CN102492429A - Novel polymerizable liquid crystal compound and synthesis method thereof - Google Patents

Novel polymerizable liquid crystal compound and synthesis method thereof Download PDF

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CN102492429A
CN102492429A CN201110366152XA CN201110366152A CN102492429A CN 102492429 A CN102492429 A CN 102492429A CN 201110366152X A CN201110366152X A CN 201110366152XA CN 201110366152 A CN201110366152 A CN 201110366152A CN 102492429 A CN102492429 A CN 102492429A
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independently
carbon
preparation
liquid crystalline
general formula
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CN102492429B (en
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仲锡军
葛会军
单卫格
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Hebei Milestone Electronic Material Co ltd
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HEBEI MILESTONE ELECTRONIC MATERIAL CO Ltd
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Abstract

The present invention relates to a polymerizable liquid crystal compound. The general formula of the compound is as the follow: wherein A1 and A2 independently are as the follow, Q1 and Q2 independently are -H or -CH3, B1 is -(CH2)m- or -CH2(CF2)mCH2-, m is 2-18, B2 is -(CH2)n- or -CH2(CF2)nCH2-, n is 2-18, C1 and C2 respectively and independently are as the follow, R1-R4 respectively and independently are -H, -F, -Cl, linear alkyl containing 1 to 7 carbon atoms, linear alkoxy containing 1 to 7 carbon atoms, cyano, -CF3 or -OCF3, D1 is as the follow, D2 is -C2H4- or -C4H8-, E is as the follow, R5-R8 respectively and independently are -H, -F, -Cl, linear alkyl containing 1 to 7 carbon atoms, linear alkoxy containing 1 to 7 carbon atoms, -CN, -CF3 or -OCF3.

Description

A kind of novel polymerizable liquid crystalline cpd and compound method thereof
Technical field
The present invention relates to a kind of liquid-crystal display and use liquid crystalline cpd, specifically, the present invention relates to a kind of novel polymerizable liquid crystalline cpd and compound method thereof.
Background technology
Liquid crystal is as a kind of condensed matter, and its characteristic and structure are between solid crystals and isotropic liquid.It is a kind of liquid of order; See from macroscopical physical properties; The flowability, the viscosity that had both had liquid; Have the crystalline anisotropy again, can double refraction, Bragg reflection, diffraction and rotation effect take place, also can under outer field action, produce hot light, electric light or magneto-optic effect as crystal.Now, liquid crystal more and more is widely used as a kind of new function material, and liquid-crystal display (LCD) is because its volume is little, in light weight, function is low, radiationless and display quality advantages of higher, has obtained development at full speed in recent years.
Yet also there is the defective of self in LCD, and such as the anisotropy at visual angle and less field range, when vergence direction was observed, contrast gradient obviously descended, sometimes even gray-scale inversion and serious problems such as color drift can occur.The visual angle is more little, and optical anisotropy is more little, and vision is big more, and optical anisotropy is big more, and the visual angle problem is mainly derived from the optical anisotropy of liquid crystal molecule.Usually; Liquid crystal indicator (LCD) is made up of liquid crystal pond and two Polarizers that are disposed at its both sides; For enlarge field angle, eliminate painted, or according to display format adjustment phase differential; How between liquid crystal pond and Polarizer, to dispose as optically anisotropic a kind of optical compensation material, thus the quality of raising display image.In the optical compensation sheet material of liquid crystal indicator (LCD), can use and have birefringent macromolecule membrane; For example by after implementing trend on the polymerisable liquid crystal material and handling, utilize ultraviolet ray to make its sclerosis and the birefringent macromolecule membrane that has that optically anisotropic body constituted of fixed orientation state is used as the optical compensation sheet material that LCD uses.
Preparation good optical anisotropic films needs good polymerisable liquid crystal monomer.And this liquid crystal monomer needs lower melting point, near room temperature or room temperature, presents mesomorphic phase; Colourless and have light, electricity, a chemicalstability etc.
In view of this, special proposition the present invention.
Summary of the invention
First purpose of the present invention is to provide a kind of novel polymerizable liquid crystalline cpd.
Another object of the present invention is to provide a kind of preparation method of novel polymerizable liquid crystalline cpd.
For realizing first purpose of the present invention; A kind of novel polymerizable liquid crystalline cpd is provided, and its general formula is:
In the said structure general formula, A1, A2 do respectively independently
Figure BDA0000109686010000022
Wherein Q1, Q2 be independently respectively-H or-CH 3
B 1For-(CH 2) m-or-CH 2(CF 2) mCH 2-, m=2~18 wherein;
B 2For-(CH 2) n-or-CH 2(CF 2) nCH 2-, n=2~18 wherein;
C1, C2 do respectively independently R wherein 1~R 4Respectively be independently-H ,-F ,-the straight chain alkoxyl group of Cl, the straight chained alkyl of 1~7 carbon, 1~7 carbon, cyanic acid ,-CF 3Or-OCF 3
D1 is
Figure BDA0000109686010000024
D2 does
Figure BDA0000109686010000025
Figure BDA0000109686010000026
Or-C 2H 4-, or-C 4H 8-;
E does
Figure BDA0000109686010000027
R wherein 5~R 8Respectively be independently-H ,-F ,-the straight chain alkoxyl group of Cl, the straight chained alkyl of 1~7 carbon, 1~7 carbon ,-CN ,-CF 3, or-OCF 3
Preferred polymerisable liquid crystal compound of the present invention is represented with formula (Ia):
Figure BDA0000109686010000028
In the said general formula (Ia), A1, A2 do respectively independently
Figure BDA0000109686010000029
Wherein Q1, Q2 be independently respectively-H or-CH 3
B 1For-(CH 2) m-or-CH 2(CF 2) mCH 2-, m=2~18 wherein;
B 2For-(CH 2) n-or-CH 2(CF 2) nCH 2-, n=2~18 wherein;
C1, C2 do respectively independently
Figure BDA0000109686010000031
R wherein 1~R 4Respectively be independently-H ,-F ,-the straight chain alkoxyl group of C1, the straight chained alkyl of 1~7 carbon, 1~7 carbon, cyanic acid ,-CF 3Or-OCF 3
D1 is
Figure BDA0000109686010000032
D2 is
Figure BDA0000109686010000033
E does
Figure BDA0000109686010000034
R wherein 5~R 8Respectively be independently-H ,-F ,-the straight chain alkoxyl group of Cl, the straight chained alkyl of 1~7 carbon, 1~7 carbon ,-CN ,-CF 3, or-OCF 3
In the said general formula (Ia), preferred:
A1, A2 are
Figure BDA0000109686010000035
, and wherein Q1, Q2 are-H;
B 1For-(CH 2) m-, m=3 or 6 wherein;
B 2For-(CH 2) n-, n=3 or 6 wherein;
C1, C2 do
Figure BDA0000109686010000036
R wherein 1~R 4For-H;
E does
Figure BDA0000109686010000037
R wherein 5~R 8Respectively be independently-H ,-F ,-Cl, methyl, cyanic acid.
In the said general formula (Ia), preferred:
M and n are 3 or 6 simultaneously;
C1, C2 do
Figure BDA0000109686010000041
R wherein 1~R 4For-H;
E does
Figure BDA0000109686010000042
R wherein 5~R 8Be divided into-H.
Among the present invention, the preparation method of the compound of said general formula (Ia) may further comprise the steps:
(1) preparation midbody
Figure BDA0000109686010000043
Figure BDA0000109686010000044
(2) preparation midbody
Figure BDA0000109686010000046
(3) preparation
Figure BDA0000109686010000047
Wherein: i is 0 or 1, and j is 0 or 1; When i was 0, j was 1; When i was 1, j was 0.
In the preparing method's of above-mentioned general formula (Ia) compound the step (1), Cl-B 1-OH with
Figure BDA0000109686010000052
The condition of reaction be: catalyzer is a potassiumiodide, and solvent is the second alcohol and water, and temperature of reaction is 80~90 ℃, 30~40 hours reaction times.
Figure BDA0000109686010000053
And A 1The condition of-Cl reaction is: in dichloromethane solvent, add
Figure BDA0000109686010000054
Acid binding agent and stopper stir, and under 0~10 ℃ of condition, drip A 1-Cl adds back insulation 5 hours, obtains Said acid binding agent is nitrogenous amine or nitrogen heterocyclic ring compounds, is preferably pyridine and triethylamine, and said stopper is preferably 2, the 6-toluene di-tert-butyl phenol.
Preferred polymerisable liquid crystal compound provided by the invention is represented with formula (Ib):
Figure BDA0000109686010000056
In the said general formula (Ib), A1, A2 do respectively independently
Figure BDA0000109686010000057
Wherein Q1, Q2 be independently respectively-H or-CH 3
B 1For-(CH 2) m-or-CH 2(CF 2) mCH 2-, m=2~18 wherein;
B 2For-(CH 2) n-or-CH 2(CF 2) nCH 2-, n=2~18 wherein;
C1, C2 do respectively independently R wherein 1~R 4Respectively be independently-H ,-F ,-the straight chain alkoxyl group of Cl, the straight chained alkyl of 1~7 carbon, 1~7 carbon, cyanic acid ,-CF 3Or-OCF 3
D1 is
Figure BDA0000109686010000062
D2 is
Figure BDA0000109686010000063
E does
Figure BDA0000109686010000064
R wherein 5~R 8Respectively be independently-H ,-F ,-the straight chain alkoxyl group of Cl, the straight chained alkyl of 1~7 carbon, 1~7 carbon ,-CN ,-CF 3, or-OCF 3
In the said general formula (Ib), preferred:
A1, A2 are
Figure BDA0000109686010000065
, and wherein Q1, Q2 are-H;
B 1For-(CH 2) m-, m=3 or 6 wherein;
B 2For-(CH 2) n-, n=3 or 6 wherein;
C1, C2 do
Figure BDA0000109686010000066
R wherein 1~R 4For-H;
E does
Figure BDA0000109686010000067
R wherein 5~R 8Respectively be independently-H ,-F ,-Cl, methyl, cyanic acid.
In the said general formula (Ib), preferred:
M and n are 3 or 6 simultaneously;
Cl, C2 do R wherein 1~R 4For-H;
E does
Figure BDA0000109686010000071
R wherein 5~R 8Be divided into-H.
Among the present invention, the preparation method of the compound of said general formula (Ib) may further comprise the steps:
Wherein: x is 0 or 2.
Preferred polymerisable liquid crystal compound of the present invention is represented with formula (Ic):
Figure BDA0000109686010000073
In the said general formula (Ic), A1, A2 do respectively independently
Figure BDA0000109686010000074
Wherein Q1, Q2 be independently respectively-H or-CH 3
B 1For-(CH 2) m-or-CH 2(CF 2) mCH 2-, m=2~18 wherein;
B 2For-(CH 2) n-or-CH 2(CF 2) nCH 2-, n=2~18 wherein;
C1, C2 do respectively independently
Figure BDA0000109686010000075
R wherein 1~R 4Respectively be independently-H ,-F ,-the straight chain alkoxyl group of Cl, the straight chained alkyl of 1~7 carbon, 1~7 carbon, cyanic acid ,-CF 3Or-OCF 3
D1 is
D2 is
Figure BDA0000109686010000081
E does
Figure BDA0000109686010000082
R wherein 5~R 8Respectively be independently-H ,-F ,-the straight chain alkoxyl group of Cl, the straight chained alkyl of 1~7 carbon, 1~7 carbon ,-CN ,-CF 3, or-OCF 3
In the said general formula (Ic), preferred:
A1, A2 are
Figure BDA0000109686010000083
, and wherein Q1, Q2 are-H;
B 1For-(CH 2) m-, m=3 or 6 wherein;
B 2For-(CH 2) n-, n=3 or 6 wherein;
C1, C2 do
Figure BDA0000109686010000084
R wherein 1~R 4For-H;
E does
Figure BDA0000109686010000085
R wherein 5~R 8Respectively be independently-H ,-F ,-Cl, methyl, cyanic acid.
In the said general formula (Ic), preferred:
M and n are 3 or 6 simultaneously;
C1, C2 do
Figure BDA0000109686010000086
R wherein 1~R 4For-H;
E does
Figure BDA0000109686010000087
R wherein 5~R 8Be divided into-H.
The preparation method of said general formula (Ic) compound may further comprise the steps:
(1) preparation midbody
Figure BDA0000109686010000088
(2) preparation midbody
Figure BDA0000109686010000092
Figure BDA0000109686010000093
(3) preparation
Figure BDA0000109686010000094
Figure BDA0000109686010000095
Wherein, p is 0,1 or 2, and q is 0,1 or 2;
Q is 2 when p is 0;
Q is 1 when p is 0;
Q is 1 when p is 1;
Q is 0 when p is 2;
Q is 0 when p is 0.
Preferred polymerisable liquid crystal compound of the present invention is represented with formula (Id):
Figure BDA0000109686010000096
In the said general formula (Id), A1, A2 do respectively independently Wherein Q1, Q2 be independently respectively-H or-CH 3
B 1For-(CH 2) m-or-CH 2(CF 2) mCH 2-, m=2~18 wherein;
B 2For-(CH 2) n-or-CH 2(CF 2) nCH 2-, n=2~18 wherein;
C1, C2 do respectively independently
Figure BDA0000109686010000101
R wherein 1~R 4Respectively be independently-H ,-F ,-the straight chain alkoxyl group of Cl, the straight chained alkyl of 1~7 carbon, 1~7 carbon, cyanic acid ,-CF 3Or-OCF 3
D1 is
Figure BDA0000109686010000102
D2 is-C 2H 4-, or-C 4H 8-;
E does
Figure BDA0000109686010000103
R wherein 5~R 8Respectively be independently-H ,-F ,-the straight chain alkoxyl group of Cl, the straight chained alkyl of 1~7 carbon, 1~7 carbon ,-CN ,-CF 3, or-OCF 3
In the said general formula (Id), preferred:
A1, A2 are
Figure BDA0000109686010000104
, and wherein Q1, Q2 are-H;
B 1For-(CH 2) m-, m=3 or 6 wherein;
B 2For-(CH 2) n-, n=3 or 6 wherein;
C1, C2 do
Figure BDA0000109686010000105
R wherein 1~R 4For-H;
E does
Figure BDA0000109686010000106
R wherein 5~R 8Respectively be independently-H ,-F ,-Cl, methyl, cyanic acid.
In the said general formula (Id), preferred:
M and n are 3 or 6 simultaneously;
C1, C2 do
Figure BDA0000109686010000107
R wherein 1~R 4For-H;
E does
Figure BDA0000109686010000111
R wherein 5~R 8Be divided into-H.
Among the present invention, the preparation method of said general formula (Id) compound may further comprise the steps:
(1) be starting raw material with
Figure BDA0000109686010000112
, preparation
Figure BDA0000109686010000114
(2) be raw material with
Figure BDA0000109686010000115
:
Figure BDA0000109686010000116
Wherein, h is 0 or 2.
Beneficial effect of the present invention is:
Compound of the present invention is a kind of polymerisable liquid crystal compound that is not disclosed as yet of brand new; Compare with this compounds of conventional similar structures; Novel polymerizable liquid crystalline cpd provided by the invention is colourless; Have good light, electricity, chemicalstability, fusing point is lower, and low temperature polymerization property is better.
Secondly, in the preparation process, the synthetic route simplicity of design is reasonable, and reaction conditions is all comparatively gentle; Reaction process is simple and safe controlled, and related the reaction pair temperature of reaction and the tolerance in reaction times are stronger, is easy to realize; And synthetic needed plant and instrument also belongs to common instrument, and intermediate product is easy to separate, and cost is low; Yield is high, is suitable for suitability for industrialized production, is with a wide range of applications.
Description of drawings
Fig. 1 is the nucleus magnetic hydrogen spectrum of the target compound of embodiment 19 preparations;
Fig. 2 is the nucleus magnetic hydrogen spectrum of the target compound of embodiment 27 preparations;
Fig. 3 is the nucleus magnetic hydrogen spectrum of the target compound of embodiment 28 preparations;
Fig. 4 is the nucleus magnetic hydrogen spectrum of the target compound of embodiment 36 preparations.
Embodiment
Following embodiment can make those skilled in the art more fully understand the present invention, but does not limit the present invention in any way.
Embodiment 1
Synthetic
Figure BDA0000109686010000121
Figure BDA0000109686010000122
Be furnished with mechanical stirring, in the 2L four-hole bottle of condensing surface, dropping into p-hydroxyphenylaceticacid 1mol, 3-propylene chlorohydrin 1.1mol, potassiumiodide 0.15mol, sodium hydroxide 2.1mol, ethanol 500ml, water 500ml.Heated and stirred then, temperature is controlled at 80~90 ℃, is incubated 30h after the gentle reflux.Middle control reaction finishes, and earlier ethanol is steamed, and adds 400ml water again.Reduce to room temperature, the dropping massfraction is 30% hydrochloric acid, is acidified to ph=1.Suction filtration; Filter cake washing 2 times; Obtain light yellow or the white solid product; Use ethanol-10 ℃ of crystallizations again, obtain 167g
Figure BDA0000109686010000123
In the 250ml four-hole bottle; Add 0.1mol
Figure BDA0000109686010000131
100ml methylene dichloride; Triethylamine 0.15mol; 2,6-toluene di-tert-butyl phenol 0.3g.Stir, temperature is controlled at 0~10 ℃, drips acrylate chloride.Add the back and under this temperature, be incubated 5h again.Then, add 100ml water, stir 10min.Separatory, washing organic phase 3 times.Use anhydrous sodium sulfate drying; The solvent evaporate to dryness obtains
Figure BDA0000109686010000132
and records the high-efficient liquid phase color spectral purity: 95%, and yield 90%.
(2) synthetic
Figure BDA0000109686010000133
midbody
Figure BDA0000109686010000134
Be furnished with mechanical stirring, in the 2L four-hole bottle of condensing surface, dropping into PARA HYDROXY BENZALDEHYDE 122g (1mol), 3-propylene chlorohydrin 103.4g (1.1mol), potassiumiodide 25g (0.15mol), sodium hydroxide 44g (1.1mol), ethanol 500ml, water 500ml.Heated and stirred then, temperature is controlled at 80~90 ℃, is incubated 36h after the gentle reflux.Middle control reaction finishes, and earlier ethanol is steamed, and adds 400ml water again.Reduce to room temperature, the dropping massfraction is 30% hydrochloric acid, is acidified to ph=6.Suction filtration, filter cake washing 2 times obtains light yellow or the white solid product, 50 ℃ of oven dry of product.
In the solid of oven dry, add methylene dichloride 500ml, vinylformic acid 93.6g (1.3mol), DCC268g (1.3mol) .DMAP0.5g, stirring at room insulation 12h.Middle control is reacted the suction filtration that finishes and is leached solid.Filtrating 1.5L washes once, drying, and evaporate to dryness adding toluene is crossed silicagel column once then.Use 700ml ethanol freezing and crystallizing once, oven dry obtains 164g white solid
Figure BDA0000109686010000135
HPLC:96.3%.
In the 250Ml reaction flask; Add
Figure BDA0000109686010000136
23.4g (0.1mol), THF50ml, ethanol 50ml; Stir; Reduce to 0 ℃, drip and contain POTASSIUM BOROHYDRIDE 97MIN 5.4g (0.1mol) the 30ml aqueous solution, add and rise to stirring at room 4h.Dropwise 5 % Hydrogen chloride stirs 10min to ph=3.Add water 300ml, methylene dichloride 100ml extracts product.Organic phase washing 3 times, drying, solvent evaporated obtains white solid.50 ℃ of oven dry obtain 22.6g
Figure BDA0000109686010000141
HPLC:96.9%.
In the 250Ml reaction flask; Add compound
Figure BDA0000109686010000142
23.6g (0.1mol) and
Figure BDA0000109686010000143
18g (0.11mol); Methylene dichloride 100ml; DCC26.8g (0.13mol); DMAP0.1g; Stirring at room reaction 12h, middle control is reacted the suction filtration that finishes and is leached solid.Filtrating 150ml washes once, drying, and evaporate to dryness adding toluene is crossed silicagel column once then.Solvent evaporated obtains 31.7g light yellow solid
Figure BDA0000109686010000144
HPLC:95.6%.
In the 250Ml reaction flask; Add
Figure BDA0000109686010000145
0.1mol, THF50ml, ethanol 50ml; Stir; Reduce to 0 ℃, drip the 30ml aqueous solution that contains POTASSIUM BOROHYDRIDE 97MIN 5.4g (0.1mol), add and rise to stirring at room 4h.Dropwise 5 % Hydrogen chloride stirs 10min to pH=3.Add water 300ml, methylene dichloride 100ml extracts product.Organic phase washing 3 times; Dry; Solvent evaporated; Obtain white solid, 50 ℃ of oven dry obtain 33.7g HPLC:96.8%.
(3) synthetic title product
Figure BDA0000109686010000147
In reaction flask, add 150ml methylene dichloride, 0.068mol 0.068mol
Figure BDA0000109686010000151
DMAP 0.5g, stir.At 20~30 ℃, add DCC21.1g (0.1mol), temperature control 20-30 ℃ and be incubated more than the 12h.Middle control is reacted the suction filtration that finishes and is leached solid.Filtrating 150ml washes once, drying, and evaporate to dryness adding toluene is crossed silicagel column once then.Use 1 times of toluene and twice crystallization of 3 times of ethanol freezing and crystallizings to obtain 25.1g white plates crystal, i.e. title product then.HPLC:97.24%。
Through 1The HMR method characterizes institute's synthetic compound, to confirm its structure.
1H?NMR(400MHz,DMSO-d6,ppm)δ H:1.99(4H,-CH2-),3.51(4H,-CH2-),3.94(4H),4.15(4H),5.34(4H),5.80(2H),6.05(2H),6.43(2H),6.65(2H,J=7.26Hz),6.70(2H,J=7.26Hz),6.95(2H,J=7.26Hz),6.99(2H,J=7.26Hz),7.07(2H,J=7.26Hz),7.08(2H,J=7.26Hz)。
Embodiment 2
Synthetic
Figure BDA0000109686010000152
Present embodiment adopts the compound method of embodiment 1; Be with the difference of embodiment 1: p-hydroxyphenylaceticacid and 3-propylene chlorohydrin are incubated 40h in the step (1) after 80~90 ℃ of gentle reflux; Acid binding agent triethylamine in the step (1) is changed to pyridine,
Figure BDA0000109686010000155
in embodiment 1 step (2) is changed to
Figure BDA0000109686010000156
with
Figure BDA0000109686010000153
in embodiment 1 step (2) is changed to
Figure BDA0000109686010000154
Embodiment 3
Synthetic
Figure BDA0000109686010000157
Present embodiment adopts the compound method of embodiment 1 and the difference of embodiment 1 to be:
Figure BDA0000109686010000158
among the embodiment 1 is changed to
Embodiment 4:
Synthetic
Figure BDA0000109686010000161
Present embodiment adopts the compound method of embodiment 1 and the difference of embodiment 1 to be:
Figure BDA0000109686010000164
is changed to
Figure BDA0000109686010000165
Figure BDA0000109686010000166
is changed to
Figure BDA0000109686010000167
Figure BDA0000109686010000162
among the embodiment 1 is changed to
Figure BDA0000109686010000163
Embodiment 5
Synthetic
Figure BDA0000109686010000168
Present embodiment adopts the compound method of embodiment 1 and the difference of embodiment 1 to be: in the step (2) is changed to with
Figure BDA0000109686010000169
in embodiment 1 step (1) is changed to
Figure BDA00001096860100001610
Embodiment 6
Synthetic
Figure BDA00001096860100001613
Present embodiment adopts the compound method of embodiment 1 and the difference of embodiment 1 to be:
Figure BDA00001096860100001614
in embodiment 1 step (2) is changed to
Figure BDA00001096860100001615
is changed to
Embodiment 7
Synthetic
Figure BDA0000109686010000171
Present embodiment adopts the compound method of embodiment 1 and the difference of embodiment 1 to be:
Figure BDA0000109686010000172
in embodiment 1 step (1) is changed to
Embodiment 8
Synthetic
Present embodiment adopts the compound method of embodiment 1 and the difference of embodiment 1 to be: with in embodiment 1 step (2) Be changed to Cl-C 18H 36-OH.
Embodiment 9
Synthetic
Figure BDA0000109686010000176
Present embodiment adopts the compound method of embodiment 1 and the difference of embodiment 1 to be: in the step (2) is changed to
Figure BDA00001096860100001710
with
Figure BDA0000109686010000177
in embodiment 1 step (1) is changed to
Figure BDA0000109686010000178
Embodiment 10
Synthetic
Present embodiment adopts the compound method of embodiment 1 and the difference of embodiment 1 to be: in the step (2) is changed to with in embodiment 1 step (1) is changed to
Figure BDA0000109686010000182
Embodiment 11
Synthetic
Figure BDA0000109686010000185
Present embodiment adopts the compound method of embodiment 1 and the difference of embodiment 1 to be:
Figure BDA0000109686010000188
in the step (2) is changed to
Figure BDA0000109686010000189
with
Figure BDA0000109686010000186
in embodiment 1 step (1) is changed to
Figure BDA0000109686010000187
Embodiment 12
Synthetic
Figure BDA00001096860100001810
Present embodiment adopts the compound method of embodiment 1 and the difference of embodiment 1 to be:
Figure BDA00001096860100001813
in the step (2) is changed to with in embodiment 1 step (1) is changed to
Figure BDA00001096860100001812
Embodiment 13
Synthetic
Figure BDA00001096860100001815
Synthetic route:
Figure BDA0000109686010000191
Be furnished with mechanical stirring, in the 2L four-hole bottle of condensing surface, dropping into p methoxy phenol (1mol), 3-propylene chlorohydrin 103.4g (1.1mol), potassiumiodide 25g (0.15mol), sodium hydroxide 44g (1.1mol), ethanol 500ml, water 500ml.Heated and stirred then, temperature is controlled at 80~90 ℃, is incubated 36h after the gentle reflux.Middle control reaction finishes, and earlier ethanol is steamed, and adds 400ml water again.Reduce to room temperature, the dropping massfraction is 30% hydrochloric acid, is acidified to ph=6.Suction filtration, filter cake washing 2 times obtains light yellow or the white solid product, 50 ℃ of oven dry of product.
In the solid of oven dry, add methylene dichloride 500ml, vinylformic acid 93.6g (1.3mol), DCC 268g (1.3mol), DMAP0.5g, stirring at room insulation 12h.Middle control is reacted the suction filtration that finishes and is leached solid.Filtrating 1.5L washes once, drying, and evaporate to dryness adding toluene is crossed silicagel column once then.Use 700ml ethanol freezing and crystallizing once, oven dry obtains 165g white solid
Figure BDA0000109686010000192
HPLC:96.4%.
In reaction flask, add 38.5g compound
Figure BDA0000109686010000193
methyl-phenoxide 200ml; Stir; Be cooled to 0 ℃; Slowly add the 26.6g aluminum chloride, stir 1h, rise to stirring at room 2h then.Add 150ml5% Hydrogen chloride hydrolysis 30min.Separatory; Washing methyl-phenoxide layer is to neutral; Anhydrous sodium sulfate drying; Solvent evaporated obtains red solid
Figure BDA0000109686010000194
26.5g, HPLC91.3%
In the 250ML reaction flask; Add compound
Figure BDA0000109686010000201
0.1mol and
Figure BDA0000109686010000202
0.11mol; Methylene dichloride 100ml; DCC26.8g (0.13mol); DMAP0.1g; Stirring at room reaction 12h, middle control is reacted the suction filtration that finishes and is leached solid.Filtrating 150ml washes once, drying, and evaporate to dryness adding toluene is crossed silicagel column once then.Solvent evaporated obtains 29.5g light yellow solid
Figure BDA0000109686010000203
HPLC:95.7%.
In the 250Ml reaction flask; Add
Figure BDA0000109686010000204
0.1mol, THF50ml, ethanol 50ml; Stir; Reduce to 0 ℃, drip and contain POTASSIUM BOROHYDRIDE 97MIN 5.4g (0.1mol) the 30ml aqueous solution, add and rise to stirring at room 4h.Dropwise 5 % Hydrogen chloride stirs 10min to ph=3.Add water 300ml, methylene dichloride 100ml extracts product.Organic phase washing 3 times; Dry; Solvent evaporated; Obtain white solid, 50 ℃ of oven dry obtain 32.1g HPLC:96.9%.
In reaction flask, add 0.068mol
Figure BDA0000109686010000206
150ml methylene dichloride, 0.068mol
Figure BDA0000109686010000207
DMAP 0.5g, stir.At 20~30 ℃, add DCC21.1g (0.1mol), temperature control 20-30 ℃ and be incubated more than the 12h.Middle control is reacted the suction filtration that finishes and is leached solid.Filtrating 150ml washes once, drying, and evaporate to dryness adding toluene is crossed silicagel column once then.Use 1 times of toluene and twice crystallization of 3 times of ethanol freezing and crystallizings to obtain 24.6g white plates crystal
Figure BDA0000109686010000208
HPLC:97.35% then.
Through 1The HMR method characterizes institute's synthetic compound, to confirm its structure.
1H?NMR(400MHz,DMSO-d6,ppm)δ H:1.99(4H,-CH2-),3.51(2H,-CH2-),3.94(4H),4.15(4H),5.34(2H),5.80(2H,J=5.25Hz),6.05(2H,J=5.25Hz),6.43(2H,J=5.25Hz),6.65(2H,J=7.26Hz),6.84(2H,J=7.26Hz),6.95(2H,J=7.26Hz),7.04(2H,J=7.26Hz),7.34(2H,J=7.26Hz),8.07(2H,J=7.26Hz)。
Embodiment 14
Synthetic
Figure BDA0000109686010000211
Present embodiment adopts the compound method of embodiment 13 and the difference of embodiment 13 to be:
Figure BDA0000109686010000212
is changed to
Figure BDA0000109686010000213
Embodiment 15
Synthetic
Figure BDA0000109686010000214
Present embodiment adopts the compound method of embodiment 13 and the difference of embodiment 13 to be:
Figure BDA0000109686010000215
is changed to
Figure BDA0000109686010000216
be changed to
Figure BDA0000109686010000217
and be changed to
Embodiment 16
Synthetic
Present embodiment adopts the compound method of embodiment 13 and the difference of embodiment 13 to be:
Figure BDA00001096860100002110
is changed to is changed to
Figure BDA0000109686010000221
Embodiment 17
Synthetic
Figure BDA0000109686010000222
Present embodiment adopts the compound method of embodiment 13 and the difference of embodiment 13 to be:
Figure BDA0000109686010000223
is changed to
Figure BDA0000109686010000224
Embodiment 18
Synthetic
Figure BDA0000109686010000225
Present embodiment adopts the compound method of embodiment 13 and the difference of embodiment 13 to be:
Figure BDA0000109686010000226
is changed to
Figure BDA0000109686010000227
Embodiment 19
Synthetic
Figure BDA0000109686010000228
(1) synthetic intermediate
Figure BDA0000109686010000231
In the 250ML reaction flask; Add compound 0.1mol
Figure BDA0000109686010000232
and 0.11mol
Figure BDA0000109686010000233
methylene dichloride 100ml; DCC26.8g (0.13mol); DMAP0.1g; Stirring at room reaction 12h, middle control is reacted the suction filtration that finishes and is leached solid.Filtrating 150ml washes once, drying, and evaporate to dryness adding toluene is crossed silicagel column once then.Solvent evaporated obtains 36.5g light yellow solid
Figure BDA0000109686010000234
HPLC:96.7%.
In reaction flask, add 36.5g compound
Figure BDA0000109686010000235
methyl-phenoxide 100ml; Stir; Be cooled to 0 ℃; Slowly add the 13.5g aluminum chloride, stir 1.5h, rise to room temperature then.Add 100ml 5% Hydrogen chloride hydrolysis 10min.Separatory; Washing methyl-phenoxide layer is to neutral; Anhydrous sodium sulfate drying; Solvent evaporated obtains red solid 25.2g, HPLC:93.2%.
(2) synthetic intermediate
Figure BDA0000109686010000237
Figure BDA0000109686010000238
Be furnished with mechanical stirring, in the 2L four-hole bottle of condensing surface, dropping into PHB 1mol, 3-propylene chlorohydrin 1.1mol, potassiumiodide 0.15mol, sodium hydroxide 2.1mol, ethanol 500ml, water 500ml.Heated and stirred then, temperature is controlled at 80~90 ℃, is incubated 36h after the gentle reflux.Middle control reaction finishes, and earlier ethanol is steamed, and adds 400ml water again.Reduce to room temperature, the dropping massfraction is 30% hydrochloric acid, is acidified to ph=1.Suction filtration; Filter cake washing 2 times; Obtain light yellow or the white solid product; Use ethanol-10 ℃ of crystallizations again, obtain 166.2g
Figure BDA0000109686010000241
yield 84.7%.
In the 250ml four-hole bottle; Add 0.1mol
Figure BDA0000109686010000242
100ml methylene dichloride; Triethylamine 0.15mol; 2,6-toluene di-tert-butyl phenol 0.3g.Stir, temperature is controlled at 0~10 ℃, drips acrylate chloride.Add the back and under this temperature, be incubated 5h again.Then, add 100ml water, stir 10min.Separatory, washing organic phase 3 times.Use anhydrous sodium sulfate drying; The solvent evaporate to dryness obtains
Figure BDA0000109686010000243
and records the high-efficient liquid phase color spectral purity: 95%, and yield 90%.
(3) synthetic title product:
Figure BDA0000109686010000244
In reaction flask, add 0.068mol
Figure BDA0000109686010000245
150ml methylene dichloride, 0.068mol DMAP 0.5g, stir.At 20~30 ℃, add DCC21.1g (0.1mol), temperature control 20-30 ℃ and be incubated more than the 12h.Middle control is reacted the suction filtration that finishes and is leached solid.Filtrating 150ml washes once, drying, and evaporate to dryness adding toluene is crossed silicagel column once then.Use 1 times of toluene and twice crystallization of 3 times of ethanol freezing and crystallizings to obtain 36.2g white plates crystal then
Figure BDA0000109686010000247
HPLC:97.24%, DSC detects Mp:56.2 ℃.
Embodiment 20
Figure BDA0000109686010000251
Present embodiment adopts the compound method of embodiment 19 and the difference of embodiment 19 to be:
Figure BDA0000109686010000252
in embodiment 19 steps (2) is changed to
Figure BDA0000109686010000253
Embodiment 21
Synthetic
Figure BDA0000109686010000254
Present embodiment adopts the compound method of embodiment 19 and the difference of embodiment 19 to be:
Figure BDA0000109686010000255
in embodiment 19 steps (1) is changed to
Figure BDA0000109686010000256
Embodiment 22
Synthetic
Figure BDA0000109686010000257
Present embodiment adopts the compound method of embodiment 19 and the difference of embodiment 19 to be:
Figure BDA00001096860100002510
in the step (2) is changed to
Figure BDA00001096860100002511
with
Figure BDA0000109686010000258
in embodiment 19 steps (1) is changed to
Figure BDA0000109686010000259
Embodiment 23
Synthetic
Figure BDA00001096860100002512
Present embodiment adopts the compound method of embodiment 19 and the difference of embodiment 19 to be:
Figure BDA0000109686010000261
in embodiment 19 steps (2) is changed to
Figure BDA0000109686010000262
HPLC:97.24%, DSC detect Mp:56.26~61.03 ℃.
Embodiment 24
Synthetic
Figure BDA0000109686010000263
Present embodiment adopts the compound method of embodiment 19; Be with the difference of embodiment 19:
Figure BDA0000109686010000264
in embodiment 19 steps (2) is changed to
Figure BDA0000109686010000265
Figure BDA0000109686010000266
is changed to
Figure BDA0000109686010000267
HPLC:93.4%, DSC detects Mp:45.37~50.26 ℃.
Embodiment 25
Synthetic
Figure BDA0000109686010000268
Present embodiment adopts the compound method of embodiment 19 and the difference of embodiment 19 to be:
Figure BDA00001096860100002611
in the step (2) is changed to with
Figure BDA0000109686010000269
in embodiment 19 steps (1) is changed to
Figure BDA00001096860100002610
HPLC:95.24%, DSC detect Mp:50.56~53.32 ℃.
Embodiment 26
Synthetic
Figure BDA00001096860100002613
Present embodiment adopts the compound method of embodiment 19; Be with the difference of embodiment 19: be changed to
Figure BDA0000109686010000275
HPCL:97.4% with
Figure BDA0000109686010000273
is changed to
Figure BDA0000109686010000274
in the step (2) with
Figure BDA0000109686010000271
in embodiment 19 steps (1) is changed to , DSC detects Mp:56.59~58.81 ℃
Embodiment 27:
Synthetic
Figure BDA0000109686010000276
Present embodiment adopts the compound method of embodiment 19 and the difference of embodiment 19 to be:
Figure BDA0000109686010000277
in embodiment 19 steps (2) is changed to
Figure BDA0000109686010000278
DSC detects Mp:50.2 ℃.
Embodiment 28:
Synthetic
Figure BDA0000109686010000279
Present embodiment adopts the compound method of embodiment 19 and the difference of embodiment 19 to be: be changed to
Figure BDA00001096860100002713
DSC and detect Mp:56.6 ℃
Figure BDA00001096860100002710
in embodiment 19 steps (1) is changed in
Figure BDA00001096860100002711
step (2)
Figure BDA00001096860100002712
.
Embodiment 29
Synthetic
Figure BDA00001096860100002714
Present embodiment adopts the compound method of embodiment 19 and the difference of embodiment 19 to be: in embodiment 19 steps (1) is changed to
Figure BDA0000109686010000282
Embodiment 30
Synthetic
(1) preparation
Figure BDA0000109686010000284
Figure BDA0000109686010000285
In the reaction flask that nitrogen protection device is housed, drop into, bromo chloromethyl ether phosphonium salt 41.1g, THF100ml is cooled to 0 ℃, and nitrogen protection adds the 16.5g potassium tert.-butoxide down, 0 ℃ of insulation 1h.17.8g
Figure BDA0000109686010000286
is dissolved among the 50mlTHF; Temperature control is lower than 10 ℃; Drip to reaction flask, rise to room temperature behind the stirring 2h.Add 300ml water, the 300ml petroleum ether and stirring is extracted product.Washing organic layer 2 times behind the anhydrous sodium sulfate drying, is crossed silicagel column, and sherwood oil is towards post.Solvent evaporated obtains white solid
Figure BDA0000109686010000287
GC 85.5%.
is dissolved in 100THF with above-mentioned solid; Add 5% hydrochloric acid 20ml, reflux 3h.Hydrolysis finishes.Reduce to room temperature, add water 200ml, ETHYLE ACETATE 150ml extracts product.The washing ethyl acetate layer is to neutral, and anhydrous sodium sulfate drying spends the night.Solvent evaporated gets light yellow solid compound 18.1g
Figure BDA0000109686010000289
GC 92.4%.
The compound method of product obtains
Figure BDA00001096860100002810
GC:93.6% according to two step of front.
(2) preparation title product
Figure BDA0000109686010000291
In reaction flask; Add 3.1g magnesium powder; THF50ml splashes into 1g
Figure BDA0000109686010000292
and adds initiation reaction.After to be triggered; 28g is dissolved in 50mlTHF, slowly splashes in the reaction flask at 10~20 ℃.Stirring at room 1h then.
Figure BDA0000109686010000294
21g is dissolved in 50ml toluene, drops in the reaction flask at 20~30 ℃.Add stirring at room 5h.Then reaction solution is poured in the frozen water that 150ml contains 5% hydrochloric acid into low temperature hydrolysis 5min.Add 150ml methylbenzene extraction product.The toluene layer washing is extremely neutral.
In the toluene feed liquid, add the 1g p-methyl benzenesulfonic acid, 10ml terepthaloyl moietie adds reflux dewatering 7h.Reaction finishes, and reduces to room temperature, adds the 5g sodium hydrogencarbonate, and the 200ml washing is to neutral.The toluene feed liquid is crossed direct silicagel column once, solvent evaporated.Use 3 times of ethanol freezing and crystallizings, obtain 29.1g white crystal compound
Figure BDA0000109686010000295
GC 98.7%.
29.1g
Figure BDA0000109686010000296
is dissolved in 100ml ethanol and the 50ml toluene; Add 1.5g 5%Pd/C; Nitrogen replacement 3 times; Hydrogen exchange 3 times, 30 ℃ of atmospheric hydrogenation 16h.Reaction finishes, filtration catalizer, evaporate to dryness alcohol solvent.Add 2 times of ethanol freezing and crystallizings and obtain 23.5g white crystal
Figure BDA0000109686010000301
GC99.6%
Is being furnished with mechanical stirring; In the 2L four-hole bottle of condensing surface, drop into
Figure BDA0000109686010000302
(1mol), 3-propylene chlorohydrin 103.4g (1.1mol); Potassiumiodide 25g (0.15mol); Sodium hydroxide 44g (1.1mol), ethanol 500ml, water 500ml.Heated and stirred then, temperature is controlled at 80~90 ℃, is incubated 36h after the gentle reflux.Middle control reaction finishes, and earlier ethanol is steamed, and adds 400ml water again.Reduce to room temperature, the dropping massfraction is 30% hydrochloric acid, is acidified to ph=6.Suction filtration, filter cake washing 2 times obtains white solid, in 50 ℃ of oven dry.In the solid leukoplast of oven dry, add methylene dichloride 500ml, vinylformic acid 93.6g (1.3mol), DCC 268g (1.3mol), DMAP0.5g, stirring at room insulation 12h.Middle control is reacted the suction filtration that finishes and is leached solid.Filtrating 1.5L washes once, drying, and evaporate to dryness adding toluene is crossed silicagel column once then.Use 700ml ethanol freezing and crystallizing once, oven dry obtains 164g white solid HPLC:96.3%.
In reaction flask, add 20g
Figure BDA0000109686010000304
50ml methylene dichloride; 100ml concentration is 80% formic acid; Reflux 3h, reaction finishes.Reducing to room temperature adds the 50ml methylene dichloride again and stirs.Behind the separatory dichloromethane layer is washed till neutrality with 5% sodium bicarbonate water; Solvent evaporated obtains light yellow solid
Figure BDA0000109686010000305
18.9g, GC95.6%.
In the 250Ml reaction flask; Add 0.1mol THF50ml; Ethanol 50ml stirs, and reduces to 0 ℃; Dropping contains POTASSIUM BOROHYDRIDE 97MIN 5.4g (0.1mol) the 30ml aqueous solution, adds and rises to stirring at room 4h.Dropwise 5 % Hydrogen chloride stirs 10min to ph=3.Add water 300ml, methylene dichloride 100ml extracts product.Organic phase washing 3 times; Dry; Solvent evaporated; Obtain white solid, 50 ℃ of oven dry obtain 22.6g
Figure BDA0000109686010000307
HPLC:96.9%.
In reaction flask, add 0.068mol
Figure BDA0000109686010000311
150ml methylene dichloride, 0.068mol
Figure BDA0000109686010000312
DMAP0.5g, stir.At 20~30 ℃, add DCC21.1g (0.1mol), temperature control 20-30 ℃ and be incubated more than the 12h.Middle control is reacted the suction filtration that finishes and is leached solid.Filtrating 150ml washes once, drying, and evaporate to dryness adding toluene is crossed silicagel column once then.Use 1 times of toluene and twice crystallization of 3 times of ethanol freezing and crystallizings to obtain 25.2g white crystal
Figure BDA0000109686010000313
HPLC:95.1% then.
Through 1The HMR method characterizes institute's synthetic compound, to confirm its structure.
1H?NMR(400MHz,DMSO-d6,ppm)δ H:1.62(2H,-CH2-),1.99(4H,-CH2-),2.55(2H,-CH2-),3.51(2H,-CH2-),3.94(4H),4.15(4H),5.34(2H),5.80(2H,J=5.25Hz),6.05(2H,J=5.25Hz),6.43(2H,J=5.25Hz),6.65(2H,J=7.26Hz),6.72(2H,J=7.26Hz),6.95(2H,J=7.26Hz),7.01(2H,J=7.26Hz),7.05(2H,J=7.26Hz),7.14(2H,J=7.26Hz)。
Embodiment 31
Synthetic
Figure BDA0000109686010000314
Present embodiment adopts the compound method of embodiment 24; Be with the difference of embodiment 24: omit the step (1) among the embodiment 24; Be raw material directly,
Figure BDA0000109686010000316
in the step (2) among the embodiment 12 changed into can obtain title product with
Figure BDA0000109686010000315
.
Embodiment 32
Synthetic
Figure BDA0000109686010000318
Present embodiment adopts the compound method of embodiment 24 and the difference of embodiment 24 to be:
Figure BDA0000109686010000321
in the step (2) is changed to is changed to
Figure BDA0000109686010000323
Embodiment 33
Synthetic
Figure BDA0000109686010000324
Present embodiment adopts the compound method of embodiment 24; Be with the difference of embodiment 24: omit the step (1) among the embodiment 24; Be raw material directly,
Figure BDA00001096860100003210
in the step (2) be changed to
Figure BDA00001096860100003211
with
Figure BDA0000109686010000328
in the step (2) is changed to
Figure BDA0000109686010000329
with
Figure BDA0000109686010000326
in the step (2) among the embodiment 12 changes
Figure BDA0000109686010000327
into
Figure BDA0000109686010000325
Embodiment 34
Synthetic
Figure BDA00001096860100003212
Present embodiment adopts the compound method of embodiment 24 and the difference of embodiment 24 to be:
Figure BDA00001096860100003215
in the step (2) is changed to
Figure BDA00001096860100003216
with in the step (1) is changed to
Figure BDA00001096860100003214
Embodiment 35
Synthetic
Figure BDA0000109686010000331
Present embodiment adopts the compound method of embodiment 24 and the difference of embodiment 24 to be:
Figure BDA0000109686010000334
in the step (2) is changed to
Figure BDA0000109686010000335
with
Figure BDA0000109686010000332
in the step (1) is changed to
Figure BDA0000109686010000333
Embodiment 36
Synthetic
Present embodiment adopts the compound method of embodiment 19 and the difference of embodiment 19 to be: in embodiment 19 steps (1) is changed to that
Figure BDA0000109686010000338
Figure BDA0000109686010000339
is changed to
Figure BDA00001096860100003310
step (2)
Figure BDA00001096860100003311
is changed to be changed to
Figure BDA00001096860100003313
Embodiment 37
Synthetic
Figure BDA00001096860100003314
Present embodiment adopts the compound method of embodiment 19 and the difference of embodiment 19 to be:
Figure BDA0000109686010000341
in embodiment 19 steps (1) is changed to that
Figure BDA0000109686010000342
Figure BDA0000109686010000343
is changed to
Figure BDA0000109686010000344
step (2)
Figure BDA0000109686010000345
is changed to
Figure BDA0000109686010000346
be changed to
Figure BDA0000109686010000347
HPLC97.4%, DSC detects mp:69.15-71.87 ℃.
Embodiment 38
Present embodiment adopts the compound method of embodiment 1; Be with the difference of embodiment 1:
Figure BDA0000109686010000348
among the embodiment 1 is changed to following raw material respectively, obtains different title products:
Figure BDA0000109686010000349
Figure BDA0000109686010000351
Embodiment 39
Present embodiment adopts the compound method of embodiment 13; Be with the difference of embodiment 13:
Figure BDA0000109686010000352
is changed to following raw material, obtained different products respectively:
Figure BDA0000109686010000353
Figure BDA0000109686010000361
Embodiment 40
This experimental example adopts the compound method of embodiment 19; Be with the difference of embodiment 19: in embodiment 19 steps (1) is changed to following raw material, obtained different products respectively:
Figure BDA0000109686010000363
Figure BDA0000109686010000371
Embodiment 41
Method according to embodiment 34; Be with the difference of embodiment 34:
Figure BDA0000109686010000372
changed into following raw material, obtained different title products respectively:
Figure BDA0000109686010000373
Figure BDA0000109686010000381

Claims (19)

1. novel polymerizable liquid crystalline cpd, its general formula is:
Figure FDA0000109686000000011
Wherein, A1, A2 do respectively independently
Figure FDA0000109686000000012
Q1, Q2 be respectively independently-H or-CH 3
B 1For-(CH 2) m-or-CH 2(CF 2) mCH 2-, m=2~18 wherein;
B 2For-(CH 2) n-or-CH 2(CF 2) nCH 2-, n=2~18 wherein;
C1, C2 do respectively independently
Figure FDA0000109686000000013
R 1~R 4Respectively be independently-H ,-F ,-the straight chain alkoxyl group of Cl, the straight chained alkyl of 1~7 carbon, 1~7 carbon, cyanic acid ,-CF 3Or-OCF 3
D1 is
Figure FDA0000109686000000014
D2 does
Figure FDA0000109686000000015
Figure FDA0000109686000000016
Or-C 2H 4-, or-C 4H 8-;
E does
Figure FDA0000109686000000017
R wherein 5~R 8Respectively be independently-H ,-F ,-the straight chain alkoxyl group of Cl, the straight chained alkyl of 1~7 carbon, 1~7 carbon ,-CN ,-CF 3, or-OCF 3
2. novel polymerizable liquid crystalline cpd according to claim 1 is characterized in that, said general formula is (Ia):
Figure FDA0000109686000000018
Wherein, A1, A2 do respectively independently
Figure FDA0000109686000000019
Q1, Q2 be respectively independently-H or-CH 3
B 1For-(CH 2) m-or-CH 2(CF 2) mCH 2-, m=2~18 wherein;
B 2For-(CH 2) n-or-CH 2(CF 2) nCH 2-, n=2~18 wherein;
C1, C2 do respectively independently
Figure FDA0000109686000000021
R 1~R 4Respectively be independently-H ,-F ,-the straight chain alkoxyl group of Cl, the straight chained alkyl of 1~7 carbon, 1~7 carbon, cyanic acid ,-CF 3Or-OCF 3
D1 is
D2 is
Figure FDA0000109686000000023
E does
Figure FDA0000109686000000024
R wherein 5~R 8Respectively be independently-H ,-F ,-the straight chain alkoxyl group of Cl, the straight chained alkyl of 1~7 carbon, 1~7 carbon ,-CN ,-CF 3, or-OCF 3
3. novel polymerizable liquid crystalline cpd according to claim 2 is characterized in that, in the said general formula (Ia):
A1, A2 are
Figure FDA0000109686000000025
, and wherein Q1, Q2 are-H;
B 1For-(CH 2) m-, m=3 or 6 wherein;
B 2For-(CH 2) n-, n=3 or 6 wherein;
C1, C2 do
Figure FDA0000109686000000026
R wherein 1~R 4For-H;
E does
Figure FDA0000109686000000027
R wherein 5~R 8Respectively be independently-H ,-F ,-Cl, methyl, cyanic acid.
4. novel polymerizable liquid crystalline cpd according to claim 3 is characterized in that, in the said general formula (Ia):
M and n are 3 or 6 simultaneously;
C1, C2 do
Figure FDA0000109686000000028
R wherein 1~R 4For-H;
E does
Figure FDA0000109686000000031
R wherein 5~R 8Be divided into-H.
5. the preparation method of a claim 2,3 or 4 described liquid crystalline cpds is characterized in that said preparation method may further comprise the steps:
(1) preparation midbody
Figure FDA0000109686000000032
Figure FDA0000109686000000033
(2) preparation midbody
Figure FDA0000109686000000034
Figure FDA0000109686000000035
(3) preparation
Figure FDA0000109686000000036
Figure FDA0000109686000000037
Wherein: when i is 0 or 1, j is 0 or 1; When i was 0, j was 1; When i was 1, j was 0.
6. preparation method according to claim 5 is characterized in that, in the step (1),
Cl-B 1-OH with The condition of reaction be: catalyzer is a potassiumiodide, and solvent is the second alcohol and water, and temperature of reaction is 80~90 ℃, 30~40 hours reaction times.
7. preparation method according to claim 5 is characterized in that, in the step (1),
Figure FDA0000109686000000042
And A 1The condition of-Cl reaction is: in dichloromethane solvent, add
Figure FDA0000109686000000043
Acid binding agent and stopper stir, and under 0~10 ℃ of condition, drip A 1-Cl adds back insulation 5 hours, obtains
Figure FDA0000109686000000044
Said acid binding agent is nitrogenous amine or nitrogen heterocyclic ring compounds, is preferably pyridine and triethylamine, and said stopper is preferably 2, the 6-toluene di-tert-butyl phenol.
8. novel polymerizable liquid crystalline cpd according to claim 1 is characterized in that, said general formula is (Ib):
Figure FDA0000109686000000045
Wherein, A1, A2 do respectively independently
Figure FDA0000109686000000046
Q1, Q2 be respectively independently-H or-CH 3
B 1For-(CH 2) m-or-CH 2(CF 2) mCH 2-, m=2~18 wherein;
B 2For-(CH 2) n-or-CH 2(CF 2) nCH 2-, n=2~18 wherein;
C1, C2 do respectively independently
Figure FDA0000109686000000047
R 1~R 4Respectively be independently-H ,-F ,-the straight chain alkoxyl group of Cl, the straight chained alkyl of 1~7 carbon, 1~7 carbon, cyanic acid ,-CF 3Or-OCF 3
D1 is
Figure FDA0000109686000000048
D2 is
Figure FDA0000109686000000051
E does
Figure FDA0000109686000000052
R 5~R 8Respectively be independently-H ,-F ,-the straight chain alkoxyl group of Cl, the straight chained alkyl of 1~7 carbon, 1~7 carbon ,-CN ,-CF 3, or-OCF 3
9. novel polymerizable liquid crystalline cpd according to claim 8 is characterized in that, in the said general formula (Ib):
A1, A2 are
Figure FDA0000109686000000053
, and wherein Q1, Q2 are-H;
B 1For-(CH 2) m-, m=3 or 6 wherein;
B 2For-(CH 2) n-, n=3 or 6 wherein;
C1, C2 do
Figure FDA0000109686000000054
R wherein 1~R 4For-H;
E does
Figure FDA0000109686000000055
R wherein 5~R 8Respectively be independently-H ,-F ,-Cl, methyl, cyanic acid.
10. novel polymerizable liquid crystalline cpd according to claim 9 is characterized in that, in the said general formula (Ib):
M and n are 3 or 6 simultaneously;
C1, C2 do
Figure FDA0000109686000000056
R wherein 1~R 4For-H;
E does
Figure FDA0000109686000000057
R wherein 5~R 8Be divided into-H.
11. the preparation method of a claim 8,9 or 10 described liquid crystalline cpds is characterized in that said preparation method may further comprise the steps:
Wherein: x is 0 or 2.
12. novel polymerizable liquid crystalline cpd according to claim 1 is characterized in that, said structural formula is (Ic):
Figure FDA0000109686000000062
Wherein, A1, A2 do respectively independently
Figure FDA0000109686000000063
Q1, Q2 be respectively independently-H or-CH 3
B 1For-(CH 2) m-or-CH 2(CF 2) mCH 2-, m=2~18 wherein;
B 2For-(CH 2) n-or-CH 2(CF 2) nCH 2-, n=2~18 wherein;
C1, C2 do respectively independently
Figure FDA0000109686000000064
R 1~R 4Respectively be independently-H ,-F ,-the straight chain alkoxyl group of Cl, the straight chained alkyl of 1~7 carbon, 1~7 carbon, cyanic acid ,-CF 3Or-OCF 3
D1 is
Figure FDA0000109686000000065
D2 is
Figure FDA0000109686000000066
E does R 5~R 8Respectively be independently-H ,-F ,-the straight chain alkoxyl group of Cl, the straight chained alkyl of 1~7 carbon, 1~7 carbon ,-CN ,-CF 3, or-OCF 3
13. novel polymerizable liquid crystalline cpd according to claim 12 is characterized in that, in the said general formula (Ic):
A1, A2 are
Figure FDA0000109686000000071
, and wherein Q1, Q2 are-H;
B 1For-(CH 2) m-, m=3 or 6 wherein;
B 2For-(CH 2) n-, n=3 or 6 wherein;
C1, C2 do
Figure FDA0000109686000000072
R wherein 1~R 4For-H;
E does
Figure FDA0000109686000000073
R wherein 5~R 8Respectively be independently-H ,-F ,-Cl, methyl, cyanic acid.
14. novel polymerizable liquid crystalline cpd according to claim 13 is characterized in that, in the said general formula (Ic):
M and n are 3 or 6 simultaneously;
C1, C2 do
Figure FDA0000109686000000074
R wherein 1~R 4For-H;
E does
Figure FDA0000109686000000075
R wherein 5~R 8Be divided into-H.
15. the preparation method of a claim 12,13 or 14 described liquid crystalline cpds is characterized in that said preparation method may further comprise the steps:
(1) preparation midbody
Figure FDA0000109686000000077
(2) preparation midbody
Figure FDA0000109686000000078
Figure FDA0000109686000000081
(3) preparation
Figure FDA0000109686000000082
Figure FDA0000109686000000083
Wherein, p is 0,1 or 2, and q is 0,1 or 2;
Q is 2 when p is 0;
Q is 1 when p is 0
Q is 1 when p is 1;
Q is 0 when p is 2;
Q is 0 when p is 0.
16. novel polymerizable liquid crystalline cpd according to claim 1 is characterized in that, said general formula is (Id):
Figure FDA0000109686000000084
Wherein, A1, A2 do respectively independently
Figure FDA0000109686000000085
Q1, Q2 be respectively independently-H or-CH 3
B 1For-(CH 2) m-or-CH 2(CF 2) mCH 2-, m=2~18 wherein;
B 2For-(CH 2) n-or-CH 2(CF 2) nCH 2-, n=2~18 wherein;
C1, C2 do respectively independently
Figure FDA0000109686000000086
R 1~R 4Respectively be independently-H ,-F ,-the straight chain alkoxyl group of Cl, the straight chained alkyl of 1~7 carbon, 1~7 carbon, cyanic acid ,-CF 3Or-OCF 3
D1 is
D2 is-C 2H 4-or-C 4H 8-;
E does
Figure FDA0000109686000000091
R 5~R 8Respectively be independently-H ,-F ,-the straight chain alkoxyl group of Cl, the straight chained alkyl of 1~7 carbon, 1~7 carbon ,-CN ,-CF 3, or-OCF 3
17. novel polymerizable liquid crystalline cpd according to claim 16 is characterized in that, in the said general formula (Id):
A1, A2 are
Figure FDA0000109686000000092
, and wherein Q1, Q2 are-H;
B 1For-(CH 2) m-, m=3 or 6 wherein;
B 2For-(CH 2) n-, n=3 or 6 wherein;
C1, C2 do
Figure FDA0000109686000000093
R wherein 1~R 4For-H;
E does
Figure FDA0000109686000000094
R wherein 5~R 8Respectively be independently-H ,-F ,-Cl, methyl, cyanic acid.
18. novel polymerizable liquid crystalline cpd according to claim 17 is characterized in that, in the said general formula (Id):
M and n are 3 or 6 simultaneously;
C1, C2 do R wherein 1~R 4For-H;
E does
Figure FDA0000109686000000096
R wherein 5~R 8Be divided into-H.
19. the preparation method of a claim 16,17 or 18 described liquid crystalline cpds is characterized in that said preparation method may further comprise the steps:
(1) be starting raw material with
Figure FDA0000109686000000097
, preparation
Figure FDA0000109686000000098
Figure FDA0000109686000000101
(2) be raw material with
Figure FDA0000109686000000102
:
Figure FDA0000109686000000103
Wherein, h is 0 or 2.
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