alkalinity, implements condensation reaction by agent;Four steps will be obtained two or more by above-mentioned third step
Substance be condensed and connect under alkaline condition;5th step, after above-mentioned four steps, to for importing [D] d (OR5)2
Reactor in add acidic catalyst, reaction solution is adjusted to acidity, then adds and organic silane compound and stirs;6th
Step adds basic catalyst into reactor after above-mentioned 5th step, and reaction solution is changed into alkalinity, implements condensation
Reaction;And the 7th step, after above-mentioned 6th step, in order to by [E] eX2Structure imports the end of composite high-molecular, to anti-
It answers and puts into acidic catalyst in device, reaction solution is changed into acidic atmosphere, mix organic silane compound and stir.
Preferably, in the high molecular method for manufacturing above-mentioned chemical formula 7 to 9, the pH of the reaction solution of first step is preferred
It is 9 to 11.5, the pH of the reaction solution of second step is preferably 2 to 4, and the pH of the reaction solution of third step is preferably 8 to 11.5, the
The pH of the reaction solution of four steps is preferably 9 to 11.5, and the pH of the reaction solution of the 5th step is preferably 2 to 4, the reaction of the 6th step
The pH of liquid is preferably 8 to 11.5, and the pH for importing the reaction solution of the 7th step of Ee is preferably 1.5 to 4.Within the above range
In the case where, the high income of manufactured silsesquioxane composite high-molecular, and can be improved manufactured silsesquioxane
The mechanical properties of composite high-molecular.
In addition, when necessary, in order to further by [B] b structure and [D] d (OR)2Structure imports each composite high-molecular, can be with
Make to further include [B] b repetitive unit in composite high-molecular as follows: adding acidic catalyst into reactor, it will
The step of reaction solution is adjusted to acidity, then adds organic silane compound and stirs;And after the above step, to reactor
Middle addition basic catalyst, the step of being changed into alkalinity by reaction solution, implement condensation reaction.
In addition, when necessary, in order to further by [E] eX2Structure imports the end of each composite high-molecular, can be by as follows
Step makes the end of composite high-molecular further include the repetitive unit of [E] e: acidic catalyst is put into reactor, it will be anti-
It answers liquid to be changed into acidic atmosphere, mix organic silane compound and stirs.
In the manufacturing method of above-mentioned silsesquioxane composite high-molecular, as basic catalyst, it is preferable to use two kinds with
It is caused and is hydrolyzed again with acidic catalyst neutralization and acidification, utilizes two again by the mixed catalyst of upper basic catalyst
Kind or more basic catalyst mixed catalyst, be condensed with alkalinity, so as to be continuously adjusted in a reactor
Acidity and basicity.
At this point, above-mentioned basic catalyst can be by two kinds in metal system basic catalyst and amine system basic catalyst
Above substance is appropriately combined to be manufactured, and the metal system basic catalyst is selected from the group being made of Li, Na, K, Ca and Ba.It is excellent
Choosing and stating amine system basic catalyst to be tetramethylammonium hydroxide (TMAH), and metal system basic catalyst can be potassium hydroxide
(KOH) or sodium bicarbonate (NaHCO3).It, preferably can be in amine system alkalinity about the content of each ingredient in above-mentioned mixed catalyst
The ratio of catalyst and metal system basic catalyst is arbitrarily adjusted for 10 to 90:10 into the ratio of 90 parts by weight.In upper
In the case where stating in range, the reactivity of functional group and catalyst can be made to minimize in hydrolysis, thus make Si-OH or Si-
The combination of the organo-functional groups such as alkoxy substantially reduces, and has the advantages that be free to adjust condensation degree.In addition, as above-mentioned
Acidic catalyst can be used for example as long as acidic materials usually used in this field can be used unlimitedly
HCl、H2SO4、HNO3、CH3The general acidic materials such as COOH, additionally can be used lactic acid, tartaric acid, maleic acid, citric acid etc.
Organic system acidic materials.
In the manufacturing method of silsesquioxane composite high-molecular of the invention, as long as lead in above-mentioned organic solvent this field
The organic solvent being often used can be used unlimitedly, and methanol, ethyl alcohol, isopropanol, butanol, cellosolve system can be used for example
Equal alcohols, lactate system, the ketones such as acetone, methyl (isobutyl group) ethyl ketone, the di-alcohols such as ethylene glycol, the furans such as tetrahydrofuran
System, dimethylformamide, dimethyl acetamide, n-methyl-2-pyrrolidone isopolarity solvent, and hexane, ring can be used
Hexane, cyclohexanone, toluene, dimethylbenzene, cresols, chloroform, dichloro-benzenes, dimethylbenzene, trimethylbenzene, pyridine, methyl naphthalene, nitromethane,
The various solvents such as acrylonitrile, methylene chloride, octadecylamine, aniline, dimethyl sulfoxide, benzylalcohol.
In addition, can be used as above-mentioned organosilan based compound as the compound high score of silsesquioxane of the invention
The chemical formula 1 to 9 of son includes R, R1、R2、R3、R4、R5、R6、R7、R8、R9、R10、R11、R12、R13、R14、R15、R16、R17、R18、
R19、R20、R21、R22Organosilan, preferably can be used with by increase silsesquioxane composite high-molecular chemical resistance
To improve the organic silane compound comprising phenyl or amino of the effect of non-swelling property or have by increasing compound height
The cured density of molecule to improve the mechanical strength of cured layer and the effect of hardness comprising epoxy group or (methyl) acryloyl
The organic silane compound of base.
As the concrete example of above-mentioned organosilan based compound, (3- epoxypropoxy) trimethoxy silicon can be enumerated
Alkane, (3- epoxypropoxy) triethoxysilane, (3- epoxypropoxy) methyl dimethoxysilane, (the third oxygen of 3- epoxy
Propyl) dimethylethoxysilane, 3- (methacryloxy) propyl trimethoxy silicane, 3,4- epoxy group butyl trimethoxy
Base silane, 3,4- epoxy group butyl triethoxysilane, 2- (3,4- epoxycyclohexyl) ethyl trimethoxy silane, 2- (3,4-
Epoxycyclohexyl) ethyl triethoxysilane, aminopropyltriethoxywerene werene, vinyltriethoxysilane, vinyl three
Tert-butoxy silane, three isobutoxy silane of vinyl, vinyl silane triisopropoxide, vinyltriphenoxysilane, benzene
Ethyl triethoxy silicane alkane, phenyltrimethoxysila,e, TSL 8330, N- phenyl -3- aminopropyl trimethoxy
Base silane, dimethyl tetramethoxy siloxanes, diphenyl tetramethoxy siloxanes etc., can be used alone it is one such or
And with two or more.For the physical property of the composition finally manufactured, preferably it is use mixing two or more.
In the present invention, it imported into the [(SiO of repetitive unit [D] d of above-mentioned chemical formula3/2R)4+2nO] n of structure can generation
Entering integer of 1 to 20, preferably 3 to 10, the average value of more preferable n is 4 to 5, for example, when above-mentioned n is 4, the knot that is substituted into
Being expressed as follows for structure is stated shown in chemical formula 11:
[chemical formula 11]
In above-mentioned formula, R is as defined above.
In the present invention, it imported into the [(SiO of repetitive unit [B] b or [E] e of above-mentioned chemical formula3/2R)4+2nR] structure n
Integer of 1 to 20, preferably 3 to 10 can be substituted into, the average value of more preferable n is 4 to 5, for example, when above-mentioned n is 4, by generation
Being expressed as follows for the structure entered is stated shown in chemical formula 12:
[chemical formula 12]
In above-mentioned formula, R is as defined above.
As concrete example, silsesquioxane macromolecule according to the present invention can be the macromolecule in following table 1 to 18.Under
It states in table 1 to 9, ECHE refers to that (epoxycyclohexyl) ethyl, GlyP refer to that epoxypropoxy, POMMA refer to (methacryl
Oxygroup) propyl, when recording more than two, it is meant that be used in mixed way.N is each independently 1 to 8.
The silsesquioxane composite high-molecular of above-mentioned chemical formula 1 can be the macromolecule recorded in following table 1 or 2.
[table 1]
No | R1 | R2 | R16 | R19 | The R of Y |
1-1 | OH, methoxyl group | H, methyl | ECHE | ECHE | ECHE |
1-2 | OH, methoxyl group | H, methyl | Phenyl | Phenyl | Phenyl |
1-3 | OH, methoxyl group | H, methyl | Methyl | Methyl | Methyl |
1-4 | OH, methoxyl group | H, methyl | GlyP | GlyP | GlyP |
1-5 | OH, methoxyl group | H, methyl | POMMA | POMMA | POMMA |
1-6 | OH, methoxyl group | H, methyl | ECHE | Phenyl | Phenyl |
1-7 | OH, methoxyl group | H, methyl | ECHE | Methyl | Methyl |
1-8 | OH, methoxyl group | H, methyl | ECHE | GlyP | GlyP |
1-9 | OH, methoxyl group | H, methyl | ECHE | POMMA | POMMA |
1-10 | OH, methoxyl group | H, methyl | Phenyl | ECHE | ECHE |
1-11 | OH, methoxyl group | H, methyl | Phenyl | Methyl | Methyl |
1-12 | OH, methoxyl group | H, methyl | Phenyl | GlyP | GlyP |
1-13 | OH, methoxyl group | H, methyl | Phenyl | POMMA | POMMA |
1-14 | OH, methoxyl group | H, methyl | Methyl | ECHE | ECHE |
1-15 | OH, methoxyl group | H, methyl | Methyl | Phenyl | Phenyl |
1-16 | OH, methoxyl group | H, methyl | Methyl | GlyP | GlyP |
1-17 | OH, methoxyl group | H, methyl | Methyl | POMMA | POMMA |
1-18 | OH, methoxyl group | H, methyl | GlyP | ECHE | ECHE |
1-19 | OH, methoxyl group | H, methyl | GlyP | Phenyl | Phenyl |
1-20 | OH, methoxyl group | H, methyl | GlyP | Methyl | Methyl |
1-21 | OH, methoxyl group | H, methyl | GlyP | POMMA | POMMA |
1-22 | OH, methoxyl group | H, methyl | POMMA | ECHE | ECHE |
1-23 | OH, methoxyl group | H, methyl | POMMA | Phenyl | Phenyl |
1-24 | OH, methoxyl group | H, methyl | POMMA | Methyl | Methyl |
1-25 | OH, methoxyl group | H, methyl | POMMA | GlyP | GlyP |
[table 2]
As concrete example, the silsesquioxane composite high-molecular of above-mentioned chemical formula 2 can be to record in following Table 3 and 4
Macromolecule.
[table 3]
No | R3 | R4 | R16 | R19 | The R of Y |
3-1 | H, methyl | H, methyl | ECHE | ECHE | ECHE |
3-2 | H, methyl | H, methyl | Phenyl | Phenyl | Phenyl |
3-3 | H, methyl | H, methyl | Methyl | Methyl | Methyl |
3-4 | H, methyl | H, methyl | GlyP | GlyP | GlyP |
3-5 | H, methyl | H, methyl | POMMA | POMMA | POMMA |
3-6 | H, methyl | H, methyl | ECHE | Phenyl | Phenyl |
3-7 | H, methyl | H, methyl | ECHE | Methyl | Methyl |
3-8 | H, methyl | H, methyl | ECHE | GlyP | GlyP |
3-9 | H, methyl | H, methyl | ECHE | POMMA | POMMA |
3-10 | H, methyl | H, methyl | Phenyl | ECHE | ECHE |
3-11 | H, methyl | H, methyl | Phenyl | Methyl | Methyl |
3-12 | H, methyl | H, methyl | Phenyl | GlyP | GlyP |
3-13 | H, methyl | H, methyl | Phenyl | POMMA | POMMA |
3-14 | H, methyl | H, methyl | Methyl | ECHE | ECHE |
3-15 | H, methyl | H, methyl | Methyl | Phenyl | Phenyl |
3-16 | H, methyl | H, methyl | Methyl | GlyP | GlyP |
3-17 | H, methyl | H, methyl | Methyl | POMMA | POMMA |
3-18 | H, methyl | H, methyl | GlyP | ECHE | ECHE |
3-19 | H, methyl | H, methyl | GlyP | Phenyl | Phenyl |
3-20 | H, methyl | H, methyl | GlyP | Methyl | Methyl |
3-21 | H, methyl | H, methyl | GlyP | POMMA | POMMA |
3-22 | H, methyl | H, methyl | POMMA | ECHE | ECHE |
3-23 | H, methyl | H, methyl | POMMA | Phenyl | Phenyl |
3-24 | H, methyl | H, methyl | POMMA | Methyl | Methyl |
3-25 | H, methyl | H, methyl | POMMA | GlyP | GlyP |
[table 4]
No | R3 | R4 | R16 | R19 | The R of Y |
4-1 | OH, methoxyl group | H, methyl | ECHE | Alkyl sulfide alcohol radical | ECHE |
4-2 | OH、CF3 | H, ethyl | Phenyl | Phenyl | Phenyl |
4-3 | OH, methoxyl group | H, acetyl group | Alkyl sulfide alcohol radical | Methyl | Methyl |
4-4 | CF3, methoxyl group | Vinyl, methyl | POMMA | Dodecyl | GlyP |
4-5 | OH, acryloyl group | H, methyl | POMMA | Alkyl sulfide alcohol radical | Octyl |
4-6 | Vinyl, methoxyl group | H、F | ECHE | Phenyl | POMMA |
4-7 | Alkylamine | CF3, methyl | ECHE | Octyl | Methyl |
4-8 | OH, ethyl, methyl | H, methyl | F | Aminopropyl | GlyP |
4-9 | Acetate, methoxyl group | H、CF3 | Aminopropyl | POMMA | Hexyl |
4-10 | Propoxyl group, methoxyl group | H, methyl | Phenyl | Alkyl sulfide alcohol radical | ECHE |
4-11 | OH、C8F13 | Aryl, methyl | Alkyl sulfide alcohol radical | Methyl | Hexyl |
4-12 | OH, methoxyl group | H, methylacryloyl | Phenyl | GlyP | GlyP |
4-13 | CF3, methoxyl group | H, methyl | Octyl | POMMA | POMMA |
4-14 | OH, acryloyl group | H, octyl | Methyl | ECHE | Aminopropyl |
4-15 | Vinyl, methoxyl group | H, methyl | Octyl | Alkyl sulfide alcohol radical | Phenyl |
4-16 | Alkylamine | H, methyl | Octyl | GlyP | GlyP |
4-17 | OH, methoxyl group | Alkyl sulfide alcohol radical, methyl | Methyl | POMMA | POMMA |
4-18 | Acetate, methoxyl group | H, methyl | GlyP | ECHE | Aminopropyl |
4-19 | Propoxyl group, methoxyl group | H、CF3 | GlyP | Aminopropyl | Phenyl |
4-20 | OH, methoxyl group | H, methyl | Aminopropyl | Methyl | Octyl |
4-21 | Propoxyl group, methoxyl group | C8F13, methyl | GlyP | POMMA | POMMA |
4-22 | OH, methoxyl group | H, propyl | POMMA | Propyl | ECHE |
4-23 | C8F13, methoxyl group | F, methyl | POMMA | Phenyl | Phenyl |
4-24 | OH, aryl | H, methyl | GlyP | Methyl | GlyP |
4-25 | OH, methoxyl group | H, ethyl | Aminopropyl | GlyP | GlyP |
As concrete example, the silsesquioxane composite high-molecular of above-mentioned chemical formula 3 can be to record in following table 5 and 6
Macromolecule.
[table 5]
No | R5 | R16 | R19 | R20 | The R of Y | The R of X |
5-1 | H, methyl | ECHE | ECHE | ECHE | ECHE | ECHE |
5-2 | H, methyl | Phenyl | Phenyl | Phenyl | Phenyl | Phenyl |
5-3 | H, methyl | Methyl | Methyl | Methyl | Methyl | Methyl |
5-4 | H, methyl | GlyP | EGCDX | GlyP | EGCDX | GlyP |
5-5 | H, methyl | POMMA | POMMA | POMMA | POMMA | POMMA |
5-6 | H, methyl | ECHE | ECHE | Phenyl | ECHE | Phenyl |
5-7 | H, methyl | ECHE | ECHE | Methyl | ECHE | Methyl |
5-8 | H, methyl | ECHE | ECHE | GlyP | ECHE | GlyP |
5-9 | H, methyl | ECHE | ECHE | POMMA | ECHE | POMMA |
5-10 | H, methyl | ECHE | Phenyl | ECHE | Phenyl | ECHE |
5-11 | H, methyl | ECHE | Methyl | ECHE | Methyl | ECHE |
5-12 | H, methyl | ECHE | GlyP | ECHE | GlyP | ECHE |
5-13 | H, methyl | ECHE | POMMA | ECHE | POMMA | ECHE |
5-14 | H, methyl | Phenyl | Phenyl | ECHE | Phenyl | ECHE |
5-15 | H, methyl | Phenyl | Phenyl | Methyl | Phenyl | Methyl |
5-16 | H, methyl | Phenyl | Phenyl | EGDCX | Phenyl | EGDCX |
5-17 | H, methyl | Phenyl | Phenyl | POMMA | Phenyl | POMMA |
5-18 | H, methyl | Phenyl | ECHE | Phenyl | ECHE | Phenyl |
5-19 | H, methyl | Phenyl | Methyl | Phenyl | Methyl | Phenyl |
5-20 | H, methyl | Phenyl | GlyP | Phenyl | GlyP | Phenyl |
5-21 | H, methyl | Phenyl | POMMA | Phenyl | POMMA | Phenyl |
5-22 | H, methyl | Methyl | Methyl | ECHE | Methyl | ECHE |
5-23 | H, methyl | Methyl | Methyl | Phenyl | Methyl | Phenyl |
5-25 | H, methyl | Methyl | Methyl | GlyP | Methyl | GlyP |
5-25 | H, methyl | Methyl | Methyl | POMMA | Methyl | POMMA |
5-26 | H, methyl | Methyl | ECHE | Methyl | ECHE | Methyl |
5-27 | H, methyl | Methyl | Phenyl | Methyl | Phenyl | Methyl |
5-28 | H, methyl | Methyl | GlyP | Methyl | GlyP | Methyl |
5-29 | H, methyl | Methyl | POMMA | Methyl | POMMA | Methyl |
5-30 | H, methyl | GlyP | GlyP | ECHE | GlyP | ECHE |
5-31 | H, methyl | GlyP | GlyP | Phenyl | GlyP | Phenyl |
5-32 | H, methyl | GlyP | GlyP | Methyl | GlyP | Methyl |
5-33 | H, methyl | GlyP | GlyP | POMMA | GlyP | POMMA |
5-34 | H, methyl | GlyP | ECHE | GlyP | ECHE | GlyP |
5-35 | H, methyl | GlyP | Phenyl | GlyP | Phenyl | GlyP |
5-36 | H, methyl | GlyP | Methyl | GlyP | Methyl | GlyP |
5-37 | H, methyl | GlyP | POMMA | GlyP | POMMA | GlyP |
5-35 | H, methyl | POMMA | POMMA | ECHE | POMMA | ECHE |
5-39 | H, methyl | POMMA | POMMA | Phenyl | POMMA | Phenyl |
5-40 | H, methyl | POMMA | POMMA | Methyl | POMMA | Methyl |
5-41 | H, methyl | POMMA | POMMA | GlyP | POMMA | GlyP |
5-42 | H, methyl | POMMA | ECHE | POMMA | ECHE | POMMA |
5-43 | H, methyl | POMMA | Phenyl | POMMA | Phenyl | POMMA |
5-44 | H, methyl | POMMA | Methyl | POMMA | Methyl | POMMA |
5-45 | H, methyl | POMMA | GlyP | POMMA | GlyP | POMMA |
[table 6]
As concrete example, the silsesquioxane composite high-molecular of above-mentioned chemical formula 4 can be to record in following table 7 and 8
Macromolecule.
[table 7]
No | R6 | R7 | R16 | R17 | R18 | R19 | The R of X | The R of Y |
7-1 | OH, methoxyl group | H, methyl | ECHE | ECHE | H, methyl | ECHE | ECHE | ECHE |
7-2 | OH, methoxyl group | H, methyl | Phenyl | Phenyl | H, methyl | Phenyl | Phenyl | Phenyl |
7-3 | OH, methoxyl group | H, methyl | Methyl | Methyl | H, methyl | Methyl | Methyl | Methyl |
7-4 | OH, methoxyl group | H, methyl | GlyP | GlyP | H, methyl | GlyP | GlyP | GlyP |
7-5 | OH, methoxyl group | H, methyl | POMMA | POMMA | H, methyl | POMMA | POMMA | POMMA |
7-6 | OH, methoxyl group | H, methyl | ECHE | ECHE | H, methyl | Phenyl | ECHE | Phenyl |
7-7 | OH, methoxyl group | H, methyl | ECHE | ECHE | H, methyl | Methyl | ECHE | Methyl |
7-8 | OH, methoxyl group | H, methyl | ECHE | ECHE | H, methyl | GlyP | ECHE | GlyP |
7-9 | OH, methoxyl group | H, methyl | ECHE | ECHE | H, methyl | POMMA | ECHE | POMMA |
7-10 | OH, methoxyl group | H, methyl | Phenyl | Phenyl | H, methyl | ECHE | Phenyl | ECHE |
7-11 | OH, methoxyl group | H, methyl | Phenyl | Phenyl | H, methyl | Methyl | Phenyl | Methyl |
7-12 | OH, methoxyl group | H, methyl | Phenyl | Phenyl | H, methyl | GlyP | Phenyl | GlyP |
7-13 | OH, methoxyl group | H, methyl | Phenyl | Phenyl | H, methyl | POMMA | Phenyl | POMMA |
7-14 | OH, methoxyl group | H, methyl | Methyl | Methyl | H, methyl | ECHE | Methyl | ECHE |
7-15 | OH, methoxyl group | H, methyl | Methyl | Methyl | H, methyl | Phenyl | Methyl | Phenyl |
7-16 | OH, methoxyl group | H, methyl | Methyl | Methyl | H, methyl | GlyP | Methyl | GlyP |
7-17 | OH, methoxyl group | H, methyl | Methyl | Methyl | H, methyl | POMMA | Methyl | POMMA |
7-18 | OH, methoxyl group | H, methyl | GlyP | GlyP | H, methyl | ECHE | GlyP | ECHE |
7-19 | OH, methoxyl group | H, methyl | GlyP | GlyP | H, methyl | Phenyl | GlyP | Phenyl |
7-20 | OH, methoxyl group | H, methyl | GlyP | GlyP | H, methyl | Methyl | GlyP | Methyl |
7-21 | OH, methoxyl group | H, methyl | GlyP | GlyP | H, methyl | POMMA | GlyP | POMMA |
7-22 | OH, methoxyl group | H, methyl | POMMA | POMMA | H, methyl | ECHE | POMMA | ECHE |
7-23 | OH, methoxyl group | H, methyl | POMMA | POMMA | H, methyl | Phenyl | POMMA | Phenyl |
7-24 | OH, methoxyl group | H, methyl | POMMA | POMMA | H, methyl | Methyl | POMMA | Methyl |
7-25 | OH, methoxyl group | H, methyl | POMMA | POMMA | H, methyl | GlyP | POMMA | GlyP |
[table 8]
As concrete example, the silsesquioxane composite high-molecular of above-mentioned chemical formula 5 can be to record in following table 9 and 10
Macromolecule.
[table 9]
No | R8 | R9 | R16 | R17 | R18 | R19 | The R of X | The R of Y |
9-1 | H, methyl | H, methyl | ECHE | ECHE | H, methyl | ECHE | ECHE | ECHE |
9-2 | H, methyl | H, methyl | Phenyl | Phenyl | H, methyl | Phenyl | Phenyl | Phenyl |
9-3 | H, methyl | H, methyl | Methyl | Methyl | H, methyl | Methyl | Methyl | Methyl |
9-4 | H, methyl | H, methyl | GlyP | GlyP | H, methyl | GlyP | GlyP | GlyP |
9-5 | H, methyl | H, methyl | POMMA | POMMA | H, methyl | POMMA | POMMA | POMMA |
9-6 | H, methyl | H, methyl | ECHE | ECHE | H, methyl | Phenyl | ECHE | Phenyl |
9-7 | H, methyl | H, methyl | ECHE | ECHE | H, methyl | Methyl | ECHE | Methyl |
9-8 | H, methyl | H, methyl | ECHE | ECHE | H, methyl | GlyP | ECHE | GlyP |
9-9 | H, methyl | H, methyl | ECHE | ECHE | H, methyl | POMMA | ECHE | POMMA |
9-10 | H, methyl | H, methyl | Phenyl | Phenyl | H, methyl | ECHE | Phenyl | ECHE |
9-11 | H, methyl | H, methyl | Phenyl | Phenyl | H, methyl | Methyl | Phenyl | Methyl |
9-12 | H, methyl | H, methyl | Phenyl | Phenyl | H, methyl | GlyP | Phenyl | GlyP |
9-13 | H, methyl | H, methyl | Phenyl | Phenyl | H, methyl | POMMA | Phenyl | POMMA |
9-14 | H, methyl | H, methyl | Methyl | Methyl | H, methyl | ECHE | Methyl | ECHE |
9-15 | H, methyl | H, methyl | Methyl | Methyl | H, methyl | Phenyl | Methyl | Phenyl |
9-16 | H, methyl | H, methyl | Methyl | Methyl | H, methyl | GlyP | Methyl | GlyP |
9-17 | H, methyl | H, methyl | Methyl | Methyl | H, methyl | POMMA | Methyl | POMMA |
9-18 | H, methyl | H, methyl | GlyP | GlyP | H, methyl | ECHE | GlyP | ECHE |
9-19 | H, methyl | H, methyl | GlyP | GlyP | H, methyl | Phenyl | GlyP | Phenyl |
9-20 | H, methyl | H, methyl | GlyP | GlyP | H, methyl | Methyl | GlyP | Methyl |
9-21 | H, methyl | H, methyl | GlyP | GlyP | H, methyl | POMMA | GlyP | POMMA |
9-22 | H, methyl | H, methyl | POMMA | POMMA | H, methyl | ECHE | POMMA | ECHE |
9-23 | H, methyl | H, methyl | POMMA | POMMA | H, methyl | Phenyl | POMMA | Phenyl |
9-24 | H, methyl | H, methyl | POMMA | POMMA | H, methyl | Methyl | POMMA | Methyl |
9-25 | H, methyl | H, methyl | POMMA | POMMA | H, methyl | GlyP | POMMA | GlyP |
[table 10]
As concrete example, the silsesquioxane composite high-molecular of above-mentioned chemical formula 6 can be to record in following table 11 and 12
Macromolecule.
[table 11]
[table 12]
As concrete example, the silsesquioxane composite high-molecular of above-mentioned chemical formula 7 can be to record in following table 13 and 14
Macromolecule.
[table 13]
[table 14]
As concrete example, the silsesquioxane composite high-molecular of above-mentioned chemical formula 8 can be to record in following table 15 and 16
Macromolecule.
[table 15]
No | R13 | R14 | R16 | R17 | R18 | R19 | The R of X | The R of Y |
15-1 | H, methyl | H, methyl | ECHE | ECHE | H, methyl | ECHE | ECHE | ECHE |
15-2 | H, methyl | H, methyl | Phenyl | Phenyl | H, methyl | Phenyl | Phenyl | Phenyl |
15-3 | H, methyl | H, methyl | Methyl | Methyl | H, methyl | Methyl | Methyl | Methyl |
15-4 | H, methyl | H, methyl | GlyP | GlyP | H, methyl | GlyP | GlyP | GlyP |
15-5 | H, methyl | H, methyl | POMMA | POMMA | H, methyl | POMMA | POMMA | POMMA |
15-6 | H, methyl | H, methyl | ECHE | ECHE | H, methyl | Phenyl | ECHE | Phenyl |
15-7 | H, methyl | H, methyl | ECHE | ECHE | H, methyl | Methyl | ECHE | Methyl |
15-8 | H, methyl | H, methyl | ECHE | ECHE | H, methyl | GlyP | ECHE | GlyP |
15-9 | H, methyl | H, methyl | ECHE | ECHE | H, methyl | POMMA | ECHE | POMMA |
15-10 | H, methyl | H, methyl | Phenyl | Phenyl | H, methyl | ECHE | Phenyl | ECHE |
15-11 | H, methyl | H, methyl | Phenyl | Phenyl | H, methyl | Methyl | Phenyl | Methyl |
15-12 | H, methyl | H, methyl | Phenyl | Phenyl | H, methyl | GlyP | Phenyl | GlyP |
15-13 | H, methyl | H, methyl | Phenyl | Phenyl | H, methyl | POMMA | Phenyl | POMMA |
15-14 | H, methyl | H, methyl | Methyl | Methyl | H, methyl | ECHE | Methyl | ECHE |
15-15 | H, methyl | H, methyl | Methyl | Methyl | H, methyl | Phenyl | Methyl | Phenyl |
15-16 | H, methyl | H, methyl | Methyl | Methyl | H, methyl | GlyP | Methyl | GlyP |
15-17 | H, methyl | H, methyl | Methyl | Methyl | H, methyl | POMMA | Methyl | POMMA |
15-18 | H, methyl | H, methyl | GlyP | GlyP | H, methyl | ECHE | GlyP | ECHE |
15-19 | H, methyl | H, methyl | GlyP | GlyP | H, methyl | Phenyl | GlyP | Phenyl |
15-20 | H, methyl | H, methyl | GlyP | GlyP | H, methyl | Methyl | GlyP | Methyl |
15-21 | H, methyl | H, methyl | GlyP | GlyP | H, methyl | POMMA | GlyP | POMMA |
15-22 | H, methyl | H, methyl | POMMA | POMMA | H, methyl | ECHE | POMMA | ECHE |
15-23 | H, methyl | H, methyl | POMMA | POMMA | H, methyl | Phenyl | POMMA | Phenyl |
15-24 | H, methyl | H, methyl | POMMA | POMMA | H, methyl | Methyl | POMMA | Methyl |
15-25 | H, methyl | H, methyl | POMMA | POMMA | H, methyl | GlyP | POMMA | GlyP |
[table 16]
As concrete example, the silsesquioxane composite high-molecular of above-mentioned chemical formula 9 can be to record in following table 17 and 18
Macromolecule.
[table 17]
No | R16 | R17 | R18 | R19 | R20 | The R of X | The R of Y | The end R of E |
17-1 | ECHE | ECHE | H, methyl | ECHE | ECHE | ECHE | ECHE | ECHE |
17-2 | Phenyl | Phenyl | H, methyl | Phenyl | Phenyl | Phenyl | Phenyl | Phenyl |
17-3 | Methyl | Methyl | H, methyl | Methyl | Methyl | Methyl | Methyl | Methyl |
17-4 | GlyP | EGCDX | H, methyl | EGCDX | GlyP | EGCDX | EGCDX | GlyP |
17-5 | POMMA | POMMA | H, methyl | POMMA | POMMA | POMMA | POMMA | POMMA |
17-6 | ECHE | ECHE | H, methyl | ECHE | Phenyl | ECHE | ECHE | Phenyl |
17-7 | ECHE | ECHE | H, methyl | ECHE | Methyl | ECHE | ECHE | Methyl |
17-8 | ECHE | ECHE | H, methyl | ECHE | GlyP | ECHE | ECHE | GlyP |
17-9 | ECHE | ECHE | H, methyl | ECHE | POMMA | ECHE | ECHE | POMMA |
17-10 | ECHE | Phenyl | H, methyl | Phenyl | ECHE | Phenyl | Phenyl | ECHE |
17-11 | ECHE | Methyl | H, methyl | Methyl | ECHE | Methyl | Methyl | ECHE |
17-12 | ECHE | GlyP | H, methyl | GlyP | ECHE | GlyP | GlyP | ECHE |
17-13 | ECHE | POMMA | H, methyl | POMMA | ECHE | POMMA | POMMA | ECHE |
17-14 | Phenyl | Phenyl | H, methyl | Phenyl | ECHE | Phenyl | Phenyl | ECHE |
17-15 | Phenyl | Phenyl | H, methyl | Phenyl | Methyl | Phenyl | Phenyl | Methyl |
17-16 | Phenyl | Phenyl | H, methyl | Phenyl | EGDCX | Phenyl | Phenyl | EGDCX |
17-17 | Phenyl | Phenyl | H, methyl | Phenyl | POMMA | Phenyl | Phenyl | POMMA |
17-18 | Phenyl | ECHE | H, methyl | ECHE | Phenyl | ECHE | ECHE | Phenyl |
17-19 | Phenyl | Methyl | H, methyl | Methyl | Phenyl | Methyl | Methyl | Phenyl |
17-20 | Phenyl | GlyP | H, methyl | GlyP | Phenyl | GlyP | GlyP | Phenyl |
17-21 | Phenyl | POMMA | H, methyl | POMMA | Phenyl | POMMA | POMMA | Phenyl |
17-22 | Methyl | Methyl | H, methyl | Methyl | ECHE | Methyl | Methyl | ECHE |
17-23 | Methyl | Methyl | H, methyl | Methyl | Phenyl | Methyl | Methyl | Phenyl |
17-24 | Methyl | Methyl | H, methyl | Methyl | GlyP | Methyl | Methyl | GlyP |
17-25 | Methyl | Methyl | H, methyl | Methyl | POMMA | Methyl | Methyl | POMMA |
17-26 | Methyl | ECHE | H, methyl | ECHE | Methyl | ECHE | ECHE | Methyl |
17-27 | Methyl | Phenyl | H, methyl | Phenyl | Methyl | Phenyl | Phenyl | Methyl |
17-28 | Methyl | GlyP | H, methyl | GlyP | Methyl | GlyP | GlyP | Methyl |
17-29 | Methyl | POMMA | H, methyl | POMMA | Methyl | POMMA | POMMA | Methyl |
17-30 | GlyP | GlyP | H, methyl | GlyP | ECHE | GlyP | GlyP | ECHE |
17-31 | GlyP | GlyP | H, methyl | GlyP | Phenyl | GlyP | GlyP | Phenyl |
17-32 | GlyP | GlyP | H, methyl | GlyP | Methyl | GlyP | GlyP | Methyl |
17-33 | GlyP | GlyP | H, methyl | GlyP | POMMA | GlyP | GlyP | POMMA |
17-34 | GlyP | ECHE | H, methyl | ECHE | GlyP | ECHE | ECHE | GlyP |
17-35 | GlyP | Phenyl | H, methyl | Phenyl | GlyP | Phenyl | Phenyl | GlyP |
17-36 | GlyP | Methyl | H, methyl | Methyl | GlyP | Methyl | Methyl | GlyP |
17-37 | GlyP | POMMA | H, methyl | POMMA | GlyP | POMMA | POMMA | GlyP |
17-38 | POMMA | POMMA | H, methyl | POMMA | ECHE | POMMA | POMMA | ECHE |
17-39 | POMMA | POMMA | H, methyl | POMMA | Phenyl | POMMA | POMMA | Phenyl |
17-40 | POMMA | POMMA | H, methyl | POMMA | Methyl | POMMA | POMMA | Methyl |
17-41 | POMMA | POMMA | H, methyl | POMMA | GlyP | POMMA | POMMA | GlyP |
17-42 | POMMA | ECHE | H, methyl | ECHE | POMMA | ECHE | ECHE | POMMA |
17-43 | POMMA | Phenyl | H, methyl | Phenyl | POMMA | Phenyl | Phenyl | POMMA |
17-44 | POMMA | Methyl | H, methyl | Methyl | POMMA | Methyl | Methyl | POMMA |
17-45 | POMMA | GlyP | H, methyl | GlyP | POMMA | GlyP | GlyP | POMMA |
[table 18]
About above-mentioned silsesquioxane composite high-molecular of the invention, obtained in order to ensure excellent keeping stability wide
Condensation degree can be adjusted to 1 to 99.9% by general application.I.e., it is possible to be adjusted to be incorporated into the alkane of the Si of end and center
The content of oxygroup is 50% to 0.01% relative to all high molecular conjugated groups.
In addition, the weight average molecular weight of silsesquioxane composite high-molecular can be 1,000 to 1,000,000 in the present invention,
Preferably 5,000 to 100,000, more preferably 7,000 to 50,000.In this case, silsesquioxane can be improved simultaneously
Processability and physical characteristic.
Silsesquioxane composite high-molecular represented by any of above-mentioned chemical formula 1 to 9 has 50 to 250 DEG C of glass
Change transition temperature (Tg), the content of repetitive unit [A] a is more, and Tg is lower, and the content of repetitive unit [B] b, [D] d and [E] e are got over
More, Tg is higher, therefore can suitably adjust the content of repetitive unit according to used purposes to have Tg.
Thermoplastic resin composition of the invention can be only by the silsesquioxane represented by any of above-mentioned chemical formula 1 to 9
Alkane composite high-molecular is constituted, and can also be mixed and be used with macromolecule used in previous thermoplastic resin composition.As upper
The macromolecule that can be used in mixed way is stated, is not particularly limited, for example, can be used selected from by PC (polycarbonate), PMMA (poly- methyl-prop
E pioic acid methyl ester), PES (polyether sulfone), PET (polyethylene terephthalate), PEN (polyethylene naphthalate), COC
(cyclic olefine copolymer), PAc (polyacrylate), PE (polyethylene), PEEK (polyether-ether-ketone), PEI (polyetherimide), PI
(polyimides), PSF (polysulfones), PVA (polyvinyl alcohol), PVCi (polyvinyl cinnamate), TAC (triacetyl cellulose),
In the group of polysilicon (Poly Silicone), polyurethane (Polyurethane) and epoxy resin (Epoxy Resin) composition
More than one macromolecule resins.The compound high score of silsesquioxane represented by any of above-mentioned chemical formula 1 to 9 when being used in mixed way
The content of son can arbitrarily be selected in 0.1 to 99 weight % and be used, it is preferable that, can using 1 weight % or more
Further increase the physical property such as the chemical resistance of thermoplastic resin.
In addition, thermoplastic resin composition of the invention can also be with the silsesquioxane represented by any of chemical formula 1 to 9
Alkane composite high-molecular is used in mixed way the inorfils such as glass fibre or carbon fiber together.In above-mentioned chemical formula 1 to 9 when being used in mixed way
The content of silsesquioxane composite high-molecular represented by any one can arbitrarily be selected in 1 to 90 weight % and be used, preferably
Ground can further improve the physical property such as the waterproofness of thermoplastic resin using 5 weight % or more.
It is multiple for silsesquioxane represented by any of chemical formula 1 to 9 in thermoplastic resin composition of the invention
Close high molecular functional group i.e. R, R1、R2、R3、R4、R5、R6、R7、R8、R9、R10、R11、R12、R13、R14、R15、R16、R17、R18、R19、
R20、R21、R22, pass through the macromolecule resin or inorfil for selecting to use be used in mixed way in silsesquioxane composite high-molecular
Functional group excellent in compatibility steadily can persistently keep anti-flammability, prevent so as to improve the stability of thermoplastic resin
The physical property such as aqueous, soil resistance, the transparency.
In addition, above-mentioned resin combination can further include pigment.Any of above-mentioned chemical formula 1 to 9 of the invention institute
The silsesquioxane composite high-molecular of expression improves the dispersibility of pigment, excellent in compatibility with pigment, in thermoplastic resin group
Object is closed comprising that there can be excellent coloring effect in the case where pigment.Well known pigment undoubtedly can be used in above-mentioned pigment, about
The content of pigment, those skilled in the art can select to use within the appropriate range.
In the present invention, above-mentioned thermoplastic resin composition can further include increasing usually used in this field as needed
Mould agent, ultraviolet screener, ultraviolet absorbing agent, antioxidant, defoaming agent, levelling agent, water repellent, fire retardant, bonding improver,
The additives such as other function additive improve physical property.Such additive is not particularly limited when in use, can not damage
It is suitable for addition in the range of the physical property of evil thermoplastic resin, as concrete example, above-mentioned additive is relative to composition total weight 100
Parts by weight may include 0.01-10 parts by weight each independently.
As additive workable in the present invention, polyether-modified dimethyl polysiloxane system can be enumerated
(Polyether-modified polydimethylsiloxane, for example, BYK-300, BYK-301, BYK- of BYK company
302、BYK-331、BYK-335、BYK-306、BYK-330、BYK-341、BYK-344、BYK-307、BYK-333、BYK-310
Deng), polyether-modified hydroxy-functional polydimethylsiloxanes system (Polyether modified hydroxyfunctional
Poly-dimethyl-siloxane, for example, BYK-308, BYK-373 etc.), methylalkylpolysiloxanes system
(Methylalkylpolysiloxane, for example, BYK-077, BYK-085 etc.), polyether-modified methylalkylpolysiloxanes system
(Polyether modified methylalkylpolysiloxane, for example, BYK-320, BYK-325 etc.), polyester modification
Methylalkylpolysiloxanes system (Polyester modified poly-methyl-alkyl-siloxane, for example, BYK-315
Deng), aralkyl modified methylalkylpolysiloxanes system (Aralkyl modified methylalkyl polysiloxane, example
Such as, BYK-322, BYK-323 etc.), polyester modification hydroxy-functional polydimethylsiloxanes system (Polyester modified
Hydroxy functional polydimethylsiloxane, for example, BYK-370 etc.), polyester modification acrylic acid function it is poly-
Dimethyl silica methane series (Acrylic functional polyester modified polydimethylsiloxane, example
Such as, BYK-371, BYK-UV 3570 etc.), polyether-polyester modified hydroxyl functional polydimethylsiloxanes system (Polyeher-
Polyester modified hydroxy functional polydimethylsiloxane, for example, BYK-375 etc.), it is poly-
Ether modified dimethyl polysiloxane system (Polyether modified dimethylpolysiloxane, for example, BYK-345,
BYK-348, BYK-346, BYK-UV3510, BYK-332, BYK-337 etc.), nonionic acrylic copolymer system (Non-
Ionic acrylic copolymer, for example, BYK-380 etc.), ionic acrylic copolymer system (Ionic acrylic
Copolymer, for example, BYK-381 etc.), polyacrylate system (Polyacrylate, for example, BYK-353, BYK-356, BYK-
354, BYK-355, BYK-359, BYK-361 N, BYK-357, BYK-358 N, BYK-352 etc.), polymethacrylates system
(Polymethacrylate, for example, BYK-390 etc.), polyether-modified acrylic acid functional polydimethylsiloxanes system
(Polyether modified acryl functional polydimethylsiloxane, for example, BYK-UV3500,
BYK-UV3530 etc.), polyether modified siloxane system (Polyether modified siloxane, for example, BYK-347 etc.), alcohol
Alcoxylates system (Alcohol alkoxylates, for example, BYK-DYNWET 800 etc.), acrylic ester (Acrylate,
For example, BYK-392 etc.), hydroxyl-functional silicone-modified polyacrylate system (Silicone modified polyacrylate
(OH-functional), for example, BYK-Silclean 3700 etc.) etc..
In addition, the present invention provides the article that manufactures using above-mentioned thermoplastic resin composition, if above-mentioned article use it is upper
It states thermoplastic resin composition's manufacture to be just not particularly limited, it may for example comprise film, the molding by injecting or squeezing out, foaming
Object, fiber filament.About above-mentioned film, molding, foamed or filametntary method is manufactured, undoubtedly using the heat of aforementioned present invention
Thermoplastic resin composition is simultaneously manufactured using well known each manufacture film, molding, foamed or filametntary process.As upper
The concrete example of article is stated, the cover including the shell of various electronic products can be enumerated, the plastic living including ornaments is used
Product, illumination, head protector, automobile interior exterior ornament materials, fishing rod, golf club, yacht, Discussion on architecture ornament materials, piping, family
Tool, film, functional fiber, functional garment etc..
Hereinafter, providing preferred embodiment, but following embodiments only illustrate this to facilitate understanding of the invention
Invention, the scope of the present invention are not limited to following embodiments.In following the embodiment of the present invention, ECHETMS refers to 2- (3,4- rings
Oxygen cyclohexyl) ethyl trimethoxy silane, GPTMS refers to glycidoxypropyltrime,hoxysilane, and MAPTMS refers to (methyl
Acryloyl-oxy) propyl trimethoxy silicane, PTMS refers to phenyltrimethoxysila,e, and MTMS refers to methyltrimethoxysilane,
ECHETMDS refers to that two (epoxycyclohexylethyl) tetramethoxy disiloxane, GPTMDS refer to two (glycidoxypropyl groups) four
Methoxyl group disiloxane, MAPTMDS refer to that two (methacryloxy) propyl tetramethoxy disiloxane, PTMDS refer to two
(phenyl) tetramethoxy disiloxane, MTMDS refer to two (methyl) tetramethoxy disiloxane.
The manufacture of [embodiment 1] comprising copolymer 1 and 9 coating composition
It is following to carry out continuous hydrolysis and condensation by step about synthesis step.
The manufacture of [embodiment 1-a] catalyst
In order to adjust basicity, 10 weight % hydroxides are mixed in 25 weight % aqueous solution of tetramethylammonium hydroxide (TMAH)
Potassium (KOH) aqueous solution and prepare catalyst 1a.
The synthesis of [embodiment 1-b] line style silsesquioxane structure
In the drying flask for having condenser pipe and blender, be added dropwise 5 parts by weight of distilled water, 15 parts by weight of tetrahydrofuran,
2- (3,4- epoxycyclohexyl) second is added dropwise after stirring at normal temperature 1 hour in 1 parts by weight of catalyst manufactured in above-described embodiment 1-a
15 parts by weight of tetrahydrofuran are added dropwise again and futher stir 5 hours for 20 parts by weight of base trimethoxy silane.It takes in stirring
Mixed solution after removing catalyst and impurity and cleaning twice and filtering, is confirmed by IR analysis in end group
SI-OH functional group (the 3200cm of generation-1), measure molecular weight as a result, confirming the line style knot as 4 structure of chemical formula
The silsesquioxane of structure has 8,000 styrene conversion molecular weight.
[embodiment 1-c] cagelike structure continuously generates
In above-described embodiment 1-b mixed solution, 5 parts by weight of HCL aqueous solution of 0.36 weight % are very slowly added dropwise,
Be adjusted to pH in acidity, and 4 DEG C at a temperature of stir 30 minutes.Later, it is added at one time two silicon oxygen of diphenyl tetramethoxy
5 parts by weight of alkane realize that stable hydrolysis adds 7 parts by weight of catalyst manufactured in embodiment 1-a after stirring 1 hour again,
The pH of mixed solution is adjusted to alkaline state.At this point, independently forming the D structure that alkoxy opens with linear macromolecule
Precursor.A small amount of sample is acquired, is analyzed by H-NMR and IR, after the survival rate for confirming methoxyl group, when survival rate is 20%
When, 10 parts by weight of HCL aqueous solution of 0.36 weight % are slowly added dropwise, pH is adjusted to acidity.Later, it is added at one time phenyl three
1 parts by weight of methoxy silane simultaneously stir 15 minutes, then add 20 parts by weight of catalyst manufactured in 1-a.In mixing in 4 hours
It is confirming after stirring as a result, confirming the macromolecule for generating cage modle in macromolecule.Later, so that temperature is become room temperature, lead to
The tetrahydrofuran being removed in vacuo in mixed solution is crossed, the whole is made to be changed into water solution mixture.Mixing at 4 hours is stirred
After mixing, a part is taken, is passed through29It is that Si-NMR is analyzed as a result, confirm using phenyl import structure analysis
Peak shows two sharp forms, has not manufactured A-D high as 50% or more chemical formula 1 to other remaining by-products
Molecule.In addition, the average value that the styrene conversion molecular weight of measurement is 11,000, n is 4.6.29Si-NMR(CDCl3)δ
[embodiment 1-D]
With opposite under the molten condition of raw material fragment polyethylene terephthalate (Di Ren company, TR-8550T1)
It is that 10 weight % cooperate the silsesquioxane composite high-molecular manufactured in above-described embodiment 1-C in total weight, manufacture is poly- to benzene two
The compound fragment of formic acid glycol ester.
[embodiment 1-E]
Raw material fragment polycarbonate (Di Ren company,) molten condition under with relative to total weight be 5 weights
Amount % cooperates the silsesquioxane composite high-molecular manufactured in above-described embodiment 1-C, manufactures the compound fragment of polycarbonate.
[embodiment 1-F]
Raw material fragment polyethylene naphthalate (Di Ren company,TN8065S under molten condition)
To be that 5 weight % cooperate the silsesquioxane composite high-molecular manufactured in above-described embodiment 1-C relative to total weight, poly- naphthalene is manufactured
The compound fragment of naphthalate.
In addition, having manufactured silsesquioxane composite high-molecular and compound fragment using the monomer recorded in following table 19.This
When, manufacturing method has used the method with the equity of method used in above-described embodiment 1-b, 1-c, 1-d, 1-e and 1-f.
[table 19]
Embodiment 2:The high molecular synthesis of silsesquioxane D-A-D structure composite
In order to manufacture the composite high-molecular of D-A-D structure, using following embodiments, using with recorded in above-described embodiment 1
Method equity method, manufactured compound fragment.About the manufacture of catalyst and linear structure, use and embodiment 1-a
Method identical with the method for 1-b in order to continuously generate D-A-D structure, is manufactured later using following methods.
The generation of [embodiment 2-a] excessive continuous cagelike structure
In above-described embodiment 1-b mixed solution, 5 parts by weight of HCL aqueous solution of 0.36 weight % are very slowly added dropwise,
Be adjusted to pH in acidity, and 4 DEG C at a temperature of stir 30 minutes.Later, the 5 of the usage amount of embodiment 1-b are added at one time
I.e. 25 parts by weight diphenyl tetramethoxy disiloxane again realize that stable hydrolysis adds embodiment after stirring 1 hour again
7 parts by weight of catalyst manufactured in 1-a, are adjusted to alkaline state for the pH of mixed solution.At this point, independently with linear macromolecule
Form the precursor for the D structure that alkoxy opens.A small amount of sample is acquired, is analyzed by H-NMR and IR, confirms methoxyl group
Survival rate after, when survival rate be 20% when, 10 parts by weight of HCL aqueous solution of 0.36 weight % are slowly added dropwise, pH is adjusted to
It is acid.Later, 1 parts by weight of phenyltrimethoxysila,e are added at one time and are stirred 15 minutes, what is then manufactured in addition 1-a urges
20 parts by weight of agent.It is confirming after mixing in 4 hours as a result, confirming the high score for generating cage modle in macromolecule
Son.Later, so that temperature is become room temperature, by the way that the tetrahydrofuran in mixed solution is removed in vacuo, the whole is made to be changed into water
Solution mixture.After mixing in 4 hours, a part is taken, is passed through29It is that Si-NMR is analyzed as a result, can confirm
Two sharp forms are shown to the analysis peak of the structure imported using phenyl, are not manufactured other remaining by-products
A-D macromolecule as chemical formula 1.In addition, it is 4.6 that the styrene conversion molecular weight of measurement, which is 14,000, n value,.In addition, by
Si-NMR analysis confirms, different from A-D structure, and the peak near the visible -68ppm in the end of A structure disappears, A structure
End be completely reformed into D structure and generate D-A-D structure.29Si-NMR(CDCl3) δ -72.3 (width), -81.1 (points), -
80.8 (points), -82.5 (width)
In addition, having manufactured silsesquioxane composite high-molecular and compound fragment using the monomer recorded in following table 20.This
When, manufacturing method has used the method with the equity of method used in above-described embodiment 2.
[table 20]
Embodiment 3: the high molecular synthesis of silsesquioxane E-A-D structure composite
In order to manufacture the composite high-molecular of E-A-D structure, using following embodiments, using with recorded in above-described embodiment 1
Method equity method, manufactured compound fragment.About the manufacture of catalyst and linear structure, use and embodiment 1
The identical method of method in order to generate E-A-D structure, is manufactured later using following methods.
The generation of [embodiment 3-a] chain end E structure
20 parts by weight of methylene chloride, drop are added dropwise in the A-D mixture obtained in the embodiment 1-c of not additional purification
5 parts by weight of HCL aqueous solution for adding 0.36 weight %, be adjusted to pH in acidity, and 4 DEG C at a temperature of stir 30 minutes.Later,
It is added at one time 1 parts by weight of dimethyl tetramethoxy-silicane.At this point, not yet hydrolyzed and existing part exists in the molecular structure
It is easy to be changed into hydrolysate in the acidic aqueous solution layer separated with solvent, the other reactant with generation is in organic solvent layer
It is condensed and imports E in terminal units.After stirring in 5 hours, stops the stirring of reaction, the temperature of reactor is adjusted to often
Temperature.
[embodiment 3-b] imports cagelike structure in the E structure of end
Not additional purification ground prepares the organic layer of product obtained in above-described embodiment 3-a, then utilizes trifunctional
Monomer makes end be changed into cagelike structure.In the embodiment 3-a mixed solution just reacted, it is added at one time methyl trimethoxy
3 parts by weight of oxysilane realize that stable hydrolysis adds the catalyst 3 manufactured in embodiment 1-a after stirring 24 hours again
The pH of mixed solution is adjusted to alkaline state by parts by weight.At this point, the macromolecule of cage modle can be imported in E structure end, reacting
It is continuously reacted in device, forms macromolecule as chemical formula 3.But due to being obtained together with other by-products,
Need additional purification.Later, so that temperature is become room temperature, prepare essence and the tetrahydrofuran in mixed solution is removed in vacuo
System.
[embodiment 3-c] passes through the removal of the by-product of precipitating and recrystallization, the acquirement of product
After reacting the mixture of end in obtaining above-described embodiment 3-b, benefit is washed with distilled water, as the pH of distillation water layer
When being in neutrality, solvent is completely removed by vacuum decompression.Later, it precipitates 2 times in methyl alcohol, unreacted monomer is removed, in tetrahydro
In the solvent that furans and aqueous solution are mixed with 9.5:0.5 weight ratio with 30 parts by weight dissolution after -20 DEG C at a temperature of protect
Pipe 2 days.This is in order to recrystallize the substance for not importeding into macromolecule and being closed by cagelike structure, thus purification easy to accomplish.
The solid matter obtained after recrystallization process filtering will be completed, is confirmed together with a variety of by-products after vacuum decompression
Obtain the macromolecule of chemical formula 3.In addition, by GPC result compared with NMR result when, in each stage macromolecule growth in do not have
The cage modle for exporting to the low molecule individually obtained sharp form, compound high score can successfully be obtained by confirming from the result
Son.At this point, molecular weight is calculated as 17,000, n value with styrene scaled value as 4-66, the result of especially chemical formula 3 is as follows.
29Si-NMR(CDCl3) δ -68.2, -71.8 (points), -72.3 (width), -81.1 (points), -80.8 (points), -82.5
(width)
In addition, having manufactured silsesquioxane composite high-molecular and compound fragment using the monomer recorded in following table 21.This
When, manufacturing method has used the method with the equity of method used in above-described embodiment 3.
[table 21]
Embodiment 4: the high molecular synthesis of A-B-D structure composite silsesquioxane
It is following to carry out continuous hydrolysis and condensation by step about synthesis step, the composite high-molecular of E-A-D structure has been manufactured,
Using method corresponding with the method recorded in above-described embodiment 1, compound fragment has been manufactured.
[embodiment 4-a] is used to hydrolyze and the manufacture of the catalyst of condensation reaction
In order to adjust basicity, 10 weight % hydroxides are mixed in 25 weight % aqueous solution of tetramethylammonium hydroxide (TMAH)
Potassium (KOH) aqueous solution and prepare catalyst 1a.
The synthesis (synthesis of A-B precursor) of [embodiment 4-b] line style silsesquioxane structure
In the drying flask for having condenser pipe and blender, be added dropwise 5 parts by weight of distilled water, 40 parts by weight of tetrahydrofuran,
0.5 parts by weight of catalyst manufactured in above-described embodiment 4-a are added dropwise 2- (3,4- epoxycyclohexyl) after stirring at normal temperature 1 hour
20 parts by weight of tetrahydrofuran are added dropwise again and futher stir 2 hours for 10 parts by weight of ethyl trimethoxy silane.It takes in stirring
Mixed solution, removed and cleaning twice catalyst and impurity and filter after, passed through1The alkane of H-NMR analysis remaining
Oxygroup is 0.1mmol/g line style silsesquioxane below, this is sharp when importing cagelike structure by successive reaction later
Part.About the morphological analysis of linear structure, by XRD analysis, confirming overall structure is linear structure.Measurement point
Son amount as a result, confirm linear structure silsesquioxane have 6,000 styrene convert molecular weight.
1H-NMR(CDCl3) δ 3.7,3.4,3.3 (width), 3.1,2.8,2.6,1.5 (width), 0.6.
[embodiment 4-c] in chain for generating the pH reacting condition (importing of B, D structure) of cagelike structure
In the embodiment 4-b mixed solution just reacted, the aqueous solution 5 of 0.36wt%HCl is very slowly added dropwise
Parts by weight, be adjusted to pH in acidity, and 4 DEG C at a temperature of stir 30 minutes.Later, it is added at one time diphenyl tetramethoxy
5 parts by weight of disiloxane add 5 parts by weight of catalyst manufactured in embodiment 4-a, by mixed solution after stirring 1 hour again
PH be adjusted to alkaline state.At this point, confirming the structural body for independently generating cage modle with linear structure and importeding into height
Strand makes temperature become room temperature, by the way that the tetrahydrofuran in mixed solution is removed in vacuo, is changed into the whole water-soluble
Liquid mixture.After mixing in 4 hours, a part is taken, is passed through29Si-NMR and1It is that H-NMR is analyzed as a result,
The quantitative change for confirming the alkoxy present in B structure is 0.025mmol/g, and the repetition list of B and D is imported with 5:5 ratio
Member.In addition, the styrene conversion molecular weight of measurement is 10,000.In addition, even if having imported cagelike structure, in high molecular GPC
The molecular weight distribution of individual cage modle substance can not be seen in form, therefore can confirm that cagelike structure is good by successive reaction
Ground imported into macromolecular chain.
1H-NMR(CDCl3) δ 7.5,7.2,3.7,3.4,3.3 (width), 3.1,2.8,2.6,1.5 (width), 0.6.29Si-NMR
(CDCl3) δ -72.5 (width), -81.1 (points), -80.8 (points), -79.9 (points), -82.5 (width)
[embodiment 4-d] imports X (importing of B, D structure) in B structure
Not additional purification ground prepares the organic layer of product obtained in above-described embodiment 4-c, then utilizes trifunctional
Monomer makes end be changed into cagelike structure.100 parts by weight of substance obtained in embodiment 4-c are dissolved in the tetrahydro of 50 parts by weight
Then furans is added the distilled water of 5 parts by weight and manufactures mixed solution.Later, it is added in manufactured mixed solution
10 parts by weight of HCl of 0.36wt% simultaneously stir 10 minutes, are then added at one time 3 parts by weight of methyltrimethoxysilane, realize
Stable hydrolysis.After stirring 24 hours, 3 parts by weight of catalyst manufactured in embodiment 4-a are added again, by the pH of mixed solution
It is adjusted to alkaline state.At this point, the macromolecule of cage modle can imported into the X section of B structure, continuously carry out in the reactor anti-
It answers, forms macromolecule as chemical formula 4.But due to being obtained together with other by-products, it is therefore desirable to additional purification.
Later, so that temperature is become room temperature, prepare to refine and the tetrahydrofuran in mixed solution is removed in vacuo.
[embodiment 4-e] passes through the removal of the by-product of precipitating and recrystallization, the acquirement of product
In the mixture for reacting end in above-described embodiment 4-d, 200 parts by weight of methylene chloride are added, with distilled water one
Classification washing is played, when the pH for distilling water layer is in neutrality, solvent is completely removed by vacuum decompression.Later, 2 are precipitated in methyl alcohol
It is secondary, unreacted monomer is removed, with 30 parts by weight in the solvent that tetrahydrofuran and aqueous solution are mixed with 9.5:0.5 weight ratio
After dissolution -20 DEG C at a temperature of take care of 2 days.This be in order to make not imported into macromolecule and the substance closed by cagelike structure again
Crystallization, thus purification easy to accomplish.
It will complete the solid matter obtained after recrystallization process to filter, after vacuum decompression with confirming no a variety of by-products
Obtain the macromolecule of chemical formula 4.In addition, by GPC result compared with NMR result when, in each stage macromolecule growth in do not have
The cage modle for exporting to the low molecule individually obtained sharp form, compound high score can successfully be obtained by confirming from the result
Son.At this point, molecular weight can in terms of styrene scaled value acquisition 12,000 value, the n value of X is 4-6, and the n value of Y is 4-6, especially
The result of chemical formula 4 is as follows.
29Si-NMR(CDCl3) δ -72.5 (width), -81.1 (points), -80.8 (points), -79.9 (points), -81.5 (points), -
82.5 (width)
In addition, having manufactured silsesquioxane composite high-molecular and compound fragment using the monomer recorded in following table 22.This
When, manufacturing method has used the method with the equity of method used in above-described embodiment 4.
[table 22]
Embodiment 5: the high molecular synthesis of D-A-B-D structure composite silsesquioxane
In order to manufacture the composite high-molecular of D-A-B-D structure, using following methods, and by reciprocity with above-described embodiment 1
Method, manufactured compound fragment.
[embodiment 5-a] is used to generate the pH reacting condition (importing of B, D structure) of excessive D structure
In the embodiment 4-b mixed solution just reacted, the HCL aqueous solution 5 of 0.36wt% is very slowly added dropwise
Parts by weight, be adjusted to pH in acidity, and 4 DEG C at a temperature of stir 30 minutes.Later, 5 times of the amount of preparation embodiment 4-b is
The diphenyl tetramethoxy disiloxane of 25 parts by weight, and be added at one time, after stirring 1 hour, embodiment is added again
5 parts by weight of catalyst manufactured in 1-a, are adjusted to alkaline state for the pH of mixed solution.After reaction, temperature is made to become normal
Temperature makes the whole be changed into water solution mixture by the way that the tetrahydrofuran in mixed solution is removed in vacuo.At 4 hours
After mixing, a part is taken, is passed through29Si-NMR and1It is that H-NMR is analyzed to be deposited in B structure as a result, confirming
Alkoxy quantitative change be 0.012mmol/g, the repetitive unit of B and D are imported with about 1:9 ratio.In addition, the benzene second of measurement
Alkene conversion molecular weight is 24,000.In addition, can not see list in high molecular GPC form even if having imported cagelike structure
The molecular weight distribution of only cage modle substance, therefore can confirm that cagelike structure imported into macromolecular chain by successive reaction well.
1H-NMR(CDCl3) δ 7.5,7.2,3.7,3.4,3.3 (width), 3.1,2.8,2.6,1.5 (width), 0.6.29Si-NMR
(CDCl3) δ -72.5 (width), -81.1 (points), -80.8 (points), -79.9 (points), -82.5 (width)
[embodiment 5-b] imports X (importing of B, D structure) in B structure
Not additional purification ground prepares the organic layer of product obtained in above-described embodiment 5-a, then utilizes trifunctional
Monomer makes end be changed into cagelike structure.100 parts by weight of substance obtained in embodiment 5-a are dissolved in the tetrahydro of 50 parts by weight
Then furans is added the distilled water of 5 parts by weight and manufactures mixed solution.Later, it is added in manufactured mixed solution
10 parts by weight of HCl of 0.36wt% simultaneously stir 10 minutes, are then added at one time 3 parts by weight of methyltrimethoxysilane, realize
Stable hydrolysis.After stirring 24 hours, 3 parts by weight of catalyst manufactured in embodiment 4-a are added again, by the pH of mixed solution
It is adjusted to alkaline state.At this point, the macromolecule of cage modle can imported into the X section of B structure, continuously carry out in the reactor anti-
It answers, forms macromolecule as chemical formula 5.But due to being obtained together with other by-products, it is therefore desirable to additional purification.
Later, so that temperature is become room temperature, prepare to refine and the tetrahydrofuran in mixed solution is removed in vacuo.
[embodiment 5-c] passes through the removal of the by-product of precipitating and recrystallization, the acquirement of product
In the mixture for reacting end in above-described embodiment 5-b, 200 parts by weight of methylene chloride are added, with distilled water one
Classification washing is played, when the pH for distilling water layer is in neutrality, solvent is completely removed by vacuum decompression.Later, 2 are precipitated in methyl alcohol
It is secondary, unreacted monomer is removed, with 30 parts by weight in the solvent that tetrahydrofuran and aqueous solution are mixed with 9.5:0.5 weight ratio
After dissolution -20 DEG C at a temperature of take care of 2 days.This be in order to make not imported into macromolecule and the substance closed by cagelike structure again
Crystallization, thus purification easy to accomplish.
It will complete the solid matter obtained after recrystallization process to filter, after vacuum decompression with confirming no a variety of by-products
Obtain the macromolecule of chemical formula 5.In addition, by GPC result compared with NMR result when, in each stage macromolecule growth in do not have
The cage modle for exporting to the low molecule individually obtained sharp form, compound high score can successfully be obtained by confirming from the result
Son.At this point, molecular weight can in terms of styrene scaled value acquisition 16,000 value, the n value of X is 4-6, and the n value of Y is 4-6, especially
The result of chemical formula 5 is as follows.
29Si-NMR(CDCl3) δ -72.5 (width), -81.1 (points), -80.8 (points), -79.9 (points), -81.5 (points), -
82.5 (width)
In addition, having manufactured silsesquioxane composite high-molecular and compound fragment using the monomer recorded in following table 23.This
When, manufacturing method has used the method with the equity of method used in above-described embodiment 5.
[table 23]
Embodiment 6: the high molecular synthesis of silsesquioxane E-A-B-D structure composite
In order to manufacture the composite high-molecular of E-A-B-D structure, using following methods, and by reciprocity with above-described embodiment 1
Method, manufactured compound fragment.
The generation of [embodiment 6-a] chain end E structure
20 parts by weight of methylene chloride are added dropwise in the mixture obtained in the embodiment 4-c of not additional purification, are added dropwise
5 parts by weight of HCL aqueous solution of 0.36 weight %, be adjusted to pH in acidity, and 4 DEG C at a temperature of stir 30 minutes.Later, one
1 parts by weight of dimethyl tetramethoxy-silicane are added in secondary property.At this point, in the molecular structure not yet hydrolyzed and existing part with
It is easy to be changed into hydrolysate in the acidic aqueous solution layer of solvent separation, the other reactant with generation contracts in organic solvent layer
It closes and imports E in terminal units.After stirring in 5 hours, stops the stirring of reaction, the temperature of reactor is adjusted to room temperature.
[embodiment 6-b] imports cagelike structure in B structure and the X of end E structure
Not additional purification ground prepares the organic layer of product obtained in above-described embodiment 6-a, then utilizes trifunctional
Monomer makes end be changed into cagelike structure.In the embodiment 6-a mixed solution just reacted, it is added at one time methyl trimethoxy
3 parts by weight of oxysilane realize that stable hydrolysis adds the catalyst 3 manufactured in embodiment 1-a after stirring 24 hours again
The pH of mixed solution is adjusted to alkaline state by parts by weight.At this point, the macromolecule of cage modle can be imported in E structure end, reacting
It is continuously reacted in device, forms macromolecule as chemical formula 6.But due to being obtained together with other by-products,
Need additional purification.Later, so that temperature is become room temperature, prepare essence and the tetrahydrofuran in mixed solution is removed in vacuo
System.
[embodiment 6-c] passes through the removal of the by-product of precipitating and recrystallization, the acquirement of product
After obtaining the mixture that reaction terminates in above-described embodiment 6-b, benefit is washed with distilled water, when the pH of distillation water layer is in
When neutral, solvent is completely removed by vacuum decompression.Later, it precipitates 2 times in methyl alcohol, unreacted monomer is removed, in tetrahydro furan
Mutter and solvent that aqueous solution is mixed with 9.5:0.5 weight ratio in after the dissolution of 30 parts by weight -20 DEG C at a temperature of take care of 2
It.This is in order to recrystallize the substance for not importeding into macromolecule and being closed by cagelike structure, thus purification easy to accomplish.
The solid matter obtained after recrystallization process filtering will be completed, is confirmed together with a variety of by-products after vacuum decompression
Obtain the macromolecule of chemical formula 6.In addition, by GPC result compared with NMR result when, in each stage macromolecule growth in do not have
The cage modle for exporting to the low molecule individually obtained sharp form, compound high score can successfully be obtained by confirming from the result
Son.At this point, molecular weight obtains 21,000 value in terms of styrene scaled value, the n value of X is 4-6, and the n value of Y is 4-6, especially chemical
The result of formula 6 is as follows.
29Si-NMR(CDCl3) δ -68.2, -71.8 (points), -72.3 (width), -81.1 (points), -80.8 (points), -82.5
(width)
In addition, having manufactured silsesquioxane composite high-molecular and compound fragment using the monomer recorded in following table 24.This
When, manufacturing method has used the method with the equity of method used in above-described embodiment 6.
[table 24]
Embodiment 7: the high molecular synthesis of silsesquioxane A-B-A-D structure composite
It is following to carry out continuous hydrolysis and condensation by step about synthesis step, using identical with the method for above-described embodiment 1
Method has manufactured compound fragment.
The manufacture of [embodiment 7-a] catalyst
In order to adjust basicity, 10 weight % hydroxides are mixed in 25 weight % aqueous solution of tetramethylammonium hydroxide (TMAH)
Potassium (KOH) aqueous solution and prepare catalyst 1a.
[embodiment 7-b] line style silsesquioxane synthesizes (A precursor)
In the drying flask for having condenser pipe and blender, be added dropwise 5 parts by weight of distilled water, 15 parts by weight of tetrahydrofuran,
2- (3,4- epoxycyclohexyl) second is added dropwise after stirring at normal temperature 1 hour in 1 parts by weight of catalyst manufactured in above-described embodiment 7-a
15 parts by weight of tetrahydrofuran are added dropwise again and futher stir 5 hours for 20 parts by weight of base trimethoxy silane.It takes in stirring
Mixed solution after removing catalyst and impurity and cleaning twice and filtering, is confirmed by IR analysis in end group
SI-OH functional group (the 3200cm of generation-1), measure molecular weight as a result, confirming the silsesquioxane of linear structure has
6,000 styrene conversion molecular weight.
The synthesis (synthesis of A-B precursor) of [embodiment 7-c] line style silsesquioxane structure
In the drying flask for having condenser pipe and blender, be added dropwise 5 parts by weight of distilled water, 40 parts by weight of tetrahydrofuran,
0.5 parts by weight of catalyst manufactured in above-described embodiment 7-a are added dropwise 2- (3,4- epoxycyclohexyl) after stirring at normal temperature 1 hour
20 parts by weight of tetrahydrofuran are added dropwise again and futher stir 2 hours for 10 parts by weight of ethyl trimethoxy silane.It takes in stirring
Mixed solution, removed and cleaning twice catalyst and impurity and filter after, passed through1The alkane of H-NMR analysis remaining
Oxygroup is 0.1mmol/g line style silsesquioxane below, this is sharp when importing cagelike structure by successive reaction later
Part.About the morphological analysis of linear structure, by XRD analysis, confirming overall structure is linear structure.Measurement point
Son amount as a result, confirm linear structure silsesquioxane have 8,000 styrene convert molecular weight.
The synthesis (synthesis of A-B-A precursor) of [embodiment 7-d] line style silsesquioxane structure
In the drying flask for having condenser pipe and blender, 5 parts by weight of distilled water, 5 parts by weight of tetrahydrofuran, institute are added dropwise
10 parts by weight of embodiment 7-a catalyst of manufacture are added dropwise embodiment 7-b precursor and 7-c precursor are each after stirring at normal temperature 1 hour
10 parts by weight of tetrahydrofuran are added dropwise again and futher stir 24 hours for 20 parts by weight.The mixed solution in stirring is taken, is passed through
Clean twice and remove catalyst and impurity and filter after, by IR analysis confirm end group generate SI-OH official
It can group (3200cm-1), measure molecular weight as a result, confirming the silsesquioxane of linear structure there is 15,000 styrene to change
Calculate molecular weight.
1H-NMR(CDCl3) δ 3.7,3.4,3.3 (width), 3.1,2.8,2.6,1.5 (width), 0.6.
[embodiment 7-e] cagelike structure continuously generates (importing of D structure)
In above-described embodiment 7-d mixed solution, 5 parts by weight of HCL aqueous solution of 0.36 weight % are very slowly added dropwise,
Be adjusted to pH in acidity, and 4 DEG C at a temperature of stir 30 minutes.Later, it is added at one time two silicon oxygen of diphenyl tetramethoxy
5 parts by weight of alkane realize that stable hydrolysis adds 7 parts by weight of catalyst manufactured in embodiment 7-a after stirring 1 hour again,
The pH of mixed solution is adjusted to alkaline state.At this point, independently forming the D structure that alkoxy opens with linear macromolecule
Precursor.A small amount of sample is acquired, is analyzed by H-NMR and IR, after the survival rate for confirming methoxyl group, when survival rate is 10%
When, 10 parts by weight of HCL aqueous solution of 0.36 weight % are slowly added dropwise, pH is adjusted to acidity.Later, it is added at one time phenyl three
1 parts by weight of methoxy silane simultaneously stir 15 minutes, then add 20 parts by weight of catalyst manufactured in 1-a.In mixing in 4 hours
It is confirming after stirring as a result, confirming the macromolecule for generating cage modle in macromolecule.Later, so that temperature is become room temperature, lead to
The tetrahydrofuran being removed in vacuo in mixed solution is crossed, the whole is made to be changed into water solution mixture.Mixing at 4 hours is stirred
After mixing, a part is taken, is passed through29It is that Si-NMR is analyzed as a result, confirm using phenyl import structure analysis
Peak shows two sharp forms, has not manufactured macromolecule as chemical formula 7 to other remaining by-products.In addition,
The styrene conversion molecular weight of measurement is 18,000.
29Si-NMR(CDCl3) δ -68.2, -72.3 (width), -81.1 (points), -80.8 (points), -82.5 (width)
[embodiment 7-f] imports X (completion of A-B-A-D structure) in B structure
Not additional purification ground prepares the organic layer of product obtained in above-described embodiment 7-e, then utilizes trifunctional
Monomer makes end be changed into cagelike structure.100 parts by weight of substance obtained in embodiment 7-e are dissolved in the tetrahydro of 50 parts by weight
Then furans is added the distilled water of 5 parts by weight and manufactures mixed solution.Later, it is added in manufactured mixed solution
10 parts by weight of HCl of 0.36wt% simultaneously stir 10 minutes, are then added at one time 3 parts by weight of methyltrimethoxysilane, realize
Stable hydrolysis.After stirring 24 hours, 3 parts by weight of catalyst manufactured in embodiment 7-a are added again, by the pH of mixed solution
It is adjusted to alkaline state.At this point, the macromolecule of cage modle can imported into the X section of B structure, continuously carry out in the reactor anti-
It answers, forms macromolecule as chemical formula 7.But due to being obtained together with other by-products, it is therefore desirable to additional purification.
Later, so that temperature is become room temperature, prepare to refine and the tetrahydrofuran in mixed solution is removed in vacuo.
[embodiment 7-g] passes through the removal of the by-product of precipitating and recrystallization, the acquirement of product
In the mixture for reacting end in above-described embodiment 7-f, 200 parts by weight of methylene chloride are added, with distilled water one
Classification washing is played, when the pH for distilling water layer is in neutrality, solvent is completely removed by vacuum decompression.Later, 2 are precipitated in methyl alcohol
It is secondary, unreacted monomer is removed, with 30 parts by weight in the solvent that tetrahydrofuran and aqueous solution are mixed with 9.5:0.5 weight ratio
After dissolution -20 DEG C at a temperature of take care of 2 days.This be in order to make not imported into macromolecule and the substance closed by cagelike structure again
Crystallization, thus purification easy to accomplish.
It will complete the solid matter obtained after recrystallization process to filter, after vacuum decompression with confirming no a variety of by-products
Obtain the macromolecule of chemical formula 7.In addition, by GPC result compared with NMR result when, in each stage macromolecule growth in do not have
The cage modle for exporting to the low molecule individually obtained sharp form, compound high score can successfully be obtained by confirming from the result
Son.At this point, molecular weight can in terms of styrene scaled value acquisition 24,000 value, the n value of X is 4-6, and the n value of Y is 4-6.
In addition, having manufactured silsesquioxane composite high-molecular and compound fragment using the monomer recorded in following table 25.This
When, manufacturing method has used the method with the equity of method used in above-described embodiment 7.
[table 25]
Embodiment 8: the high molecular synthesis of D-A-B-A-D structure composite silsesquioxane
In order to manufacture the composite high-molecular of D-A-B-D structure, using following embodiments, and by with 1 phase of above-described embodiment
Same method, has manufactured compound fragment.
[embodiment 8-a] is used to generate the pH reacting condition of excessive D structure
In the embodiment 7-d mixed solution just reacted, the HCL aqueous solution 15 of 0.36wt% is very slowly added dropwise
Parts by weight, be adjusted to pH in acidity, and 4 DEG C at a temperature of stir 30 minutes.Later, 5 times of the amount of preparation embodiment 7-e is
The diphenyl tetramethoxy disiloxane of 25 parts by weight, and be added at one time, after stirring 1 hour, embodiment is added again
20 parts by weight of catalyst manufactured in 7-a, are adjusted to alkaline state for the pH of mixed solution.After reaction, become temperature
Room temperature makes the whole be changed into water solution mixture by the way that the tetrahydrofuran in mixed solution is removed in vacuo.At 4 hours
Mixing after, take a part, pass through29Si-NMR and1It is that H-NMR is analyzed as a result, confirming in B structure
The quantitative change of existing alkoxy is 0.006mmol/g, and the repetitive unit of B and D are imported with about 5:5 ratio.In addition, the benzene of measurement
Ethylene conversion molecular weight is 32,000.In addition, can not see in high molecular GPC form even if having imported cagelike structure
The molecular weight distribution of individual cage modle substance, therefore can confirm that cagelike structure imported into macromolecule by successive reaction well
Chain.
1H-NMR(CDCl3) δ 7.5,7.2,3.7,3.4,3.3 (width), 3.1,2.8,2.6,1.5 (width), 0.6.29Si-NMR
(CDCl3) δ -72.5 (width), -81.1 (points), -80.8 (points), -79.9 (points), -82.5 (width)
[embodiment 8-b] imports X in B structure
Not additional purification ground prepares the organic layer of product obtained in above-described embodiment 8-a, then utilizes trifunctional
Monomer makes end be changed into cagelike structure.100 parts by weight of substance obtained in embodiment 8-a are dissolved in the tetrahydro of 50 parts by weight
Then furans is added the distilled water of 5 parts by weight and manufactures mixed solution.Later, it is added in manufactured mixed solution
10 parts by weight of HCl of 0.36wt% simultaneously stir 10 minutes, are then added at one time 3 parts by weight of methyltrimethoxysilane, realize
Stable hydrolysis.After stirring 24 hours, 3 parts by weight of catalyst manufactured in embodiment 7-a are added again, by the pH of mixed solution
It is adjusted to alkaline state.At this point, the macromolecule of cage modle can imported into the X section of B structure, continuously carry out in the reactor anti-
It answers, forms macromolecule as chemical formula 8.But due to being obtained together with other by-products, it is therefore desirable to additional purification.
Later, so that temperature is become room temperature, prepare to refine and the tetrahydrofuran in mixed solution is removed in vacuo.
[embodiment 8-c] passes through the removal of the by-product of precipitating and recrystallization, the acquirement of product
In the mixture for reacting end in above-described embodiment 8-b, 200 parts by weight of methylene chloride are added, with distilled water one
Classification washing is played, when the pH for distilling water layer is in neutrality, solvent is completely removed by vacuum decompression.Later, 2 are precipitated in methyl alcohol
It is secondary, unreacted monomer is removed, with 30 parts by weight in the solvent that tetrahydrofuran and aqueous solution are mixed with 9.5:0.5 weight ratio
After dissolution -20 DEG C at a temperature of take care of 2 days.This be in order to make not imported into macromolecule and the substance closed by cagelike structure again
Crystallization, thus purification easy to accomplish.
It will complete the solid matter obtained after recrystallization process to filter, after vacuum decompression with confirming no a variety of by-products
Obtain the macromolecule of chemical formula 1.In addition, by GPC result compared with NMR result when, in each stage macromolecule growth in do not have
The cage modle for exporting to the low molecule individually obtained sharp form, compound high score can successfully be obtained by confirming from the result
Son.At this point, molecular weight can in terms of styrene scaled value acquisition 36,000 value, the n value of X is 4-6, and the n value of Y is 4-6, especially
The result of chemical formula 8 is as follows.
29Si-NMR(CDCl3) δ -72.5 (width), -81.1 (points), -80.8 (points), -79.9 (points), -81.5 (points), -
82.5 (width)
In addition, having manufactured silsesquioxane composite high-molecular and compound fragment using the monomer recorded in following table 26.This
When, manufacturing method has used the method with the equity of method used in above-described embodiment 8.
[table 26]
Embodiment 9: the high molecular synthesis of silsesquioxane E-A-B-A-D structure composite
In order to manufacture the composite high-molecular of E-A-B-A-D structure, using following embodiments, and by with above-described embodiment 1
The method of equity, has manufactured compound fragment.
The generation of [embodiment 9-a] chain end E structure
20 parts by weight of methylene chloride are added dropwise in the mixture obtained in the embodiment 7-g of not additional purification, are added dropwise
5 parts by weight of HCL aqueous solution of 0.36 weight %, be adjusted to pH in acidity, and 4 DEG C at a temperature of stir 30 minutes.Later, one
1 parts by weight of dimethyl tetramethoxy-silicane are added in secondary property.At this point, in the molecular structure not yet hydrolyzed and existing part with
It is easy to be changed into hydrolysate in the acidic aqueous solution layer of solvent separation, the other reactant with generation contracts in organic solvent layer
It closes and imports E in terminal units.After stirring in 5 hours, stops the stirring of reaction, the temperature of reactor is adjusted to room temperature.
[embodiment 9-b] imports cagelike structure in B structure and the X of end E structure
Not additional purification ground prepares the organic layer of product obtained in above-described embodiment 9-a, then utilizes trifunctional
Monomer makes end be changed into cagelike structure.In the embodiment 9-a mixed solution just reacted, it is added at one time methyl trimethoxy
3 parts by weight of oxysilane realize that stable hydrolysis adds the catalyst 3 manufactured in embodiment 7-a after stirring 24 hours again
The pH of mixed solution is adjusted to alkaline state by parts by weight.At this point, the macromolecule of cage modle can be imported in E structure end, reacting
It is continuously reacted in device, forms macromolecule as chemical formula 9.But due to being obtained together with other by-products,
Need additional purification.Later, so that temperature is become room temperature, prepare essence and the tetrahydrofuran in mixed solution is removed in vacuo
System.
[embodiment 9-c] passes through the removal of the by-product of precipitating and recrystallization, the acquirement of product
After obtaining the mixture that reaction terminates in above-described embodiment 9-b, benefit is washed with distilled water, when the pH of distillation water layer is in
When neutral, solvent is completely removed by vacuum decompression.Later, it precipitates 2 times in methyl alcohol, unreacted monomer is removed, in tetrahydro furan
Mutter and solvent that aqueous solution is mixed with 9.5:0.5 weight ratio in after the dissolution of 30 parts by weight -20 DEG C at a temperature of take care of 2
It.This is in order to recrystallize the substance for not importeding into macromolecule and being closed by cagelike structure, thus purification easy to accomplish.
The solid matter obtained after recrystallization process filtering will be completed, is confirmed together with a variety of by-products after vacuum decompression
Obtain the macromolecule of chemical formula 9.In addition, by GPC result compared with NMR result when, in each stage macromolecule growth in do not have
The cage modle for exporting to the low molecule individually obtained sharp form, compound high score can successfully be obtained by confirming from the result
Son.At this point, molecular weight obtains 28,000 value in terms of styrene scaled value, the n value of X is 4-6, and the n value of Y is 4-6.
In addition, having manufactured silsesquioxane composite high-molecular using the monomer recorded in following table 27.At this point, manufacturer
Method has used the method with the equity of method used in above-described embodiment 9.
[table 27]
[experiment]
To special using thin slice (Sheet) measurement physics, the optics of the compound fragment manufacture manufactured in above-described embodiment 1 to 9
Property.
Glass transition temperature evaluates (IPC-TM-650): the shearing of thin disc made with 0.3mm thickness is big at 2X20mm
It is small, it is placed in the geometry tensometer (Tension geometry) of dynamic viscoelastic analyzer (DMA-8000) and is measured.This
When, about determination condition, it is measured under usually used 1Hz frequency with 2 DEG C of speed per minute.
Surface hardness measurement: it in general, about pencil hardness method (JIS 5600-5-4), is generally commented with 750g load
Valence, but with the more exacting terms than the condition, i.e. 1kgf load, on coated face with 45 degree of angle by pencil with per second
The speed of 0.5mm moves horizontally 10mm and scratches film, and is evaluated with scratch.If do not had for 2 times or more in 5 experiments
Confirm the scratch of 3mm or more, then the pencil of a degree of hardness selected to be evaluated, if it is confirmed that scratch be 2 times with
On, then it selects the pencil of next grade of the pencil hardness and is evaluated as pencil hardness.
Scratch test (Scratch test) measurement: about the abrasion evaluation assessment using steel wool, in 1kg or so weight
Iron hammer front end winding #0000 steel wool (Steel wool), reciprocating friction test film 15 times, measure its haze value, but
In this evaluation, with the more exacting terms i.e. 400 time friction test piece than the condition, and measures mist degree and carry out meat with microscope
Eye evaluation.About as a result, being judged as failure when mist degree increases by 0.05% or more.
Permeability (ASTM D1746): using ultraviolet-visible absorption spectroscopy (UV/vis spectroscopy) measurement for
The total light transmittance of the light of the thin slice incidence of production.
Yellow chromaticity (ASTM D1925): the thin slice relative to standard sources (CIE) is measured using color difference meter (CM-3700A)
Chromaticity coordinates value.
[table 28]
As shown in above-mentioned table 28, when blending with each macromolecule, the rising effect of excellent glass transition temperature is shown
Fruit, and confirm optical characteristics and surface hardness, scratch characteristic etc. while being improved.
INDUSTRIAL APPLICABILITY
Thermoplastic resin composition of the invention is by the inclusion of the line style sesquialter silicon in a macromolecule containing specific structure
The silsesquioxane composite high-molecular of oxygen alkane chain and cage-type silsesquioxane, thus heat resistance, chemical resistance, soil resistance, gas
Through preventing characteristic, permeability, coloring, wearability and surface hardness etc. excellent.
Claims (13)
1. a kind of thermoplastic resin composition, which is characterized in that include represented by any of following chemical formula 1 to 9 times
Half siloxanes composite high-molecular,
[chemical formula 1]
[chemical formula 2]
[chemical formula 3]
[chemical formula 4]
[chemical formula 5]
[chemical formula 6]
[chemical formula 7]
[chemical formula 8]
[chemical formula 9]
In above-mentioned chemical formula 1 to 9,
A isB isD isE is
Y is each independently O, NR21Or [(SiO3/2R)4+2nO], and at least one is [(SiO3/2R)4+2nO],
X is each independently R22Or [(SiO3/2R)4+2nR], and at least one is [(SiO3/2R)4+2nR],
R、R1、R2、R3、R4、R5、R6、R7、R8、R9、R10、R11、R12、R13、R14、R15、R16、R17、R18、R19、R20、R21、R22Respectively
It independently is hydrogen;Deuterium;Halogen;Amido;Epoxy group;Cyclohexyl ring oxygroup;(methyl) acryloyl group;Mercapto;Isocyanate group;
Itrile group;Nitro;By deuterium, halogen, amido, epoxy group, (methyl) acryloyl group, mercapto, isocyanate group, itrile group, nitro, benzene
The substituted or non-substituted C of base1~C40Alkyl;C2~C40Alkenyl;C1~C40Alkoxy;C3~C40Naphthenic base;C3~
C40Heterocyclylalkyl;C6~C40Aryl;C3~C40Heteroaryl;C3~C40Aralkyl;C3~C40Aryloxy group;Or C3~
C40Aryl mercaptan base,
A and d is each independently 1 to 100,000 integer,
B is each independently 1 to 500 integer,
E is each independently 1 or 2,
N is each independently integer of 1 to 20.
2. thermoplastic resin composition according to claim 1, which is characterized in that a be 3 to 1000 integer, b be 1 to
500 integer, the integer that d is 1 to 500.
3. thermoplastic resin composition according to claim 1, which is characterized in that the average value of n is 4 to 5.
4. thermoplastic resin composition according to claim 1, which is characterized in that the silsesquioxane composite high-molecular
Weight average molecular weight be 1,000 to 1,000,000.
5. thermoplastic resin composition according to claim 1, which is characterized in that the thermoplastic resin composition includes
Silsesquioxane composite high-molecular and macromolecule resin represented by any of described chemical formula 1 to 9.
6. thermoplastic resin composition according to claim 5, which is characterized in that the macromolecule resin is selected from by PC
(polycarbonate), PMMA (polymethyl methacrylate), PES (polyether sulfone), PET (polyethylene terephthalate), PEN
(polyethylene naphthalate), COC (cyclic olefine copolymer), PAc (polyacrylate), PE (polyethylene), PEEK (polyethers ether
Ketone), PEI (polyetherimide), PI (polyimides), PSF (polysulfones), PVA (polyvinyl alcohol), PVCi (polyvinyl alcohol cinnamic acid
Ester), TAC (triacetyl cellulose), polyurethane and epoxy resin composition one or more of group macromolecule resin.
7. thermoplastic resin composition according to claim 1, which is characterized in that the thermoplastic resin composition includes
Silsesquioxane composite high-molecular and inorfil represented by any of described chemical formula 1 to 9.
8. thermoplastic resin composition according to claim 1, which is characterized in that the silsesquioxane composite high-molecular
Content be at least 1 weight %.
9. thermoplastic resin composition according to claim 1, which is characterized in that the composition further includes face
Material.
10. the article manufactured by thermoplastic resin composition described in claim 1.
11. article according to claim 10, which is characterized in that the article is the shell of electronic products.
12. article according to claim 10, which is characterized in that the article is functional fiber or functional garment.
13. article according to claim 10, which is characterized in that the article is plastic living articles, illumination, protection
Cap, automobile interior exterior ornament materials, fishing rod, golf club, yacht, Discussion on architecture ornament materials, piping, furniture or film.
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KR20200082946A (en) * | 2018-12-31 | 2020-07-08 | 주식회사 동진쎄미켐 | Synthetic resin coating composition and method of manufacturing synthetic resin substrate using the same |
CN110028756B (en) * | 2019-04-01 | 2020-07-31 | 吉林大学 | Polyether-ether-ketone-based synergistic flame-retardant nano composite material and preparation method thereof |
KR20220096987A (en) * | 2020-12-31 | 2022-07-07 | 주식회사 동진쎄미켐 | Silsesquioxane resin and antireflection composition comprising the same and having anti-fingerprint properties |
CN116285194B (en) * | 2023-03-24 | 2023-09-12 | 杭州科佳新材料股份有限公司 | Waterproof flame-retardant optical cable sheath material master batch and preparation method thereof |
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JP2017512236A (en) | 2017-05-18 |
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