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Vol.4Vol.4
1.
2.
2.1
2.2
2.3
3.
4.
2
3
3
8
16
21
21
2 3
1.
1)
Rp
Rp Rp,max
ktkp
- Rp- Rp,max
2.
A Bis-GMA/
TEGDMA TEGDMA
Rp 2)Bis-GMA TEGDMA
Rp DMPA
1,3-7) (1) (2 3)
(4) (5) (6)
1Rp-- Rp,max
Rp s-
1
Rp,max
O
OO O
O
R
O
OO N
H
R
O
O
ONH
OR
O
A-OCO-R, 1
N-(R-NCO-A, 2)
A-OCN-R, 3
A--OCO, 4
O
OO
O
O
4 5
A-OCN-R (3)A--OCO
(4) A- (6) EGDA (8) HDDA (9)
8,7)
9)
EGDA (8) HDDA (9) A-OCO-R (1,
R = CH(CH3)2) Rp EGDA (8) HDDA (9) Rp
15%A-OCO- (4)
A--OCO (4)
10)
Rp OCH2CH2O 11)Ph-NCO-A (10) --Ph-NCO-A--Me (11) A--Me-NCO-Ph (12)
,-Ph-NCO-A-,-Me2 (13),-Ph-NCO-A-,-Me2 (15)
Rp,max ,-Ph-NCO- A-,-Me2 (14) Rp Ph-NCO-A (10) 20% Rp,max 1/4 CH2
Ph-NCO-A (10)
R-NCO-A (2) A-OCN-R (3)
Rp,max RA (7, R = C4H91.0 < RA (7, R = C6H5, 1.87 < A-OCO-R (1, R = C2H5, 2.17 < A--OCO (4, 12.4 < A- (6, 13.6
12)
Rp Rp CH2=CHCOO- 1 2
A-NCO-R (2)
=RC6F5
C6H4OCH3-p Rp kp kt 13)
b)% % csRp,maxa) (s-1)
1
A-OCO-R1, R = CH(CH3)2
A-OCN-R3, R = CH(CH3)2
A--OCO4
A-6
EGDA8
HDDA9
2
7
40
6
1
3
5
2
4
3
10
18
-
90
15
96
100
100
-
-
360
-
50
250
a) DMPA (0.5 wt%), UV (500 mW/cm2) (25 m)
b)
c) Persoz
O
OO N
H
O
O
OO N
H
O
O
OO N
H
O
O
OO N
H
O
O
OO N
H
O
O
OO N
H
O
N-Ph-NCO-A, 10
N--Ph-NCO-A--Me, 11)
N--Ph-NCO-A--Me, 12
N-,-Ph-NCO-A-,-Me2, 13
N-,-Ph-NCO-A-,-Me2, 14)
N-,-Ph-NCO-A-,-Me2, 15)
R = H F OCH3 F
FF
FF
F OCH3
F H3CO
O
ONH
O
O
O
O
O
A-OCN-CC, 5
O
ON O
O
A- , 6
O
OR
RA, 7
O
OO
O
EDGA, 8
HDDA, 9
O
OO
O
6 7
14)A-OCN-R (3, R = C6H5)
Rp
5 wt% 1,4-
DMPA15)
A-OCO-R (1)R-NCO-A (2) A--OCO (4)
RA (7, R = C6H13) RA (7) Rp , R = CH2CH2OH < R = CH2CH2CH2CH2OH < R = CH2CH2CO2H
RA7, R = C6H13
15)
NH
Rp Rp Rp Rp
16) 13, 17)
A-OCO-R (1R = C2H5) R-NCO-A (2R = C4H9) HDDA
(9) RA (7, R = CH(C6H5)C(O)OCH3)
Tg - HDDA (9)
8)
(50/50 wt/wt) Rp,max (s-1) A- (6) > R-NCO-A (2, R = CH(CH3)2) >> RA (7, R = CH2CH2OCH(CH3)2 > A-OCO-R (1, R = CH(CH3)2) > RA (7, R = CH2CH2C(O)OCH(CH3)2)
Rp,max (6) = 1.4Rp,max (2, R = CH(CH3)2) = 7.3Rp,max (7, R = CH2CH2OCH(CH3)2) = 11.0Rp,max (1, R = CH(CH3)2) = 14.6Rp,max7, R = CH2CH2C(O)OCH(CH3)2) 7)
UV Rp (s-1) UV UV
2a)
A-OCO-R (1, R = C2H5)
A-OCN-R (3, R = C6H5)
A--OCO (4)
RA (7, R = C6H13)
HDDA (9)
HDDA (9)
0.34 0.03
0.36 0.08
0.35 0.05
0.35 0.01
0.10 0.02
0.40 0.03
0.09 0.02
0.38 0.03
0.16 0.02
0.007 0.002
0.05 0.02
0.08 0.02
0.25 0.03
0.40 0.03
0.35 0.03
0.03 0.01
0.07 0.02
0.15 0.03
a) [DMPA] = 0.1 wt% = 5 mW/cm2
Rpb) Rp
3 Rp a)
RA (7, R = C6H13)
A-OCO-R (1, R = C2H5)
A--OCO (4)
R-NCO-A (2, R = C6H5)
R-NCO-A (2, R = CH2C6H5)
R-NCO-A (2, R = C4H9)
RA (7, R = CH2C6H5)
RA (7, R = CH2CH2OH)
RA (7, R = CH2CH2OCH3)
RA (7, R = CH2CH2CH2CH2OH)
RA (7, R = CH2CH2CO2H)
1.0
9.8 0.2
12.7 0.3
56.4 5.2
19.6 0.3
16.9 0.3
4.0 0.1
10.3 0.6
2.2 0.2
5.5 0.1
16.9 0.3
1.0
2.5 0.2
5.2 0.5
3.0 0.2
3.0 0.3
2.7 0.2
1.6 0.2
2.8 0.2
2.2 0.2
2.0 0.1
3.0 0.2
a) [DMPA] = 0.5 wt%, = 10 mW/cm2
b) 5 wt%
4
3.9-4.7
3.4-4.4
5.0-6.2
2.2-3.3
4.7-5.7
2.6-3.3
2.9-3.3
1.6-2.0
1.8-2.4
2.3-5.7
4.9-5.5
8 9
Bis-GMA A-OCO-R (1, R = C6H5Rp,max = 0.017 0.003 s-1) A- (16Rp,max = 0.030 0.001 s-1) Bis-GMA/TEGDMA (70/30 wt/wt) Rp,max = 0.0009 0.0004 s-1 18)
A-OCN- (17)
19)
NaCl 20 2 NaCl
IR NH CHC=O C=C
0.1 wt% DMPA
Rp 20 0.9
IR
20, 21)
R-NCO-A (2) A-OCN-R (3)
Rp R1 R2 9)
9) 22) Rp > > >- >
Rp 23)
O
OO
O
N
O
A- , 16
O
ONH
O
O
O
O
O
ONH
O
OO
O
(A-OCN- , 17)
O
OR2
R1
OOH O
O O
O
O
O
O
OR2 =
R1 = C2H5, C3H7, (CH3)2CH, C4H9, (CH3)3C, C6H5CH2
- (OCO)
O
O
NH
N- (NCO)
NH
O
O
(OCN)
NH
O
NH
(NCN)
1.0
0.8
0.6
0.4
0.2
0
0 10 20 30 40
(a)
(b)
(c)(d)
(e)
(f)
(g)
2Rp: -NCO-MA (18, a) MA-OCO- (19, b)RMA (32, R = (CH2)3OH, c)RMA (32, R = CH2C(O)CH2C(O)CH3, d)
HDDMA (33, e)RMA (32, R = C3H7, f )RMA (32, R = C4H9, g ) ( [DMPA] = 0.1 wt%,
= 5 mW/cm2, 25
10 11
R2 0.60 R1 = C2H5
< < < - OCO > OCN R1 = NCO > OCN > OCOTm
9)
3MA--OCO (24) RMA (32)
0
0.8
0.6
0.4
0.2
050 100 150 200
MA--OCO (24)
RMA (32, R = n -t - )
O
OO N
H
O
O
OO O
O
O
OO N
H
O
O
OO N
H
O
O
OO N
H
O
O
OO N
H
O
O O
O
O
O
OCD2 CD2
CD O
O
O
O
N--NCO-MA, 18
MA-OCO- , 19
N-n-n--NCO-MA, 20
N--NCO-MA, 21
N-n-n--NCO-MA, 22
N-t-t--NCO-MA, 23
MA--OCO, 24
-d5(MA--OCO-d5, 25
N--NCO-MA, 26
MA-OCO- , 27
O
OO O
O
O
OO N
H
O
RMA, 32
HDDMA, 33
O
OO
O
OR
O
MA-NCN- , 30
MA-OCN- , 31
O
ONH
NH
O
O
ONH
O
O
t-MA-OCN-t- , 28
MA-OCN- , 29
O
ONH
O
O
O
ONH
O
O
Tm ()R1 R25Rp,max Tm
-NCO-MA (18)
MA-OCO- (19)
MA-OCN- (31)
-NCO- MA (26)
MA-OCO- (27)
MA-OCN- (29)
MA-NCN- (30)
RMA (32, R = C4H9)
-
NCO
OCO
OCN
NCO
OCO
OCN
NCN
-
Rp,maxa) (s-1)
0.012 (25)
0.0114 (25)
0.009 (50)
0.045 (25)
0.009 (25)
0.028 (25)
0.082 (75)
0.0006 (25)
28
< 25
43
59
< 25
< 25
70
< 25
a) [DMPA] = 0.1 wt %, = 5 mW/cm2
12 13
R1R2Rp2567-NCO-MA (26) -NCO-MA (18, 20-23) -NCO-MA (26) 25
6725
67-NCO-MA (26
Rp,max (67) = 0.045 s-1)MA-NCN- (30, Rp,max (75) = 0.082 s-1MA-NCN- (30)(75)
-NCO-MA (26) (60)
9)
R1Rp > > > > - >> >
MA-NCO-R1Rp (26) > t - (23) > (21) > n- (22) > (18), n- (20) > > Rp,max0.60-NCO-MA (26)
9)
MA--OCO (24)
5%RMA (31, R = C6H13)
15)MA--OCO (24)
Rp
2567
NHIRNH
Rp9)
24)RA (7, R = CH2CH2OH)
25Rp,max802.5OHRp,maxRA (7, R = CH2CH2OH) 2540%80%
22)
(NHC(O)O)
(OC(O)O)MA
OCO (24)Rp22)
-NCO-MA (18)255067Rp()259)-25, 5 mW/cm2, 0.1
wt% DMPARpMA--OCO (24) > t --NCO-MA (23) > n --NCO-MA (22) > -NCO-MA (18) > n--NCO-MA (20)MA--OCO (24< t --NCO-MA23< n -NCO-MA (20) -NCO-MA (18) < MA-NCO-n- (22)
22)
403020100
1.0
0.8
0.6
0.4
0.2
0
(a)
(b)
(c)
(d)
4MA--OCO (24) a5%b
RMA (32, R = C6H13cd-
[DMPA] = 0.5 wt% = 10 mW/cm225
5RA (7, R = CH2CH2OH)Rp,max[DMPA] = 1 wt%
0.06
0.04
0.02
0
0.08
20 30 40 50 60 70 80 90
Rp,
max (s-
1)
14 15
CH2=C(CH3)COO O
(NCO) NH (OCN)
Tm -NCO-MA (18) 28MA-OCN- (23) 43-NCO-MA (26) 59MA-OCN- (29)
< 25 Tm
-NCN-MA (30)Tm = 70-NCO-MA (26) Tm = 59
9)
11)MA--OCO (24) MA--OCO-d5 (25) Rp 50 80 0.77MA--OCO (24) 0.73MA
OCO-d5 (25) 25) CH2-
Rp MA- -OCO
(24) MA--OCO-d5 (25)
DMPA
C6H5C(O)
R1 -NCO-MA (21) t --NCO-MA (23) t -
RMA (23, R = ) HDDMA (33, 50 wt%)
MA-NCN- (30) MA-OCN- (29) MA-OCN-t - (28) MA-OCN- (29) > MA-OCN-t - (28) > MA-NCN- (30) 22)MA-OCN-t - (28) MA-NCN- (30) -
Bis-GMA/MA- (34) (70/30 wt/wt, 70 wt% 4 m
) 18)Bis-GMA/TEGDMA Rp 0.013 0.004 s-1 0.50 0.03 Bis-GMA/MA- (34) Rp 0.040 0.002 s-1 0.63 0.03 Bis-GMA/MA-OCO- (35) Rp 0.020 0.004 s-1 0.55 0.01 Bis-GMA/ MA- (34)
Bis-GMA/TEGDMA MA-OCO-35
70 wt% 4 m Bis-GMA/
MA (34) (70/30 wt/wt) Tg 140 3 56 5 ) Bis- GMA/TEGDMA (70/30 wt/wt) 144 8 100 6)
Bis-GMA/MA-OCO- (35) (70/30 wt/wt) Tg (116 1 65 8) Tg - Tg Bis-GMA/MA- (34)
Tg 26)
6MA--OCO (24) -
[DMPA] = 0.1 wt%, = 5 mW/cm2
67
25
15
1.0
0.8
0.6
0.4
0.2
02010 300
NH
N
N
O
H
N
N
O
H
H H
N
N
O
H
H
O
NH
O
N
O
H
O
N
O
HO
N
O
H
H N
O
O
7: () ()
16 17
RMA (32, R = C3H7) -NCO-MA (18) Rp,max 12 7 2
-NCO-MA (36) RMA (32, R = C3H7) 84
MA-OCN-CC (37)
Tm 67 MA-OCN-CC (37) > MA-OCN- (38) > MA-OCO- (35) > MA
OCO (24)MA-OCN- (29) > HDDMA (33) 22)MA-OCN-CC (37)
0.8 HDDMA (33) 0.6 MA--OCO (24) 0.75
MA-OCN-CC (37) Rp 25 6725> 0.967 0.6522)MA-OCN-CC (37) 67
HDDMA (33)
67 25 25 0.66 67 0.75
Rp 524) MA--OCO (24)
MA-OCN-CC (37) (25)
22) 0.45
(25)
kt/kp[M] 25
25 67
22)
MA-OCN-CC (37) MA-OCN- (38)
Tg MA-OCN-CC (37) MA-OCN- (38)
MA-OCN-CC (37)
50/50 wt/wtMA-OCN-t - (28) MA-NCN- (30) MA-OCN-t - (28)MA-NCN- (30) > MA-OCN-CC (37) > -OCN-MA (29) MA-OCN-CC (37) MA-OCN-t - (28) 5 22).
MA-OCN- (39)
Bis-GMA Rp 37UV (365 nm) Rp 10 MA-OCN- (39) Bis-GMA
O
ONH
O
O
O
OO
O
O
O
OO
O
N
O
O
ONH
O
O
O
O O
O
OO
O
NH
MA- , 34
MA-OCO- , 35
N--NCO-MA, 36
MA-OCN-CC, 37
MA-OCN- , 38
0 50 100 150 200 250
1.0
0.8
0.6
0.4
0.2
0
MA-OCN-CC (37), 25
HDDMA (33), 67
MA-OCN-CC (37), 67
HDDMA (33), 25
8MA-OCN-CC (37)HDDMA (33)2567-
[DMPA] = 0.1 wt% = 5 mW/cm2
18 19
TEGDMA
11 4.4% Bis-GMA/TEGDMA (70/30 wt/wt)
6.4% Bis-GMA/TEGD
MA-OCN- (39) Bis-GMA TEGDMA
18)
10Bis-GMA
-
ONH
ON
O
O
O
(MA-OCN- , 39)
9Bis-GMA37
-([DMPA] = 0.1 wt% = 5.0 mW/cm2
1.0
0.8
0.6
0.4
0.2
0
0 50 100 150 200 250 300
Bis-GMA/MA-OCN- (39)(70/30 wt/wt)
Bis-GMA/MA-OCO- (34)(70/30 wt/wt)
Bis-GMA/TEGDMA (70/30 wt/wt)
0.8
0.6
0.4
0.2
0
0 5 10 15 20
Bis-GMA/MA-OCN- (39) (70/30 wt/wt)
Bis-GMA/ MA-OCO- (35)(70/30 wt/wt)
Bis-GMA/TEGDMA (70/30 wt/wt)
11Bis-GMA25
70/30 wt/wt([DMPA] = 0.1 wt% = 0.1 mW/cm2
%
6.4
4.8
3.2
1.6
0
2 4 6 8 10 120
Bis-GMA/TEGDMA (70/30 wt/wt)
Bis-GMA/MA-OCN- (39)(70/30 wt/wt)
Bis-GMA/MA-OCO- (35)(70/30 wt/wt)
20 21
18)
Bis-GMA/MA-OCN- (39)
Bis-GMA/TEGDMA
Bis-GMA/MA-OCN- (39) Bis-GMA
DEGDMA
DMA (Dynamic mechanical analysis)
-50-150
18)
3.
-
Rp
11)
12, 16)
17, 13)
MA-OCN-CC (37) DMPA CH3SO3H, 400
ppmRp 27) 28) Rp
Rp
4.
Rp
Rp
a,b)
%
%%
c)
MPaTg
Rp,max (s-1)
6Bis-GMA (70/30 wt/wt)
a) [Bis-GMA] = 51.8-56.6 mol%
b) (MA) (A)
c) ISO/DIS40493
TEGDMA
A-OCO-R (1, R = C6H5)
MA-OCO- (35)
MA-OCN- (39)
A- (16)
0.645 0.009
0.813 0.002
0.720 0.006
0.858 0.005
0.929 0.007
0.009 0.0004
0.0017 0.003
0.011 0.002
0.032 0.002
0.030 0.001
6.02 0.15
5.47 0.20
4.01 0.27
4.22 0.47
5.21 0.36
105.1 2.8
89.5 0.7
97.3 3.1
121.0 0.6
106.5 0.8
92.6 0.08
95.8 3.0
88.1 5.0
79.9 4.0
80.3 6.6
7.2 2.0
7.7 0.2
8.5 0.3
6.9 1.3
6.2 1.9
a) DMA DMA
7Bis-GMA (70/30 wt/wt)DMA
a) (MA) (A)
TEGDMA
A-OCO-R (1, R = C6H5)
MA-OCO- (35)
MA-OCN- (39)
A- (16)
0.622
0.768
0.694
0.815
0.910
0.648
0.801
0.739
0.840
0.918
0.815
0.883
0.921
0.913
0.944
)Decker C, Elzaouk B, Decker D: Kinetic study of ultrafast photopolymerization reactions. J. Macromol. Sci.-Pure Appl. Chem., A33: 173-190, 1996.
)Lovell LG, Stansbury JW, Syrpes DC, Bowman CN: Effects of composition and reactivity on the reaction kinetics of dimethacrylate/dimethacrylate copolymerizations. Macromolecules, 32: 3913-3921, 1999.
)Decker C, Moussa K: A new class of highly reactive acrylic monomers, 1. Light-induced polymerization. Makromol. Rapid Commun., 11: 159-167, 1990.
)Decker C, Moussa K: A new class of highly reactive acrylic monomers, 2. Light-induced copolymerization with difunctional oligomers. Makromol. Chem., 192: 507-522, 1991.
)Moussa K, Decker C: Light-induced polymerization of new highly reactive acrylic monomers. J. Polym. Sci., Part A: Polym. Chem., 31: 2197-2203, 1993.
)Decker C, Moussa K: Photopolymerisation de monomeres multifonctionnels-IV. Acrylates a structure carbamate ou oxazolidone. Eur. Polym. J., 27: 403-411, 1991.
)Decker C, Moussa K: Photopolymerisation de monomeres multifonctionnels-V. Resines polyurethannes-acrylates. Eur. Polym. J., 27: 881-889, 1991.
)Kilambi H, Reddy SK, Schneidewind L, Lee TY, Stansbury JW, Bowman CN: Design, development, and evaluation of monovinyl acrylates characterized by secondary functionalities as reactive diluents to diacrylates. Macromolecules, 40: 6112-6118, 2007.
)Berchtold KA, Nie J, Stansbury JW, Hacioglu B, Beckel ER, Bowman CN: Novel monovinyl methacrylic monomers containing secondary functionality for ultrarapid polymerization: steady-state evaluation. Macromolecules, 37: 3165-3179, 2004.
10)D'Alerio GF, Huemmer T: Preparation and polymerization of some vinyl monomers containing the 2-oxo-1,3-dioxolane group. J. Polym. Sci., Part A: Polym. Chem., 5: 307-321, 1967.
11)Beckel ER, Stansbury JW, Bowman CN: Effect of aliphatic spacer substitution on the reactivity of phenyl carbamate acrylate monomers. Macromolecules, 38: 3093-098, 2005.
12)Jansen JFGA, Dias AA, Dorschu M, Coussens B: Fast monomers: Factors affecting the inherent reactivity of acrylate monomers in photoinitiated acrylate polymerization. Macromolecules, 36: 3861-3873, 2003.
13)Beckel ER, Nie J, Stansbury JW, Bowman CN: Effect of aryl substituents on the reactivity of phenyl carbamate acrylate monomers. Macromolecules, 37: 4062-4069, 2004.
14)Kilambi H, Reddy SK, Schneidewind L, Stansbury JW, Bowman CN: Copolymerization and dark polymerization studies for photopolymerization of novel acrylic monomers. Polymer, 48: 2014-2021, 2007.
15)Kilambi H, Stansbury JW, Bowman CN: Deconvoluting the impact of intermolecular and intramolecular interactions on the polymerization kinetics of ultrarapid mono(meth)acrylates. Macromolecules, 40: 47-54, 2007.
16)Jansen JFGA, Dias AA, Dorschu M, Coussens B: Effect of dipole moment on the maximum rate of photoinitiated acrylate polymerizations. Macromolecules, 35: 7529-7531, 2002.
17)Kilambi H, Beckel ER, Berchtod KA, Stanbury JW, Bowman CN: Influence of molecular dipole on monoacrylate monomer reactivity. Polymer, 46: 4735-4742, 2005.
18)Lu H, Stansbury JW, Nie J, Berchtold KA, Bowman CN: Development of highly reactive mono-(meth)acrylates as reactive diluents for dimethacrylate-based dental resin systems. Biomaterials, 26: 1329-1336, 2005.
19)Berchtold KA, Hacioglu B, Nie J, Cramer NB, Stanbury JW, Bowman CN: Rapid solid-state photopolymerization of cyclic acetal-containing acrylates. Macromolecules, 42: 2433-2437, 2009.
20)Matsumoto A, Yokoi K: Control of molecular weight of the polymers produced during the crystalline-state photopolymerization of diethyl cis,cis-muconate as studied by gel permeation chromatography and scanning electron micrography. J. Polym. Sci., Part A-1: Polym. Chem., 36: 3147-3155, 1998.
21)Matsumoto A, Odani T: Topochemical polymerization of diene monomers in the crystalline state to control the stereochemistry of the polymers. In Controlled/living radical polymerization: Progress in ATRP, NMP, and RAFT, K. Matyjaszewski ed. ACS Symposium Series 768, American Chemical Society, Washington D. C., pp. 93-106.
22)Berchtold KA, Nie J, Stansbury JW, Bowman CN: Reactivity of monovinyl (meth)acrylates containing cyclic carbonates. Macromolecules, 41: 9035-9043, 2008.
23)Bowman CN, Berchtold KA: (Meth)acrylic acid and (meth)acrylamide monomers comprising cyclic acetal/thioacetal groups, polymerizable compositions, and polymers obtained. US Pat. Appl. 2004/0249098 A1.
24)Lee TY, Roper TM, Jonsson ES, Guymon CA, Hoyle CE: Influence of hydrogen bonding on photopolymerization rate of hydroxyalkyl acrylates. Macromolecules, 37: 3659-3665, 2004.
25)Bowman CN, Stansbury JW, Berchtold KA, Nie J: (Meth)arcrylic and (meth)acrylamide monomers, polymerizable compositions, and polymers obtained. US Pat. 7,498,3942009.
26)Kilambi H, Cramer NB, Schneidewind LH, Shah P, Stanbury JW, Bowman CN: Evaluation of highly reactive mono-methacrylates as reactive diluents for BisGMA-based dental composites. Dent. Mater., 25: 33-38, 2009.
27)Beckel ER, Stansbury JW, Bowman CN: Evaluation of a potential ionic contribution to the polymerization of highly reactive (meth)acrylate monomers. Macromolecules, 38: 9474-9481, 2005.
28)Kilambi H, Konopka D, Stansbury JW, Bowman CN: Factors affecting the sensitivity to acid inhibition in novel acrylates characterized by secondary functionalities. J. Polym. Sci., Part A: Polym. Chem., 45: 1287-1295, 2007.
.Yamada B, Zetterlund PB, "General chemistry of radical polymerization". In: Handbook of radical polymerization, Matyjaszewski K, Davis TP, eds, Wiley-Interscience, New York, pp. 117-186, 2003.
.Zetterlund PB, Yamazoe H, Yamada B, Hill DJT, Pomery PJ, Macromolecules, 34: 7686-7691, 2001.
.Yamada B, Azukizawa M, Yamazoe H, Hill DJT, Pomery PJ, Polymer, 41: 5611-5618, 2000.
.Yamada B, Kageoka M, Otsu T, Macromolecules, 25: 4828-4831, 1992.
.Yamada B, Kageoka M, Otsu T, Macromolecules, 24: 5234-5236, 1991.
.Yamada B, Yoshikawa E, Shiraishi K, Miura H, Otsu T, Polymer, 32: 1892-1896, 1991.
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