Date post: | 20-Feb-2023 |
Category: |
Documents |
Upload: | khangminh22 |
View: | 0 times |
Download: | 0 times |
ASS
sss
92S
IIS
60S
90S
662
662
262
9t2
811
QS
SS
6
L
g ■
i •
^comwmwwM s
........ ^£) (S)
....................................... 39% (z)
............................. Mi# - (i)
Tsmo&M# "39% Kmm • -z
....................................................$5#
.......... W&’&WOA -'t (66Y*-L $E#
.........................
.................................(Z)
..........................gn ses
..........ifsmm&A-''vjjk*-ci $%#
..........................*SfG
..................................................... %* ®
..............................................................®
............................................................ (i)
............................... Xm#E?#39&>3%8%# ’I
...................................................................................
^ B
#4ElfSM^^'SStZ^x^h-hK 4-Bti"#US*5n-E.®lgl±, #ttt
a tcmm###, vyt7;H4, »««, s-r s-tastt • mmitir
Srv'^o
^-coeitt, s£®ipxe,
nmmttzittib, m% ■ immsiEii tc& it £t L-t&yi&wffs-',HM 7 ^»<7)M@o#i*tc & iF-5-T* § £ ::):y**bitx
v>4„ t,yu s*s:nTv>4eig
z^m-r. mm^niomutmmzm^x^ic %%t:
tivtti, ;;i LtzmnffiZkli, &<nmr§%mM£8i<r>18i*)&Uz£t)frt>tix\<'Z>
wmar-i) *), 3-jtitS+Sitft • tt«ftLrv><TOr»FllSt;i±. +@'^#ey'T# * 1/ > X n Z.««t & O X b X v > Z> „
;U*5-flTflU 6^ACli, SrU'tt*¥ii4-ffifflL*->5iW-->3 >K#t:16##m,+(Da*{k - SiSltS-ity*), i *)
%$%t® &■t & ; t < ** b fix v> * „
t-& o t ^ rnjig t -r * t_-*7>srit-> $
mi+y? v h7 *-A(0Bf5Er*mj a®mm'4<n r
/ayx}-^[>iotLtJi^W- ##%##-#-;#%## (N E D 0) X <0 , (it)
u c i n ysiturT® 1 o¥®t ^s^sn, x^as-fayiiCttto/;,
(it) ^swem, j s m, @&fk#x#w,
usmz, xtt), msB***utv7^ x», m±*(», s±¥*7 4 IVMK, Httfk##, ESfk46(tt)):ttl=]#*§^4-i8i*a Lt:±T\ W?fiy-U 4-ISffi
L, Kl SW^#SOWX^fflL**t»?fiM - HtVSlit, aitfflyit[iieftE^*^®i6Lt-yn-7x 7 t v
E5Ef4lfSai^Sijc • ±#jEfHMSwT(:*itU *^*|B)W?£**iiLrw'4>„
1
ggcoffiSE, mi-t-roittt • )*$, isea, m&cmma
lt, r6^w$Bf%$fl6*i$BLx
-fyy \-yMitomi• as, m&i'n^tzo ttz,
0F5£M5l»iS«wnrS'ft«^*lc, &-&#$##6###
BMT ra»fmi+t < t-j s-miLm, ttz, mm -
»$\-X-<DZ<Dfr%f commit) i>'lf otz0 Ig-g-iHS^l^WSgSICOI/'-aj:, 1. ( 1 ) ©O
s i
SE<7)jsi66iiB^ ur, tmtka-am m # 7 - a > # # ;i/ - a (wg d, #Mm%%7
(WG 2), 9-fitfilSn-^yff'f^--f (WG5), fM9F%7-jr>
r/JI'-y (WG 4), 7*7 y h 7 t-A 7-*> t"tOt/-7° (WG 5) «5dffl7-4>
(WG) 4-Kllfa
#WG^w?eco)3£*icot>ri±, 1. (1) (DcoS2S-ep8gtcj$'<-£o
$ *7"D -7? h CjoV'Tli, ^-fiic, 5SW& t'GDSHtlifffo&V'coT-, #E#%C
»sro*ttcoinnz:W5|.o^)$1 #tt<7)flij6KMLTi±, mam#
cob bugs, mai*m#romiiic«, a#m#co@$m#, *amw#cff$ltSF%£-j=@v> Ltv'io
SSSlttfecoiffESmcov-m, 1. (1) ©coSIS S"efflBCi$-<&o
11 #$ c & it s MmmmxVs-/7 7 17 * - A
5rlK E 1 C/Si",WfEfiKmroSft* 1. (1) ®c, *16* 1. (1)(DC, iMC.Bge, LmiiJSttiKCo
v>r 1. (2) l:, #%#E - #*##%(%& 2. CiE^m,
2
$ 1
±# in etsai^ss *sctt
)HB ¥# itsai^s*
§n i+sai^sijc »¥
»- mm A# i^sii %%%## sitos
tti[6]6f?ESt7'u-r- so 7nr
E+M#b]
BFfEM ## 6wJ
lia titti.
$£
SSf 1CWST Mifs
£8
TB KUJ± a*
ET itsHlHf &$
i@* $sHB #1
*#B «w
g#
III-## iAttl
9RsW3EMSB %#
E ft A
ftM^ISto
SfMzn*®)
J S R#
tticft^i*(»re$3;
B $4£w y($)
#B
B**"V tl/7-( y(«
s±?l7A^(»
S±ii(» (~lJ&ll¥7f?£B)
S±aro (~ii$:iWi2fl*B)
Bmtmm (~imn$7^*B)
I#fk#(« (¥fi£ll^8HlB-)
4
af-fy 7 I- 7 * -AJ coWol 1 3 6 MT*3o
Si ST-11, iW8mt#E8t7"7 7 h 7 - #
Ift-£/-:»(:ML/-:, /n^n/wt-, #in8Mco$f%its.y--*l®ig-^6^-BS
ttl>i:, 11 AM) 4 F-Itt ro1$ft t: IR1E b *- to ti3
it* ; y
-toJ$$lC-3V'Tilb<, $ bl:gl*l&b';#ttoR##$to|*|@:4#%L/:.
S 2 ST-11. jyfilWi: LTto&7-4 >yy^-y (WG) «0f55iI^a</:„
ti.T#W G OE5E^$(7)#S*iE^-E>„
WG1 (WMfLttf y;l/- y) Tllti-TCO 3 o<7)S@|Z$l 1 *1/LTV>£ :
[1] g M tc S b /-: ftii 4 fitSf LT nu £ a • ##LTy Ul/->s yfhzt S-nJtg
I:f6/:to, zflffltt • EiltttoSiV'Efl'fktty-lto^y-/xtorafSHfoTjfcTli i),
5FSE4T-T-|$l?-> 5 JL L--> 3 >«S6coH$lli7c7LZ:„ i>-y>li COGNAC L%#lt
Lit, y?7 17*-Ai>l)|ynyi> 7 t-7-y hT*£ DDF irthL
Tflj$aj*£ 1 t tc4oTl'&„ T(7)j:>-y>tlv>Z:affiafE4r 4lt$**T*l), #
PSl^V'laS 4 f|TV'l)0[2] t/RcO«144JE L < RiSiL*6fML*-T > -> -Y A/4, t ta4TyA/*b##T6f
&<*M#em*TV'6. 4-¥$ 11 nCBmffiHWlfCTr*M: o v > t tiltt 4 # to T
±5 1, flJE<oa$4-iML/i>lc L-7-3*4„
[3] iSfl-^iggifrco L t n -y -rof-ilicfHC L/-: j: > ->' >do T v>o BfSSto
i>-y >4gfcJl. L, *E#tHMl:-7V'T, -f 1 ±51 b‘-#ft6 L t n->'- dJIE
i:*o*0 $*, 11 fEiM; L /-: T 47c 4 v <- j. > -y > MtiS£ L, r 1 ESIcttLTffi
#MTA*4*;*4#6 T fc S-nJIgu L*.
WG2 A--y) Til, $S$I1, ^gSiS L*ZfLffl«l«l¥ti)lS-y 5 xi
u - f t ilgij i:, ot-7x-/Wffin< t o /ifr-lUB tuiz-tJ-ft
®L*„ 4*, lASSStobffoTSbtibtitoiFUB'y i xl L-yto&S^ffV', #4-48
mW%&m&L. ti-TOl t T Lt)sT-S/-:„ 4*, SUBy 5 xl
A&bbtoco-y 5 xl u--> 3 LT, HTi:Sty#ffi^coMHS-lf o*0
- 11 -
[l] SrzH,ffl'>5 i is-? Bfim ; X i UK
&U sf? insists • F5M*fg• t- ttzztx\ m
5 a L--> 3 > W#l:&o/:o
[2]
a) ; #B5EA*fflvV^aS#SJ:
t), Sfl-f-SEroESEro^ftciffiE^^ffiL^ y^^73>i;iottsio
JEitt*«IEL*o
b) K j3It-E, <JV7 t □ y -0^(1 ; S5HL^l$»E-S'*ro Ky ^ >
t^V^ny-cHtsaiSflilSaiitl, PE/PS/PMMA &om$l¥-ii)Wi
It#tt 3 C a Lt:.
C) 5 -b;b®tt£<£ -t;WI6$co^i! ; i -b>®«
t, Ztuztm-t £ BifiU -b >m& £ It# L /-: „
d) SS^zlirMroSBiS* ;
e) 7"n y ^ttS'afr?l^'%t-i5lt4;e;l'7 N- D -y-<0#|f/f ; 7’n y -7-<73 7*
L> y#@tcM LTSSLMEt-*B L/bfSIfftffoZro
[3] ##-> 5 i U--> a >#y£co|Sf§
a) B9-7-tt5!ptt-> 5 v- ^ <7)M5S; Slip link JSfftt-try > t KtS(*S-ffl
r'lkftt yn h 7 t 7V)ftfiSmto/c0
b) HilSttBfl-TMc-y 5 a. y- -> 3
f 6 Flory Z> z t iz l 1),
& ££*»**! Jlffe JKL/c,c) 166)^19$ t Ginzburg-Landau (GL) model t (Dffifc'irtZ «£ h i@jiS'ft¥t£<£)|ij3§ ;
7'n 7 5-^iXT'lkMt-OViT, fttoWW'/it: GL ^TlKDv i j!
-■>3 v\ GL ^f'lKOtrMttiE-ijiL/io
d) Langumuir ISOtilSffiteSfT) y 5 J- L —"> a Langumuir
ECi#Sffl|ES*Ei$i-^F<*;5:^T;L'6-fg*L, CS-C, S-LS
t-tic%LZ:o[4] tfRffSSIstyRffillfiy r>a®K; 3*7£8®I, tlPUl
Stit 1/SffiffifS £ SP11" h tz * W 7 - ;k O Sit £ ft o 0
- 12 -
WG3 y s 1/ — y 3 > 7’ VI/ — 7°) li v 7 □ — VI/(0.1 ^ m~ 100// m)7)
Iftiy5al/-lt4'>5i l/-^<7)M%*fforv>40 ^SltM-SS trlMVi-B y
i 7. u- - 7 M^Sj*(7)SE t: & £ y 5 .a 1/ - 7 coMr k I$fh -5-LT^WIgSi: LT9IS
Ltz “I8#y 5 il/-/ a 7 7 7. 7 T 7'7 0 ST' <7)M%lc#ICt) *yiv>Zi0 Zt07
7 7. 7 t 7* 7 1J » Z ft v > &.'T?' fly< 4 M £ JR t) ft 7 y 5 i 1/ - 7 n ffl IS I; * A «• * h > * „
7 V^fjV^D^ggF^xy-VKlS ^^'o/i^S-^coPnlS^Sf <£»(;, WG3 T'l±
-iitSSltT: T c T vh ^ V \ Lagrangian-Eulerian Euler IS %
IT J: -B WKES'S^fPSSa-8; ^ 16 o TSkro J; 7 &pjgi
• 7"t t < 7 %
• 7'fvl/An-x-f >7" IT#7ieii$ia^iSSCiE%kMISL
• yvyoRistiixsiasw^/f +5 u
4-iRi)±ifT, ztibvfi,m£M<tz>6n-> i 7. i/-7coMi6i^®i9ttA^„
$ "t*, l/z^ll/CO y 5 a. 1/— y 3 > £rfr 7 l^<0 7 7 7 7 t 7*7'J ff t x y 5 a-1/ —
7<0 mSt LT87 WiB*B V'd-Z ?X7iy*t-j77j-MU y;il/-y3
> coS&Mfi-tt^ 7 t /. 7 7 y .a - vy^'nTffi tZ-itio ttz, filStei1* fflV'T 3 ^TCtfCi
iS»f--dE»?S-S-$, *ISRS«u *#R*-#A3y<7.i/-y»f$&L
/-o 7-f vh/hn-T-f y/c^SUTn^ril, WKSXffi* W£@tmE-klc jb'ttB, 7
t vi/7<(0EBE£ijoJ:yesi4-#eL^y 5 j. l/-y 3 ytSIfflX-o
yvi/ro^EfgeSdFjiacov'r, 4-¥$f#S IvkSSiffiS* 7 7"vh K^er'vwoy ; i U
-7li, t r7'vi/(0®#lt@#7)K#l: j: cT#
iS5n-BJ ^ k «6bB>Il*(X * ygcoaiBit, «Ss <0#i$ £ k")tSilt*S vk«
^ftV)fi^l^7)[p3lit-'7t'T(±^ WG3 7 7 7_h<0 7 T — vl/ K Iris'tr Adaptive Meshing Method
SofifltL, -E-ti»mv^%#/y(0%.$vl/f—%(J fl»)coifS*ffv\ r/Lffl«®5lt4»
y 5 ah -t TVftSic iHto vk0
WG4 (#g#%7'vl/-7) TIJt 4-¥® J; l) Sff !■£ $»0(*fSiM)IK >) «A 6- H66 L
tZo ,-f V cntH/ y cotttt^il ^iS»o B US /_- o T It, imttu-7v>Tas,
1)1:, #7 &A®7>>‘3l1i!^ft<of£St6'(fi-v\ )dot&v>vE-co
f5¥14^J, ritvSJ, rffcSiSttJ i:ovri±, e=E|iti;fi»7-T-*-B--f1J t.
13 -
Lx WMt#iti#*tztbLUiScdi>->'>
4rX- ; yXlc^orjilS-t&^Stttll-f-a^hh L/-o —#, rf •) ttltj
CMLTti, L-1n -y-^iMir.> y > £$v>,
WG5 (X77 t- 7 * - A XX- 7”) T*l±, iftfflttOSV' Java SrfflV'T, Windows
95/98/NT H IVs Linux f ##f 6 ###EE X? 7 f7*-i Zft& L fz0 ###ER
X7 7 F 7 f — A l±toS8ln python i l*]!$E Lx X 7 7 7 -f ?7X7y 7t LT Java3D
i), i^T-g
*^gli WGl~WG3(7)^>-/>i7)Xiil8'7'-^ *7*7 7 t-7 * - A|*UC$ l) jXA,
■x-7-yyea • itessmew •g W: UDF i: v> 7 S^MItSr'- 7 0*iIiy$f#£ir#X Lx L<7)*44tilLov'T
EIEB^S$1ttt4-ffoZ:„UDF miOtr- ?<nmt Zcomm££-'><ny 7 4 xmt:R
at-^, £ kv>7.S"T, XXyj:? FFilnJOStfttiSbfftlX-:
f*jce*a,7SL 4-Ef4^S$lt*ll#-e(0 Jtaets £ sar- § £ m§ L & s /.: to i-1±, #
< x>sgsL ^57b?-£-ST-6 I), ^-(7)Si*T-l±%®ii±(7)f#*kv>x.^0
*$%ai#t±X7 7 t- 7 * -umtw&t i |)S-®uisy,'-7v>z: uDFtiiwp*i5it x
7 7 h 7 *-A|*i^$4:tt6grotS 56UJ:o Tx iJLffltoT-fiJffl Lf ft'X? 7 F 7 * - A £
S3 Jjmix WTI--?-<7>W%)®*w«®*a^4o
->i O.F--73
imwfthtztb, (DimTx-cnM^^^imm^mL (2mET-e</>*«g»ttwtH8ij>
(3)#iift#S£Wt'£ OT4x> LXn y-cigtiM, 4rffoTv>^0 2F¥$<7))$*tiJ4TT
f§L£x - i*ETI:A^TXT77*aEA»:t#lf 6#gl:4 Ox ttxtofifl-d1*
(3)T4 47 v-(7)Lto->'-*|||KZj0
*»f-I*iaS*C4 *), ffl$l&»dLl*l • »dLP=iiffiEfPfflX''Li:, S5-£fliiiA<St't±B«f#
ig^gea^ftsn**c*-So ;®iiiawwt/xx-xr-o;as«®t-e-cot;
14 -
14i±, -n-f j 7,>r-^X‘<n\%
iSitMtSrS'O ->iil'-->3>tcj: ¥)$1 1 ¥l$li.
E16l$«ffliJ5ESia*$rZ:t-gfliS L, X Xf 5 -t 4 i i: 1:
J: •), Z:ti: i 1- t WS6 §' • #£&t-'3V>TM$:£nI,*ffi‘
r, ->5 iP-->3 >|S*£coJ:l:R4-i^L*„
0»r**ifei7)SfRt£ LTE<B6<)E.-S.7)'6 <> eSfti 4-S»Tv>^0 Bf^at LTii,tH' (PPO) -telci6S5H'@#Bf@K
MT-li, SS-dL«41(7)ett*7)^t>t®i)^S> *# 6 A < ##?##L;W f >
(SSftA S«»L/;-f t>t±< iSfl-^o-t: 50 > hiliiilcJio-r,
;#««t -s *iisflsicm£ *t5{f>mm i,**em«?4 lt <,> b z t ^sa b n.x v0Eire*epsdl^ibisfl-f-effs#*4= co
■<t>t£b§' ■ 4-1 smL/:. s-r, mm*£enjDL*v>«fflT\ (at) u)<,ocjv2«£t rto#.titft*tepirai-4 fc.f & a t uz:. r u e®
t*co5S $ K t i 1$ i: A, £W L & V h v> i isaz?#<b nZ:0 ti,±ro«£#S$*><b, 5kOJ:i (0£ f ;i/^#^AZ:o + &£>*>, £ t >l±iSttfH L
Eire* enspL^v'i:§ci±,
SiJSft, HkCZ^tKte&o 5H-McoSIWmroSIr^^
£7)^6ZN:^^Z:. LZrZOO «-Ystoegtos-ssti-atcii,
-Sv 5 •kH'&t LTI2, 'Oj'Xfp>yij3-^Kf-»Vi-f)l'1 ^x*+hy-JV,
*t0 3S)i55ig£-*4-av\ 7>7-x*y ->'tiKS1:StoW-5-x.-5>^S5*SE=pcO'i'* ><7)faibr • EB*ai:ri$i-<z:„ 7tiT-i±em* u) zms<, «
m&& (At) 7)?*gVM7)txij-L, x.-if > yffir-|±$K » z)s*S < zl £ ?1>/Jx 5 v > ^ j: ?1?» 7)>»), <r kzl e 7)0 -tr7W7)f#S»OTffi8n4«|6]£-$tt-5 Z j:7i?iS(bZi'lx^ oZ:0 $
Z;, ( r ) ^rSOX-TItW^il-BtS'^TCmAI £ Z ( r <T ) t)? 7 X 7 fi i:
15 -
x**>-yfg-m±§ <g%zzt * am l, $cof#s^hmttihz t zmb
frKltZo vHtt)§£mnltzt %OAz / (rff) 7> 7-X-1<>-yfg|£S
I:j3if6 «»*&»*» ilSt:*® L *„
Ej$«6f%9f-t-co g a) i±, SIM
#t:, SiSH-roSirJtx -t&b*,, B5mS'$tc £
itz 2i&frfflvmM’zmmmK t<n1•?
*¥«l±, ESEJSItfficoieSfl-i1®)!-^ K £ it S i~ x>
V'T, t < li, a-f#, ?x>fSM:i:'»J:i
stS'I-SB lt, xxroE%tffoZ^0 -ewis*, ?x>fs?
*s*4e*s<
EfFfi® i: @i$fi<iy^COttiilSEro^i±,
Lxwp-trizt-hmbmztiitzo BiStoy^ciBfiKSEti, EffiWS Kx^f
S*rf\ -ttro$IS««l7lsjtEi"£ = ^rofiMSBflW,
itto -e-^Ex ##v 7f-
-E-o ttZs /\&^"7)#%#t:OV^-C(7)##^»6x SSHP'J 7
■7-fflli, X n HffEtt# Lx xxd(;E5}-^| tJEHi:, fMi4
g|5UI±x-B">-yttWf#iS7)^Mgti-E.-t7ls'i5f>!4>i: *o*„ hti, HSfl-^S$co
1®^ LTi), |65iFl4#5ME$l*x B
lix x vaafflliti^'Jv-TD-ft LT*
t*fc*.x @AT##^#m^$Lx ^)x -E-ro*R6-
a#t 6 c a & m»f 6-6-# < t t a.
Mmmmmi-fv 7 t- 7 * -u t g jg l t&ms n*u c 1 *) t# t, *1* -> s
xi/-yaye$*jtKLx frnmmimmizmEtzztig
MtLfzo fii:, ato^isaifc* V > 7^ WG2 r-M% t -5, -y i J. y - ? <Of£|E tt£h%
- 16 -
mi-htzfrnmMii'rt'itzc $61:, Kc 7 7" lx 7 ho/i/f
x-yiv&*igfl-*<7)ig}gt: gfl-f s in H. £?»£/: to i:, TllM&8l£It)m?o ^„ i/c,
5 jl 1/-?TM$;h.*####%!:-DV'-ea#a
SSi:tojtet*ffoZ:o
(1) 7"n -7 -b^£Eaet:j3lt-E.S^#®)$<7)pffl
turns->5iu-->3 xnwfkt-vttmzxt && £ 7, Mi$.mm!wmi~
ffi*, HliMIStog:: 0i:<>\ i -b^&X&WXtD i -fciPBtitpli * $ 6 CE^/:,,
f ^66, b5¥SI:II'</:*"V V>- block -*"0 -y7**->n*Xy (PS-b-PDMS)
/SKSffi (1,2- y X n n y; > -tf > <h y -y ;iz 7 4/ 3 -*coE£-igE) ^CfiDx, -K'J (7
f ;PX X X V lx- b) -block-*1) (t-WT>n-H £*£-#: (PMMA-b-PtBuA) /
n-y**T*3-;iz-i§«(7)^5-, im&(7tt6<j7£!MS£fflV'TlH/.:„ -5-to*§£,
ps-b-PDMs %TEii$n/cE% 5
i)s, S'B-^<7)l:l±^''fcv>^ |±V>X, PMMA-b-PtBuAMi:*jv>r<,a6n&^k^lS675'j;
%-itzo U:<6T, tX-M.bti&:§S&(J%g£rW;MT-$,Z,z t
7)?7F»S$tL6o $61:, <%#-&##&##L
/:= -ftolnll, COSIfe^SImtoi: t>#xJ#-S> C .fcX'^SlV,:,,
(2) MW&mirKE'Eefflfl-lEtoXM*; vxx
4 - X n DXf V- > / *" IJ 7 X X V * ® 7 * ;U ?a -£- #,
(4cis/pmma) oia»i/'f * < 7 x x£ii®u, mtntzt><Dmmr-9immitzo
fif^-iiJTttScSLilSCi 1), f
toSLt.Stil^ffiX'ilfrt S : i: 7>6i,tti $ #V:„
WMm&n-fu 7 4 - * C B" - X tiWj? L, h fig
liSft:L*v'0 fifl-#g9teBftoilv'#55-#l±ilS$tL7":t^rci< 7 v-as (50-
80wt%), SS (110— 170°C) X-m&ZMzo a>/'ffi53'lt«te+^S#F=1(±, iftstit'f-
< , MU:i±*i iMK#L&t>0 -*, 6"- 7 k A, t
x v-a®;?)?*: Sv>li £"fir£Scfi!l t:fig LXio(3) e-g-fi:E.E6S»tti:J3it6yi''f -t- X'**£g5Mff
4-?DDxfk>/.-pjxfi7ii*| (4C1S/PS) <7)fiS-?i|-eiie^-±66:l)r-*-£,
*"') 4-Xnnx* U >£#<•£■ trfi;isKn -7 X V 7 b i«l, -eoliE^W/x'-f <
-rii'ibz.z.t zm :£m iri>5„ zx; z 7 % / w * - x* & 4*$ & t m* & a#i±
- 17 -
aeawsnrjoib-f, -> i ^ b--> 3 xcj: ’ombfrizzixzkmwLx^'&o -e;r\
rivtfibtiKiEWiltf
neiR^fbl: J: b, i fcS-g-ftff? #ljjEcoBeMj$#14tc J: b #8 L/-,, f
t, i fc?<vfg%gi&<vM4'')i&7!>sMg&WJ3-£ %t ^ ttfmbfrlzZ-itzo
(4)
* i> cmanm £ Snx tz t # 5 fts#E3M^0)
t+ 5fco$ET-;>:<7)2ooi§#ftov'THBto9f?E£
ffo/Cc a) iJES'JO J: b ftf&fl-^iSK*gsjJHLZ-: j: S i:, b) ->'7n 7 74t*£ft
ffittS'Ji; LTiSSnL^fc bX-hbo SKSS$I±, a) oS-g-lifi^SWHiB^^rgSK
4-Tlf-£ <7) A-e®S%6$ft J; -£ <7M£Tl±*mT- §51$ b) w
® a'li, E^»iSSSftffir-#H5S*£ ft, S»)l±#9-**^**S < &-&
ftcft##-t:±# <#®5ift4-f£T?-t4-^o
v HJ 7 U/l/> b*§v>j: StzijlftS, CftA,?)##&#
t'C ^ t c T?mi| L 7 6%)'*#* L/:. f ^64, (DMF)
ItSk 6*4gESS (SGT) OMS-4fflv>r-E-OSI6^fflfci:»JtR. i><tt/WS
IfeWitRS-ffo/.-o -e<0!S$> DMFIt*, S GTk
#S$*#EL/2o L/jt)soT, SGTIi, DMFIt#-> 5 i l^--> a
LT%&-o oT#a^g»^ Z ft
g#u, ^sSa-S^rS^^rofflAfgtessiT-E-
ogBttS-ffcSfSCiy^fti 7 6Z
%?ht lt, a) 2#(0A-Ba(07'o 7
M&M (ttT(A-B)„/(A-B),,?I^i«§K1--S) to; ? ufflfi-mt-ri'Offlfrt&om&mz
S&y-eiog f ki®«« r 4 ft 5 7 7 A * ii c, 75, t: t & ; t & X V (2) A-B <7)#lf—
tiT, W%l*lS£ J: EFffijSft
(1) (A-B)„, /(A-B),,?&#*<?) 5 7 n/v? DtlAUgii
-OWF5ET*l±, m7)4:te#L < , V7'b>y7'a 7 f *
l-s-ff a t pom.£%] J-7 7
- 18 -
frb r? ^ac&j *„ -erois$, x-f-vy k
4 yyi/><0^7limsi:»wf#;wqetc W6 6f,i5or#a#RSm&-m:%L
tz-?■? uffiftmmtK s$ofiTu#v\ ws-^s'-a*
|a]gM'7 ilV'TlIft^'Ja^ otl/'J i h^MV'tHSfL^o
(2) A-Knmpf.—tkPt.mm&vznmii-*-&<}$# < f u Y 4 4 yiUMi'b^^i&tx-y ') > r-iki. ? D
4 > "TM ti*»—£ t & x ^ U- > i- V7"Vy-y7'n y
BitlC-t i)±§*aw X^y MXro/M XII
mumm-fzztizxtomwl*„ f«a, 2<ofgg##m-eii/y/( y#@k#f
<7)Bei6]7)?ffijf 5fi£i:vt7 2 k, ->'J y y-K< Xn Kx 4 yfSS*ib$syti X n K X -f
yffi®^<7)teSl±, L * y V y tc»E 5 *1**5$, IllfflJti,
fr'ijtn's') y [ill] *|6]i:*g8 L*?t* L*$to i X n K
7 -f y#ll^o|affiffieS6-1*7 2 k iWbfrlz L tzo
i:-7v^T, e#mc^
6. ±a-tt6K¥ff6AaS.$:F-*Wi-a$*<7)*$#a 16ii, S5»ttEfl<7)*.ttb-m*e«6mmta0 kcoiit&ii, wmmkimac#*
a,#TR*gji5^A, ^n^oicoitjt*>![,, 2k^?r
#k*6» #t:,
awsmssictiv'-rii, mmj: vaaaroiFfl-E^^atMtttspttiiflrsflS; f(t) t
«t>(t) t)$ ^<t) = [»(t)]d (a = i-i.3) av'iwt&Mmt-mttc
ti(t) k 4>(t) (0%%K&#i:-7V'Tio#M*6%^^k*o*o
aa$®^-£ *t -ae«->x*• v -r y7>y (pi>
ffM 530Me (Me l±*&*-&V>* Pfl^i:) WlEHT'iEWBUlT)5®
au t< y?zim&tzzktf£>fr
O*o Ma S 8Me OSffl PI S»ltolcov>Tli 2 <OM«OTKa-tir-f,
mmii) wqgw»t*o*o ra#X)te3S'l468fn<7)g@l±, ISA-6-v>g$iv H u X 7ip(7)Si53'a-l:$SBiian-7'i:ov>
T <>$IE5tL*o±E<7)aaE*»a%j:ssEs*ao-7*i:-7v>Tt7)eg:(±, @##» t *(,+%##
64 (CR) 2(0 CR 3l6*'»5il:'P<oiiai6J: Ogi'k, «*i»
19 -
In this paper, we report the result of research and development in FY1999 about
“Platform for Designing High Functional Materials”, which is involved in the MITI’s
Program for the Scientific Technology Development for Industries that creates new
industries.
In chapter 1, the activities of General Investigation and Research Committee, which
was set up to analyze and investigate problems on research and development of
“Platform for Designing High Functional Materials” are reported. And the results of
five subcommittees, which investigate more real problems, and “The Seminar of
Polymeric Materials Design”, which investigates the actual state of development of
polymeric materials are reported. And also investigation reports on the domestic and
foreign state of technology are described.
In chapter 2, the results of each working group (WG) are reported. The outline of the
results of each WG is the following.
WGl is aiming at the development and applications of coarse-grained molecular
dynamics (MD) methods. The following three are our main research subjects.
[1] A general purpose, easily-extensible MD simulation engine has been developed. The
engine, named COGNAC, will enable the users to easily try various coarse-grained
models depending on their aims. Four case studies by using this engine are being
carried out, with various interesting results.
[2] In order to establish the methods to construct correct coarse-grained models from
microscopic models, we have started to optimize the coase-grained model for nCB
liquid crystalline molecules. The effects of the side-chain on the liquid crystalline order
are under study.
[3] In order to predict the rheological properties of polymeric liquid, a simulation
engine based on the tube model has been developed. For polydisperse linear polymers,
the engine can predict the linear and nonlinear rheology under shear and elongational
flows. Another engine, which can calculate the rheological properties under shear flow
with short computational time, has also been developed.
21
In WG2, a new multipurpose simulator, adopting a simplified interface and enlarged
functions, was constructed, in the fields of dynamic mean field method. The previous
simulator itself was also improved and was applied to various problems. Following
results have been obtained using these simulators.
1) New Multipurpose Simulator;
Improvements have been made so that it can simulate polymers with various
monomer sequences and various topologies. Spherical, cylindrical and irregular
meshes are supported, which allows us to study micelles and interfaces efficiently.
2) Applications;
a) Phase separation and surface instability of polymer thin films; Phase
diagrams of the surface roughening were constructed theoretically, and were
confirmed by simulations.
b) Prediction of the morphology of multicomponent polymer mixtures; A
method was proposed to predict the morphology of polymer mixtures. The
validity of this method was checked by simulations on PE/PS/PMMA system.
c) Prediction of micellar shape and critical micellear concentration; The most
stable shape of micelles and the corresponding critical micellar concentration
for a given surfactant system were calculated.
d) Interfacial tension; Values of interfacial tension of polymer mixtures
obtained by the simulations are shown to be compatible with experimental
data.
e) Morphology of block copolymer mixtures; Scattering functions of mixtures of
block copolymers were calculated to discuss the morphology of domains.
3) Developments of Simulation Techniques;
a) Viscoelastic simulations; A prototype program of the viscoelastic behavior of
polymer mixtures was constructed based on the slip-link picture.
b) Simulations on elastic rods; An extension of Flory’s theory of uniform
liquid crystals was made to model inhomogeneous rod-like polymers.
c) Dynamic mean-field and Ginzburg-Landau (GL) models; A quantitative
comparison between dynamic mean field method and GL method showed the
- 22
usefulness of GL approach in accelerating the mean field simulations.
d) Phase transitions of Lagmuir monolayers; A simple model was proposed to
describe structural phase transitions of Langumuir monolayers.
e) 3D coordinate systems; Several auxiliary codes were developed for the
future implementation of various coordinate systems such as spherical,
spheroidal and bi-spherical ones.
WG3 has been working on the study of spatio-temporal behavior of polymeric
systems (~0.1 }i m to ~ 100 // m, ~ sec). In this year, we have analyzed the essential
structure of a simulator connecting the ones in different spatio-temporal scales, and
designed and developed class libraries which support continuum level simulations. In
order to solve such spatio-temporally large scale problems in polymeric systems, we
use coarse-grained models where the system can be regarded as a continuum system.
Using our developed class libraries, we mainly focus on construction of simulators to
solve following problems as
(1) Dynamics of liquid droplet dispersion systems,
(2) Phase separation dynamics related to wetting and/or evaporation phenomena,
(3) Swelling and shrinking dynamics of gels,
(4) Fracture of polymeric materials,
by a finite element or a finite difference method in the Eulerian-Lagrangian or
Eulerian pictures. We obtained following results for each target. We have constructed a
dispersion system simulator which deals with phase separation dynamics of polymer
blend systems, electrolyte ones, and polyelectrolyte ones using a structured grid in 3d.
For film coating problems, taking into account the effects of a surface tension of
liquid-air interface and of the gravity, we performed simulations of leveling dynamics
of the surface shape. For the problem on the swelling and shrinking dynamics of gel,
using a stress-diffusion coupling model we obtained the temporal slowing down of
shrinking process due to the appearance of a surface skin layer. For the problem on
fractures of polymeric materials, we performed the calculation of energy flows (what
we call J-integral) into crack regions. We also developed a simulator in which the
- 23
elastic stress field can be solved under an imposed stress.
In WG4, we started a full-scale activity under several full-time persons from the
current year. First we collected information and data on several physical properties
from theoretical and experimental points of view and investigated the prediction
methods from the versatile points of view, resulting in the determination of the
strategy. As for the properties of elastic modulus, melting point and clarity, we
identified the characteristic of crystalline polymers such as polyethylene and devised
the approach to obtain the initial structures for the simulations by seamless-zooming
linking the several engines. In the rheological properties, we have developed the
rheology prediction engine and obtained a few results for shear viscosity and
elongational viscosity.
In WG5, we made a chemical analysis engine platform for fundamental facilities test
version, herein we call "platform for test" in short. Platform for test working on
Windows 95/98/NT and Linux, is developed using Java which language has high
portability. We could develop platform for test which has high flexibility and scalability,
for common essential tools using free and high-function language "python" for
interactive data manipulation language, and "Java 3D" for high performance and high
portability graphic engine. In this year, we could connect WGl to WG3 analysis
engines and we examined "Run Engine", "Result data calculation" and "Draw 3D
graph".
We also designed UDF for a new format/construction for common scientific
calculation data and we investigate fundamental functions for UDF. UDF is similar to
traditional object oriented languages, could describe data type and its usage functions
in one file. But UDF is still under developing language, so we must brush up its
functions and grammar for establishing new language that can be described common
scientific ideas.
We would like to establish easy-to-use and friendly chemical analysis engine
platform for embedding more good functions and facilities, and brush up UDF.
- 24 -
In chapter 3, the result of each university, which is re-entrusted, are reported. The
outline of the result of each university is the following.
In Yamagata University, Faculty of Engineering, to develop a material data base
which compensate the simulation, we have been performing (i) quantification of
crystallization behavior of polymers under flow, (ii) measurement of properties of
polymers under high pressure, and (iii) investigation of rheological properties of
complex polymeric systems. In this year, the obtained results are the following: (i)
Direct observation system for flow induced crystallization of polymer melts was
developed, (ii) With ultrasound velocimetry with PVT developed in the previous year,
various polymers under high pressure was examined, (iii) Rheological properties of
ionomers were investigated.
The result obtained by University of Tokyo, Graduate School of Frontier Sciences is
the following.
Polymeric system shows self-assembled higher-order structures in layers
constructed by a variety of intramolecular and intermolecular interactions. The
structures and physical properties in nanoscale exert a great influence on the
macroscopic properties. In this project, we aim to investigate the structures and
physical properties in nanoscale to compare the experimental results with theoretical
values derived from computer simulations by the WG1 group of Doi project. In FY1999,
we have developed a new apparatus for measuring the conductivity and dielectric
relaxation under shear flow, and applied it to a polymer electrolyte system and a
micellar one. The experimental data give us much microscopic information on the
conduction mechanism of the polymer electrolytes and the lamella-sponge transition in
the micellar system.
The polymer electrolyte system is greatly expected to be a new material for batteries
or fuel cells because of the lightness and dryness. We adopted a typical system,
polypropylene oxide (PPO) with alkali metal salt LiC104. This system shows the
dependence of the conductivity o on the degree of polymerization, N, as a oc jV'2 in the
- 25 -
absence of shear flow. When the shear field was applied to the system, we found that
the dielectric relaxation appeared in the frequency range of 10kHz to 100kHz while the
conductivity decreased. The relaxation time r was nearly independent of the shear
rate but proportional to N. These experimental results are explainable by the following
model of the conduction mechanism of the polymer electrolyte: The lithium ions
solvated by PPO fluctuate within a single chain in a time scale of z f, which produces
the dielectric relaxation. In addition, these ions also jumped into other chains in a time
scale of z r, which contributes to the conductivity. In the absence of shear flow, r f is of
the same order as r r, and hence the dielectric relaxation was not observed. The
experimental results of the shear dependence of the conductivity and the dielectric
relaxation suggested that the shear field would suppress the ion jump among polymer
chains. From the evaluation of r r, it was seen that the jump was promoted with
decreasing N. This indicates that short chains can be utilized for the design of high
conductive polymer electrolytes.
Meanwhile, we adopted a ternary micellar system, pentaethylene glycol dodecyl ether
C12E5, hexanol and water. It is known that this system shows the lamella-sponge
transition at 26 °C. We investigated the shear effect on the transition through the
fluctuation and diffusion of ions. The experimental results indicated that the lamella
phase offered low conductivity and large dielectric increment whereas the sponge
phase had high conductivity and small dielectric increment. This reflects the structure
of the lamella and sponge phases, that is, the ion dynamics can give us information on
the micellar structure. Furthermore, we found that the dimensionless parameter A t
/ ( z a ) was clearly different between two phases, and hence definitely characterized
the structure of the lamella and sponge phases. We measured the shear effect on the
lamella-sponge transition through At/ ( r a ) .
In University of Tokyo, Institute of Industrial Science, the study aims at revealing
the overall features of viscoelastic phase separation of polymer solutions on a
quantitative level. In particular, we focus on how the molecular weight of a polymer
component affects the phase-separation behavior of a polymer solution.
- 26
This year we study a problem of how the pattern-evolution dynamics of critical
polymer solutions depends upon the molecular weight of polymers and the quench
depth. We found that a transient gel can be formed for a deep enough quench for any
molecular weight of polymer, which induces a drastic change in the phase-separation
behavior. The temperature of the appearance of a transient gel, which we call a
transition temperature (Tt), approaches to a critical temperature (Tc) with an increase
in the degree of polymerization N. We found the following simple law: Tc-Tt ocN-1/2.
A transient gel state is characterized by the absence of domain growth. It is followed by
the nucleation of a solvent-rich phase. The incubation time is found to increase with
increasing the quench depth and the molecular weight. We also observed the
viscoelastic phase separation in bulk polymer solutions and found the volume-
shrinking behavior of a polymer-rich phase, which is very similar to the volume-
shrinking phase transition of chemical gels. This clearly indicates the similarity
between phase separation in polymer solutions and volume phase transition in
polymer gels. This fact is important in understanding not only viscoelastic phase
separation, but also the static and dynamic phase behavior of polymer solutions.
In Tokyo Institute of Technology, Graduate School of Science and Engineering, by
comparing experimental results with those obtained by the simulation programs for
me so-scop ic behavior of multicomponet polymer systems, they examine how well the
programs work. In particular, they will make the examination of dynamic mean-field
simulators developed by the WG2 group of Doi Project. More specifically, they focus
their attention on polymer micelles, polymerization-induced phase separation, and
polymer interfaces, which are representative but difficult problems in polymer alloys,
and perform experiments to obtain sets of fundamental data and preliminary tests of
simulations for these properties. The following results have been obtained for
respective subjects numbered as (1), (2), (3) and (4) below.
(1) Association behavior of block copolymers near the critical micelle temperature
Micellization behavior near the critical micelle temperature (cmt) should be very
helpful for the test of simulation, since the micelle near cmt is not frozen-in in the state
- 27 -
far from the equilibrium state, and the history of its formation can be clearly defined.
In this study, we reveal the micellization behavior near cmt.Poly(methylmethacrylate)-
block-poly(t-butylacrylate) (PMMA-b-PtBuA) in n-butylalcohol is used as well as
poly(dimethylsiloxane)-block-polystyrene (PDMS-b-PS) in the mixed solvent of 1,2-
dichlorobenzene/benzyl alcohol, which has been used in the previous study. Static and
dynamic light scattering experiments have demonstrated that the PMMA-b-PtBuA
solution exhibits the formation of giant associates similar to those observed in the
PDMS-b-PS solution, although the amount of aggregates is not so much. It is
suggested that the giant aggregates are formed by swelling of micelle cores, which
leads spherical hollow cores. This suggestion has been theoretically supported.
(2) Dynamics of polymerization-induced phase separation in strong segregation
systems.
The time-re solved light scattering measurement has revealed that there exists the
time domain where phase separation gently progresses in the initial stage of phase
separation and that the phase separation rapidly progresses afterwards. Though in the
time domain where phase separation gently progresses, the peak appears in the profile
of wave-number dependence, and the intensity increases with the time, while the
position does not change. The slow phase separation was observed in the beginning of
phase separation in all monomer-compositions (50 80wt%) and temperatures (110
170°C) measured. The time at which the quick phase separation starts is earlier as the
temperature is higher, and it is not very dependent on the composition. On the other
hand, the peak position is almost independent of temperature, and is located in the low
wave-number side for the higher monomer composition.
(3) The bimodal particle size distribution in polymerization-induced phase
separation.
In the phase separation of 4-chlorostyrene/polystyrene mixed system (4C1S/PS), it
has already been found that the particle size distribution becomes bimodal, where
droplets are of the polymerization-product rich phase. The mechanism for appearance
of such a bimodal distribution has not been clarified yet, and is expected to be revealed
by computer simulations. Then, we have tried to carry out the calculation based on the
preliminarily simple model. The model describes the progress of reaction by the time
change of the quenching depth, and takes effects of viscosity change with the
polymerization into account by time dependence of the mobility. The results have
demonstrated that the bimodal particle size distribution can appear even when the
quenching depth monotonously changes, and that the diminution rate of the mobility
plays an important role in these behaviors.
(4) Effects of the additives on the interfacial tension of polymer/polymer interface.
The experimental studies have been carried out on the two cases, (D the case in which
the low-molecular weight solvent is added as a plasticizer and (2) the case where a
diblock copolymer is added as a surfactant. It is demonstrated that the low-molecular
weight additives have a very slight effect on the lowering of interfacial tension by the
adsorption, and only lower the critical solution temperature in ®. On the other
hands, the maximum in temperature dependence of interfacial tension is observed
near the critical solution temperature in (2), since the interfacial tension is lowered
very much by the additives with the increase of segregation strength. In this study, to
see how well existing theories can quantitatively reproduce the above experimental
findings, the followings were carried out using both of the square-gradient theory
(SGT) and dynamic mean field (DMF) calculation: The comparison between theoretical
prediction and experiment and comparison of both theories. Both calculations
successfully reproduce the experimental results of interfacial tension. Therefore,
SGT is indicated to be possibly useful as a supporting tool for the speedup of the DMF
simulation.
In conclusion, we have obtained sets of experimental data and performed some
preliminary tests of simulations for the specific subjects described above.
In Kyoto University, Graduate School of Engineering, the multicomponent polymer
mixtures provide a rich variety of morphologies induced by self-assembly via “complex
phase separation” which means more than two kinds of phase transition are involved
in a given system. In this study, we aim to explore the phase behaviors and the
dynamics in the following phase transitions of multicomponent polymer mixtures: (1)
complex phase separation of binary mixture of polystyrene(PS)-Mock-polyisoprene(PI)
copolymers, where the constituent copolymers designated as a and /? are both
compositionally asymmetric, while their molecular weights are similar, and (2) order-
order transition of PS-biock-PI (S-I).
(1) Phase behavior of (S-I) 0 /(S-I) 9
A crossover between the state preferable to macrophase separation and that
preferable to microphase separation state was observed in a binary mixture of (S-I) Q
and (S-I) /3 block copolymers by using small angle X-ray scattering (SAXS) and
transmission electron microscope (TEM). The constituent copolymers of the mixture
have almost same molecular weights and complementary asymmetric compositions:
one component (designated as i-2000) has a number-average molecular weight (Mn) of
1.2 X 104 and its volume fraction of PS (fPS) is 0.81, and the other component
(designated as s-3000) has Mn= 1.3 X 104 and fPS=0.21. The i-2000/s-
3000=50/50(wt.%/wt.%) mixture showed the macrophase-separated structure of the i-
2000 rich domains of several micrometers in size, dispersed in the s-3000 rich matrix
at high temperatures (near 150°C). However, when the specimen was gradually cooled
(below 80°C), the macrophase separated structure tended to disappear. As a
consequence, the constituent copolymers of i-2000 and s-3000 tended to mix on the
molecular level and from the microphase- separated structure of alternative PS and PI
lamellar domains of nanometer-size.
(2) Order-Order transition of S-I
A order-order phase transition observed in a soft matter was investigated for
polystyrene-Wock-polyisoprene block copolymer having a volume fraction of
polystyrene block (PS) of 0.18. This polymer underwent phase transition between
spherical microdomains of PS dispersed in the matrix of polyisoprene block (PI) with
the body-centered cubic symmetry and cylindrical microdomains of PS in the matrix of
PI with the hexagonal symmetry with changing temperature across order-order phase
transition temperature. The grain structure and orientation of lattices within the
grain were found out to be conserved before and after the phase transition.
- 30 -
In Kyoto University, Institute for Chemical Research, examined the validity of the
dynamic tube dilation (DTD) process in entangled linear and star-branched polymers.
For polymer chains having so-called type-A dipoles parallel to their backbone, the
global motion leads to both viscoelastic and dielectric relaxation. Since this motion is
differently averaged in the viscoelastic and dielectric quantities, comparison of these
quantities enables us to examine detailed features of the chain dynamics.
Specifically, analyses of microscopic expressions of the normalized viscoelastic and
dielectric relaxation functions p(t) and 0 (t) indicate that these functions of
monodisperse linear/star chains satisfy a simple relationship, p(t) = [cp(t)]d with d = 1-
1.3, if the tube dilates in time scales of the chain relaxation (as assumed in current
tube models).
For linear and star cis-polyisoprenes (PI) having the type-A dipoles, dielectric and
viscoelastic experiments were conducted to test the above relationship between p(t)
and 0(t). For monodisperse linear PI with the molecular weight M < 30Me (Me =
entanglement spacing), this relationship held and the simple tube dilation picture
was valid. In contrast, for monodisperse star PI with the arm molecular weight Ma <
8Me, the DTD relationship was invalid and the actual relaxation was slower than the
DTD expectation. A similar result was found also for linear, dilute high-M PI probe
chains entangled only with much shorter matrix linear chains.
The failure of the simple DTD picture, found for the monodisperse star PI and the
dilute linear PI probe chains, demonstrates the importance of the constraint release
(CR) motion (a pre-requisite for the DTD process). The simple DTD picture is not
valid when the CR motion is slower than the chain motion in/along the dilated tube, as
is the case for those star/linear PI chains. This result in turn suggests a possible
direction of refinement for an engine in the Doi-Project calculating/predicting the
dynamics of entangled chains.
- 31
1
(it) immmn&mimmSfflTcr
1.1 liCAlc
(1) -#*)
%«####:+?'a*-t:»#• t^itf-ay
ny'i? M wt~. #intiMcoBf?El'SyfWai-7)^>fc'5i«#BlW4i$8t7,77h7t-
US-g-tiMJFfE®!£^IxB-f -5. i: *tc.#SD&*coSln] *KW£ -tir^, tz*<75#*^
JEiJTtfTtfcltta&^H^ft-bS 4--£R#M£«T(c!S:it£o J-lTUiE^-S. J: 7
C. *p$@f%$i^ciSaKJ: ») yn-y'x ? 1 <7>*[fi]ttit, |L#M&if^Sx-vw
ixS^nitcSjifii" 4st- £
(2) S«*6|6]*$
i@##W#m:+7"77I7t-A(:M66 4 taoffl|*lSLK 7 ®«)«^C0ftKfc0e#tl#lS
4£fa&L£o
V'-ftu77i9$(-tiv>T (). 4-fi:<7)7F7'n-yj.»’ I-rojlilic k oTSS&fl#*
-thZ ttfX~£tZo
1.2 B-6i8$®f%$*£r
(i)
3 0«l£-S-fS*8M:&S-££JS*¥'eiHILXo
51 HI ¥fiK 11 ¥ 6 H 14 B fAllfKMW+m.
T/$ >X H/-V3 >
52 0 % ii $ 12 ^ ig g 7-4>X6
53 0 ¥l$ 12 ¥ 3 8 0 ¥)$ 11 ¥Jt<0)$jBf8S#t"-3ViT
¥® 12 ¥$ltHK-7)V>T
#S. ft»£fT''>T#£f#£o
WT Cfe^WSW5E®H * 411-0
- 35 -
#
# i
#
#
# m
#
#
##
#
#
#
#
#
#
#
#
#
## M
#
#
# M
# m
# m
±# IEM
ju# e#
#a
mix #zDS Vx.
##: 1t’/p
e
BE
##
mt
eE
?i,e
EE
IW
/Jill
EZ
H±
EE
A^
EJE
#±
#E
m
m
m
is—
tl A#8#
am#
me
mw#
•s
±#1%%##%# ttSSZ^SA
eei%ze#%#
AzRA# m#gR
JK#*#
mKzmA# ^
m-gp
mm^
EBA# %#gR #mze#
E#±# zeas #mze#
o'###%plr Sira• AZ-yaeff^b-t: > ^ —
m#gR :t##E#r^-7
J SR(#) im#&-t:>?-
m#^
mme
me
ee#%-g
eeam#
±Sif%l
±«%.
PA
;eas i#$ #gR &;(¥$L 11 ^ 4 M 1 0 -9 ft 30 0)
7A^$#ESG 7fy'f-(E/& 11 ¥ 10 ft 1 B-¥J£ 12^ 3 ft 31 B)
36 -
$ 1 $* #tf$ 1 Ttri4! 5* a]
$ a BE
$ a Oin Bet
$ a *, '£
$ Mi#
# M SB 7C—-
# M e+m#hi
# ft mm £W]
M ar M'ia# * ##
# M /¥# g## M #*
# it 5ES# m SH] iim
M B## M as SEE
m B* JEtS
$
@ a ?S7K $#
$ a *b pi
t i SB ##
$ a SB ?§£
f I llli iltii
# a ns mm $ a Px #A
h$*• <) * ¥ 7 -r >(») s«*sb
S±¥X7-OVA(tt) fiffiBf5EpJT
%"c
(¥6% 11 ¥ 4 J3 1 E-¥E 12 ¥ 1 ft 19 0)±m(%
(¥$ 12 ¥ 1 ft 20 B-3 £ 31 0)3kR-gLH&5fclT ##{[:#(#)
IJCkl
l£@±j$SFycj
S/$E%!:^p s
W5EFJ?eZS.1
E=*A.M * g
(¥66:11 ¥ 8 11 IB -¥ffi 12 ¥ 3 H 31 B)W5E1
IJ*«SS fflSEl(¥« ll¥4 fl 1 B-7 31 B)
: ol BfFEl
m%a
effea
W?S&l9e
sc5S**E
(¥66 11 ¥ 4 H 1 B-7 31 BZS.1 s sf?sa
(¥66 12 ¥ 113 4 B -3 11 31 B) nr* m
(¥66 11 ¥ 4 11 1 B-7H 31 B) ht*
ffl2SM?§**SB W55Mw%a
(¥66 ll¥4H 1 B-12H 28 B)(#)fb#K#m%#a«# Mxmx
j^:
sim%:
m%a
■S w?Ea
s
- 37 -
(BfSEM)
& 03*
IEIS3 MlA# B$
¥&
(MSffi&ttM#)
## £
i?Jaw]
Jpli lEH
##
imm
^UJ xm
/f£H Si:
±1? #1#
#z
murmmnn
mmmtiwmmmmmm mEM%**a
wmmmmnsmmmffi wurmt-m
■S8S1
ass i*k*k #s»a
as# xmmm &mu srmas# ##a s###K#m%m*m pahi#as# x$k#tI£ si^Dtxsin a#as# x*i»K tfK7-n-bxs*a »m&as# i*s$k #K7'nt%R#a sne
SriW--S*OTE*M««# ±$
38 -
(2)
r^6t#mm^:z6V7h^jc7(7)^mj
NEDO X 'O OSSMfScHcOitoJ r^Fl^nyx^
7 h 71 - a *&*#&#%##&
#
##
# m
#
# m
# m
# m
# m
# m
# m
# m
# M
# M
# M
#
#
±#
JH#
#p
UUffl
A^
#±
flEB
IEM
#A
mm
£if
A* #tiTfrmi ##]
PM
me
-5E
LUP
1^1# #z
Wffl TCP
A¥m#P
##
###%#$% me
m#±# z#gg
j SR(%
>(%
(¥l& ll¥4 1 0-9 n 30 0)7^/t-
(¥E 11 ¥ 10 £ IB -¥)& 12 ¥ 3 R 31 0)B¥:^v ¥ i%7 < y(% w#gR
m±^g 7 ^ ;i/ A (#
#±m#) ±^gR#(¥/& 11 ¥ 4 n l 0 -¥$ 12 ¥ l E 19 0)
(¥E 12 ¥ 1 ft 20 0-3 n 31 0)
±##%m
±SWei
r;P7°'j-r'-
±#
fgR m!
ZS-S^SK
yA-7'#/f-
- 39 -
# m ## Ss]
# M iiT# M ##
# M /J\# urn# M $»
# M
# m $Hl iitH
# M BIS ^A## 1 B* SIE
# M @* lEtS
# 1 ftSJIIIII-
# M fa* izW.
# M $B 0:# m t#B
# M #B
# M LU± mui
# M am 99#
# m #A
^ BgjC
A#
ipA #^A
m# ^
i%* #
iz;w]
M IE^
(¥$ 11^8/4 1 B-¥E 12¥3fl 31 0)
(¥E ll¥4^ 1 0-7/4 31 0)
(¥E 11^4 J4 1 0-7/4 31 0
(¥E 12^ 1 n 4 0-3 ft 31 0
(¥E ll¥4/4 1 0-7/4 31 0
ZS.-.(¥E 11^ 4 /4 1 0 -12 /4 28 0
k-&R
:M
i^.j
mstmftM
nmm$ :Ui
m*\i
i# m#gR #M#
i# %mmi% m#a% i% s#
40 -
tt@ IE©
mm Ei,
ew xm
±Sf i*ES-
aes I*fiS-«K ftJ®7°n-tx$*IS
am# iift#K %>&7'n-tztmm mur--mmmm&m%m
mm-mmemmim*
et;
ISfi*F£
sne
(3) 8B6
*<7)5664-mml. mmiznfLmvmmi'iio*
mmMD#M5G6
ftfI{tMDF$W666'eii, ti.T<7) 4 @<7)S64Dfl1I U Aff6<l&RBU-3V'T
4## L^)o
1 El ¥ffi 11 ^ 5 R 27 B
x 9 — x x #7 h V — 0)$f
I- Z £!*« rtl$itot#S4 1) -3<WSro/-,:<»<7)KXm*■ r > -> + )K7>gH%J SCf" FSEJSlXto^ MM/MD lt#<7)/cto(7)7)V3'V XA<7)gf1%J 4fr£v\
S*WH4ff*o^o
2 El 11 ¥ 7 21 B
{4®b$ri7 x & as [wmmnftz&t)} 4
ff&v\ K#jftii4;ff*7X-o
3 0 V® 11 ¥ 11 29 B
mwsmit&nm^ti^szizx zm® rumr
)M£ 17 <£ .5 5SRSh-F-WSf h 4A■> 5 a. L — -> 3 >J 4fr&v\ SSfltli
4fr& 7 tZo
4 @ VfiK 12 if- 1 25 H
University of Leeds <0 Prof. G. R. Davies IZX 2> Si$ FDynamic
Heterogeneity in Methyl Group Rotation in Poly-(vinyl methyl ether)
Revealed by Molecular Modeling 4ff4t\ SFBttli4Ft4 o tz0
- 41 -
# # # s
s » » s
# s s
JilT UTO/BM D U
#
#
±S IEH
jll#
#B
?i¥ #—
WB 7CZ
# m
9# £rW]
#
#
#
#
#
#T
## m
M /J^# #!#1 Elf 5:#
m #
M EhWJ mm
M fflUW gA# M BB SIE
M m* JEW
M MhJUSI-
M faA a
M AB H M j#B %#
m #B
m uj± mm
m mm mm # m i% #A
m iffl
BB S/I
%mm±# ±#1%%##%# m#
mm#
B#±# %#m5 mm#
mw%m
(¥^% il¥8£ l B-¥/& 12 ¥ 3 ^ 31 El)
(¥E ll¥4 Jf 1 0-7 ft 31 B)
(¥/& 11 ¥4^ 1 B-7 n 31 B)mm######### #%m
(¥E 12¥ 1 ^ 4 B-3^ 31 B)
(¥E 11 ¥4 # 1 B-7B 31 B)# #%m
oft @f%M
gis #%m(¥E ll¥4fl 1 B-12 £ 28 B
f $fx~tr > 9 —
■±r
###
mtmt m
m#
mm#
- 42 -
mis. iim%M)
5c
SB*IE lag nu
n ru
A#
#)5E#JAW]
An# Z^zePAM
±if
-«:«aSV*g|i:
E%F*1%3
:?£
as# xifi#fK I6SS6 E?er*ii6S
am# eseii sfi#am# x#m#m #$»s f*i%s#am# xsmk »K7-n-txmm esrm) XI ##7"n EfiMfeam# x#R#m tiKxn-t^mm
ssms-s-n%«# sssM^mms
Pitt
ma&mej
*$SW5EBf1%S X$
Kiw-mmMm-e-im*## mmrmmrmM ±$
•'fcwSISiE 4-1*111 U K#ftelt4-ff4:-3^0
g 1 0 X® 12 ¥3 13 a
V il 7 *^Prof. Karl Freed IZ. £ & 1 Monomer molecular structure
and the miscibility of polymer blendsj 4ffv>, LZ;0
ti,TIX li61Xl9«fmgi6<7)$*#84/XX,
- 43 -
S&.
'j-r-#
#
#
#
#
#
#
# M
# M
#
##
#
#
#
#
#
##
#
±fe IEH
;n#
&&
?ife i$—
TCP
fe+m#W]
## -feW]
#T jK'fe
## ^tti.
fe# #:#
# feS
SW] iitu
mu#fflfe feJE
@fe JEtS
mejiim-
^ffl77C
feffl im
i mm
\ P± ]iiH
i mm %#
t 1% #A
#f# 'fel
fflfe &Ti
$Sfe#S liHR S
ItSSfe^Sijc
m#±# %#gR ##%##
##
#0:^
Mi^I
%
(fe)%E 11 $ 8 £ IB -¥)$ 12$ 3 W 31 B
(¥fi£ 11 $4 n 1 B-7^ 31 B
(« 11$4]| 1 B-7 ^ 31 B:
(¥E 12$ 1 ft 4 B-3 ft 31 B
($m 11 $ 4 ]] 1 B -7 W 31 Bmammas #%m
(¥)& 11 $ 4 n 1 B -12 ft 28 B
## Sira •PP-ya/^F^b-t > 9 —
rntmizm
torn
- 44 -
& ns*IE 1551 MlA# mm
5E
#
ft^ltins IEH
itm i#m
^lu A#
#s i§f:Ji;±i? nm
#z
Z*.!
z&: □[;
m]
WjuM9E
Zki
mm# %mmi% m#m5
mm# %mmi% m###mw#%mm #rm mm#mm# zmmi% ^myot^mim mmmm# z#mm #mya-b^fmm mm#^mm# z#mm #f!m
• frnmtkmus
^costmco^e^^mu,
H 1 HI TO 11 ¥ 11JI 5 B
Catholic University of Leuven CO Prof. J. Mewis U [Rheology and
Morphology of Immisscible Polymer Blends J CO## £ He ^ > S^ift £: fr o
fco
S2 [U TO 11 ¥ 12 If 1 B
King’s College (0 Prof. X-F. Yuan U X 6 ## fDynamical Modeling of
Complex Fluid Flows] 7$. If Illinois Institute of Technology O Prof. J.
Schieber X h ## [Self-Consistent Reptation Models using
Stochastic Simulations] t£#Tf]'§fi fcf? % o tz0
— 45 —
3 0 12^2 E 21 B
e^#L/:o V-ftAm#(7)-t:/il/-?7<
Ltz^Ezl5h££ffiv>i/ l 3.1/— -> 3 >co^yi<h
c /:o
m op^ ■.%m
# : ±* iEH
t ;n# #m
t7"-'j-r-^n #;
I i%$ #—
I tfffl 7C%
i z+g#m
i ## -few]
#
#
#
#
#
#
#
#
#
#
#
#
#
#
#
#
#T
## {*£-&
M /j'# #:#
m #
M l£W] iStti.
M EGi#M SJE
il @^: iEtS
?@7k ^r#
OT I#
###%:##%
%#gp #;#%##
mammas(¥E 11 ¥8 n 1 B-¥E 12 ¥
(¥$ 11 ¥ 4 E3 l B -
(¥$ ll ¥ 4 H 1 B
(¥fi£ 12 ¥ 1 ft 4 B -
(¥f& ll ¥ 4 H 1 B -
mE
##
mw%m
3 ft 31 B)
7 H 31 B)
7 ft 31 B)msm
3 n 31 B)
7 £ 31 B)
- 46
# M igffl ##
# m SEB K£
# 1 IU± it*
# M HB mm# M P% ^A
Z#M SW e*
z#j1 B*
z## m
ikr# W
% BgjC
jEm mi
A#
SSI 5£#
titfij £*]t)Pli
##
^LU A#
z^
#z
(¥$ n s 4 n i a -i2 n 28 a
Z£-<
zs.:
## Sira 'yUl/-y3>5iF^E-t y 9 —
Z*.-
m#g|5:
mm# z^
mm# z#
mm# z;
mm# z#
mm# z#
mm# z#
#riW--m
-• m
-• m
ci?<±* Vl> -m.i
mAftali
44441% ££?£□&
BF^SfSS
if4¥M0f%r»mtt sne
;K#rK ttl7"n-trxS#f«
iR#l% t/K^n-bxtttfl*
W-/Dtxttii
mme-a-M*## ss««ef«%5
mme-e-im*##
mama####
Ifftlife
srm
Sfi
mgHLttWfEi
±$
±$
f£EeF%SnSISi?'C-li, 2 0(7)g|56S'M«L,
- 47
1 HI ¥l$ll¥8fl 24 H
My'n -SJL? F-KV ^6 U
st/awjti/7-o r**v*u7-f >wr«St®§tt«W«4-o*
2 0 f ® 11 ¥ 10 19 B
University of GroningenDr. K. J. A. Sevink X Ft FModulated Self-
Organization in Complex Amphiphilic Systems]■, E jp.~Fc TIE# E'f: [E
tiT(c^EW%Sn6ll6(7)$H8f»t7F-t-(
t£EW%SfTOs
#jIS ±* IEI!
# M Jll# ##m
# m #-'H ^BB TUP
# M £+H#W]
# M ## 6b]
# M iiT Kiu# M ## %tn
# m /J4¥ *## m 5c#
# M £tt
# m J$W] it til
# ft BBHW %## m ffl¥ SE
# M EtS
uu®*# #Ki*#
BFJE^seJCkl
(¥$ n ¥ 8 £ l B-¥$ 12 ¥
-*|7(¥E 11 ¥ 4 ^ 1 B -
(¥)S 11 ¥ 4 /§ IB
me
am#
iii^i
3 ft 31 B)
7 n 31 B)
#%#
7 if 31 B
(¥)S 12 ¥ 1 n 4 B —3 ft 31 B
- 48 -
$ M sum
$ M IS7X $
$ M *EB PI $ * tea ®
-se m SB ȣ
s i iiii$ * SB
f I R ttA
tt?p
E##e#m
/MJj #A
mmBB43
EE m(»%*)
$# $
l£ 8g±
IE III AIE
iIEE JH/S>
In* $%
SIX £
fn % i#
it 10 Eb]
SdB ZS
#« IS
Bf5£M(¥«£ll¥4fl 1 B-7 fl 31 B)
(Z® 11 Z 4 fl 1 B -12 fl 28 B)W%M
5I9EM
*KW5E,
*#!%%##%#
ft*0f9S@T
msz*** w®-iS9-z»HSJit Eg
*iEi#j9i%9f m-m m#
ms** A#K#r#m#om##m%# #«*#% so sms
m#** z*® #mz*# xmm** **imz*#%# #mw«z*#%
>?-
t$Sl-n'##W5EpIr 3Iro-yUl^-y3>®ffE-k > j7 —
86ES
Eg
86Eg
w5smw
86*
*sai
«®
(fEHt*g#r«»M;t«tt# #%!%%]
:S Z*K#rl% m#® g*#*SM2EIWt$
is x*tt*R m«®
:@ mttSBt ##«
:$ xmmm #K*oz%g#m
:S Z*S#j|% ftK7'a-txa*3
isess*)$#i®±$
Sf5Egg%S
sro
!£*?*<£
- 49 -
si=m1% H
#z
mm# %mmi%
±St
±s
'fy y \'7*-'Umm&
7°7 v 5
Ltzo
^11 ¥E 11 ¥ 10 ^ 27 0
7° 7 7 h 7 f -A(DTt, ^>^-7^^77^7'7V (7)#%%, ###
#a v uDF?)##m# -
S2B1 ll¥ 12 ^ 3 B
Xf > K7a->^7^7'7 V, A^UDF60^#%rfWG2,WG3(7)
udf tcovrfM
S3 H SE 11 s 12 £ 21 B
COGNAC (?) Linux m, COGNAC (7) Windows 4"#(7)
i4| S)& 12 s 1 n 21 B
UDF m<7) show 7 v y h\ ^ 7 ^ 7 > h (7)#$##,
v h7^-A^-/<UNIX^<7)#f$###^ov^TW ̂
i 5 I SE 12^2 n 29 B
UDF 7(7)^ >7
LlTCy^ v
50 -
# m JK# ##
# it #a
# M w-
# M tcA
# M Z+m$R]
# M *» i5H]
# M iiT *?D# M ttitt ^AliZ
# M *# *## M *» *#
# M £#
# M j£h] it til
# M EB«S 5A$# it EBt *IE
# a* me
# m
#
^ M A /is
# m im
I Ui± M
# m
# M E ^A
?£S
EB¥ 2?S
##e#m HJK it
LUffl
#;-%&## A^
#^e#M A# tl-
%##A#
m#A# %#gG #;%%##
a*c
W)fk#R##i%#m## m%im%?x
tisefyc
$ff=*
WftHseZ£:
tu.
(¥& 11 ¥ 8 ft 1 0-f 8% 12¥ 3 /3 31 B)
(¥E 11 ¥4 £ l 0-7 n 31 B)
m%mis*** #%#(¥fi£ ll¥4fllB-7fl31B)
(WHt^e#f««s#i»s# e%mis*** m%m(¥l$ 12 ¥ 1 M 4 B-3 ti 31 B)
(*)fk#R#m»##m## $mDis*** m%#(¥6£ll¥4fi 1 B-7FI 31 B)au
W5E&1*
IS*** Bf%
IS***(¥sE 11 IF 4 fl 1 B -12 28 B
* m%#
%Z&l
smmwZ& !
»^1
«KW5EM
2X.1
%*#±# tiKSUMI***
##-&###%* W5E-&iHffR-t>l'- ##-&###%* mm-yui-yg^mt > ? -
ifwiKft) wiehis** e%gflis#iit»-
***B(tt) *»**%* %»**##%*
j sR(ft) rsis-b > ? - #a**yiF-y
c/c
me
^'^-7° V-^'-
- 51 -
## M&
#x At
s-ffl-e®* mm ex
#%*## $7"k gB|
sttE$s s;» **
#$<£$* E* ##
#$<$$* en
#■$6$* ffl® #*
#%*## Him Bet
*%*## *ft -$
s-sess IW JEr
(W9£«)
$
$g BSefc
IE ISI X:E
A# #m
$p* f%
mm £
#]#
JAW]
ins
#@
THIS] img
mill xm
®;«W5E3f ±®Bf£M
(#)m% x#
B$X¥ r(#) tittSnXSf^Sr 3t*(»)b«sa»f5ew «x>x***gs as
(¥& ll¥4H 1 B -9 R 30 B) (tt)H*BA9F5eHff tjx>x#H*g|$ t-fx>x-i-*^HgB 7t'>-
(¥* 11 ¥ 10 fl IB -¥)$ 12 ¥ 3 H 31 B) H*,-X'J X V7 -f >($) R#*g ±J$6f%H
Ii?*7XlA(ft) MffiSFS®? K®±ttSf%.
s±a<ft) ->xta*sb xsafi(¥l£ ll¥4fl 1 B-¥E 12¥lfl 19 B)
S±3(tt) yXrA^Sli ¥¥ 7t¥^>x#lS fiSSfi(¥sK 12 ¥ 1 £ 20 B -3 n 31 B)
eF%r*i%xsi5R#
me##) sse«w%sf X'«--7‘7r>'t-
#){!:#&*#%#### §F5E&m**g|
W5£gsn**ffl•tsai
eeseesffisis
am# xns#fK sssbam# x*a«^ m#gp srrnam# xitetfK s»sbam# eKtn-bxe*® is*am# x*%#m #W7°nt%R#f:s is*#tam# immm ^«^n-bxmm sne
stw• -• gsswetr*i *&ft±tef?EM
Eii.nr - • m ss we a si %ms mtmmmmm. ±$
- 52 -
(4)
HUBS& i* £ SSE & A $7 iz, B^H-Ett-tri^-
3 ®<t Ltzo
mm ¥/$n^efl 15 e
rS(EEISffi»#J
r**v ■7'9-J^yfrb%.tz HIPSJ
thips <?m&frbm±tT’}
r^xf y?%*###, itiesttj
[HIPS Wt/ttUM+S >VyUl-/3
MlW'" > 1*" 'JXfIX (C jj If ^ Scs 3-/, tW7=tDy"-WP«*J
il/DyiH tFB PfJ
#=am# a*
5*fb# #E#ttto, AEg^ft
*ffc« AUim%R
*ft
ft
> m##&ft
®20 ¥)$11 1 H~9fl 3 g (B£B)
r->-A l^xx'- i yycoFitmMtJ
[^y-jy<n=iy-f7bi
[7" 7 -v 17*- A®7- 9 *® k.x-iyy J
r *• v -> 7 jf->-A 1/XX- 5. > 7"C9 7 4 r'Tj
[MmimiroSSJ
±#IE§§»S
WG2, WG3
B*tk'kmnm z.»n>kR.
±#7"o yi? h WttSA-tiiS:
B&IUKWm-
£J1
WG4
SS3E f& 12^F3fl 8 H
r 7 T 7 i' X (7)53-tt • i®*iS8<7) y i x 1/ - y g > J $IE $ft
rJSTBfl-g-r'-X-x-X PoLylnfo
- *4f4ixlt5:ttS3<7) x - x ^ - x g fg l r - J jst
- 53 -
1.3 j$#S&|6]P$
1.3.1 B 1*188$
RS^I-^>V>TI8$U.
1.3.1.1 $1 @g|l*l8!$
S 1 @l±, H**-V tl/7< >co*fl-Bf%Sr4-lSim LW?$£fT&7 i:
ftZ-o/Zo aTW&tirimtZ',
g*#'j*is74 >mm$ toms
m5SH : ¥)$ 11 iM 23 B(&)
tH5S5fe : H*-fnu7^ >#A6*(JP0)
# s :7oyxn#im ftifti
tti$S : ±#IE#. SfflTL-. z+m*g], BHiSi/tS
#5n# : JPO 3Ftt H_hSK
(%%«&) $B§6#^ 'ft#JWWF^Sr j$*GL, j62> ||ffl
*t3-W5£3r SBBr*. 1®, BE. UUB #
1*1 S :
*77 j ±#yDy'xnwii',
jpo <t i)#sttsti/L-tt«wi*s4--^-x(;. mmftt it©7#AceitJ
t£«W!ft*£f * O t:o*»E%Birt'liflj!S'a-6-Ma fc Mil raffle# ^'+7 7\
7*6 jo; x*i%>(PE). *• v 7*n n> >(pp)e*B*ic$®a<)'fceF?E*$
»rv>6„
±#tfe4«riS'itli, JPO < t) <7)T*oZ77)?, U- 7>- y 3 > 7 7 7 y 7
7/»'0*Sf<O7TOL-$7\ r=1il* & b7)'t) ^-tV'rtST*.
>/<-!: t o7kf:M&iliS7*of„
#t'Klft9fl(n'B SL)7'IJ\ reverse engineering f [rff 6 ill]<Ef. # o'##(lk#SliL'){ 7
&#f;y 5 XL U--> 3 yi:Mf illtt.
tfz. iM(PE)^ftm*6?)\ 7)^(0a-fma-% • $K»jg£ft ->;xu-
54 -
WtI !&& tgttio
&K#St#fli. JPO T'iE^&AtiT f -r A A kT'liS <
^ i: v> b E.ST-, @m#m, 1/tn-/-, Hgjltfc. i6*f#it<f #
<<D7'ff'AlC'7V>Ttgbb4s*»K VsW.itiZtcotZ', ^H£, -fny'juir M*nr-ifej#£-»
WG4<7)T--?(Seiy*l)i: LTIR i) ±tf-6E&, 7"ny'x7 H^r*M
c-ftc*jfc**'S'i6TiRt)atj'*a(ifc$T*-><a.k-y 3 > £h#l,-en^-y-#- tt
3)#, m tl ? # 6 #7):* ft If < o
1.3.1.2 $2EBl*lP$
#2 Eii. Miti&nmffMtzm'iim&i'rtii ht
fR S# 4 iiKttf" -So
0 ffif : ¥j&ii ¥7 B 9 0
*i Bif : ®<tfi$;3:**tt(0 j:fc;SH#k:;l/)
: ItMMU #6B$SS«-fc > ?-fi.
LUB3>k°zL-#’+M’^>XSg: f (7)# It 25 8
tti$S : ±#8dS, E+StfiSW^M, ##
m #:
If, =t y Sftffiti'tttoStT'y y h 7 * -A(7)j@t!Et--3V>TSI'S74i"* ^ > Sfl~
li$gg;v#m, 3: E x 7 - 7 u £ Ift»)fj-) V^r>WUMMit’■■'LQ> S-ti
hZb 4-iE^, 1@ 4(7) 5SK$ K It L T $1* 5 n Z: -> < ZL tx-y 3 yzcy y y$-g#t6
l-gfi, S /_--eft ib <t>zl > y y *S-S-tbi"-5 fy 7 h 7 *-Atol^ttlcM LTfSI&Sft
iZ:±#7"nt7)S®, Sti. ?S%
TkXaiZ'g^&cZzo *l2to-fMlzj8it^>E%T-7<7)#5tt7l$ffbti, am*7-/n-E,
Sts fly tx-lx-y 3 y*3v'U±#7'ni:tnt6%om*(7)SSg#l:M LTmmmt
ftftZ:, Jifttfjiciiti#* 1/7 4 >fj v-wftttEil. iti£1fSIS<7)i6St, x/Of'y
f x<7)5iii14=$$Eil, *'xy<V 7 7 4 7VA(7)|8lt, &SSttf»Sg/»@ttfflfJSg7 n f rotl
— 55 —
5J3-i ; n-f—-v (; o v > x # I» 11.
1.3.1.3 ®3iiiirtMi®30I±, E#ft^mgHI$6toF=1 LW$6fr& o hfc ©cKEltafcff
aa®S : ¥f£i i¥7H l 6 B
£ti@5fc :
: A@###:x:+y9 v h 7 t-AKEita
ttiffiS : =#fb# 5 o&
itiSM : ±#E5. z+m$m. /]'#*«!
1*1 S :
3-f&£B]#WroW?E#ft5 O^-Cabc^o
$i mt ix^ny©?
|2St Lr&UffliJ^'t'WJ: 7 &MB£tix--tV'.z©>i:v© c tif-L'i:, =#ft
©2 ttflaiSl*!'; 77f-f 7"'/D-b7y 5 a l/“y a >yXf AW
mu. ©fl-ents t»i±t<D &ft7 * wrongs w -
f LT®###?L7 1- ;V2.(7)|a%. £ i© 3 -3(0f-7}:cv^T#%|*i#7)%©gfi.
-e(7)MB.*i:-3v>TItl^Tiqfn/-:„ -ecotfT-^ynyjL? 1©©'<7)J© i;-?-cDF4B ®i9tl7fF-5-T© StS't'i- x » -7 -> a >7i© Sit. A##|i7)--X#7'a y^ h toil
fr ±Wffl * tifS i t# £ - £ 7isT' # /j „
- 56 -
1.3.1.4
#4mi, jsRtocoizgbzeraKirmimzftbiKo
ttiSSB : 1999 ¥ 11 fl 30 B(’X)
tam^t : JSR (HBTf?)
ff £ : -/o-yj^ a*ira
mm#: ±#zs, E+a#wj, seeks
SM : to145HirS *#,
i6fl-EE%Sf /J'ffi, BUI
ffi«*El5f?EFiT m»
(-eroto 6»EE%0rBife l^iX
m W :
jsR(t*) eg b w^fit £ k f-i u hnm.w<&mtmwm%<»mnt jsr
t)> iiZzStrBS 5- % tills £ ff * •= £ o
3 til SZitifei 1,*a« Mead, Larson,
Doi ir-OliUtz-^vticolgiE-eiboZjo Sm£*£ 0a6^v»Al:Z:i''LTt.
< tM0S-ttoT<7)*#:to'fcEB9T-*oZ^<7)r-.
d £ztg*fc>ti6 o
bco«SEB8(±#5feS)r-i±. jsr SfXE&d'ti ^^#inS'7)s>^
fritztiK 3til"»-#>7*7 7 ? 5-?S-tf^.|Sgt7)y 5 il-ya >*S:}f ^ x.4 dZi'k v>o
MflfET-li, • e#<Z)F=ia. »oIMt4i7X Iv-tio^TcOPplll, SJI
E|6]E<7)[email protected] JSR J: tigtiT)5* 0 . 7"nyti7 I- titf LT JSR T*W5EMH LT
6 a vti #tcfflS<ti«9Et±S$fmT-
*0, -> i 7L V--> 3 >i4s*K-e§ititikiiti*§ vax ?$mi>ymx'hZ>z t i>7F£ii
- 57 -
1.3.2
^ A#t & 2 «>
i.3.2.i m i
S 1 LT, X ^ X • l/tny-^, fM7 • v
v^xy^x/fxETH
6o
1999 ¥5 j| 2 B-5 /§ 9 B
x^v - -77 :
x^x :
"Interface Dynamics at Various Length Scale" Hill
ETH (x^xm%%#±##^:
Prof. Hans Ottinger b #$i LV'gf M's ^ a l/-y a >'/£#!
5H3B 7^^-/5>^TOHfH8
-77 ^X"/7 1983 LT(D^^f (7)#%(D^^C-7
^ H-D LTgj
Fisher#:^, WegnerW^6(i^^
170 %##### ,k 60%<D
130 %#d^X Kf &W'iT#^&4f'3'rV''&o %&##%^# Kremer
^(±-7 v 7 x y# v -
Kremer #%#(##:[: Z l),
Kremer *u#z
ItlL^o
Dunweg t$± : *9 Xil&tz#>"J x” >fe £: V^/cff L
- 58 -
> H5#(7)
AfL6o AfL6^d6(:
Sf L V^£5§^5-£'^'C ab h > ^ott1^ Dissipative Particle Dynamics <7)Am7S?
^^(D#A (7)^*6 ^ (Phys
Rev. E (D 199771: Pep Espanol (%#:&:!: DPD (7)6 -o ^
Everaers IS dr 1 y&Wi t l&A'n V'Odij;^ £: Kremer Grest tf;l/$r^V^T#^<"CV^6o
L/:o LTE^LZ d at 6%#(Omm(7)d-
d^°— Hl^oTV'^o d: 7tr $J ^ £: A dl tz worm like chain (F)~fy *d — T > y d d" < d X CO
v < -n. 1/ — '> 3 y t ff o TV^o (PRL May 1999)
Holm tSdr i '> < zL lx— y g > HtoTI/^o ^gg#co ^ — □ >tSSfFffi
£■ W *9 Afl& /r#)<0ill);jt$7 71/ rT V X A particle mesh £: Wi$a L 7d0 #$0 (d J. Chem. Phys.
1998 7678,7694 £ dlT V & 0 ^ dr^i ^ 6 Poisson Boltzmann A
PB^#^(0###T^6^h L"n±dKLv#-e*c/:o
schmidt^i^m&m^mrn^^^^^y 1% > p(o#mco^ ^
Uv^o # L < (d J.Phys \zfrfrtitz'$.-k<r>it$r#j®0
Muller 1$±:
^^r#$LTV'6o 2 VT7k(D^A /y &-$-X&o A
1:^A6 Aft^:^ ha^Vx&-e^^^#fkL,2O(0
^(0#^^^dta6, 2fid'WE^#§a^7k:F-:Nt#LTV'&o 2(OZdl:LT10
2(0^&"CPE & PP(0
<h db# LT V'6o g# L ( (d J.Condensed Matter 1998 tOm^Cl^PRo
5^50 Xd X 1/dDy-^
x^xixtay-#^(d#^&v^di). l/;fov-#%^(OM#a-C&6o #^A#
$r^'Ld: 20 4"@Z0,
t » b Utracki t#± t ltz0 4 "J 7 X<7)
70^(D#An^*c/:o ±#^<D Luciani1$±t:ZfUf±^T
&cA<b(D$T&&o 14
1) Masao Doi "Interfacial Dynamics at Different Length Scale"®5XP"7' 1/ > K<7) X ;l/ 7
t a n v-(D?#j(D^^C$A/:t)^1991#l:%#L^Doi-Ohtamm(DL/
a 7XX;i/^'^X^6 <b, y-A 1/7X- <
2) Luciani(Lausanne, Switzland): Interfacial Tension of Polymers, ® <D
AX7KV-7-^m^^X(^V^Xlx>) T-7KV-7
- o^xrn ^ ^ 6 $ ftAo
3) Williams(Swansea,U.K.)i® M'd&O'T 0 14^$Jl;c^ ° T f^flldr7^'ffi^ L fzUir 7
-^(D$8dho
4) Utracki(Montreal,Canada): ^tSX(iilj:XX<DJ&StjnX<D|§^ "Cab 0 ^ ( OiX
^##.##LTv^6o ^^X7'l%7 h\ ^X#^^3b6^(Dlxtay-<bX;l/7 toy
v ?7 AA#AOab6#^T&c Ao
5) Windham(Zurich,Switzland) XXXXA b JCnqC)^^ £ #□#) Aliff3:£#'Cab h 0
^X7(±, ##CZ6, #Lv^(7)X(±Av^
6) Bisperink(Nestle, Switzland) ! A 7 X <D#%#"Cab 6 o X > y <D
(D^14(D:gX*6o
Tv^v^#AX^)6o ###, j:i##LAo
- 60 -
5 n 6 Hf 7B (ETH)im
%C04J<L'_CIhh o BjjF«1 (i Material Science Department <D Hans Christian Ottinger
<W8#Tm%L/:o
Ottinger :
CONNFESSIT Ottinger CONNFESSIT Ig^#:
1997^ Z i)
7 9 — h L tz European 7° n v x. 7 h "C & IE 0 _h 0 tL 5 T'T'&o
CONNFESSIT <OfMES(2 Stochastic simulation L FEMOTEES&) *C**o
# LV' Ottinger L & Laso K V 7 P)C J: *9, # 1 "7 7 - 7
a yipftbfitzo i 1 7 r - y a > "f i> CD'Clttefr'DfzffoDelft 7) van den Brule f&liEL) Z (f Martin Hulsen tSdr:#5 2 o IT
^^(DlgmoT^#^mT#/jo#^(D7T7'7(j: (1) ^#t#^&"/h$<t6#LV'7
;pn'V XA(D#^«h, (2) §#7 7 7-&t:Z
"C^)6o (BT L ( Leuvan 7) Kenning Lagrange y£(C <£ -6
Ottinger£> 6 /T\ Schiever, Lazo, Pablo, van den Brule & T^§&7;l/ — 7°t7)43yL'U& 0 ^ #gm% &
m##T^6o
Ottinger GENERIC (D#^"C
*6o GENERIC &#^L,
&-4%^tmaam^m##2 (D z T&/F%A#
Kirkwood, Prigogine 6 6^-rJl^itt V' T LV'# # t5?SC: o TV^c ff Lt'Kl# 0) g o ;Htfi Montreal
(7)Grmela L Delaware
7c#(0 Beris fjdx> Wagner Ottinger liclx> 7 7 > 7 Twnte Tv#7) Jongschaap fit
^;i/V>±#(DMuschickm^6^##^A/T#Lv^^^E-ti-Cv^o
— 61 —
^a^LT^^^Doi-Edwards-tf^, ^^(ODoit
Kroger #± : 1$±(± Berlin (0 Hess & <b & Z 0 *&&
#%(±, A#(Dy<^.
i✓—'> a y ^'^vL'-eab *), tW5^^Mc>y < jl y- y g v{z[$$>t *9 ;b Hiv^-cv^v^^
TV'6 h(7)$"e*c/:o Afi6^igT;i/3'v XA
LTV'^v^(7)C (b-c^c^o
2 (D#C, Dr.Schweizer Meissner ftixCOfEo fz U~t ^ — 9 fc&fzo
^ fz Friburg ^C#(Z#6 Schurtenberger #j(ix <h „ 4 9 n i7 ;i/ y 3 > cOT^io i
1.3.2.2 S 2
£ 2 )||S¥S^7 7 >X V 3 >T-gflffi8tL^ European
Center for Atomic and Molecular Computations l’S'till L T, S-b:') k t b CPS
*cO#2<7)*il|nH--7V>rci||$LZ:„ itz, tv'yf Groningen S
ILScK! tffZc -3 /Co
(1999 ^ 5 ^ 16 H -26 B)
m gm #:
tid $1 tL ! 1) European Center for Atomic and Molecular Computations (Lyon,
77 7X)
2) Groningen (Groningen, y > 7)
3) Forschungszentrum Jue 1 ich (Juelich, K4 7)
: 1999#5H160 (B) -260 (7K)
ddlzllin^ 1*7-773 "J 7° “Mesoscopic Simulations of Complex Liquids”
1) 7 7 7 X , V 3 7 Ecole Normals Superieure de Lyon 1*] <7) European
Center for Atomic and Molecular Computations (CECAM) tCdoV^T, 5 17 0 (H)
— 5 LI 19 0 (zK) <0 0 7 — 773 y 7° “Mesoscopic Simulations of Complex
Liquids”
2 2)7-773 77"(i,CECAM T)%#±#f6f6^<2)7-773
* LT 3-D y ^#§2)^7 <^.7-73 L, 77 V ^7,
7 77^^2)#^#^^x."C, 7 ;i/fka 7 < j. 7-7 3 7t:^f
±f##(DREspanol
J.Yeomans f^li, ^ 1C;P 7 "7 7 j£^-t JU ir — h v h ^ y- 7 — 7
3 y oSHSt:\ ^@2) 7 — 7 7 3 7 7°C () 6 C 2)53*1?& £ t/jaJjSfrff2)
- 63 -
5^170 (B) : Liquid Crystals and Phase Separation
am#, -m#
t)¥t )U'y?>cot >/n° ly- Fcor&fr'&'D tz0
C.Care (Sheffield Hallam Univ., U.K.)
“Lattice Boltzmann nematodynamics; a first approach”
”%Uy(director)
mu,
S.Toxvaerd (Univ. Copenhagen, Denmark)
“Molecular dynamics of spinodal decomposition in thin layers of binary mixtures”
jL|y-^3 y (#f%
4 2^@)
P.Espanol (UNED, Spain)
“Thermodynamically admissible form of discrete hydrodynamics”
u^^mimm^^m^f^^ff-iattice)^##"#-
t Lt, b $1 Pg i" h ’’GENERIC formalism (General Equation for Non-
Equilibrium Reversible Irreversible Coupling)” (D %n if*t)? & $ ft tz 0 CL CO -t -t )]/ (D $lj
t L t , Smoothed Particle Hydrodynamics (SPH) t Dissipative Particle
Dynamics (DPD) 7^'SA $ Navier-Stokes t
j: a
G.Gompper (MPI Berlin, Germany)
“Lattice-Boltzmann study of spontaneous emulsification”
1 order parameter ^ y n je. v )U i/ a > <D GL HI ^6 T b O' "J
— 64 —
isLU-y 3 7 £Hff L, * t :<&<n 2
m>^-?)iy3-y(D&%mi!&;mcDnt>¥i,
-> 5 i 7-y 3 7<DieSl:t±,
b&ofrt'n-h't^o&X~m$i¥i^tz0 (ii-s-dWESfl-r-5. 7- h
alffeZmgifzt&tJti, f&ZA;p 7 v y tofij,67)?*i i)ti'$ftTV'&v>J: 1 USA
toii, tiwt, 4-E<0%g;!dji,jAtft3o)
J.Yeomans (Oxford Univ., U.K.)
“Flow of complex fluids; viscoelastic effects under oscillatory and steady shear”
ifrw/gftj-mmztettzjibfti-mvmt>¥. Rouse mmt
Zimm LABf% (dOf 7 7 7 & A # A # * A) *@
^•) a, (2
7 • A—y 3 7) t)5® f>8 tl/jo
M.Mansour (Univ. Libre Bruxelles, Belgium)
“Particle simulation of reactive fluids; Onset of coherent spatial oscillation”
-> 5 ^ u--> 3 > <0
#S$7)?#8fi'8fl, ESU1 -^TdOfy vyfl-B^lii: A, Z'gLSfl^v,: Bird
Algorithm (DSMC: EK * $ 1) A ft /j ,-pOP 7 v > * fi V' Zj ffiSf T # if
7-7>fl-S*-irUfS6i"6 8h(7)ZSf4*±5iL, infSili'Tffot-/ ill
--> 3 >o|S$fi?eZ8ft, $® <o£ L 3*14WEt£Sit-A-0
J.G.E.M.Fraaije (Univ. Groningen, The Netherlands)
“Modulated self-organization in complex chemical systems”
MesoDyn TfiJilTV'SaaWMiJftlWftA-iU^it,
(eo)15(po)30(eo),5 conmmmm*?. ad ? 7**-§■#;7 >i h usitsssnAA t
S<7)77 7-^xA-y-D>^(0#eS, HIPS S-tlliLA-EEi^trffi^Si^Wy - if
-y 3 >e$7)A UAA1: 1 3At 7 7 h 7-y a 7^&AA*gZ8ftA.
#AoTi‘iv\d»I*;: Lrmstt/.A5, itlf igffiA liFd)II £ 11 co^lllrS- L
Tt>3 1 if*ot o
- 65 -
5 M 1 8 B (*) Polymers and Colloids
3Ao/:o
H. C. Oettinger (Swiss Fed. Inst. Tech., Switzerland)
“From molecular models to complex flow calculations for polymeric liquids”
5 2 WiX1?) CONNFFESSIT(Calculation Of Non-Newtonian Flow: Finite Elements
6 Stochastic Simulation Technique v a 'v) *9 ^
£: BiSi" hl^ — ^'v (fJU£ dummbell ^
fa'DtZo
X. Yuan (Univ. Bristol, U.K.)
“Interfacial dynamics of viscoelastic fluid flows”
:imM) <7) 1- io It h shear bandings warm-like micelles <D 1/ ~f T 'i vs > MW]
iz£i>% 7 m### (CONFFESSIT V-v sV). mechanical
interface CO'f&Tiilk (non-monotonic constitutive equation) > <h''CO
ffiMfo'eMiim £ tl* non-Markovian effects <D?]]^z(Dtztib\Zs Lagrangian-Eulerian '/£
FB fz v < j- 1/ — v s 'v ZtlfZo
B. Duenweg (MPI Mainz, Germany)
“Simulation of polymers in solution using the lattice Boltzmann method; Single
chain synamics”
:x < -%!/- f fullMD 0 2
- 66 -
J. P. Hansen (Cambridge Univ., U.K.)
“Colloidsl particles in a molecular solvent; the density functional approach”
3 n ^ ^ -3-1/—-y a > (t U 6 1) ^
-ttAo)
R. Kapral (Univ. Tronto, U.S.A.)
“Brownian motion in a mesoscopic solvent”
-C#v\ Hybrid
0, longtime tail (D#
m$-lE L < C ^ fLT^o
J. Melrose (Cambridge Univ., U.K.)
“Variants of dissipative particle dynamics”
####(%!/< ZZ.I/-V3 > & <b LT, DPD
(http://www.poco.phy.cam.ac.uk/)o Z. ISffl L/c$j t LT, 3 □ >f K t #
K(7)yE^(7)^^fL fiber
tz0
T. Kawakatsu (Nagoya Univ., Japan)
“Modelling mesoscopic phase separation dynamics in polymer systems”
< .3. i/-y a
(±«bLTWG2 ##%(%)
LtTVI/<> SCF&(7)^(7)U'#g#U^L"Cm^L/:o
5^190 (tK) Simple Liquids
- 67 -
B. Alder (Lawrence Livermore National Lab., U.S.A.)
“DSMC embedded in continuum, DSMC extended to high density”
Adaptive mesh refinement '/£cO & o b £> Z ? D hZ DSMC 71/
M.P.Allen (Univ. Bristol, U.K.)
“Monte Carlo and molecular dynamics simulations of liquid crystals”
^D|p ifrZtlfZo 2 ^ tM -y ? Mm (7) '> Z J- Is — 3
(splay, twist, bend) Uio hf h ?$hb<7) T > J] ]) > £
MC v ^ l/- i/ a =bfL^=o
S.Hess (Tech. Univ. Berlin, Germany)
“Non-Newtonian flow behavior, microscopic origin and mesoscopic description”
NEMD (Non-
Equilibrium Molecular Dynamics) £ V' tz i/ \ zl 1/ — '> 3 > i)'b ^ IF — — h ^ ilE
C. Hoover (Lawrence Livermore National Lab., U.S.A.)
“Entropy increase far from equilibrium via molecular dynamics and smooth
particle applied mechanics”
SPAM (Smoothed Particle Applied Mechanics) b N 2 V'T^V'IF
h n < zi. l%-v 3
H.Posch (Univ. Wien, Austria)
“Free and stick boundaries for smooth-particle applied mechanics”
Hoover (D#?#U:3I#*%V'TSPAM 2
SPAM
J.Struckmeier (Univ. Kaiserslautern, Germany)
“Particle methods and the transition from mesoscopic to macroscopic descriptions”
Navier-Stokes
asymptotic limit «kLT%0#H:5&<7)#
L.Bocquet (ENS Lyon, France)
“Boundary conditions at liquid-solid interfaces; influence of wettability”
%s slipping length
(h w96 C L L Z 9 L K/:o
B.Chopard (Univ. Geneva, Switzerland)
“A lattice Boltzmann model for solid-body motion and fracture phenomena”
2 (7)#v^mi:RKc T 6, & Li) T # 6 f Z
•9 U Liz t, t$r £tij: 7 t LTv^ z t -hifc>fr'Dtz0 fzfz L,
(WG2 <7)^
t' X U' h ^j’/iEro t [5] — ) ?:|t'/;yUl/“'>3 >■/£:& <£ (/is ^ j~ 1/ — -y a >77 h
(MesoDyn)<7)^%^rfio Tt^ J.G.E.M.Fraaije (Groningen ^C#) L
±#7°ni/:c? h^MesoDyn 7°Dyj:^
i##^C# (@#&- V7h7^7^^(7)Mm)
2) 5/1 20 0 W, 21 0 (A) (DMU, *y>r<7) Groningen J.G.E.M.Fraaije
&W:<, Fraaije a^(±#(D^mm^(7)7G^)7-7i/3
7 7°H^| Fraaije 6 MesoDyn 7°n
z/jl ? b CO ^ A.Sevink tSdr£> <£ U*\ K.Michielsen> H.DeRaedt (OWtS
Sevink MesoDyn (7)@lra#ll=G/j[]X_"C> V 7 h 7 x 7 —
LT 6o Groningen i\^c0 7';l/ — 7lC Z 6 MesoDyn 7°
77 Msi
LT Groningen 7»7 7 h 7t-
Sevink #(7)%%(7)#^|*|#(;L 7'a7 7*m^#(7)<7n
7T"n7'7 C GT, ±*ya(7) WG2
G 6 —7 7 y^#V^o
Michielsen tSdr b. DeRaedt tSdr (i > Minkovsky functional 4 V 'tz K 7 'f 7#
G G x. 6 2 G T, ^ 6 2 G o
Groningen 7c#7) MesoDyn 7')V — 7°<b 44&
*/ Gw*
3) 5^220 (±) - 2 4 0 (fl) (i, FX 7(7) Juelich Juelich #%^f(7)
Zimmermann t$dr 41/jfnl btzQ Zimmermann tSdrb I^^TbI tC :b/j -o T7)i6j5F
Zmmermann #±(7)
- 70
1.3.2.3 #3
Baum, JCIIffl%* ftSJIIfl-, [Bl llj±ii-th.*5'$fflT*Sfl5n/^ ICIAM99 5.U1'
NATOASI tzmmr, 3 tti>tZo i/--, Bristol *f:£ttF=fiU ^ dlii[S](--Dv>rsa3c® *ff ^ o/z0
S^.ESSdl6]P$SS3
: ¥)$ 11 *£7 8 4 B-88$ 11 $ 7 8 26 B
tti $ 5fe ; ICIAM'99: Edinburgh ($8)
NATOASI: St.Andrews ($18)
Bristol jz^F1: Bristol ($18)
utjldBf! : 7 8 4 B - Edinburgh 7m
7 8 4 B - 7 8 7 B ICIAM'99 #JD7 8 8 B - 7 8 22 B NATO ASI #Sfl7 n 23 B - 7 8 24 B Bristol Xue-Feng Yuan ±tteF3E*ttF»1 7 8 25 B Bristol %7 8 26 B #*gf
mm#: S9)HM-(JCII), Ul±i#tH(JCII)
1.3.2.3-1 ICIAM99, the Fourth, International Congress on Industrial and
Applied
Mathematics
1.3.2.3- 1.1. Mon 05 July 1999
1.3.2.3- l.l.lt/-t r/3 y
The ECMI Special Interest Group on "Mathematics of Polymers" I
4 9 <) ioT, & EU
fi'lf tl b tifZo (i <b A £'44 Avrami-Kormogorov
7iiz U;t«TBWtt(JA-3ti^A'()OTi50
- 71
1.3.2.3- 1.1.2-9-r-fe‘y v 3 >
History Dependent Material Behavior: Constitive Models and Mathematical
Analysis
Global LA2 solutions to dynamical elasto-plasticity RASCLE Michel (Universit y de Nice,
France)
Variational analysis of some contact problems for elastic-visco-plastic materials SOFONEA,
Mircea (Universit y de Perpignan, France)
Isotropic Hardening Z. h Z
Nonlinear viscoelasticity of elastomers: Constitutive modelling and experimental
identification, Sedlan, Konstantin, Universitaet Gesamthochshule Kassel Germany
Maxwell
fitting
1.3.2.3- 1.1.3 t'/’b'r/a'/ Dynamic Problems in Fracture
72
Scattering by a periodic array of cracks, Abrahams, I David (University of Manchester, UK)
time-harmonic
Wiener-Hopf&i:
Z LT, matrix Wiener-Hopf
# 6 o
Asymptotic models of dynamic cracks propagating on an interface, Movchan, Alexander B
(University of Liverpool, UK)
Wiener-Hopf M7)fT^lJfn]j|| M ^ <k T\ 3D weight-function
fcllfW Itv^o
Application of cohesive theories to dynamic fracture and fragmentation, Ortiz, Micheal
(California Institute of Technology, USA)
Z ^ fi&ijt7>’cohesive model'^
% 0 #9 tz #) CO 'cohesive elements'll X ^ ^ T^Wt L TV* & 0 'cohesive model' ~CW]$J & *7
7 V *7 CO$Ljkfr 1 X <1 ## ^ ilT V* & > Wl 6*J & 'drop weight test '<7)'> ; a 1/ - y 3 y (DftB
1.3.2.3-1.1.4 ‘t'/'t 7 y 3 > Nonlinear Gravity-Capillary Free Surface Flows II
1.3.2.3-1.1.5."7 '/‘fe’yy 3> Grid Corsening and Multigrid Methods
Multigrid Methods UoivTCO-tz y '> 3 >~T^)&o Xtc^ L T V> >E> iolllClaE)
#0#!::] y ? 7-^T7f--v- <b%]i"C#^)^7;i/=f
VXA^^^r-;l/%(scalability)(DAw
Aota ^ y<D7;i/^v XA&f
- 73
1.3.2.3- 1.2. Tue 06 July 1999
1.3.2.3- 1.2.1. Plenary Lecture
"Exotic Applications of Liquid Crystals", E.G.Virga(Technische Univ, Netherland)
Oseen-Frank
gf# L /z o l^S^^iSv^ZL h ^ surface bistable device &
o TV^0
1.3.2.3- 1.2.2 'ty'X'k "j v a >
Industrial Applications of Particle Methods for Fluid and Granular Flow
DEM LBM ^^v^7
fiiil&fh 7 >r )V 9-(DUMxnf & MZS7°n -fex^{z0
1.3.2.3- 1.2.3 > Domain Decomposition Method and Computation Mechanics I
ZLCO'tr>3 > ”C (i Domain Decomposition '/£ t HUiM L tz ## Ltzff 1 7> fz tt *C
^>o/:0 -f Lv^ 2 ^ /jo C(7)-k7 7a 7 T(7) 7 7 7 (0 g %
X'&'dTz Domain Decomposition '/£7)HilltC 7) V ■> T$|x "n't"6.
A domain decomposition finite element scheme for flow problems, Fujima Shoichi (Ibaragi
University, Japan)
Domain Decomposition Navier-Stokes fl7)
CPU £ £ "tirTH <( Z1 <k U & & o ZL tlTip Domain Decomposition
9 Fm9l##(D7 < 7-^ 6 & 2 6"C#
- 74 -
2 0(7)^m^ LT#AL, f
<kv'i (#^^^V'TV'/:h#i:(±
o-ev^^2<7)#^#^#v'TV'T, ^yK^^>r^< &&(/)#
^7K±(0^v^^T*-3/:(7)"C, Xo^^
^ hrnf A-Cg^LTt LTi^x.
6^^^v^gpa-e^o/:o MPI 8CPU T#t#:<V'/:o Mc/:Z
o#^{cc#cTv^ cpu<D#r^^v^hv^gnm"e^o/:o
f&c^e&v^rv^z (^#j^(7)A^jfi:^##$#'e(d:^6^'Cv^<7)^6
1 h £n *9 fzij'^'DtZo ■%:COdb t. CO NATO CO SummerSchool ~C Kremer <D b Z. h <D PosDoc
256®(Max Plank (OfffM-k > 9 -T*(i 512 m<D CPU (PE of
v^ TLZ:^U))(7)PE ^#cTV^6 ^(7)C kT^-o/k.)
1.3.2.3-1.2.4 t!/,b7y 3 > Numerical Methods for Tracking Material Interfaces
#^3#;mT6oiEm
vy;kf6/:A^v^< XAmg^Z^to ##8<J
U ii ^ 'front tracking method','the level set tracking method','the volume of fluid
model','the fluid mixture model'& <h'"C&<S0
Level set algorithms for tracking discontinuities in hyperbolic conservation laws,
Aslam,Tariq D (Los Alamos National Laboratory, USA)
'hyperbolic conservation law't:' COT'iSMt^ £* il "7 ’level set’7 ^ zf V XA(7)^0 T )V
zf V XA FDM ^mv\ 'EN0'^4r-A C#mLTV^o
A fast level set method for reservoir simulation, Karlsen, Kenneth H (University of Bergen,
- 75 -
Norway)
2D,3D tCO 2 <7)'level set'7 7°n - f-^ ^
l/— 3 >o
A fluid-mixture type algorithm for compressible three-phase flows, Shyue, Keh-Ming
(National Taiwan University, China)
'wave-propagation formulation' t L t'front tracking'^ H X h gas-liquid-solid
C9 3 i/ ; jl 1/ - y a >o 'bubbly liquid'-^", 'solid-liquid suspension'
1.3.2.3- 1.2.5 y a > Applications of Mathematical Models of Liquid Crystals
ta CO ?$hb <0 f# ia t -o 10 § E& cn ^ )]/ (i Oseen-Frank t
Landau-de Gennes £ o X V' & 0 #1&C0 b t1° 7 t LTli, Plenary Lecture U
cbo t .=£ 9 U bistable device (Appl. Phys. Lett. 1997, 70, 1179)tc: ttfo &
*cto at,
1.3.2.3- 1.2.6 '9*y-tr 7 V 3 > Bubble Dynamics
2(04: vy/3 Scientific
at,
V y • 71/ ^ ^ y -tr > X (sono-luminescence) <b y b t tl t o T V' 6 j: ito
Acoustic cavitation, sonoluminescence and sonochemistry, Black J. R. University of
Birmingham, UK
mw t % c a -o -c# w# 2 ^ 6)^c^ c 6 ###
$fito zcoa
~C & -2) O
76
Some aspect of the lift force on bubbles, Nagnaubet Jacques, Institut de Mecanique des
Fluides de Toulouse, France
Direct numerical simulations of many bubbles, Tryggvason, Greatar, University of Michigan,
USA
Tryggvason fittfli ^ ^ £ llr tr/jfE ft VD fpl IlU##TV'&#%#<%)
^ “)Tf§: L ’x Vjflft ft |a£o T \%W}~t b~^ b Z. h X <£ o
WG3 T^cTV'6 Euler-Lagrange
f < &#V'TV'& Aft^#
#^^ft-3V'T(iM6^6ft^7)'c/:o Michigan Afti%%L^^ft^(7),A:ftc
2 6 Ad-hoc ft L^#:(7)#^:^%03&^TV'^V'"^
V'9#x.T&c/j. (?)Aft^V'T^ftTV'^V'«bC6^E6^A#^
##(±#V' Z ^ T&& .T^^ft^V'T######^?# $ftTV'&V'<7)U:f&;%T
#:^"^(i#^%$ftTV'^V'^'6^6 Lft^V'^
o t^igfbft^-o^^Tii^v'^^^^.m^jfbft
Z 6 i^igfk ft Z 0 A # ^ x X 7 A 4j- /( X ft v' < o# grid X # grid X M grid
A j: 9 T^ 6. ##T(i 8 A ft ±#f 6hft ft#^ij L T_b#f 6 f&
t T)±#ii^(7)iiV'^7!)?IIfra £ ft A.
Coupling of radial and translational motion in small viscous bubbles,Popinet Stephane,
Universite Pierre et Marie Cure, France
oV'TCO#%T&&o
- 77 -
1.3.2.3-1.2.7 t 7 “fe 7 '/ 3 > Mathematics for Models of Domain Coarsening and
Coagulation
^7^^ V > X T* (7) H (Ostwald ripening) £ 'b tB $£ <7) ^ ^ X A (i „
'material science','aerosol physics'# & 0 "4" ^ X(7)##-^ "gelation^
'Smoluchowski coagulation equations','coagulation-fragmentation equations','Lifshitz-
Slyozov model of coasening'60 X 9 ftto
Mathematical models of nucleation and coarsening in alloys: An overview, Penrose, Oliver
(Heriot-Watt University, Edinburg, UK)
'Becker-Doering','Lifshitz-Slyozov-Wagner'7j <7) lx kf jx — t't ft 6 t
1.3.2.3- 1.3. Wed 07 July 1999
1.3.2.3- 1.3.1. Plenary Lecture
"What is quantum computation? ", S Popescu (Issac Newton Institute, Cambridge, UK)
1.3.2.3- 1.3.2. -y-X-b r>37
Phase Field Models and Prediction of Micro-Morphological Changes In Alloys I
Cahn-Hilliard Lifshiz-Slyozof vVj □‘^M(T)fB5Y^$iil7j^<7)E5o ZC#%l5^ Co
wT(;L (7)157: 1: 6 % ft to
1.3.2.3- 1.3.3 *9“/*b 7 V 3 > Mathematical Modeling and Computational Aspects in Blood
Flow I
^(D-bv x a Lf
f 6###b1:##16#Af#><7)<7)$^ Yoi^t
- 78
1.3.2.3- 1.3.4. Plenary Lecture
"Domain Decomposition and Fast Parallel Solvers for the Navier-Stokes Equations", Olivier
Pironneau (University of Paris VI, France)
hv T y - y^i/y a y(D$8^o 2(Df
(i, V'< o^(7)#Lv^ 26
- Consistency of the approximation
#® 7) 7 7 i/ sl % y 7 y°ir h t' o fr?
• Convergence and efficiency of the iteration schemes
Schwarz 7 JU n" ’J X U N Shur complement
Chebichev or (2 Z
• PVM/MPI y 7°V X > h
2 2 "C ti x $\\ t L X ^ Schwartz DDM, without overlap, Shur
complement method, Steklov-Poincare operator & <h''£ V T ^ 2D,3D CO Navier-Stokes
200
1.3.2.3- 1.3.5 '9'7'dr 7 '> 3 > Mathematical Modeling and Computational Aspects in Blood
Flow II
Viva: The virtual vascular project at CRS4, Zanetti, Gianluigi (CRS4, Italy)
T ? V b'Viva'2)
Numerical modelling of fluid-structure interaction problems in hemodynamics, Nobile, Fabio
(Ecole Polytechnique Federale de Lausanne, Switzerland)
(^yyyy) <!:LT(Dm#7)^#(hA^(D'jfc#(7)iZ^^^77°;i/LT 2D (Rfr
ffi) (7)y ^ a U“V a y ^tT^otV'/:o
79 -
1.3.2.3- 2. Soft & Fragile Matter, Nonequilibrium Dynamics, Metastability and
Flow. Scottish Universities Summer Schools in Physics 53, St.Andrews, Scotland,
8-22 July, 1999
1.3.2.3- 2.1. Fri 09 July 1999
1.3.2.3- 2.1.1. Overview of soft ¥& fragile matter
Dr. Wilson Poon (University of Edinburg, U.K.)
^ Summer School <0 9 'i soft & fragile matter t COS
1.3.2.3- 2.1.3 Introduction to rheology Prof.T.C.B.McLeish (University of Leeds, U.K.)
l^tn'/ j)* soft & fragile matter CO j^l ' probe "C& h CL t. btl^ U n v — (D
1.3.2.3- 2.1.4 Introduction to experimental methods
Prof.D.J.Pine (University of California Santa Barbara, USA)
1.3.2.3- 2.1.5. Introduction to surfactants,micelles,liquid crystals,emulsions
Dr.Didier Roux (Centre de Recherche Paul Pascal, France)
flexibility
1.3.2.3- 2.2 Sat 10 July 1999
1.3.2.3- 2.2.1 Introduction to polymeric systems Prof.A.R.Khokhlov (Moscow State University,
Russia)
#(7) flexibility ##
kuhn -t ¥ * y Ml> persistent length ta }Z'(D^X t fltz0
1.3.2.3- 2.2.2 Introduction to colloidal systems Prof.D.Frenkel (FOM,AMOLF, Netherlands)
1.3.2.3- 2.2.3 Rheophysics of lamellar liquid crystals I, Dr.D.Roux
v7T-C(O9;<9'0:mCoV'T#Otswald, Kleman#,
1.3.2.3- 2.2.4. Dynamics of entangled polymers I (linear chains), Prof.T.C.B.McLeish
##g)60T(7) storage modulus, loss modulus $ tl>
LT, x."t\ liner polymer,
star polymer — *? o tz0
1.3.2.3- 2.3 Sun 11 July 1999
1.3.2.3- 2.3.1 Introduction to slow dynamics
Dr.J.-P.Bouchaud (Ser.de Phys.de l'Et.Cond CEA, France)
^ ~T\ Slow Dynamics @1 y X* X kf > ff y X „ hf > it& £ tlfz'T
4 7 ^ ^ h coM$HMs iotif >ik^ $ ti tz •}&!&&&4 >)> EES43
(D pinned vortices & h t V'o£fltz0
-mu-c, rz(7)j: i
1.3.2.3-2.3.2 Introduction to simulation methodsProf.K.Kremer (Max Planck Institut, Germany)
Molecular Dynamics^ Brownian Dynamics^ Monte Cairo Simulation
^rhCO'y ^ -a, ly — 3 > IZOl'X (DWf^kfffffotlfZo Jf, ft '> ^ j- U — '> 3 > II <£
- 81
3 > %'ill HM
^^(7)3 > 7 t 7 - y 3 2 ^
★ ....& <b"
<7)E5'^‘ ^tltz.^ fz^ "Computational Path to New Information"<b M L-Td:.^7°n ^ |W|#
<^i%-y3>t:Z^ T#?#?# Mf 9 c /:
T — 7 £ yf > 7° v mf-fb# C Z o T Effective Potential("Force
Fields") f CO Effective Potential MD,BD,MC
"C^6. dfU±7°nyj:^ (^6B<7)#±"C
Prof.Kremer. Prof.Khoholov
> y ^ C Lco^T > y -vft6#
^ < §ZW'i~ & t m -o X£> b tlfz0) 't'S 7) Summer School "C|ij UfS ^'fz i> 7) £iH -9
Zz.Prof.KremerkL C7)^^Cov^-C$#%(±LTV^V^#cTjd^fL/:o 27)^0 7)
2 h l:0V'T(±4-2"m:±#%A,bd'& L/j<b#cT&C);h^o ^'7)Z 9 C LT^
^r^v^-cM^#^-cv^7^ %7(±
^ ^ 7>(d:#v^ 2 <b"C&o/:.
^TiSS^'L^ISBtiy ^ slU-X 3'sx>^MmX& ^ M^x> MD CJ; n
%Sf$m^T>y-v;i/(;\-K37^ 77)^37, LJ),
^ 4r - ^ (VerletX Ergodicity 7){^^(FPU ^M), 7 7^7 7*MNVT, NPT, // VT,)7»^.%
7)?ab o /c.5ll%^ MD (Dl&ffh 0 , y 7bt$J] £OTn LtzJh<D'y l j- 7 — y 3 XDlfifc
y < ^ 7 - y 3 0#am7)##t#j^^
JLlf £ fz&X>-*j~ y y°') 7 7(biased sampling)7)?pjtli £ tlfz.MM^P ^ [Why are polymer
simulations so slow ? (nlj 5F~PM7) y < jl 7 — y 3 7 ii &*tf -f" j|| W7)^(Kjf PhIt^tI/'t)'
6<D^))j (7)iz;^o
N"2-3.4
t-fbl^J'f- hfz^hXlhb <hv^ P=S-^.^ESEra7!)?db o /"^."Use the simplest model which is
possible to solve the problem t "j -tr — y't^ o/jtlr
1.3.2.3- 2.4. Mon 12 July 1999
1.3.2.3- 2.4.1 Introduction to structural glasses and the glass transition
Dr.W.Kob (Universitat Mainz, Germany)
Angel-Plot
(strong, &agile)
£ titz0
1.3.2.3-2.4.2. Rheophysics of lamellar liquid crystals II, Dr.D.Roux
7 ^ 6"Onion"CO%#^5m h LT, DDS ^1^1#
1.3.2.3- 2.4.3. Ageing I, Dr.J.-P.Bouchaud
Aging
3/:, LT ^ ^@em^trap
1.3.2.3 2.4.4 Numerical studies of phase behavior of complex fluids, Prof.D.Frenkel
(stickor slip)
1.3.2.3- 2.5. Tue 13 July 1999
1.3.2.3- 2.5.1 Introduction to phase transition kinetics, Prof.A.J.Bray
(University of Manchester, U.K.)
tB^h^B t coarsening dynamics ^^0 A PIIS^o
1.3.2.3- 2.5.2. Simulating polymers I, Prof.K.Kremer
Macro-Molecular
’macroscopic’t ’sub atomistic’(D PbJ £ 3 o <D 7, A — )V
• semi macroscopic, L — 100 - 1000 t ^ X F n — A, T ~ 0 (lsec)
• mesoscopic, L — 10 — 50 Fd-A,T 10A(-8) - 10A(-4)sec,
entropy dominated
• microscopic'atomistic', L ~ 1-3 10A(-13)sec,
energy dominated
microscopic t mesoscopic M ^semi-macroscopic tCO FbI £1^ C^ji+"C£>
b0 b Cl "Cti, microscopic t mesoscopic C¥9i t LT#L%fk MD O£f&SiElh
b fz CO polycarbonate CO's ^ sl 1/ — 1/ 3 > $} ft £ tl fz 0 31 §1 i)* |s| C 3 fS CO
polycarbonate,
• BPA-PC Tg - 420K, Tvf - 390K, Ne - 7
• BPZ-PC Tg - 450K, Tvf - 390K, Ne - 10
• TMC-PC Tg - 510K, Tvf - 480K, Ne - 15
BPA b BPZ (D Tg TMC (i 80 - 100K±#V\ BPA b TMC li$£
b CO L, BPZ ti & h\t'0 CL tUi, Vogel-Fulcher scheme "C, activation energy
Cl tl b (?) polycarbonate £ l:2Mapping IZ <£ L>
tZ'DtZo 3 Tvf activation energies (7)# 9 ^ # "Cio *9
b0 Tg polycarbonate l:2Mapping -& CL
<h $*7Jn £tlfZo ifz^ Rouse-Model ^ 71/ h ■tf^
x 10A(-10)secJ:&6o
Cl ftti, atomistic simulation t It^T 1 TJIn Mit~C'fc>b0 '> C a. U —
'>3 > |p pp: (7) conformation CO fit |E b IT^ Inverse Mapping(Reintroduce Chemical
Details), n-scattering T — 9 '> C a. 1/ — 3 XDj^^^^^^tltZo
1.3.2.3- 2.6. Wed 14 July 1999
1.3.2.3- 2.6.1. Coarsening dynamics I, Prof.A.J.Bray
LT#%t6 Universam#:(:ov^T(7)##^c/:o
- 84 -
1.3.2.3- 2.6.2. Simulation of model glasses I, Dr.W.Kob
(alpha-##, beta-##) L, Kl^Jffra t
1.3.2.3- 2.6.3. Ageing II, Dr.J.-P.Bouchaud
TraptT'yl/^^V^TAging^^Ccv^T^^^/O^^fL, ##!:,
itL/z Mode Coupling Sfro^O^tz0
1.3.2.3- 2.6.4. Polyelectrolytes & polyampholytes, Prof.A.R.Khokhlov
^#(7) Coil-Globule
'fciC DNA Wj Coil-Globule fi/^o
1.3.2.3 2.7. Thu 15 July 1999
1.3.2.3- 2.7.1. Simulating polymers II, Prof.K.Kremer
ir Mzo
1.3.2.3- 2.7.2. Activated processes in complex fluids, Prof.D.Frenkel
1.3.2.3- 2.7.3 Dynamics of entangled polymers II (branched chains), Prof.T.C.B .McLeish
linear polymer t star polymer <h star polymer <7)## ^
fs zl X A reptation "Cli & ( retraction T h CL t £tlfz0
1.3.2.3- 2.8. Fri 16 July 1999
1.3.2.3- 2.8.1 Introduction to driven diffusive systems, Prof.D.Mukamel (Weizmann Institute, Israel)
Driven-Diffusive Systems >
detailed balance (D < f
1..3.2.3-2.8.2 Coarsening dynamics II, ProfA.J.Bray
tu ^ HO CO HH <0 > Model A,Model B,Model H (D Universality Vector (and Other)
Fields & h d^a 7 ^ ^ h^^(0%g#(0##"e^)c/jo
1.3.23- 2.8.3. Flow and phase transition of micellar systems, Prof.D.J.Pine
Wormlike micellar solutions (CTAB+NaSal+ zK (cetyltrimethylamonium
bromide+sodium salicylate+water))"C CO shear thickning¥&time-dependent rheology (D
1.3.2.3- 2.9 Sat 17 July 1999
1.3.23- 2.9.1 Introduction to granular matter, Prof.S.R.Nagel (University of Chicago, James
Franck Institute,USA)
1.3.23- 2.9.2 Local dynamics & plasticity in soft & fragile matter, Prof.D.J.Pine
13.23- 2.93 Simulation of model glasses II, Dr.W.Kob
T (D##o
1.3.2.3- 2.9.4 Heteropolymer folding, Prof.A.R.Khokhlov
TPolyelectrolyte <b (ifpjd/'j 0^ ii ^ y 9 — 4
- 86 -
t Z 6gE#m(Debye-Huckel Ml), V "7-^^: jt#
1.3.2.3- 2.10 Mon 19 July 1999
1.3.2.3- 2.10.1. Phase transition in driven systems, Prof.D.Mukamel
2^:% North-West
Gibbs
1.3.2.3- 2.10.2. Sedimentation dynamics in colloids, Prof.P.M.Chaikin (Princeton University,
USA)
sedimentation tftlfco #^#5M&14& i§ □* X)
1.3.2.3- 2.10.3. Experiments on granular materials I, Prof.S.R.Nagel
^lLj^c force chain t V' o — b fiX JL t $ tifz0 5
/:> Compactation •& Parking lot t*^£tlfz0
1.3.2.3- 2.10.4. Generics of phase separation/aggregation kinetics in colloids,
Prof.H.N.W.Lekkerkerker (University of Utrecht, Vant Hoff Lab,Netherlands)
1.3.2.3- 2.11. Tue 20 July 1999
1.3.2.3- 2.11.1. Fluidized beds, Prof.P.M.Chaikin
X H^ryT t ^ X X £ H ^ ## H X h sedimentation X) XW i~
1.3.2.3-2.11.2. Stress transmission in granular and colloidal matter, Prof.M.E.Cates
3 0^ & <b'' fragile matter (0## <h LT, stress transmission
jamming ^ <k'X) force chain X) £ j?£ I# U fragility X) X 7 X ^Nffragile
- 87
modelling strategy £tl tz0
1.3.2.3- 2.11.3. Experiments on granular materials II, Prof.S.R.Nagel
(3>TtNUTS
< frb%nbtix&'0 BRAZIL NUT EFFECT hL^0)ttz. shear
M ^ W HE*t" %> o 7feT\ size separation <D driving force (i convection "T& h CL b CO
convection ^(7)##^
shear T(7)e#:(7) loosen pack i)fc
tiffi shear band "C|B CL 6 CL L ^ $ fl/Co
1.3.2.3- 2.12 Wed 21 July 1999
1.3.2.3- 2.12.1. Phase kinetics and morphology - colloidal spheres, Prof.H.N.W.Lekkerkerker
n 7 □ 'i K<D Isotropic-Nematic $5fS Cl 9 'i ;l/% "C^L 9 )
1.3.2.3- 2.12.2. Microgravity experiments on colloids, Prof.P.M.Chaikin
-v #^m^T"r(7)3n/r
1.3.2.3- 2.13. Thu 22 July 1999
1.3.2.3- 2.13.1. Phase kinetics & morphology - colloidal rods, Prof.H.N.W.Lekkerkerker
rod n /f Kco I-N I5SUH1 L^ t Onsager $ tifzD
1.3.2.3- 2.13.2. Soft & fragile matter - towards a synthesis?, Dr.Wilson Poon
Soft & fragile matter $ tifz0
1.3.2.3- 2.13.3. Summary of school, Prof.M.E.Cates
^^\(D 2 jUSfel a£ t £ tifz0 Soft & fragile matter^ "^C § <( 5LUtl
b > ^ $ U softness fragility U X h universal ^ ^ ft Z 9 L L
1.3.2.3-3. Bristol Xue-Feng Yuan
^#;i|(SCF CZ < 7 -7-(7)v < y-y a y), ^D(shearT"C
7) ER vjft^T) '> ^ a. 1/ — '> 3 >)N ill_h(stress-diffusion coupling dynamics l-i h ¥>>1/(7)
4xm##<7)v<zLl/-y3y)(7)mt:, NATOASI
L> Yuan7) Shear-Banded flow (Cot'T(7)ijij5;CDfijT^T)^o
/:0
1.3.2.4 $ 4
C"3V^T6#^L/:o
6o
KWNffi56*§
: 1999 ^9 ^ 11 B-1999 ^9 ^ 29 B
m g# tyy?\ Kl7, l^VT
B m: i. mwrmm
Unilever (PortSunLight, UK)
MSI (Cambridge, UK)
Kobe Steel Europe (London, UK)
AKZO (Arnhem, Netherlands)
BASF (Manheim, Germany)
2. International Workshop on Linking Different Length and Time
Scales in (Macro-) Molecular Systems StD (Dresden, Germany)
3. i~ ^ V G. Marrucc i ftixlft flO (Napoli, Italy)
— 89 —
Unilever, AKZO, BASF
MSI VX|“)byUl^-y3 > HI il <T> fjj fo] IZ HI -o
^ (M[3])o
Stifn] ^rliS'f"h tz&) Max-Plank Institute 3E#(D Workshop io X lfi~^ V
Marrucii f£}f t ^lilro £fr o 0 (51 i [7] [8])
UTz
[1] 9 H 12 0 (H) Discussion with Dr.Tildesley
Dr.Tildesley tiltl 1 C Unilever 0 ^ CREF(Central research and engineering
foundation) <h # 9 o% M % #f t$ U $L f£ i~ h tL J§ IZ & h 0 CL (D CREF (i Modeling,
Measurement, Synthesis & <E'V> < 9) <7) §|$ <k V^c «t 9 *C
^ o
^ ;l/^r 7 '> J2. & AP^’Cx Unilever jo U 6 Modeling (ilE'ffi’ U Wfl9 "C 9 3:
<##LTv^haf^LTv^o 6fLt>tuDyDyo:^ H:HILT^^M^^(Di##(±^
a(±f'C&6^ ^ 0^'W^v^Z 9T^6o
[2] 9M 13 0 Of) Unilever
Port Sunlight IZ&& Unilever <D Research center £rlijfnj L Modeling HflEi" h El Eire £
Unilever LT#%L, #
fD'v-^nf(ffL6#$#gijc^fLTv^mm (^%)
f 1993
<£>> LTlTV^o Modeling UHliS LT^J 20 £i> -^*C> jtti Adaptive computing
(Port Sunlight) ,CFD(Netherlands, US)^^U:t#:#C/ < uL l%-v a
— ~7°'fc'$b h o
14 #:
- 90 -
Modeling LT(ig#8iR:(£ CREF ftUt<D7°u
VJ:? h h^#.tf2^(£^(£0#Lv^£9
T^)6o #<(7)#^1$, ^/&V4i2,3#(T)%g^-e@Xr(7)^>/<-7!;^6^T3'V-(:7H:^^t»cTV'6o —A(7)^:U#c/nx^^ Hi 2,3 <bw^
HfcX'&'D /ColftW t Z h Modeling group CO^% t LX (i 300K£ t5p Corporate Research
t LX(7)^%, 400K£ personal product ^1S> 400K£ Home product fHiS^OS-SS
P!^6#TV^oDr.Tildesley (7)me#^)"C Unilever ^ T4
> h l:fW AKi 9
£ 9 L^Li/<^l%-^a 7(7)i%^;i/g
#(£f &(%!?(£& < , ^(i (blimA^v^
2(7)£ 9 & ]%/<;i/T#V'£ < ^
M6il6o ^3v4i#i7|\f6£a^ AKZO, BASF (7)#^, Polymer
modeling W 0, f
^Modeling C##6flTV'6o Unilever (7)#^,
h h tzt) Modeling % ^ £fiJl;/\ — K 7 ^7, 77 7 7
> h^^A-oTv^ 2 W?m3L
LfrL 4*fi; £ L L Modeling ^<7) 7° L 7 i/ 7 — £ o tz L £<D £ 9 & #0& X t h ip
[3] 9 n 14 B (A) MSI imMSI X y 7" V 7 i7 X 7 4 X Xijjfal Lt 'f 7Jj 7 > 3 y X^J'd/Zo
MSI%l4(0#A(0*T^<, 3>V-i/7A, ;#4(7)'/nvJ:f h, A#, A#^(7)1§h-?;i/L"C#gL!A MSI(7)^^A,
L^LMSKO^^A#t(£*<£'r^^^-X-C^(9, MicrosoAC^C#
GUI (7)7-^rf ^ 7 h 7 f-A(7)^-7>7-4-^7 A7-l:#t
A^yn^g^tArni^m-o/jAf^c^mL-cvA^^x^it^o ±*yo
^ LTtf fi6(7)mgiJR:^%#l:LT, MSI ^.Iz-va >(7)jg
a^jAifTvA (7)c#^-e# ^A[o]C4"##A/-evA 2 &^#E"C£)6o
- 91 -
[4] 9 B 14 B (A) Kobe Steel Europe
NEDO 7 U'yi/'IZX *9 London \Zfr>h Kobe Steel Europe
&##H#/:of##'TOXMAT Oxford
MolecularGroup^6#A (?) L/jfk#"C\
7 — V (MacroPac) *?K5'> ^ a. lz — 'y 3 >(D/* y 7 — y (DryAdd) ^tfSoT
^UK T6 6 L < C ^
[5] 9 n 16 H (*) AKZO
't y > V Arnhem IZ&& AKZO (i AKZO Nobel Chemical Research Arnhem,
AKZO Nobel Coating Research Arnhem, Acordis Research (D 3 -oco^i.hz5MF!j £ tiX V'
h o
AKZO fb#^
(chemicals)l:#fbLZ ^ h LTV'6o 9"C^)6o
h^%o/:Dr. AertsOV'&tfV 3 >
t-fVy^^@ALTV'6(7)(±%^EZAL^v^v^ f(DZATs;ff[:#,
MM/MD, ^%y;l/-y(Customer)7)^?
^cTV'6 Z ^ "C&60
#^%%(DAKZO t:Z3V'T(±]Z#^v^Z
LTV^6o S.Picken ^ J.Aerts "Hobby "Mf
$(?) PC -Cy<jLiz-y3> LA"^: Z ^ LT^Z 0 t-7 7^
#^T(Z&V'?)d'&L;R&Wo ^ S.Picken ti&^A#C#66Lv^
&!;££ titi £tl&A\ MlZH^(D±Mtfi\WZ±#'7°U<D £ 7 ^A%#^7°a y X 7 h hz
^#t6^2 6(±A&v^#i^fi6o #6& MSK7)7.-4f--r*/6^MSI
mLTv^t>U"C(Z^<, MSK7)#6C^LT(iZ<(±mcT^^f MSIvs±#7°n
= Microsoft vs Linux developer <b W 9 Z 9 UZ L^ t V' 7 (Dfr^t'^CT)
- 92 -
[6] 9 n 17 0 (A) BASF im
KAV Manheim BASF #^ClAA^#m-C
(7km X 4km LM^A X 9 40000 ALL±<^%#M^C 2 Manheim
v^TV'6o CfL&MAAU-C& 9o
AKZO Cit#LT BASF 0 #Am&7HtTV'& Z 9 T,
^ L-i/ 3 >CMLTtf ftA (9 #%#&## LTV'6dA Unilever 6 <k $f ^
*K y < zi. Ix-i/g ^ <b(D#g#, MSI
^,E^^^AA(^<h 267)^6 &#CAo
A (D BASF Cj3^TtAKZO-cmT#Amm^|5]#C,±*ya(D$#^6f-y>7-
AA? Af-L V'9@±(i0< ^#2fA
#(±±#v^EmLAo
[7] 9 E 19 0 (0) — 9 ^ 24 0 (A)
International Workshop on Linking Different Length and Time Scales in
(Macro-)Molecular Systems #A0
Dresden A^) 6 Max-Plank-Institute for the Physics of Complex Systems $ ft A
Max-Plank-Institute Kurt Kremer b A>EES A X h JifS^ 4 h 7WD 7 “ 9 ’> 3 7 7lC#^0
LAo
9^ 20 0 (^)
Michael.E.Cates “Inertial effects in spinodal decomposition”
Lattice Boltzmann &fRV'A 50:50
6^<jLlx-^3>^:^#C^#fmt:joU6inertia (##A) (D^#!K:^LTgmL
Tv^Ao
Didier.Roux “Effect of flow on complex fluid”
SDS/Water/Octanol ff c
f #ilyx7 1/ - h b im$ A X 1) oriented(lamellae) phase, small onion, ordered
- 93
small onion, ordered big onion t LTV^ ## ^ fflrtfx tlo T V' & 0
Johannes Fraaije “Modulated ‘mesoscale’ organization in amphiphilic systems”
MESODYN Pluronics ACS <D
Pluronics
vTi >yLTv^<
MSI l i/ < z& lx-y a >7)^ ^
W'&V'& (0(±V'o(fV'&6 ^]Egc#;lTV'/:o
Karen Winey “Slipping, stretching and tilting in lamellar diblock copolymers:
Contraction correlated to strain localization”
y'7'D 7 7 ]) ~7 — <50 7 b 7 Faj 1C IX £ fr t*y x. 7 £• frlf tz I# Slipping, stretching,
tilting 1:^
Siegfried Hess “Rheology and structure of colloidal dispersions and polymer liquids”
7U 4 Kfi-?*:£> X NEMD(Non equilibrium molecular dynamics) V) j?lj 0
Yitzhak Rabin “Are gels equilibrium solids?”
Cross linked gel HfllJi" b tS^0
David Weitz “Aging and jamming in colloidal gels”
Udo Seifert “Non-equilibrium dynamics of vesicles”
5b m 2 ^ )XQXtltz X t vesicle V) ^ zt- U — 3 > COBSo Volume fraction t
j: <v^<^
LT$8^LTv^o
- 94 -
Matthias Fuchs “Results on the structure and dynamics of colloid-polymer mixtures”
9 ft 21 0 (*k)
Ulrich Suter “Atomistic-continuum modeling in polymeric solids”
Molecular mechanics(MM) U X t fz MM t FEM «t 6
Masao Doi “Platform for the multi-scale modeling”
^ ^
H:#tnLTV'
Wolfgang Paul “Multiscale modeling of polyethylene”
United atom model MD t Bond fluctuation MC t (0 "7" V "J 'J's 9* <D$\\Q
Andrei Gusev “Numerical identification of multi-phase materials with tailored
properties”
#7 -#'> 7 T ^ L/zXvX f < 7 ^
FEM KX *)fro^J0
Christian Holm “Computer simulation of polyelectrolyte systems”
Poisson Boltzmann fz$IJo
Kyozi Kawasaki “Theoretical models dealing with slow dynamics”
Slow dynamics UflDi™ 6 Sim 6^7) ij-g ih0
- 95 -
Mahn-Won Kim “Surface hydrodynamics study of polymer solutions and films”
pso vMEmc&ttawL
LT 6 WtMf ^Tw&o
Jacques Frost “The propulsion mechanism of the bacteria ‘listeria’”
V'2 V'-^) 9
9 n 22 0 (*)Jaan Noolandi “Anisotropic fluctuation models in ordered polymeric phases”
W # S t4 7" □ 7 ? 3 v v “ £ -a tf M <r> ^ )V y * n v - f 6 # o Gaussian
fluctuation 7^ 7-v V ^;l/(BCC)
Philippe Martinoty “Long range spatial heterogeneities in side chain liquid crystal
polymers”
ATlx^ai/-^#J^L'Cv^o
Didier Long “Linear viscoelasticity in liquid crystalline polymer melts”
Mike Allen “Simulation and theory of a liquid crystal disclination defect”
?$bb CD'^f'Jl'b LT Hard particle(ellipsoid) £ V > /j MC y;al/-y3>0
9 n 23 B (*)Burak Erman “Different length and time scales in protein dynamics”
Protein folding (IfHi- h b5
Alexander Grosberg “Ergodicity breaking and other geometrical phenomena in toy
proteins”
Andrew Torda “Protein fold recognition force fields based on empiricism”
Threading tiZ X h Protein folding COg^o
Philip Pincus “Electrostatic effects in biomolecular systems”
6^ t L/jISo
Armand Ajdari “Moving objects and pumping liquids with electric fields”
Julia Yeomans “Modeling dilute polymer solutions”
7 7°n — -f- coffi] t LT Lattice-Boltzmann t Malevanets-Kapral model <D
^ a. lx— '> 3 y&Jfc&l/f TV7:0 Lattice-Boltzmann "C(i 2
tiimsOffi] £: &>t/f& o Malevanets-Kapral model t
V'Z:o ^7 t n-o
9 n 24 B (A)
Florian Muller-Plathe “Hipp hipp Soret!”
Soret L ^, Na^SO^ 1: ^ L T ^ ^ ^ o
Michele Parrinello “Mixed quantum mechanics/Molecular mechanics simulations”
Car-Parrinello 6 MM/MD (h
- 97
Athanassios Panagiotopoulos “Simulations of self-assembly in surfactant solutions’
Pluronics b''<7) ^ -b y ^ a l/“ v a > Lattice MC Xjjo fz0
Georg Maret “Universal conductance fluctuations of light”
* ^ —t 7 y 3 >
T.Aoyagi “Molecular Dynamics Study of Polymer Melt Confined between Walls”
### 1: ^ f 6 (log MSD vs log t (DM# d? 1 1:mt 6 2 "C#% L T v ^ 76' A 9 ^ ^
aWCZ&yayjLf -
"Cim^L^COGNAC^^#tmA;:(i (??)
W.Briels “Simulation of coarse grained polymers with explicit entanglement”
A V jcf L >(DW&iknWo 20 y< A L >x- 7^1 #-fi t #1#
#:# £ :£HP > ^ jl L — '> g yfrb>fc&bx o', ^ =fc -t > X -v )\s £• $&
86"CV^o
T.Soddemann “Shearing of lammelar phase - a simulation study”
Tv^Ao
H.Meyer “Coarse graining of nonbonded parameters with the help of simplex
optimization”
ffifMb nonbondong A ~t > '> M ^ £ iJtfc h A'/i^Mo % AT^i>cM t LX LJ #(D(a/r)" (a,n:
Sit r:A7'7 7 <D n=10-8-6-4 (-AitiEST^ ATNi&V'itAff:: <7) «t 7 U
i>n) t v>9 #JgS;T7 7 I- & A" A 7 -> 7 A£Jt ?£ LTV'tzo
M.Marc “Mesoscale modeling of crystallizing polymers
TMJiSVISSfUtStgLJ: 7
[8] 9 fl 27 0 (fl) Prof. Marrucci ffiM
AAV A# Marrucci *Mf S-fSH l±#ft±A>Igj|, jo J: CPIIlfe*o t-o
±#*8A##(:jot'Alj: 30-40 AfSJ$A>AiSt7)?*i 0, Reptation i:Mt"-E.*frcog
ifcfc At^ItWlSv ill-73
iSlra£0«T*t±, A'h i:f!4 Marrucci 77V - 7lC ®6 L T V > & glJSb S <06f%
1:M Lr-fS^tlllfe^f AtiAo liL-Vr-i/ 3 7 14 A 5 7 7AM1-5 ->
5 i 7 — -> s 7 A fr o T 43 0 , 7SF567^:liBMl$:$r#S L/;f7f-ys 7 A — y a >i:
J: 6ISA,i#,(7)S.li6; A o_ — 7 (primitive chain) C A ^'6 A 7 y a >i)'b f#
6fL^tl<7)S0^'V>4r#SL, AtOA*®ft$-AS$*4-lJDAAy 5 ih-y a y SriitA.
Tt>4o y a 7 A — y 3 7 A A 0 . end-to-end vector l7)|EfD^®!)& k li&frA'o'V'
Srffo&coai&iii < -at5o LALA(D#0^-V't#A-CAyL-7\ 43 i tmA* £
SAStf-iSciit1 Lt ti i 11> i we:otv> J„ a 7-> 3 7
£A77§ScDS2tM#'tV'.£7>A*t 'tit £ A 0-- 7'Afi <
i6]i-»a<k5fL-z.7)i±gfS5nSo :»ii ^ M t c 6 A» ii y = ^->
3 7AA7VlC-|iij7)>*Kfi<)ikf|SA'AiSLrv'S^ h7)?if Aibfl, Friction force.
a*, xy f n t?7 7a*4-t 0
yjL7*AKl:MA6 MD y < 7-y 3 7A)*8fK 2
z-t®£ t'AM IT£ffiL A„
1.3.2.5 S 5 HJBfl-M*
S 5 (Uli, JCII Bf%fltS7k$8 . 5fit7- Ry
MiAtu® u ##m:+7)momAi:'7V'-cm$L%M^#eiT^
oAo SEE. fS7kE%SI±, * V 7 t AX7I#A#<0 3'7'- SIS
k a 6 l:R##fi)l:7iy-rM#LAo 4A#ttW5SMl±, A V 7 *axa**
99 -
i>m&Ltzo
dti^Tfe ! (l)Gordon Research Conference(Colloidal, Macromolecular &
Polyelectrolyte Solution), Ventura, USA
(2) California Institute of Technology(W. B. Goddard ##)
(3) University of California, Santa Barbara(P. Pincus ##)
(4) Third Annual University-Industry Workshop (Structure in
Nanocomposite Materials and Neutron Applications), Taejon, Korea
m?$ ; 2000 ¥ 2 H 5 0 -2000 ^ 2 )j 18 B
:
(1) Gordon Research Conference (2000/2/6 ~ 2000/2/11)
lb#, ##,
&T--7#uioo^#
£y%>0
ft, UTC,
- 100 -
Seth Fraden, Brandeis University
The role of entropyh in the phase behavior of mixtures of rods and spheres
Rlj#a v h a y ?-X^ ff-y &o
Brandeis
Univl:^%f)
TE6^6Xy< ^-f y ^ a#^#^E]AT-C, Xa y
^l«h(7)7f
Sharon Glotzer, NIST
Emergence of nanoscale dynamnical structure in glass-forming lilquids and polymers
beads-
spring "Ct T ;l/jb Lfz0 & ? 7 7> 9 —7^#%% $ tlh CONSOL ’’dynamic heterogeneity”
Michael Rubinstein, University of North Carolina
Solution of hydrophobic polyelectrolytes
7W###<#<o
globule Me ^ 6o $ (±#^(7) 1/3
~t ho ^-mlfh <k, SP-laffiSf^ffl t iZ X b globule-^dumbbel 1-*
necklace t h 0 $6 1: necklace ##(0##y#?R 1: o v^ T##m o H9
£ * lnec(c' /C)W2 ^^ 7 ^ 6 X (7) kf — XfelBhS (string length, ) X b M < & h <k" b
- 101 -
Francisco Solis, Northwestern University
Strong coupling approach to polyelectrolyte theory
Olvelade laCruz(7)&26"e^%K^^L"Cv^o
^ (i overcharge fract ion <D^< ^ T*H0 2 >fc(D
L tz overcharge ^ 7P Ar “ £ ^'t“0 Polystylene surfonate <7)^BE9 £•
mMo LT Safynia ^oti^ DNA <h #%(7) complex L /2 v 0
Claudine Williams, College de France
Adsorption of polyelectrolytes on neutral surfaces
(^vTKIFBk "C(7) polystylenesulfonate (PSS) zK##o y y V-U
> h n-;i/
i&Jitfr b #<£> h (Manning) 0 ^ pearl-neck lace 0 -/S’>,P
Lbatf) h (##mi#t[l) o V -i i~ < 9 X induct ion time (i
& tv iU.C0:<fct} PI-i *9 jS < ^-2) o Langumu i r layer & t
###^ (##C)
2 ^ /2o
Robert Tilton, Carnegie Mellon University
Sculpting adsorbed polymer layers via polymer-surfactant complexation
t* l i)'lZ «£ o X§zW £ tl&o optical ref lectometry "C\ (7)
Jff^^rilOxEo ( 1 ) Pluronics + SDSo cac (ii§#<7) cmc <D 2%fiSo '> V * GliRPtl) iEW"C(i
%# L /: Pluronics <7)71/- y<7)^^C SDS (7)^^#:^ < c c # W# # ^
CCW60 (2) CTAB + polylysineo vV*#m±-em#;(7)#i$^
(h o 6 o KBr cOi^tlDU X 1) iltf
- 102 -
R. Walter(Dept. of Physics, University of Nevada) — Network viscoelastic behavior in
Poly(Ethyleneoxide) melts: effects of dissolved lithium salt on the network structure
PEo Licio4 urns $ $ v p v - ^ z & z
6<)monomodal<^##T,
PE0^PP0(7)mV'#^"3V'-cmmL/:^ 2^fZ2T#3#LTV'
Ao
(2) California Institute of Technology, W. B. Goddard (2000/2/11 ~
2000/2/12)
^ j~ — (±#"7°n yx^ h t , Dr. Tahir t C0Miim& Z IF Cal tech M
Goddard ffclx t (DMfra
Goddard Zo#y;l/--yd'C)&cTV'&o
%fbdfT y V 2:'^* 6 o
±#yayj:^ #l:^z.7"#%M^^AT^6Tahir#±^yn
Ao
#%fkdf7>iy-Wh<7)##^:|MIL'CU\ Goddard Tahir #±e(ZCy),
deviation 5r^s6vH-ItS L, t — V~^y t — 9 i~ 6 § TJh Z> >
- 103 -
(5)SCF ^ MD
(3) University of California Santa Barbara, P. Pincus ^C^BKjfnl (2000/2/11)
UCSB^Pincusm^tlT^^ > E tKimLtoUCLA-?####& LTV^P.G.de Gennes
F.Brochard#^^ Pincus W2&#;bT< 6 4"@(^UCSB
(i)de Gennes fjcixfc <£ tf Brochard fjtixUtilBSIx (ii)Pincus#^^^ >/< —
t 'i > t & o tZo tfz, (i i i)Glen Fredrickson fjtlx t i> ff$fztza
(i) de Gennes
Tg ^ $ fiT w & C 6
sliding motion
^u%fi6o
sliding motion
Brochard^^^^Tli.
^ $ fL^o
(ii) Pincus#^g#Pincus#%2:%&(/);K%K?&Zm%^-C#;&2;K'CV'6o ^
^6^ Z h KAIST(7)MahnWonKim%^^M#^h LT l^^cr>?^-e%#L"CjoO, Pincus
Pincus^^ru, #< ^
ot>/'^o N.Tamashiro t$i^ A.W.Lau^:, E.M.Mateescu ffl^^TTilvVjo
Tamashiro#±(d\
9 LTv^6o Lau fWmcM:&U&77
t Mateescu
(iii) Fredrickson
104
LtzbCDZ. b0 # 6 ^ ^ &"C## L /Jo Inlfcli Physical Review Letter l:j#
#?7Eo
(4) Third Annual University-Industry Workshop - Structure in Nanocomposite
Materials and Neutron Applications (2000/2/16 ~ 2000/2/17)
^7-^ v 3 7 KAERI (Korea Atomic Energy
Institute) > KAIST (Korea Advanced Institute of Technology) jo X. £/yfclU<7) NSF-MRSEC Garcia
Center for Polymer at Engineered Interfaces Tie ±1! L'Cjf'^Tv^ & <7) 0 3 HI g <7) 7 — 7
v a 7 7°t)? KAIST CO Mahn Won Kim fjthE<7) organize Clot KAERI "C[ffj7ie tifz0 #// H
161: 2^, yd'6 1 KAERI E: KAIST
607^ v7^±#^Ae#^-C100^#^^KAERim^##l:#^^^o ##fT^(i22f4: (1
14 40 #)o
Kim PT(/)7^TT
<6#^ L
ii Hi§ LAio L"C^ Polytechnic Univ. (D Prof. Shnidman> McGill Univ. CO
Prof. Eisenberg, SUNY (~ jl — 3 — 7 jllYEYO CO Prof. Rafailovich TT £
$%#(/) fd' f 7 V-7-71/7 M:7o 7 ?
A:. SUNY (7) Prof. Gersappeli,
< zL 1/ — 7 3 > t: & < (Northwestern 0 Olvera de la Cruz ifcliB<7)T ^
Pitsuburg^O Balazs E:). B^(7)jk#E:
E:#oTv^o
TEC7 - ? i> 3 7
* Prof. K. Char 7a7 7 3^V-7-ad;t^V-7-(7)^^^<7)%#m)^X^m^L-eRf%o
* Dr. K. Tanaka (%±#Llj#) ^^T-#@<7)^7 7$z#^AFM'eM%o
* Prof. A. Ei senberg WHS7"□ 7 7 3 ;p0 'j "7 — (fSTPEPlI:) t zk • yfi<7)?i. o‘M<7)lI£l;&
- 105 -
#1&&SEM (Crio) TWWo
* Prof. D.Y. Yoon
* Prof. D. Gersappe
< LTV'o tz t £ y ^ jl U - y a > "T% 0 ^4:
L^:o
1.3.2.6 8 6 ElfttfUtt
0 x ^ 18th General Conference of
the Condensed Matter Division UitiS L> ##^##(^#^5^)%
^ «h W:###fo]Cc,V'T#;|#L/:o
dj^Tfc ! (1) 18th General Conference of the Condensed Matter Division of the
European Physical Society, Montreux, Switzerland
(2) Munchen Institute of Technology (J.Gasteiger #j0x)
(3) f-X h V
(4) Technical University Vienna (K.Varmuza fitlx)
: 2000#3^11B-2000#3^24B
mgm# :
- 106
(1) 18th General Conference of the Condensed Matter Division of the European
Physical Society (2000/3/11-2000/3/17)
EPS-CMD ii 3 - □ y / CONDENCED MATTER (ESM) SfW±fI1"
h ixlil (18 H] §) V'#) ^ oversea collaboration ( B
tZo ■fe 7 '> a > ’’Topology & Dynamics of Polymer Network” "Cli Prof. Kremer i)' b d* 7
T.M.Nicholson (Prof.
McLeish ^#%^)76'6”FlowSolve”(bv^ Ld-ni/-V7
y7 "7 y 'JT V ;!//< — ) o 5 /<: 16 B ^’’Transient phenomena in complex system” Tr
(iProf.Fraaije Zf^^m^^^c/joM-f^U^^MesoDynCD^^-C^-o
3 ft 13 B 0!) 4BIW
7 * — jj 7 • -tr 7 '> 3 >’’Topology and dynamics of polymer network” tCftiSo
• “Computer simulations of rubber elastic systems” K.Kremer (Mainz)
f i - 7" 45 7*)]/ \z J: h y \ j- U— y 3 > hzX 0 o/^nx'J > ^ L/Z d;
v-r-%7 b
• “On the trial of topological fluids” T.M.Nicholson (Leeds)
d; V b d^o d^y
y V jLm# v 1: Z o -CM & f & 6 2 ^
• “Local chain deformation in polymer networks by SANS” W.Pyckhout-Hintzen(Julich)
d" 7 b 7 - f ? a 6/J^
3^i3B on ^\k
< — • 7 n A- 7 A “Topology and properties of polymers and colloid networks” (5
• “Elasticity of Polyelectrolyte Gels in Poor Solvent” T. A. Vilgis (L.E.A-C.R.M)
(invited)o
- 107 -
Oosawa (7)@#Z 0 W^L. 2 W:?" 7 b 7 - V -7-l:%^LAo
“Liquid Single Crystal Elastomers as Artificial Muscles” H. Finkelmann (Freiburg)
b7-^d^V
-7-(7)Al=l#l^^(7)E'm(iKuhn^#^L/:o ^0^(7)##^ LT(Z, 1) i##(7)mass
transfer 0 6 L W -9 2 L 2) Z o T?§JSl^J£ifc;#?_hPJt fci&tf) h Z. t
3) #A($ "Cab %> Z- t 'V'db&o De Genne (i nematic ealstomer 5: A □ IS 1^1
n 2) mfz
-C&60
Lto ^LAAy bV-^^V-7-(±,
“Breaking a Knotted Polymer” G. Dietler (Lausanne)
6## (invited)o f(7)#0^G:#^6#^(7) W
^r2c»f$6o (“In” (D{$GfL/z) &(7)g|c)!^0#&#&ff&v\ #t^v^|(Z^(7)
ZA, #(7)#
# t LT Spaghetti HoV't ^ ##d L/z$o^:\ In60A *9 □”C(i Spaghetti fs]d:7^##
L^v\ gAV^^^^^'3TV^2<>^t)^'3Ao C(7)M^(^^^:^Z^|,](7)A^[]-C
“Bead-and-Spring Model of Hard Spherical Particles in a Rubber Network” G. Raos
(Politecnico di Milano)
d^x V *^#-df>7'7 7 f #(7)7 7-^A-oTV^
CftG(7)^#l:%(ZfB#^C/<zLi/-i/3yi:ZcTW^LAo
#$:7 7 > b A#60^ 7 b 7-f J: L, f (7)&$^^A^:7 ^
6o v<jLlx-iy3>(±EA^(Ot>T#7l/nT#V'TV'6o
Affine 2 $^(7)^7X^ V
- 108 -
3 n 14 0 (x)< — X □ A 7 A ’’Polymer dynamics from the local to the global scale” (CtitiSo 7 f4
@#NMR, NSE
V "7 ■%~(D Rouse X x ^ 1C X h 'X ^ zl X — 'X 3 X ( > Richter —■
• ”A National Project on Polymer Simulation in Japan” M.Yoshida
±#7°nyjLf b<0#^(:c)V'-c$8^Lf:o ##L/j/<X7Xx f
• “A molecular dynamics study of lithium ion motion in poly(ethylene oxide)” F. Sawa
"j X a X "Ctid^X 9 i> X — 7 ;I/"C 2 5Hb1<7)X hi—'Xco^^^'-^x. b fix
v^o Li d'd- X(7)#m##Cov^T^#^#X < zi x-X 3 x Z:^
L Zjo d^X X — (i Mainz CO Prof. Kremer tX'5^ b fX EftEro LZj0 Kremer (i Li
d'd-x^PEO^^m^C^^l:#*&'#Z:^Z:o
3 n 15 B (tK) 4"#
< — • n n A 7 A “Self assembly and phase transition; surface, membranes,interfaces”
i2<o##^22(odfxx-#m?&'3/:oX < zi x-x 3 xa(7)jt#C^v^"C(D##6^'D/:o
d^°X 9 ~ X (i Fraaije <DV X ~ 7°\Z. X ^ MesoDyn CO 9* 9 ~~ 'J ~7 — CO X ^ zl X — X 3 X
3 H 16 0 W 4^#
7 t - A X -b ■; y 3 X’’Trends in statistical physics”H thi^o XcOEL^COWf'lMffi#) o Zj0
• ’’Superparamagnetic clustering: applications to biology” E.Domany(Rehovot)
XX LT^:#L^^X 2(0^(0/<X toX—.
• ’’Dynamics in disorderd system” T.Giamarchi(Paris-Sud,Orsay)
109 -
• ’’Fractal growth towards euilibrium” B.Sapoval (Palaiseau)
3 ft 16 0 (*) 4^#
< ^ 30^^ “Transient phenomena in complex systems” HflU$j0 T 0 T T CO
o tzQ Fraaije cO^f^H^ b 2 \^X>'y < j-U — v 3 > UP^'f" o
tZo
• “Block copolymer liquids under shear flow” A.V. Zvelindovsky (Groningen)
E0-P0^(7) h vd’yo V ^^V7-&7K^^^6^cof
tzmz&fro Hexagonal-BCC co$z;###^ 3 > h” j. - ^ L/z$o^:$"/]< LX
v^o
• “Block copolymer liquids under shear flow” A.V. Zvelindovsky (Groningen)
TO 1:^377 7-Hexagonal(7)%$c###em^6^a6, Lvw\< ;p h-7>
^ V Vc T'/i (angle dependent ;l/ h — 7 >) C0%a/ft'o ^COB^IEUCOV^T (i
Z < Tepe Z C-^L^^TV'^o
3 ft 1 7 B (^) 4F#
"7t"-^7^.d:VV3 > “Molecular nanoelectronics on surfaces” hZ (i 2
c^:o
• “Electronics at the nanoscale with single molecules?” C.J.Joachim(CEMES-CNRS)
(2) Munchen Institute of Technology (2000/3/18)
^ J- >%#A# J.Gasteiger l^ff^Pn'lo f£}f n > E° jl — y 7 < 7 h V CO#-
A#o
- no
BWJ$ APS vmtznr t>£„ 4-illi, ^ - 7 ;i/ 7' 7 bwiSffl
t; o v > x wKcJf t SUSJfto
(3) *-X b V (2000/3/21)
t “ / ) 'j T ffc f: B ± (I w w (S K t- ’’Design and Simulation of High Functional
Materials” k t' 7 -f - rf, bWl]ik*U.fclt 2> 3 > tf i - ? 7 5 X f- ') i: ±
#/nyi> h <7)tt$i:ov>TI*« L/^o [Sfl-^liWCi-bx 5 7 ? X ,it(Mfib”"-coilfl)
t t mttzmii>fti& A>J &<r>sm*& o
(4) Technical University Vienna (2000/3/22)
■> f K.Varmuza Itif im„ ##l±7G*e#(b##T\ $161±, b
V ?XfflF5Ecr>JH-A#T-*-X b V Ko' X<7> Gasteiger Keg t t
t b')?xx>ii
/Bic^v>rSl,3c$„
1.3.2.7*7 0*##$
m 7 @i±. jciiW5£i*ffl ft, raw5EMSs)iiifi^\ Msia^iswu, mm fa#$4-1T*7 *Hr-M(ISaA* 219 @107/ V *ft#&(ACS) National
Meeting CttifiSL, $M%E4ff4rV\
ttU-xv>r|B|$LSI.SiS4'bfJfcoZ:c,
Ft, Ssiiitt
$SB67 : i«#S»|S)Pt
ffliSBfc ' (1) MSI, San Diego, California, USA
(2)219th American Chemical Society National Meeting, San Francisco,
California, USA
: 2000 If 3 fl 22 H -2000 ¥ 3 fl 31 0
- Ill -
I.3.2.7.i ms ittttmae1.3.2.7- 1.1 BM
MS I tttc jb'lt^>yf4Ixft7 7"V 7— y a > 7 7 F 7.x7<7>iaS£ttia£M3E't-&o1.3.2.71.2 tSMTfe
J§0r : MS I San Diego. CA, USA
HU# : 23 0 (9:30-18:00)
WE# : J. M. Newsam, D. Rigby, A. Bick, S. M. Levine, S. K. Nath, R. Khare,
N. Tanpipat,
1.3.2.7- 1.3 m#
msi urmmmitfio cwersirmm-r-b„
* B 7)$±# 7* n IS ti J: O5' WG2 ^ > y > cos A". 6 B]7)? WG 1 jo J: Of" WG3 X >y > COS * i If & o tzo MesoDyne 7' li -ti: /L Iff £ It -B 7 1; T' 7* n 7 X 7 7? >J -7 - to ;P 7* n y — coR#l:g%% LTV'BcOTL -ttAWr 5r7)>lt/;7"n 7 X n.-t? V v —cOlfS* L&V' cOfrtn’M.faWfr'itCo WG3 <0 X n -7"T* 0 , WG2,3 Oi7y><0®miCZ $0, j; LTIifrS,&I>tA, SCF i-JflW-rX"^5 XX. MLD Sim, RDSYS MesoDyne <h IW&6 <Ol2li||PS£ 77-e i L
IMftMDfli. y -y 7 ;k<0{1*$l2*P*7)s*.B L L < , 4^# L"coj: n lt #
•msi (Mcoimm+mi
1) ffScOFull Atomistic yi — lH: LX, ^/1P'/1ccL'“’/3 27-Jl^
MfS-t-B-e-o -C-^BoMD r-ff x.ti'6 y AtH'-B (i t'co7-K V v - 7> < ;p 7 7 XTflrttS* 7 <0#i£T-|±Sc 0 x-%h 7 t L B: 0 , ZZfrb7X)l7 7 X##CO##7- 7 11/f-
^5")#ib ti, 7 Zii'b x'^7 * ~ 7coitW6jBS69'fcP>i!Sl2^-Bo $ tL, f- 7 7 7
11/ E 7 F iX-r-C 7 X & he t > y -V )l-t'b /RiO B> ttli & & -B „ MesoDyne, DPD cO^'f^cOatH
li. T'tx. *»K, ittH. G',G”Stlt#ffico||S7)^4 jxrv'Bo 7n7'7A«i:li
SxSfS^rfFSt L. 7 * t 5 y F"Xi^LcO7°a7"7Aty)'^:0^^AjT.6'E'o7'$)&o
- 112 -
2) Mater ialStudio It MSI L v Vi ewer & 7° 7 "J zL#b7°n platform <L R
#(7)3 >4:7 Windows^(DtfVyf",
C0^7y;yp$jf}f"7 —)\zta tlZ t 10 , Ztl£ T'(7) MSI CO Windows v 7 — v"C#> 6 WebLabViewer
####7v7LTV^o 0fWmOS^Win95, 98, NT Windows
#t#$^^(7)i:ov^T, Excel ? & ^f)Mt#:
77 b 6 2 ^-egl(7)f$^^^^M#l:m^6 2 h /:^L2(7)
Platform (30 A/^X1.5^) ,M^o ;K^^^MD>< l/->3>
7 L TTjf v' tz t£ 0 ' t i tz0 % tz MesoV i ew t ^BJ}£ LfV'4 <h <7) 2 to
1) HTE ( High Throughput Experimentation company )
MSI Heidelberg 7) t "a L + '>^^.1/ — *>3> + Jr — 9 a:
-X + 3 > 1^/r f-CCBASE
t:(7)^r##^^f-oTv^ <h(7)2
2) Informatics
ORACLE &37t: L/:3|%#^:(7)7-f ^ v f 7)l/3'V XA + ^zL-
7 71/ A "j b tf>?x. > i7 7 t tz 6 o
-f (7)#(7)3 7 > b
Dr. Newsam <7)%S <b LT, [ 6 B (i MSI 7 b & ft75^bSf#"t"6^ # *C(i & V'
d'oJ FACS l:[±±#7°cre7-%^#/:^v^(7)^J
b^(d:±#yDt#Al]LAv^'69oJ #7)^60
1.3.2.7- 2 ACS
1.3.2.7.-2.1 i 69
V b7f-A^#l:#mT#6##coa#, #^(7)##^B69^LAo
1.3.2.7- 2.2 #5n^lS
! ACS (219th National Meeting)
: Moscone Convention Hall 7 tf San Francisco, CA, USA
- 113 -
mm : ¥$12 ¥3/! 26 B-30 a1.3.2.7- 2.3
13.2.7- 2.3.1 PSME( Division of Polymeric Materials: Science & Engineering)
#48 Incorpotation of stereo-, regio-, and comonomer defects into the crystalline
regions of isotactic PP :D. L. VanderHart, et al.
pp (i-pp) 3o
^RB^E6ft62«h^NMR^6t,^6oMD, MO (DFT) ^mv^Ti-PP^^[#l:v^<c,^(7)
l, 3
#49 Structure and mobility of end-groups and defects in i-PP examined by solid-
state C13 NMR: W. Wu
Exxon ?±d'6<7)##Eo #48|s]#i-PP(7)^^^|%l:cv^m#:NMRrmgt6o
#44comparison between dendrimers and star polymers". J. E. Roovers et al.
Si KV7-<b star
6^: star,T> KV-7-^%6 Log
(Rg) -Log (Mw) Plot &f&^V-7-d?V'7-dHg#i%l:7n7p-r#6(Dt:#U
star#U:@m% (T1:A)
2b 6 m ^ ^^c /:o
#45 Stars, diamonds, and the ABCs of self-assembly: E. L. Thomas
2 2 PS-PI 7"n v ^ 3¥V7-l:-3V^T^$L,@5mmfL#im^m#L/:oStar
t#ia& X If diamond #la (ABA 7"n v f <D star f#iW) T particle, lamel la, nano re 1 ief
- 114
#59 Mesoporous structures via block copolymers with a labile block :S. M. Gruner,
et al.
Ya V ^ V t n (D# 1
Monopourous System tit
10-7-10-9 10-100 ^^*%lu-A(D^TL^f-yv Fh&&o
Double Diamond, Plumber’s Nightmare, Gyroid Tie'ab h 0W-l$nM4$J ti structure-directing
agent t^ht L X V ' & 0
#60 Polyethylene block ccopolymers :R. A. Registger, et al.
E/PE, E/VCH, E/MB, E/SEB#(D77'nv^3^V"7-^f^L, #^(D#im(Dmv^:^
v^-cm^/^o E/PE(D^^yy PE##:Z 0 ^)l#v^(Dh^0, CfUiEP & E<Dfg#
0 E Ml±#V##;y y 9 2 h 6 t (D^ Lv^
.ho
#61 Amphiphilic polymers as amphiphi 1 icity aboosters in microemulsion systems. :D.
Richter, et al.
PE0/PEP ^(D##(D%g|^T & 6 C h IIOV'T^ C7^ t (Do #(D^%#l:ov'T(Dmg&o
#62 Bio lubrication: The share of adsorbed polyelectrolytes and of polymer brushes
J. Klein, et al.
L6V'h Bo/:(D^C(D^#T&6o
&v'z h i:cv'-r#xr(Dmm^mm$yy 7 a d't
•€■ <D|ff 0 , 7" y v t 7" 7 's?b\cd4 y ## IZ X DO ## £ 1ft 0/1 L, osmotic-
pressure effective friction coefficient £)J8^0 t ±^| LT l'&0 4*f^:d:#70n 60 jl
9h#x.^ft6o
- 115 -
#63 Local friction and the dynamics of polymer mixtures!. P. Lodge, et al.
#64 Recent advances in understanding stress relaxation in polymers:S. T. Milner,
et al.
Mcleish X> X O'—7° b X>7X&^k0 9 4 h 71/ t tOMfr L ’’Shortcoming of DE Theory” 17f Ltz'iik.' #7 t DE (nonlinear inncorrect #) "ConvectiveConstraint
Release"(end ^
#93 Predicting phase diagrams of polymer/c lay composites: The role of grafted organic
modifiers :A. C. Balazs, V. V. Ginzburg, C. Singh
7-f 7-"e^)6clayl:7'7 7^: L/:^V h V v 7 7(7)^V7-^SCF"C:t#:L,
clay cOgdfo]^ Density Functional "C|fS"f*clay J; -7 hZXJl'y t n v — £
— '>3>L> #1110 LT'/'^o SCF (i nano> Densi tyfunct ional
(i meso <7)|fS'Ca^h 11^,99 L> In/I: <h L"T (i zooming £ LTV^6 CL t IZ&X Q
#196 Relationship between melt-state rheology and dispersion of polypropylene
nanocomposite: M. J. Solomon, et al.
7 'i 7 ~ b LX clay A ti/z Polymer nanocomposites 5MT 7 7 —
& WAXS l/f 7 - ? L/:o7 < 6 <h 7 ^ 7
l/Z i) M^-phZ 7 -Y 7 — t LX clay 9: Atifz Polymer nanocomposites (i##< (7)##
1.3.2.7-3.2.2 C0MP( Division of Computers in Chemistory)
2E<h K7 7 XXA4 >ll|0-b7'>3 60 K7 v XXXs4 > fW\XX
(±, HIV-l^#:(7)^#(:^LTCoMFA^CoMSIA^v^ 3D-QSARemv^#^^df77-
L> f"i> fs]X}~~LLf%\AX ^ /V.U7f-1$ b X b L> tzQ ACS "Ci§o
- 116
Cfflb -f PMSE T-fRSt 6 <0,)$$«nlnX’&b^
®S
^l±t)E%ld:%ELr$P*7)%^ z. t 4-SESL£„ ACS T-STEttK%$4-ff i
5c * iti 5 £ v ><h ±#7‘n w®# WSt -6 „
- 117 -
S2S 7-*v*nn\/-
2.1 WGl MD) (7)#%^*
#«r^,
2.1.1 iiCJ&K
WGl 'T%0KA/'CV^^M(±, COGNAC
(2) > v -v (3) U^-n v —
(7)3oT^)6o
< ZL l/-v g W:&V'
7^0 y7 vh7f-A^(7)^
LT4C(7)^M^%^±^-C, J:>;y y?)Wm%<7)WEMfoTw6<,
$a L tz0
d^?§i^(7) utv v-nti, #A^v4:$E|gf
Mead-Larson-Doi Ci 0 W& £ tltzffi L X *) #0#^’CitHcfitl^.
- 1181
2.i.2
2.1.2.1 x > 7 7 COGNAC <Dffl§£
(DW#
m###cmLTU\ #
^E7 7^7X;i/
^Z^7°7v
/:o
& jb\ ^r/LfflSE<(: MD x>y>(7)n-K^-AHt COONACiCOarse Grained
molecular dynamics program by NAgova Cooperation) t ^RMt/Co
#i%
6##2: LT, XL- V Mrvi/^d' X^ 77 7 7 3 f h,
<b LTE^tfZ «bHZ 0,
^##^%AA0L/:o
(b)7 7^7y;y^#
i. #E7 7^7 77i/
LT, 7 < zi. 7-7 3 7t:#v'&xL-y h t;i/(7)-V-Y X^r
?*Ht £ 't£Z>^ff±.7 'y*Y 7 771/ (C HH L T > Andersen, Parrinello-Rahman 7)%^7 >'7 7 771/
?£& «t O*Brown-Clarke <7);l/-X* y 7° V 7 X&^USD L£0#C Parrinello-Rahman&jd
Z^Brown-Clarke&niXL^y H:;i/(D7-^X^
0 , < zi 7-7 3 7& &7:##T&6o
ii.
Lees-Edwards (7)###f4:(!: SLLOD 7ll/7'VXAt:Z7], ^.x.y h-h;l/^^#$-d:62
- 119 -
##tmA0L^o
joZ^MDi/<zLlx-y3>(:Z
L-c#me$T^
9 v
(d) ffiSflpffl ^°f >y^r; 1/
i. 7- — y")U /7°t > '> -v )\y
mmfk^T>V-V;!/$-#/:^
ii. Ewald 0:
<;t#t& Ewaid&^mtoL/zo
(e) 7° y "J h 7 t — A fr b
7°VV h7^-A(7)X77< 7^^>^-7jL-X(GUI)^^LT, #f#:#f4:(7)A^, jjZ
#,#(7)2 <bo
7°9 v h7^--A^#mL^v^#^(:joV^Tt, Am%7 7d'A/:&UDF#zU:m-U ^
< I/ - i/ 3 7##(:joV^"CX7 v h 7 f - A ^ T-^(7)^ ^ ^ 0 ^$6 7 ^ > KTO-
%\$k(D '> ^ 3- U — '> 3 > T — 9 s #(I^HF-(7) 7 — — h A^JT — 9 & i'^f&'t'
- 120
izr- ? Vmm-% o, gul 7 t t ;ps
*l>-ftU2 3(0Ua#r*6.
f(04AI:,attf 7)7-47 7-4Mgl:ft)&fB4AAfV x-k'JUf'-frl10£U
it tit-t-B= $<)•?-a jitf-m%mt ir ttmitna t & & y 7 y * > b 4Atj7-y t: l
TirttUXtU i 4f$&f B##, Itat-L, it
mtm 14- b b ## *w-y0
(3)lt*0IJ
(a) ini,
i . It LAI:
its< aenr•?•
ro®$itov'Tli^:i:$!#S;h.-cv4v0 f A##4l*%-t-B4AI:, ET-V^iv-AtH3-
ttt)^(MD)lt**?fftanrS4„ L*'t4/4sf>, ZtlbmfmmtZfrT-Sk*? ■> l i 7-
7 a 7#MI:MA^4))'B4A, +»4*6$4tif6t2$-3Ti'4v'„ 2At i 4#UAe%0
IB< 4Ate, V) < -74A77';P7)4tX$tl.TV'B" 34 a 2 67)7 2tt6A4f;Ht$^A
Kaattf ICttLTftjSft?tlTV'4v'o "E"2 T\ $7 ItnCB(4-alkyl-4'-cyanobipheny 1) 5t-p
4-ttSt: L Tffltl-f4- |,tA 4 „
ii. "tT')Pjo J; i/|tS#S
ft 7 2)#!%{!)7 7" 6'c It, nCB th-p 4 8JBE 4 95 tM4-me t hy 1 -4'-cyanob ipheny 1 I CB 2II'?27
t 7 7477*)7 4S|55j-(UA tnf-K) i:»it, Wi^SISfrliftR-eafR L, 7 L/4 477V4SS-
liIt7)i'o47)i'o4tiAt L4„ CB 4t8nratoU44A, tSR-tfPKCB-CB)t)J:OTIR-
£R(CB — UA) tf 7 7 7 )Hi, OPLS *> 7 7 7 0 AEHsIctt L-C^KHt-f B 2 t
IC«toT*A4„ ¥±tJffc*"T-7 77)Witl$l4f#S4 LTtj t), 2«ti4t'r>'/t«'4
- 7-tctte Ltz-K7 7 7 7 iWMSilt41>t)7 #*•> Ut-/a
Gay—Berne(GB) •"h"-r 7 7 7 )7 3,"CI£i$'t"6 2 t It L 40 GB 7”7 7 7 7 )7 A/<7 7 — 7 T 4 o
ttm#4/<77-7li, *MA#tbttt4'tilAA#trK-C&Bo 4-fflli, NtWnCB
AtB0l:4-x.B##l:-7V'TM^4oER-mmAta2titmit OPLS *”7 7 7 7 At IbJL t L4„
#SSA-Kt 7 7 7 AAZMA77 7 7 7 H'li3CMfrbMi X & 40 2 fl^tf 7 7 7 A 4
fflV'T, NPT 7 7+P7 7"Att J:6 MD It# 4 o A » fl-^lilt 256 T\
- 121 -
v "/(i 5fs ^ L/:o ZL Ix-y g 10 20ns#l^-C&/&o
iii. $o^z
*IRoS£ WM'2
Zttffofr'DtZo 4"#. # R (0 $@ & rntm % t: -3 V' T 2 ^ ^^
S#5:E
1) G. L. Penna, D. Catalano and C. A. Veracini, J. Chem. Phys., 105, 7097 (1996),
2) M. R. Wilson, J. Chem. Phys., 107, 8654 (1997).
3) D. J. Cleaver, C. M. Care, M. P. Allen and M. P. Neal, Phys. Rev. E54, 559 (1996).
(b)|SBBg<b
i
##sm&a, a
##6fLTV'&o 2CT(±,
^ 7 ;i/^ eL, c& u- &jy z z c/'
Z ^ 607)4:ov^Tm^L/:o
ii #&
DESIST'11/'5j'-)F t. LTiEilT 11/ * > n-decane (C10H22) ^ LT n-nonane CO
122
(c) WBK
i . tttfetC
xztzo &if-<Dz.>kmmmmm«ttxn, ttmmit&n^frb^&i
nt, ^itb tc#®SE£ njl#t lxmnLr;m(r)i<Diz LfryjumfWWfr'&g Zft-x
v'a. ##Tlift** t####t Lt, tfijjz^uy **!)-■< K (Poly (EthyleneOxide) :
PEO) *r#')-fu\zyyx**r-< Kt)?W1> ft, PEOK’Jfr'y&tli$1DLtzmzm-?Z>»1- nk^'y 5 v- v 3 XDBffE^TiotLTy'a11’2^
tt* t±') f-1? A -Y * yrojgfiro&PSbW * y{iM<r>* A—X.Mc-s>vT£a.il5-#a7(:it>
t:, iSMttt.®dPE0»?t:LiIt$$DL£M<O5^toA^'>5 ^-'>3 >£fr&v\ iS@g,
PEOOS-g-g^yy-y i: LT, -etub7)sS.l?tS>SK-3V>TiaI,t#^o
ii. #&
*-A-*6^)PE0m0»f6^6* (ti,T, ->XtA “6x40” ) , R]#t-e-g-8l2?H <920
(ftT, yXfi "12x20") , js j; U?l-6'S24Ci t> roAno^H-A'ib & Z>$ (ti-
T, '/Xfi. “24x10" ) -5-4T.^*n<OPEOfl-^-l±J-X4'T7 KT litfOHcJ:
ottf/Wtt, yfiP&joZlfyf yy*li—B (W.T, UA) t LTSULfco
#E8-g-*" ty>-vIPi:l±0PLS3>’n5-18v>„ J^UA_h(ci±0.25®< OBf±l:l±-0.5@<9*#
fc-efi-PtLESU y - nyffimmtEwaldfttfflv'Tlt*Ltz„ i£SJ$t±,
+M K^ey v-Airoil:(E0/Li)7l?-e4t-P4T-48:L 24:1, 12:1 i: tth X •? (c|Sg LtZo Sl$l±
363Kfc Lfz„
ill. feS
&li y xycoiitticDmaim'ifz tzb^u^ty npEo»f
v>a (c(o#m&AK®ai$^) peo^j: osiKL^mcffiroPEoa-T-urtasna
at«<ai)ta (B#c®t«y^) mnmifzo ttz, mmnwft (o~ins) ?%t:B#®
tz2,i><D*^ mzmmttz, mm.frbmmi%ixwvsMm'-'®&i><oi> ®S5ttZ:0
- 125 -
i.
V'6o Cho, Watanabe b lH±~? 4 A 7° U “ h ?$(: ’M V 7° 1/ > 7 ^ 11/ A IZ
ii.t f;i/^ Its
4##^ < l/-i/g 7(7)f E#^#5Wl990^KremerG^: Z
l/Zffc-o tz0 L— X (t> "t^TT) kf — X ftfj (1 Lennard-Jones tr 7 7 -v )]/ £r A "J
t f 7CZ ;% L'-X^
(±-etLt:Aox.TFENE 6o
v^o ^ £ Lennard-Jones*°t > >
xy^@"^#^L"C#GtL6 %
(2.1.2.1-1)
2 2Tz(d:#^G(7)gB%, Lennard-Jones d^T 7
-?xm$&zmzE^:#5f6o N=4o,
M=100 tffotV^o
iii. $oM 1 2 3
1) Y. Cho, H. Watanabe and S. Granick, J. Chem. Phys., 110 (19), 9688 (1999)2) K. Kremer and G.S. Greet, J. Chem. Phys., 92(8), 5057 (1990)3) G.S. Greet, J. Chem. Phys., 105(13), 5532 (1996)
- 127 -
m 2.1.2.1-5 UMh (2=20,30,40,50) & X V*M b <Dfa $ (ew =1.0,5.0)
it S ^¥#J<Rg2><7)
<Rgz2> £ 75 "t* o
sw=1.0 (7)#^l:j3V'T z=1.0a"C* 7 h
L/:#^6#^LTv^o Bid##!:#
1/Z=0.0 (b LT/a v h
LTV^o
(:# ^ < ^#d:
<%mw:U:±# <
t>^6o
I^IICi 2.1.2.1-6 t:^(2.1.2.1-2)Tm
# $ Normal modes Xp ^ 6 ElfflHD
HD#:<xp(t) - x„(0)>?) p=i (7)t - xe
exp(.(t/%R)^)"C 7 4 v T 4 > y 16 2 ^
1:1 0;%#/:##B#fW!TR&75to
X„=-Ir,cos pn(i-1) N-1 2/V
[F1 + rN ]
4.0o epsilon=5.00 epsi lon=1.0♦ epsilon=1.0, cutoff
3.5
3.08 § 8
♦
2.5
2.0 -------1-------1-------1-------1------- 1-------0 0.01 0.02 0.03 0.04 0.05 0.06
1/Z
El 2.1.2.1-5 <b M^E^coiiFBl
2800
2600
2400
2200
2000
1800
1600
-© - - epsilon=5.0 -e - - epsilon=1.0 -♦ - - epsilon=1.0 cutoff
, <5
P-"
0 0.01 0.02 0.03 0.04 0.05 0.061/Z
El2.1.2.1-6 KXp(p=l)P)8e.i8MMBc
(2.1.2.1-2)
tr 75IE < Zb ^ 2=30-40 #%5
#1:2 lx-y 3 >l:j3v^T
128
2.1.2.2 ffi&itt'T >->-v ;k
(1)*#
e< 5 U-y 3 >43t3 014, f£5HPWiirg-4it® L
r#,s-i:eLvi0 -ecoatiii. !:&/,?
v1B 4:»T6 B0 ft S500<7)-*B3 ^ ;p-e 14, S® B 4- A^SS-S-ft MA), f#Eft (~-10A),
3d';P4M$(~100A)4 4oTi>B„ 4 4:, B#fflX4-A'lzM LTI4, ISirArotgftm (~
10_l4s), b 7 y x - 3'- •> JL ge$F=1<0$S6#r=1 (- 10-“s). 3 -i (- 10"3s(#
103s B(7>H«4ffl®1-B4;»6<7)—on
*S4?, *5ZT<7)ESfkT-*B„
fiffiftW#$Ki*#x.Z3l±, i>< oi>©g?^I > I- i: LtSi , h
Bv'i4v> < oZ^IS-6-6- LTSip B txhi>0 j: *) 4 4*
6ft/:3L3..y
COy 5 a !✓--> 3 >4snTit4 4-Bo 4'4?C#*gft. M^'<bHX^i,amtxr/ltlX
I 4, (a) ’’united atom model”, (b) "bond-fluctuation model"(BFL4rf;l/) '*, (c) “bead-spring
model”2*, (d)"l:2 mapping model"5*& 4"4S4>B0
(a)tt-K'J JidZlyy&lf'USfflStL, WfflttZb'ESftTV^T)2', EMt08$7)M&1- §*T, 6
aitroasti-eftiifclfibti&P'o (b) tiiFiSi:Wffl*fc<t'ipt-*B4>\ 1§j-xr>ux-£>zfc
»»Elto^St»ft,l8v'BB 4 4Ee§ 4v>0 4 4:, fl-^fiilrob-fZ'Z^SHroaSr^S^B
iii'fltv*. (c) !±ISA-a-v>(7)i;v>|Ilt7)'iblSA-g-v>Si*4-C'*K-6<U2®i., tt#IM
###!: WM-CAB. 4:4: L, Lj5'®x.*v>4:*, feBBHttS^T2e)U7 r XttI
roi 3 c, HpAto&fiEfM^eg&ti-S-tciiEi/'BBirZd'-eMi',, (d)14 4" V » - *'*-
bi; L4>iIfflSti-0/>4i'4s, BJ14:3L3l -y b 4#f Ba53-fl:l41#E4:f f ;P?*B 4.@,
4o#iB„ 44:, (b)4>>B (d) 4t?(7)2Et';p-CI4, 9>f ftIIEftffl14-fe> b4f.££-
|b]±(7)M4 t) 4iffittB4:«6(7)ft4 Lt)>#S$ ftTti Bf, 314 81553" 4 #1* LTt'&V'0
4 BE, t±iSatt«!<7)A&bf,Tt)b7r4 b 14 B 4 3 4: (#fS£514«E
fbffl4#® L4:)t3K0}#S4B3§ LT, *3 xf P > 12it LTftW4MteL4_-0
(2)#&
S*fit)4*x.Eli, )@E4^7K7)Et- > y LTEffiftE’-r > y i-;P4f$)&f
B B 4 Xi>Bo E V x4 y > i:4t LT3to 4: Aft W 3MII4J4T12 B.
- 129 -
15
CD 'J x-f- v > (PE)ro MD 8tS£ fi© o
(2) N flcOJ-r: 7 h £—oco-t > t- b#
x.(b), LT, -tr^'TO h
Ol'l!,'7is'3:ie7i$o fctf ip(c) 4#x.'So
(D IS-6-tX^ > MX, ZBftro
5HU MSM> tj *" t > -> -v jp £ 6 o
© iNS-s-t?© >
7' iPdr — i'b iff > •> -v ;v 4r#it)S o
© # $ o Z: t — 7'1P -"K t > y -v iPW^rfit ir
if") o
© ®5 500 <D PE—^IllCovi'CItWiffo/^o united atom L\ Jorgensen 61-
N t L/2SK (l-5)^7
-frba-iM^T-nfrz^mttio -tui, e-s-Esi,
Ty->-vJPt-lg©<7)5$$4-$© Aft -£ /.: tot* -E, „ 5fs OTBfFiflx
t 7 "/"tA 5ns <7)'y^jLl/ — ->ay 4JJfo /20
© mWkP^<;p(o©imu#m*-e*& t#A(ift6. -E-cij: i -fcSPti'ibli, ffitiikp-xip
li7*^V'l±9 4&Et)A tt1S<tl/^)P4*§ <-|-El$,>:\ M/fti6-£|5]±c7)S£ 0 mil
«cj0 -eit\ 4-0i±e^ 0<7)F=iH*#i-B£.gco-fcv4tofku^ti/3 i-fflv'rttwt
ifiL, #$Mt:litctA&v'#mik^^;Pi>#9©SA©,-E.
© P(x)6©Et, di"f-y-> + tH±JJ.TcoJ: D
U(x)= -kBT In P(x) (2.1.2.2-1)
.r ZT\ kB!±*'lby-7>SK, T IS-g-ESKM LTIi, P(r)=P’(r)/r\ *§-&
Ai:MLT(±P(6)=P’(S)/sin6 t L/20
®6T#m© *#SL/2 MD ltSIS$:US-3'S ,tt#ikSiS-6-fBE
(a)//2\ //4\ /6\ /8\/10x/12Xy/14^
1 3 5 7 9 11 13
(b) 'O'
(c) j}
U 2.1.2.2-1 V UXDUUit^T^
- 130 -
Mead-Larson-Doi (C X tlfzffi L kfo'D fz0 <H (D-X- > v > £ MLD
jL^vy^nfA/Tv^o AD77^;i/f$^:^:#(7)-f-y^-x^7V7at77^
WcL, 2o(7)J:>y><b^)t)"drTy7v h7t-A±t:#^L/:o
(2)%^^# AD Mm
#/<xyy
##<7)^#%#& of u?m f z <b # m # a f - ^ - xt: ^ ^ 7 < a o f c"M#>
t O 6 ^ - X ^ UDF L A:o C
zoTx.-4f-(±, y^v ^#7-
^ h LTW\ A^f-(7)#####(7)9 D < zL |/-i/ 3
Ef^L't- — oCO^ 5h^F£,(polymername)
LT^ 7- 7 v — -^-fi5j'T*m M0(g/mol)> l&Aln Me(g/mol)> 7°7 h — 7- y zl
7XGN°(MPaX 7mJ^To(K), ^To"C(7)#J^(g/cm^, #%jtC«,, ^#M,7(7)7^X(7)#
%Mim LAz^ern^^^ Note t:#dmLT^)6o
(b)^^m^^{$^7') 7°n -fe "j 7
-72 ttf%nbtix& ^m-%-GPC^Mr^ii:zhtflti
5^6o ^fny-^Wy
< zi. Ix-i/s
zz.k-73>(7)A:d6 ^ #gf a Z «> d? im ^ 7 V 7 a t
v7^^mL/:o 77-SSNfr £#g L /j 1/ 7 n 7—^-^ijjl > 7> <Z) AD 7 r 7 ;u=Sra Z tfr'tb$z&0
:,Cn(M)li;t;i/^$, wf(M)(i#m^$, r(X)(i#>-7M%, Mn Mw\$
ma^^a-r&ao
- 133 -
OSchultzZimm 55^f*]|&a+1
n(M) = —------- M a exp(-(3M)F(a + 1)
a + 1tztzL Mn =
PMw =
a + 2
OPoisson 55M
n(M) =T(M+1)
7*2 /"it v = Mn
n(M) = —f=— • expV2tict
exp(-v)
(M-p):
2cF
/c L a2 = Max • (Mw — Max)
wf (M) =1
yflnoM•exp
p = Mn
(In M -p)2 2a2
L p = In Mn + In Mwa2 = In Mw - In Mn
(2.1.2.3-1)
(2.1.2.3-2)
(2.1.2.3-3)
(2.1.2.3-4)
jn(M)dM = Jw/(M)dM =1 (2.1.2.3-5)
tzir o
-£> o
(3) RDsys J~y V'y ( U 7° 7— '>3 > ¥' d f" < v7 X)
(a)W#
- 134 -
b jt#t 6 2 ^ T. Ix^ny - (7)?#^#% Z < 2:' 9 d'<7)#m ^ j3 2 ^ c /^o
(b)?#j^&
LTjoO,
r^mv^TV'6o C/< ^.l/-y 3 ^(7)
&t, *&&^v\6B82HP#M,^r^V'T, ¥&jM%fa&&^&<7)&ziiM/MeT%Zti&o
2(7)A^#(7)^$(d:Za i#5^f#<7)^$(^
^i)(7)y^y * -9 t LX Z £fflV'&0 Z Me <Dfetf£^\,Z
^&o^T, v<^l/-V3>h^#h(7)jt#l:ZcT, r,^^&56^1:OV^T^
^<6o
a =(3pRT/Me)s (2.1.2.3-6)
(7)j:9c^$fL6o fkmjPE, r(±7&j^'e^6oZ^+^±#<,
J = (4/15)7 (2.1.2.3-7)
Gn = (4/5)pRT / Me (2.1.2.3-8)
#(7)511 6T (±
- 135 -
C^LTMLD (D Dual Constraint <F> 7°n U it (VM MLD ^ > V > t D^)
o-(r) = Cr^6).A,(0Vk(^(0)Si(0
X{ (0-1VO = Vf,(0-
lWO) -— (1,(0 ~ l)%^^/(0
TR / ^ '
^aff ((0 — k '. Sj (r)A;. (0
S>) = 2>,. l d?-P^‘~)-Q(E(t,t'))V ^
Pij(t,t') = exp(-)-^—)f Tij\l )
12_ + V0/W0)
T,^.(0 1.(0 "[
*,« =—^+WfbHf)' \(t)\j X,W
1WO) =
/nv(\(0) =
Q«/E) =
1-1, (0/1 max,
1
VO
1 /(E-At)a(E-Ai)/?(lE'H), E • fj. -—5ap
(2.1.2.3.-12)
(2.1.2.3-13)
(2.1.2.3-14)
(2.1.2.3-15)
(2.1.2.3-16)
(2.1.2.3-17)
(2.1.2.3-18)
(2.1.2.3-19)
(2.1.2.3-20)
(2.1.2.3-21)
(2.1.2.3-12)(il^^ a
#fM#&T&6(2.1.2.3-19)o y7h-^v^77G^<!:GN°=4/15 G,
(2.1.2.3-13)(i##J± A ^'Jt(:j3
- 139
(2.1.2.3-14)f^2fl&o CCf\
ICZ 0?##t:M6##&^L/C&Of, rR(±y 6 slip-link
1C £3 It %> i CDS''— h rt “ -f-jl — 1/ j /)? Constraint Release 1C X o f slip-link ii'b ~t 0 tfclt h CL t
ICZ^f slip-link ^#^LffO|I^#%$tl6CL^^LfV^o CCf, kj(t)(t,
y'Oslip-linkOm^g^f&*), (2.1.2.3-18)f#$tl6Z t 1C, va >
ictam^ L, ccRicz^m^ ^6^60 ^cf ity
7T-y 3 h o
(2.1.2.3-15)U, B#Jt!C:W&@afn])^f>y;l/S&^LTV'6o LCf Q (E) (±,
topics Lv^^^e^lt^CLf%/xt Hi/^/)%rtL;LCLlc#t6@B
lo]%-f > V ;l/T^) 0 ,(2.1.2.3-21)f fL&o 2 t: Pij(U')(± PIC^^: L/C slip link
j-#) /)%IJ t fA#LfV'6#$&7j<Lf&l), (2.1.2.3-16), (2.1.2.3-17)
(2.1.2.3-17)f(t, P,j(w')###B$fW!r,j7$L i-IIg#oyy°T-v3y|Cj:6#
fOJl t. , Constraint Release 1C X o X jStt j t CD slip-link h C t 1C X b$L h
C b LTV^o /sw (i, SI/I#//T V > f 0^ 1C (± Constraint Release 1C J: o f UrtlilSO
slip-link /)#^Lf tlIO@dlo]lC(±B#^%l^$^V^C L ^^f6^#:f(2.1.2.3-20)f ^
$fL&o
(rdsys) lCZ6#t#^^^r,:rR:rd=l:Z^:0.2Z^OM#^^V'/Co
mMLD%.yvyfiimx.6^m^Lf,
«^^B^##L/Co ZfWcZcf^##mE,rt, fOtLrt,
(b)ItS^IJ
[i]^#f
MLDJ:yyy^^V^f^#-f (9%%Of (y), Z ##% (###)
#L/C^^^g|2.1.2.3.-5 IC^fo gl^L^^/O^ttlC, #f Oig&
(y>i/Tj) f ?(y)
= A'y-"0^#(^#m;iJ)^ZlC##f6CL^<m^6o ^/C, ElrtO#ABI(t, tfaf
y°o 7 h L/c^Ofy^6o 2O0$O#& 3.48 (i, OM# ^
- 140 -
2.1.3
(l)iHfflfflffi-ffc MD x > 7<DMf§^¥$M%L^zFLffl6®-fbMDx>-y> COGNAC A-7'a > 1 0866616:51, -fy y h
7*-A<kojgK6fTV\ A--y*3>2iSi?«„ 4-¥EI±#tciiE'®%^iiit>TV'<
±T-£-$6 & 5B666JiKkiiIj!mL, «f4Kft^wafflconI#6tt6£if*o
Ililti. ISStL Sfl-EEfSKS6\ W7>-y-> 771/016:51, EwaldttK45OT
•?, afflrofis.
ttz, 7"7 v 6 -JH-.U tcomwzx Ik xtir-?<Dftis.s mftr-fnmvrzmfli mum'&zii&o
(2) mkitt°7-yv-yii'tDi'fgi,
t)#g#^6$T-76g|###\ 6*#L^o l$$
Eli, *-V »-***- hic*?+5toll6.l<T > 6 y ;vm$6ff oToZztK 4-¥Ei±S$t6
LTd< V xf- Vyroffitl-fb-K-r y -> -v;i/ftttcS# LZ:0 fWlSli, 4?V *-*%-
b<0ii.:E-(l:d<T>'>7^#ffil±5;tt"C®3LStLTti t), ±&^iE&(6^V'C 6 6. *"
V*-***- H±*f t)M-C'(7)*5iS»Er*6v>^ 6^h'-C*50 $fEU, sU'Jifl//-
6^4'6 t*7 l^6->7'^6®5-E<0iHll<|;i2M'f 53tKW$6ffo*±T% %$*#«§ 6
ST. fo%$, *58Eo^|6]14*?®ET*§
(3) Vtn->'-^i|l]x7->'>
86¥EM5S L^ V4-n ->'-E«x y ->'y (RDsys) 6&6L, SSMflltifcO'f I) 8.U--
W** W n ->• - o 66? 6EiM 6 W661: L Z: „ #tc, ABAniat: k cT#^t:m#6#*
a* oe»j i> ?#T&5 „ ia u fl-E»fl-*zis)AV>s-B-i2i±ftv>it*Berozi?-£-s t * 5 * o,
4 (MLDx>->V), -f t)iffitci?LTlifi^ft#
nerflTU* n -y-EiM7)?iTt6T*5 ^ 6 6®B LZ:„ $Z:, frE»5»W«?+JA*f-
7 6ffi*t2±|$t5yn^7A6{lEf). 2ocU/4-n->*-^S|x>->'>66b-ti:T7,7 -y t-
7*-AKffl^iXAT\ ffi# 12 1/*D->' -EiJtosnT666 77 6X6 LZ:„
- 142 -
2.i.4
(l)iflffl M(t MDxyyyto
4-¥®c>r*mi*lSt:J: ifUBMUt MD x>-y>fc
i.X-i
Ixyy'yiwai, X- i >X5r1f^>TV>< ±T-a-oz)>co86g<7)i|jj[]7is.£.gi:^50 M
XA#^#XOA6o
ii. ##«#
MD ->S iU-->3 +
u 7‘7-y
v>»«tecsDXr. f AT, cognac
(2) ffifflftT" -f > -> -v;l"'(7)f£t£
XTMt:&#M*mATV' < AffMt-ti,
[2]-> 5 i U-->3 (-> 5 yL ly- -> 3 > wax b -> i
i iy — -> a yf^WjoMS!-)
m^RX’Jg^ESAsMAE ^Si
ft £:'S:#;LTV'&„
(3) lyTDy-^illJjl>-y>
i-f, (i) k f a lit: RDsys irffiSU inffllS*
4r^tJt«?1-*o $/2, (i i) MLD x>y'y|;ov'tlJ,
ktfi-f’SL^X-ibio 50Ufl-RS9-^^j:K$tffoTffS^v>0
- 143
(mwfm&mo 3^
i #MUM<b tzh <b#x.6o
J2JITC WG1
--e. (iii) (mv^
i ## &w]
i
##
#
#
#
#
i±w] ii-tn
BBiw
wg 1 mmmtj^) m&M%m
iw±# %#gp #mz##
Z%!
$ M te?K $s
dt)ft^e#f«»&#iiaif wF^isse
m #%#
11 ¥4 n 11 0-7/131
-g|5
#%#
#%#
;g&
- 144 -
2.2 WG2 (ifrfiWM/1#);n#f#
(»)
*mK. lEttA. iiTjtte
sals, ##%m. semtt-
2.2.1 liDfetc
WG2 Tit, @»T(7)gKf*»E^ 4- v> -> 5 aP-7<0#*t.
COPi a ly-y *fflv>Afi4coiaiE%*ffoTv^„ 166<)¥MiS$*fflv>n(i; Sfl-
(iI±"Cco-fe7*7 > boE?!, 7"n -y 7fgjS> S»7)'tiO#iS^k')
^4-x.^AA K7 t M3S£k &Sv>iiEl#5-tr/b
ilK^h'iTiIStotclSifctt^Giljailftt^ItStc J:oT*A-E> C x $ A. C A
7*7-y Yv ^-utn'-MMntz^n-fu hf'Cft Ur.
<0-> < a P-7 irfM LA„ *^$l±, GC0 7‘n b 7 t 7" k l±WA <t *)
tamL7<ap-7<7>fb/££fixA-„ goiwbp? ap-77>p>fl
% t L T \ "> 5 a p — 7 <7)8c6S.t/S'7 AcDMiSi" & y i a p — 7 ■ fRtff
;u-7->ros%6-ffv\ $!FEci*ff6g4:
tit$i±y.Troiit)-c:'*6„
(1) WG2 #%##*?%#P 5 a P-7
(2) ilfflEfE
(b) 3 4: IP 7 t □ 7 — c7)®i|IJ
(c) #ffin§tt9J*G> s -feiPStto £ <m$ 5
(d) 7>it* tmmtnttm (s$it ; $i*»we%s)
(e) 7'n -7 7dt®-&ft?I'g'^(:d3ltS JE1P7 * n -/-cofiiffi (#@gt;
(3) SftP 5 a P — P a P^i£7)|n%
(a) R»fK#|tP 5 a P- 7 <7>7'n b 7 t 7'M*
(b) BlEttfifl-T^.TiP 5 a P- P a Pf &GiM#
(c) £ Ginzburg-Landau model £ 2: 6 i#)Efb®i£7)SS%
- 145 -
(d) Langumuir ll|c7)fii;i!rfgfcf$<0'> 5 i lx —-> a >^?£<0|*I5§
(e) j: OTXffiffiiM 7ya«®
JilTrolST-li, rtuboS*(c#v>r««§4-i$-t^o
2.2.2 6F%<m$*5 J: U-'ffi*
2.2.2.1 < a k - ^
(1) l±C fell
5 3- lx- ? tgtZfgMi&'f > 9
7"n/9 A-x##CKlMf%#r&6#*+6 2 t + 6/zA. i$W*7'a?7i
fi4<omg5-ii6nL£„ ffl2em*»<7)ItS*iii:ov>ri±S#^ L.
& c k t L/de
2coESK=t: t) yn^7/.*SKtiv»TirZ^ti«* ^F-1@^'5S* LZ:^\ tiibZmfe-f zztizi ^ j.u-9 im%x# /;„
(2) Sr?Affl*6to¥j%®’> 5 1 v-^<7)68%W¥S8fl#§LZ:-> 5 JL lx-f lXi>m*C0-s 5 i Ix--> a > Ht o - ic^njffi
T&6^ ‘\ ?H.«'[4*S»64 t*(;xy-;KO^*4Be4-SICx'-5 >xo->5ilx-
-> a ^:(iSli:SiT-HI8^ Lt->U
u-XOjS'fb4-ii7)>o7^„
(a) **ft*
5 i lx- ? toS*ft#4-E 2.2.2.M <o J: o Ki*6LSE*ffo^0
2.2.2.1-]. fUtiiMWl&WitlWi'S i a. lx-?COft#
1 «gCD's xl ]/ — 's 3 >£frx- & 7°n 7' 7 A "Cab 6 0
2 /<— y 3 > 20(WJ V -Xfig
3 mmwm C++
- 146 -
4 fljfflnI|3W-f7- Microsoft VC++ Ver. 6.0 Jil_Lg++ library for gcc version 2.8.1 Jil±Compaq cxx V6.1-029 ^l_b
5
y-^r>X
a^(y t yb .umt lx>v- 7>-& h fgsotts t wr#-c*6 *'^'ti:itSBer=i^^-E.)7*n-y?, ®£h 5>fA
be(f(effective bond length),Specific Volume SrAitl ”TsB
6
V ya
-KV v-<OSBtttl,*•')-?- + rgffl Ojgffi (&%6#tr)am##, Esm, @»eSliWr'-r/i 1 — 3D, yc-mm+t 7 ->i(t&?lfflBSrlTOL£Eff«l*W;< 7 ->i)
1 ~ 3D,mffiffiM 7-ya. 1 - 2D,Btitif*7 7 va- ID
7 ^771, wmiE
8 CanonicalGrand Canonical (/<;!/^
9 #%?*:+#, mwmwm&mm
10 m*•aw*s
EScSKfSW
USSfStf
s(kx, ky, kz) ,Spherically averaged ffcj§LM!& S(kKWt$lM%k<n y h ,
/ k S(k) dk / / S(k) dk<f (r) ^(0) >.
mrmm mmrm<vo*wz>&)
l r ii,ItS-tBE#"et';i/t LrKW&t? ztiz
*60 'Z^iUc&V'TkL ^)6^ vi/^±(7)Ai^^^^^ v!/zL±<DAi+l^(7)#%
mfr*tiWtZ><V{Zi£R\£tLZ> SSitjilJir V\±&* v
(Vi+Vi+1) /2 ££, S5M1 <7) ftSM*£Et*v ;P x t d' hco^fj
- 147 -
(b)
(c)
1) BL mr SB JUS ±# lE^L 56, 762(1999).
2) G. J. Fleer, M. A. C. Stuart, J. M. H. M. Scheutjens, T. Cosgrove, and B. Vincent "Polymers at Interfaces",
Chapman Hall, London (1993).
3) J. G. E. M. Fraaije, /. Chem. Phys., 99, 9202 (1993).
4) J. G. E. M. Fraaije, B. A. C. van Vlimmeren, N. M. Maurits, M. Postma, O. A. Evers, C. Hoffmann, P.
Altevogt, and G. Goldbeck-Wood, J. Chem. Phys., 106,4260 (1997).
5) R. Hasegawa and M. Doi, Macromolecules, 30,3086 (1997).
6) E. A. DiMarzio, J. Chem. Phys., 36,2101 (1965).
7) C. M. Marques and J. F. Joanny, Macromolecules, 23,268(1990).
2.2.2.2 5 i w- -> 3 xnrmwft
ftTV'-Bo COZ -) If, &W4KE*tiilg7»sl3:S5ii
x&'o. ?') T-L&itnii'&ib&vv
±.il<DZtfrb. *'>i 3 y
• Gauss IT
• 7—#7F
tottll+S
• IMc>6J >) n7*n 7 r 4 y
• (gijv<zLix-f)
• atf5W4£Sccott# (SiJ'> 5 a. U—?)
• *S@ (glJ->5 a u-f)
c2gm^'-->*3 >
iSWA'—ya >
- 151 -
-cebuu * w Xm<x*c<xca t^^rmx-h&tLtzo *&,
i> $1* N=30 T\ Kuhn ft, S/$^l±®*7C{k LZ:0 gl 2.2.2.3-3 «iiC, 37 • ->x;h
A t s i:#*@tt6 ttTk. #
*53-a, c<o»m<v»miZ'hz <, #m
5etOiS53-?-E-g-#,t:-3v>rSffltffv\ 5 5. V--> a ><0$S14i:SffllE
Bteov^T, tiilt 45MO -5>o
##XK
1) D. W. van Krevelen, “Properties of Polymers”, (Elsevier, 1997).
2) H. F. Guo, S. Packirisamy, N. V. Gvozdic and D. J. Meier, Polymer, 38, 785 (1997).
2.2.2A 5 -bimtkis l UWR -k >#)$»)-> S J- U-->3
SBSttSj^iSfl-^yn 7 4 ^ a t
5-b^ig*S-®*1--6o (cmc) ito-e^no*m6-
mMfmm&mv'&zuij: o, ffsoa*o?l4-#Bfii1*#JK*tLT, 5 -k;h®ttjb-J: o-'cmc *!tST-§ tzfzL, 3i£oKi
»¥#rt§->5 au-iMi, tito ¥ sSroESofFBiStBWtittSr-S -5 b it"?t±&V'o :K U 4 + '/if 1/ Pluronics & b* k V'-o 7k, SMR053"-f-fi?i86 &
(aa-f)
4-0, -ty';v#BiSttSjmLT, erne tit 175 Ltz„ It
Lt, 1 *5ESEtI, 4-0rottatl±, t^Titt$£, 5-b;i/<oe.C.-g6E^Stt(7)fSi3>
Lr, ffSo$5cS®o 5 -k;ho¥«m*, %%¥*;% y
5ih-/3yt*4j«„ s-t/w&tm, ?m mm Ett<ov'rn^ic@e-ts<,
7k f) ogfixt- i <-fe/hoKSKT-flyMbt j;ic J: ij, *<7)¥S«
«l£t#s0 brat Lf/o v h¥-£ i:, fSrSJST- g 6 x t- ;h¥- 7" n 7 7 t ;vo 6Wf-t? d OilEHli^ilti £ c ;wt
So, /Oh j' Ktitt5#ESti»JilEI±, ##53-$l:Z 0 ,
- 156 -
cn
^ d° Fv
(dMl @
tOto to 4^
% d
F$ 8^m ^ m> '
a as 3
>ViGO
d
s?v CD
( i
4□
-r4-CM
tototo4^
O<£%
F#%
MiVX94-*5 ( *
#0d
totoVi»-
ord#
Jn
rVv
&DOocd94-
0dgiISa
N
Jn
4
V
^FaHorn-
HOj/
CM i5- >[
ti- vT>3
M<4
a
% to- c* ># >F d °3
8^///
rV£+3
$+
CM V F4 t-pp
Fffi M E% Jll
a rv rV4- V
free energy
222222 = 2
<> [] ()
5, £
free energyPqPPPPPP
<> [] O
r^t- tfr OW d ft I a I 3 djn Id 5 d d d v 3 l Jn
f 3 4H r < 4- UJ &- U1 nullru PF $
4 > Hr d F4 V CM V a id VViDO 4 41 4E (f- 0 rd />/ 4r
to V 0 E DJ> ft ^=T Hr >Fr< V d V' a V CM d
d&-
~r 44 //V d 9v d*- d<- ar <3 aB w m y O/ m a od > r d 4ffl n 41 d oy
ft4id4Si
E l E r* a Or£ m 3 Mr CM a * CM d
3 d id ° F$ M* no- ° Cm5m Hr d*- 3 rva 4 a rail d E H a *im V. d 3 y 3 4> 4HN 4
4 V &- Cm s O' 3 V WTrf ~r Cm 3 4i awrffl 4
y*V
(3 ** 3 o> I d-d DO d # r i E i^- y ///
Mi # r * * V-"''o 4
V GO (V3CM
Cm V g Mi VMr O ° />/ 3 M- M VN 3 3 CM d Mr %
CD (< ft r m Cm d 94-id d [ #5 X
V'o m5f 'S- 5§ Vr V 44 Mi d *
i^y r r«4Si
d Jn 3 V oxd d 3 M 4@ Mr ifi aOr (E CM E r E pF 0 o
3ow Jn V
Enfr I % d d O
a rV # Mr H? Eno- V 94- r * d 4- 3 Cm3 r4
FSm
y # d1 d rv 4t <rH * rv 4 ft <r #4' id r* 9> a O/ no-4 94- rv d <5" V v 34; *> a a M Jn Jn H
I CM V 4H «r E= V d Ft 3a ° DO
oo S Cm V d^- V V
-k >lj)Wf&2tUZ < i‘ta*
t'S^o $l$> '®«<7)53-T-l:S-/J'S<1--J.t, X -b;Ms£;eftSti£ :: <h £«ES
LTV>-£>„ 0 2.2.2.4-2 t:l±. #&$&& i 6 cmc 5r LT7"
n 7 h L^-o Zab^^SD^^K cmc liffiRMUS^' L T v > S 0 t , i$*SM@v>|$ h' cmc
i±f6v>„ g69c>5FBi§149J<o cmc tt7)s'iigsnrv>h.ii', zmttwa^y J y h s-tir£
Z&CZ 0, & zAB £ fE.fl & & - <htfX~S 6o 2®i9i:ftSL/2zAB»*#,
ir<7)< t,v\
v><„
ait, i&'kmx-b-itz*)m&BJ&a-*s-
to-rv'ttitj. z(ozi^Mmcg-.c^mBa
14ffl roSSSWNIi? t2x6$F69IzftfctU ZttfmftZtiZo 6.
fbttj^tytM&cox^yy ttScojrfc^r-s ?'o rv>-s.?S-6-fF
~'TT
-0---- A5B8_BIO■Q— ASBI2_B1»
0.0001
El 2.2.2.4-2 cmc
mfmmt:#L-c t ̂^ v ^-c cmc ^ t ^ atmt a c ^ & 6 c
158 -
z.2.2.5
wg2 i±nei«5Ei: it, 2
G«^t|B]®fJEwiMi±, E%LTS^->5 j-v-j'co
WG2 o -> ; jl ix - ? Tits 5 ^/2fi53-$#S h. Mil-fa 5!
@t f Oit$t *ff & 2 £ A (OTrS^ -> 5 j. lx-?£M#§L, 4*l§*WJtScl2f ^Tjlltf'
*^$i±, ##f 0M%LTv^iam,mv< jik-
^D^AJSK, V' < OTS"> 5 11/- -> g > ^Mi6L/2o *#f
i2, T#a^if##Tg#m#T#amm^, & L^ifttftatrtMtKoiATit^aG
ktf-CZtilf, JteL^fv^#x.Gtia, foT, Bfipj; i)f#$LZ:g6^f^**-5-
*i*a fn ^9 A fcffitSLM&fcsRto* fn ^5 A £fflV'Tt£ft£fr * o0'50
n, %#w:MLTm%t^f^^T*io, wg2
Tt±, yUl/-? 4ffiV'TIFffi30d£:R<*aE?£«
Mi6tff=&o/2o #®38fjti, ;i/f-(OST*f)Gtia„ 2 2t1i, ti.Tl2;jvf 2 o<7) 2 V v-Tlx > Kjp,l2-2>V>Tt£lf
*tf*ofco *a$£T812$ ££>£<>
2.2.2.5-1 2j£S-7"V:y KMl2i5lt5WiSfl« III, Xm=0.5 T, Na, Ngl± A,B OEfiirSt,
na=nr=io Na=Nb= 5TittlTC A %»<vim 0.993 0.855WttST-ro b ffifl-rog® 0.007 0.145
-0.226538 -0.341795-0.230977 -0.342707
(= S fi^W'-t^zIXyXjWX*) 0.14205 0.02918Flory-Huggins Free Energy ^6(0^,# 6 0.0972 0.0182
###€»—# f LT, — Flory-Huggins tf*l:, 16lWMj®C>EtSfT'bi#Gf-
7tr$WtSt#o/2 tanh ScD#®®tt£4xT, %E#mtE«tc/2@l2^v^TtgL
tv> Jo %®S4, gradient term «3F4li, *> J: 2 f'GCOffi
Eff/8(Og-S-k Is! am:&Z z k &*t z kfr'T£ 6<DT\ #B3fc/]01~@illi, ;:i:
7 Flory-Huggins T rMl 5:1V' fcltS li, $E®
tanh STfflMSrff^cTh'act HtoGf\ ISST’itR&ff&o TAT &, t-f-
%l:l±M@(0%v\#t$LTV)6G f-f i-f(0*l)$T*»tiG*LTv>a> tfitf
- 159 -
2.2.2.7 mea-f
(l) TMJS^roHlttiSfl-TcoSI+S*
? h;Vu CTff&ES a<0*'y t:f>ytJi'SiV(u,r)tt4t, li£S#»G(u,r.«) liJilTW£ -p
(2(u, r, n) = £ Tu<l.Q(u', r - au\ n -1) exp[-V(u, r) / kB T]
u'
iir-rou, li-K> hMW *!b au»), iSfl-filroaffi
14K-Kvg1"-5)0 C. i T1±—plj fc LT 7"au, = exp(^6(u • u')-1)/^exp(^6(u• u')-1)T*|8"f „
*'> HMu y Hgm§^(u,r) l±, Ste-ftSSec,, 6^v>T*<7)£ ^ K
S-tt -5>o
N<j>(u,r) = cpYJ 0(u, r, m)<2(-u, r + au, N - n)
(2)
Flory (r) = ^]^(u,r) (DSIJjEiW^^h
Flory-Huggins ^ ^ % ^rfflV^T^LZCo
%flT = lnc* + np lncp ~ \d*r
~\d
l-y(r)
^(r)^r + %]^(u,r)ksT kBT
^\(r)Jln^(r) + A-)
pMz^OO^r)]
^(l") + -/V ^o(r) I1"' ^(r) + Z57Z^(r) l +
V(u,r)
H„(r)
ZZXns, np &o INE|6]/^7y! ? y(r) roS#l±HIJS
aR#T*&o DffiUtfclltps(r) + <j>p(r) = \X<n¥m&®"h'b&
r > v -v
- 162 -
(3) ItKM
iEiStt«i§$!£t pjJ«T-R«££fflV'*o -Mi; IT, MS
<y¥W«£HTtitt£WfvN-7^ ?£M6tixb ^Ex.rttSUZ^o
II 2.2.2.7-1 Xb ^ *? S (Dfmi^to ftS6
■CI±ft»ftL-*v'7i?, 8 ti.±T-l±MStt^T=e«*Sx.-$> iRfikf
N=12N=10 .
7 b
a 2.2.2.7-1 MSiSa-f/####%-&* 0.9) J'WM#(il*l±O6,A8,ei0>12)
(4) #S|&
;tt, MSiWfl-^<7)sesiiiss^&M3Sl£„
2.2.2.S KlMf %#i Ginzburg-Landau model fc WSt'a’iZ J: 4®@'ft^fe<T>ISIS
®53-?-<07- + 7-^f'j.7tiEL<SB*L7i|g*S-!#t)n*RB, f
d*fei;*Si^^tt#BfWI±75'**)<T>a:(2®.^o C (OttSBfB <0 mil £ jSSSI" S Z: to tz
(i, Z 0 ( T7ZrZH.%fbT)^Ml^;7)i#iV17 7‘JZ, /2 i x.(Z Ginzburg-Landau (GL)
-e r‘;v &i*ioilS^SST**z>„ :©*|6)»W0fteftiLT, PJ-w^n^LTi!)
Ub-->32tGL -Tr'JbS-fflV'Tdv? ^ lx--> a
W$Z 7'n v 7*e-6-ff a„-B20„ LTlits Alo/B10 *"'J v-7"
— 163 —
block/ = 0.5 O
0.4 +, 0.3 □S&v 0.2 x
block/ = 0.5 O
0.4 +%. 03 □ \ 0.2 x
0 2.2.2.S-2 A/BZA-B -i
(a)GL f fZI/t (b) A-B Xo
fi-nftw A-XD y (Xn y ?Jt)o
1) T.Kawakatsu, R.Hasegawa and M.Doi; /nr. J. Mod. Phy. C 10 1531 (2000).
2) T.Kawakatsu etal., in preparation.
22.2.9 Langumuir < i U--> a
Langumuir AM, S0 .
MfET-li. Langumuir
S5HL8!<7)^x/<--tL)V£irai-j3it-£ CS-C 11 (f S-LS (O 2 ot7)ffl$g££Ei$-e§-6
-tf;i/tz)##eiTi,\ yui/->3xcjtoTiaia^fiDSL*31 „
exrcO<x*;l/T'i±, Lennard-Jones (LJ) ScOfflEfEll4-fiogI8|5hSlftOr
-K-ISoirAfiSftfflll^xf-y t>
m/Bl i: h 0 X ft ZoTCStSf C#l:M,6ft6^V xdf- xSoaX-EW#
%$ftTV'6Z CS-C ffi$£ S £AST-£ £ -*T\ S-
165 -
t fff$i =rigT** zzt ft* s n, s-Ls
14*s-7F?tl7^o
1) I. R. Peterson, V. Brzezinski, R. M. Kenn, and R. Steitz; LangmuirS, 2995 (1992).
2) V. M. Kaganer, H. Moehwald, and P. Dutta, Rev. Mod. Rhys. 71, 779 (1999).
3) J.-R. Roan and T. Kawakatsu, submitted.
2.2.2.10 3 £ vnmmm* ? ->^<o^
SEiS14S)*-E,v>i±7'n 7 5 iHMrotjgffti * *6
*£ £/,:»<> Kli, znP=(7)#S(7)jfo)[^14*$l)XtlZ^^P=V 7
e*«»»v(r)d= £ 17-tey> > Hl*lt^(r)<0#BWI®M»(7£*®M
G(r>'I) = Z‘?i»(r’nX(<0)V(r) = ^vte(rK(fl>)
*(r)=l.m
£ M t'■r £ * § fi)t - t (2 £ 9 .
8n <ll, ('■.«)- X X B(/m; l'm';l"m")viv (r)q,.m. (r,n)l',m'l\m"
<Pim Mx Z 2B(lm;l'm';l'm”)ldn qVm.(r,»)%.„.(r, W -n)l',m‘ r,m“
fc* it-So ;:t,
B(lnr,l'm'\l”m”) = C (fi))K/w (o))Frm. (o>)
"C2^60 X ZL Clebsch-Gordon 2^ 6 v^(± Wigner £0
3-j
- 166 -
=TSgt%^„ 3-j ->>ZitWt£ ;k - f > Uro P*1%
in^\ znMinmii.tzo
##±R
1) R. E. Tuzun, P. Burkhardt, and D. Sec rest, Cowput. Phys. Coirnun. 112, 112 (1998).
2.2. 3 IS Ire
f WG2 2. 2T*lMt2£ t)6X3a < 0
(1) WG2$rzfDi»to¥£MS-> 5 ^
&m#-xrn'Zmikt LfcfrifUBv 5 ai-«IS8U, 9
if Dy-i2%m#T* 0, ttc, #4
<7)Sg#.Sr+hd<- If 6 Z i Ui£$glt/j0
(2)
(a) 6»fiSJic>*B5M$ I:
853-f SK(7)SEE<7)$M:M LT, M#*(2*dvVcamf
ylak-ya > (2 J: o T«|<7)lEii144-$IE L/c„
(b) &X/U7 t n y — <7)f $1
K y< -4 > t IV 7 * D y' -12 Mf 4 aifeto ^ #6?i * j$$ L /2 o
LX PE/PS/PMMA ^12#f & K7 < X1V7 * n y-(7)*B06-fM
L, m%T%#y Uly-va > 12 Jt o -raireC>iE3tt£ $6f »/2„
(c) 5 -tr ivSttS. CMS# 5 -feikSgco^SI
S')nrn 5 -t lb* (2 io t' r, ® t * 5 -fe >v1[SIS 5 -fe f«® *tt#
(d) ?M-e-*<2>M®*(7)ff*tm.mtcite (H$it)
ifieefFES (mi*) tcommmftt ltx
(e) 7"c y %t;P7 y Oy-(0## (##K)
- 167 -
(S*) LT, 7"n -y 7*"'J 7-<t)7*L 7
(3) &#’> 5 j. 7 — -> 3 >^i£tom%
(a) 6»Tti3¥tty So.u-j'tO'/n 1-? d1 7"gf1fl
Slip link 7 b 7 7 7 FISf& & iti 1 • Z: ,5 5r:f ifi6--f;7)ft jijif'k« f f ;i-
ftS'ffkV -> i 7. v-9 n-fu bf 4 T’i-fEiS Lfc0
(b) M y-i|/->3
Fiory
6*aft«:*?iztx\ > ee*fs*i§affes-m*l*»
(c) totoTMi® i: Ginzburg-Landau (GL) model > OSl-g-K Z 6
7-n 7 ?dtt-S-ff4-ffiiSftoJh #
W¥#)#i£i: GL tf'll'®-/ S i L--> 3 7|§*<9gt:6<jJt®c£fTV\ GL tf
(d) Langumuir flS^SSffilziSC)-> Uk—>3 7^j£<0g9%
Langumui r Sfi'^flS<7)filiS'lfilkf#4'B2izE"i" t L"C\ t
cs-c s-ls fses7isH$ir* ^;hss? nz--„
(e) 3 fin*$gi5 X Z/M-SS 7 7 ■> i n bbh
< -t;Lf ^<7 7 i) ftiwi:>1LZitESM i:KfBItS17)/-:<t>
0»yyitlt, 3 ^7C$Sf*, finegjb' X OTX8S® 4-SX U G ti
1b7)(®®^±r-|fKfI53-^'g^:4-S?< #7 ro 7 - il *■H9% LZ:„
- 168
2.2.4
± -C(7) <h 7 7 v #g L T WG2 (7)^^j^#t@ ^(7)
Z 9 L/jo
[¥E 1 2 ¥J$It®]
(1) '> ^ x lx — 9 • yXf A I###
(a) yJM '> ^ -x lx “ ^ (0##%#
TDGLmodel ^(7)^g#l:Z6^jgfb^EI0, i/<xlx-^(7)
b <b igm#@(7)E± ^ B mt o
yn v L/: ^ Yn v f ##
^#:(7) < 4:;i/ - /< v ^ =&""T#^ ^% T A
(7D##$r^T9 o
(c) < x lx — ^ OyztftL
m^^(7)+g^##:m(7) Z 9 C^ it 6^:t#f ^, /:
b ^ ^ L/: slip-link #gf$&f8wt:y < x lx-^
(2) mm%m
(a) f a ^ f (7)lEg'|±(7)#E
V% ^-71/(7)#^^-V < xl/-i/3>cz^
T#&\ «bl:Z 0, ^/<xIx-^3 ^(7)Z
^t^^'f^siE't" h o
(b)
< x lx-fx a >l:y#
mm#(7)#^ o Ati, 9
(c) yn V ^*#^o#:(7)#^(7)#tif
MB ^fB]#l:,@#:m^±(7)^^^m(7)^m^ya v f ##^###(7)#^
Wr^fx L -, 1/ x" h'O^^ch COi^^iCOig^' b frli^'t' Z> Q
- 169 -
hips ic, a^sE'hffifl'a6*?»i
EE B j!=i£lC7) > ; n L — >3 > *, EE *MX 0 A EE Ginzburg-Landau model E
ffiv'-rswu Hmc$gsaE#EB.
(e) S$ttef5£d#6t
IfSWFFES (SI*) * Z («*) i«BS!«?££«« U HE
xoeso^ltoiitei-ffi :tT, -> <
i L - * CIE Stt £l£flt -6 „
(3) X-5 >*M3
(a) PI -c $ Eit-f Btt6d¥*)*tts h to c -> 5 i U--> 3 y#?ii:roi:tR(r J: -B
(Ginzburg-Landau model if) £ ffj - 'TP] — Silvia
It*f-’iat 7 f »£•&$£i:ov>r#SEB„
(b> cwcx- < >*%cma:
®«¥iS®Ht*Sft*fl53-*f»Stc)i£--f B J; -j
cases * Sffit B E i: T\ ®MS%# t Mfts-I® *XA-xtcoi
<"E£*#SHB„
(c) 55*1^IS)S V - J- L~ 37^s'C®0(lS*jJ^'> < a. V— ^CjUCiiX&CTX J-
totoWWi i:fl-gti#®-> $ ^ ttssiLrtt^SEBS#*
r»tB„
i?mi 3 ^Ettin
(l) ■> 5 i l— -> a > • ->x-f ICS35S
(a) 5 J- L — 9 &)%$.
Stitl 2¥SUS5S*te»BI£ro#Mf8@-> 5 n u - ? C95j£ £ g IIt o
(b) iAffl -> 5 i L - f n$kMtMim ■> 5 i L - 9 *7 7 h REti-tET&BZ
n iztZo
(c) X— 5 > X##C$%S(|EE— h
7"? v b 7d--Az)'BC#f$t:j:BX- { >*$- (gm(JlIt"<)) MtBo
(d) v^^r;w7)6e
- 170 -
(2)
(a)
->;^y-->3yt^%kF>tl&£A.Z,c
(b) Sfl-^ESKti i. V77 7 h KEtofSIDf
irn-> i ^-5'*fflv>r,Sfl-7-*#K^^7 7 bKiS& £"£->? jl y- h u
(c) iM,a-M<^tSSH^i&^-/£<oBi:
#ESti$-> 5 J. V-9 &£ Affiant Jti U
jSffl 5* £ O
(d) S$KE5E<7) $ »
ffSKW5£wfti«-flq*t (iJtfti'lfio
(3) X-5 yXMS (a) X - < y
Xy 7 1- 7 * - A jrttA-S-b-ti-^tt-g-ilJlroTrcoX- 5 y X@#(OT%. y ?
ttr i«
W.T12 WG2 roef?E*^B6-^i-„
WG2(#%?^#) SF?SJt£»
v -y- in®
SB
ST
TE##
fx #A
^3 itfl^ to
(@t> EfEMiSWsis tmm
<») w?£wis**a et^i
(St)
(St) tk#R##%#*## BF5ES5SV16B 9f%*(¥l$ 11 ¥8 D 1 B- )
(St) BffEfusiit-egs
(St) BffES%»16li 9F%S(¥& 11 ¥4 1 B -7 fl 31 B)
mm (#) ra0rU**R)T @j±ttw?EM)
- 171 -
2.3 WG 3 (fi-itiSiE)&□*$
(it) \t^mr*mmmmm/jx#e#f. uj±ii*. ma%#
2.3.1 tiCAtC
zn-brnmut
<o&x£|6]±£-ti-x, S14sEJfcttf44-#-E>Vli'fllc#f4M%<o±@r*A-E.o XO
ttfi-Wttli i X □ ^»-(7)53-f-«S<7)-AU J: oTz*i 4><7)r-li^ < . LX<z>
7 vSS^-etLj: tiXS&xx-xcotilS. 54Ktlw$M5}-#^|ig^
$. 7 t y - x X )7 X fc y > t Z: 4: *8 4'l x 4> Zu 4- 4 (0 Xr Bi ISIS, $4 unu xx-77 7 t □ y - 4- X,
7 yxy--;7ZtibvX □ fcX'f-iMif *P§1 t»J§§ti-60 -exZ:
X4. Sit: tl-2>Si^'™F'tt44^'lll4§"t'-E> IZti. 100nm)cO X X n &X
4--JV<7)i653'4:-<7)SI|v>0$l#(7DA^ ib-f, 7 yxy--;U(10nm~100nm)4'i'> vX n&x
X"-77(0.1/j m~100^m)l:* ^•n*S-g-fl</K$il!ILl -E-(0*6$ir
Lm+ &147a. xxi 4
->5 i 7--> 3 XICJ: -D-a%6Ztfr'-C'£Z7'7 7 h 7t-A*I3:ft, t#S1"-E.(7)4si69
X<fc & o X (7) 1 (ft < ®X X> X’77- 7’t± V X D &xX--77(0.1 // m~ 100^ m)Oi|
|4-yUl/-ltJ'>; a y-XOgg^ffoXV'-Bo •> 5
J-U-9P=lroigBroSi$coMrtISth -e-Lr-eroismt Lx**L
Z: "ilEfty i jl 7-- -> 3 y y x 7 4 7-y V -8T »Pfmi:#i:tl SyiV'Zio KOt
7X74X7 V $£ Sv>ti,TXi$'X,E,% £ IKt) $ 4 ->a 7-X^HC** ^gi'Zto
7 y 4' ib v X n c7)£^x X" - 77(c i Zt4?o ZteXHXf.X>F=1«&#K Z;$4ic, #yx)X'77
“ 7"X X.itftX t 77XZtZ4 $ ZlZtZl!%fbX t 77 7111 l1. Lagrangian-Eulerian (nj (4X
Euler fSfEtc 4 4, WKgXS4=WK$:9-i££{eoX7*;<7) J: 4
• X" 4 X 5 X x
• 7777A3-T1 > XKff 4 iiniaa4=iS#<7)S%;:P<l$ LZrtBfl-ttTXMffi
• X 777)115;if,7| t iRffijggro X 4 + i X X
*iRd±ifx. xne,roMa4-M< Z;»£7)-> ? a y-xs-M«i:iRdaxxx>*0
- 172
2.3.2 #%###&40%#
2.3.2.1 S.i.U-tffll'yzmt
i J.U-? mco? y yy J 7
7 ') iitmMtVM'kttlti'&WiWv 3- i I/-7X 7 d 7*7 V-JfS-SttiSU.
(omei:-3V'T#L< #st6.
[Kitflit]
7 ■jfrbyyaKitztf&MM.£Ei$1~-E>iS-6". -eoifiUlcjSCeil&iiK#:;uo
Xibh-hK Xt)VS tlifligLZ_-v>$iai:S i:#4T% i). 4X:#*(0#%*R%U, f
7,^8*ifcE<kt'^<7)-e1 ->u v-9&m%t z>\~htz o-c-gco^gitws £*j,®-t-
3Zkl±m*»v^ Ltfiiti U4,
f(0/<v JC-V3 >lite|!gi:#ttL, ifcfWiitOTii/rfV x'A l±B*-f £*EJHM4-53-
$R<7)ffiSt:®SL. &y i a. y-f ^##+6
; <tti^plfg(cffiv>0
-ect-s*ti!§5 ^ y-?r-i±. yo y
ei:*ac^Ba^6a»^f fiffi*m ue,roe*k LTiflJBftU -E-ft^On y^-^-y h £• g^Kfi-g-ti:^, ^ t 4-nTilgK't S .r
i t: 11)« * * Fdl 8 K *H£. £ ■£I# -6 t v > 7 # 1fz »■o*v > x fSff i o tz „ ft * § ft■t ->
5iU- ?(±JA_h"Cas^«/j'>i 5il/-? S-f#ffi1“ -S-B^ (Dtg^CDt&giltt 3 >s}f— 7. y
Mfccoteic-y-A WX- = i 7 tcL*ittui'&^£v>0 xnit-> s
7. y-7-5-<7HC>7is+53-(3t7'-yi 7 bft|6]^5#iTV'5^<S-e*4 fc#x.X:o ti,±<OJ;
T&sniiftjg.-tzivzyij.u-j'&mg-tzm-z. t«.®»;iii
fko^yxo#a^$fj t [rivzf'jXAommtL btti6jic4^t *£„ *»<ac*stzz###«%##
li. *<03o (A) Mesh (B) Field (C) Mesh t fl&co Field £ iE-g-fitl 1:@@f 6?#. -y +
— ( /XtUXT^yt- )f^J0 Zftf,c0 3"3C>y5jL h- #'S)S;E$l"'3V>Tfl-
ffU #SHl;L/.:7 7X&SxltU -5-WiRit Lt*gl:«i ? 7 x 4-ffd* LX:„ &.TT frtfft -E-<0#S$fc LTEIt. 7XSl:ov'r#g@f-B0
173 -
(A) Mesh
BMeZO,
c,fL6o #^e#m^
^ #;xr(7)C/ < Ji v o^TCT)'^ 3^:7c^-e(D#
b^rnm^LT%x.6#ez e^o t ^ (o^jc),
i2 (1-#Ctc), ffi (2 'Xlt) , "b 71/ (3 ^7C) £ class ElementO, class Element 1, class
Element2, class Elements I^)t7yx^ b t LT##"^" 6o Me, Z.ilb(D 2 y X\t
"f"^ r> 9 y T' class SuperElement X y X "C^ *9 , 7 '> j- H
^&c^7C£^iSci™6 C S ^ LTv^ 6o t 7 > -l OfSS.^ 7 X class SuperMesh ti C
v b SuperElement #@f 6^#e,
h ^tll- (SuperMesh::NamedElementList, e.t.c.) C. X) class SuperMesh
7^/zL(/)@#
6 2 <h ^ ( SuperMesh t7*yx^ b <h LX•?
^ M L T V' 3 o class SuperMesh X) jffi. 4 <h 7 y a li , class
RegularRectMeshlD,2D,3D, DelaunayTriangulation2D, 3D X) 5 fSH'Cak 7E> o class
RegularRectMeshlD,2D,3D ltM'%<DIEJjfo:p'C& »9, ±(:FDMtfflV'S0
MC, j:(9m^v^ 7i/jL^#v^ 7i/^^#me
— b Ltv^o class DelaunayTriangulation2D, 3D It Kn — ^ iiiil^HI'J^rfljffl L A:
±eFEM"C^6o 7y7>v^%faT(Dy<zLL/-i/g>"C^^<
Me, ^^^#^fe#6geA^
m^o, mme, f^e#v'i&#<7)^ 7v^^mm^emmt6##, ftth^^e#L
Ltv^o
- 174 -
(B) Field
9 ic->5 i v-9 •/#-*> b ft^'SS-e*
1), -E"<7)gES-i1|Si--£tZI±->5 a. Ix-y 3 d"7*-ya: j' h#|c#
* bJttRlM*#” ?4-WHi
UMSHt L t: & Wclass SuperField "C*B„ b#6[6]6<J»S" fc LT*H*
IMfili, MAlf*B#l:#LT “toIt (ISHWNSDT tilt BOTH®Lfc Sv>)” i * 7-t-
“toltB(l#l@H®-C#B)'' +
both®, %###^&, kt-s-tH:to
K$BB tT*B. Mt[6]6<)^i»k LTS-S 1:^51184-
(a) i WilWS^OT^ir »#o#
(b) C <%!#;)%# gtl-W 7 y xl IOT t B rotlfmSt l) tii •£B #
(c) ^<7)*|Ci{i7)?-E-C)±r-6*5tlB#afl:5ftt:7i y yxL#&g#(0#^-#(0##
(d) ®W'(twtt^'i;ot>rll&ofSMl4-j#rB#
(e) B#ffl%groti:^i:-3V>rllSCifS#4-ltrBV
*BWi, i->®g*ttyx? b±T-(7)li#*fftl#*E6tBW?"r|gT-*BS:
O') x^frtitLTia® Stithy ^ f wHt)5'® i) tlHtB*
(k) yt f t «vt-b
•V-ro'llgS-jfo:
&(1) B OWBii 5 nt:l;aig'7)iito -> 5 XL lx-y 3 >fe*t'-t'II«|CT*-t'
trWoTIEr**-E>C fc„
^Ei:{$btLB$lt^Ci SuperMesh IfOS'lf IS (X»7-JS, b;H§,
3r>VlH|, zpgtt#f > Hpgf > Vlk#, jo X vmmi- y V
m) <Oftfg£iiJnL«£Lt: PhysicalField t 7Ai>b«Bt LTJSSSiU>o tiJWHt:
WftS^iiKLt; i), l/rfoty 5 a. lx--> 3
$tcOT^n'V X*A^####, ^ntis\Z4-4XBliilWiftcDtii** f itoWC3ESI Ltz
175 -
CIIW;!), L^i-) kub “7'fd-577.
<7)«K0^»mm" (d) (g) l oroiititL
S*«<MSc, ^k'»###-C3 ZbtcL, -E" tub4?S«tti*£ #jS £ *$I l /:- v V
;»J: ^ Jfca6T-(d)~(h)l-i5V'TttScifS#*#rsz k S-WtRL£„ It
(d)8J»HtlRE7 >um$5u (e)^lMt>/<iS, (h)))W
imtftzfrzgfma-zs yy<mm, <g) i±**®-c*-s
SuperMesh <0 virtual MiSt tiotl'Jo
i§dSffl, We* *), kdlrlcy-f & 5^®t-^U-/3
> ((C) IC to UT Command k WtLTU-B & O)
;p=fVXA^±-eeg-e*6„SuperField bE£LT#btU5%@Rl
i:#:P$d*6#(Mx.lf7 5 * ;t/^T y y 7 7 9 7 9 7 4: k')d
T\ k tub(7MSSMS6US L, kd virtual M»£fflu£##14£ffioTf£*-f & 7 a-
7 5 ^ x-7f'--y>-tcijv>T66tz(SISt3k’JS^*ft* > >u'MIS'U^;v-eaA.-S'b-ti:
-£.** =J|gk L*„
(C) 7'd 7 5 7 7 -7 7 y -V - : Mesh kffiftd Field i&-8# I: *3+ 6 Manager
-> < i iy-7 4#l&f 6#7d#&K#d#$fbk 3 y,-K-7> Kb4-7 -y ya- kl#tc
y Lffv\ -etUCov'T (A) k (B) Ti^Tlk, ktUbd#Sl7 9 7;»wbdE±k L
TUtBSti/cy 7 y 3-7=1* 4-M#Ut$ tit: ly^Uh-Cf'-j' y< >/<k LTffo#i: J: 0 , •>
•i|/-Jffllf(Sffik lt*-/^l/-y3y • 71F3’i;XAC0i!lW**j|^S#M7.7
-7jl-V >7, ★ > 5 n. lz-->3 XOMI^etok'4Hff1"-£ k k 4nJ|gk L7k0 itzZ
k T#x. Tu & y i i U - 7 T-t±*«tif!KittR£iea5-f &U9 7 - 7 7= 7
k>ti^JpiiHi1*k"7>v;l//<;'-fflu-7 7 - 7O7 7 AT.7 y 3.-;P4-|£gUTtiltii'S®
fid 1C St Hi Lt_-BfP>Slx7y i b k$7t: (a?
9 7-7d77y?3.-V y7)o $7k, ->-A UT.X- = > 74tf b W<>Si&te y 5 3. b
-7 k LtltfMSiflly 5 3. Iy- 7b?ffiil(t?ti7(:7 9 T-b'bdEik LTfISS
tl6d#T*6k#x.7k. Oi t), y 5 i ly-7b?SKlCf7'y^ 7 h ttlntffcS tl, #S
(t 5 fitly 5 3. U - 7 icy imiX- 6 4 ttd7)>d(ES.) 7 V v K (1 Step Bf MUg.Evolve,
Analyze & k) k ATl, tBt)dS*()74sft££ SlTUtllf, Stt'/xH (y 5
176 -
2(7)$
>7$r7 7 2(7)
mscto
■7^“-y>-(±%#.fb$ tl/c '> ^ ^. 1/ — '> 3 >f#)&iES£ T — 9 9 W<<h LT#C v ^ a.
h-e^6o mT-e(±f
%t 6±-e^^^6m^(7)m%^^ao
★Command : b 7°n 9* y J+ 6 *9 > Command = an
Operand (a_Field_object) + a Message 9r -^y y K b 9 7 -b — V^r'a'b^tfz %> CO fc'np'v
(Command) b 2 b H ~t h 0 C (i pAField—1*Evolve01(); b V' n M^Vfrfrtl
^ t (7)^#fo 2 2 T pAField X h 7
9 V a Message ti iB$J]E (C do l vf virtual b LT/eH $ tl7b 9 V 7 Ktrab %> oMessage =
EvolveXX(), InitilizeXX(), UpdateBoundaryValueXX(), EvaluateXX(), AnalizeXX()
(DV^ffL^r^^o (XX=00 99 2fom) 2 2T, InitilizeXX (i#(7)^fb,
EvolveXX UpdateBoundaryValueXX EvaluateXX IW
AnalizeXX(±#(7)#^eif9 virtual
v 3 >) 6o
★Procedure : b ti Command 7b$ □'f^<7) 2 b . ^ HriBMM & b^b tl
tz objects(2 2 VIti^CO ir ~7" V-r 9 h 7 7 -b — 'y (.message_iO) &M&
i#(7)^^#"(7)2 b £* f E*f" (a_object_i.message_i();i=[0,imax]) 0 fz , Jb *3 <D
Procedure 'ttD Procedure <7)2 b 9: NamedProcedure b
★ProceduresTable : b NamedProcedures $r Dynamics Initialization & b'
V"* 1 SR^'C^H 0 (Grouping)H bfziyCO. ty)Wii]C(D9j^ 0 ^ -f (7) —
o —oc7)^|%^^r NamedProcedure ^ $ 9) tz i> <7) ^ 6 ^
Dynamics (7)#^&(^f$fL6m#(7)mv^'a^T)^#^^t(7)^m^f 6. v7m
#TC^tt6+B^#(7)#^(7)^J^#tf6(iaT(7)f-7Dl/^EZ)o 2 2"C(± 3 ##(7)1W
fztf)(DfyMit Procedure( K n 7 7° U 7 h 1 —'$8#
z^[oB:7 7 7^#A"CV^%%g^<h3o(7)^^%#mProcedure(i/7#L, #
177 -
Procedures Tables (D$I
Proce dure
NameOfProcedure N ame dProce dure
Simulation-Procedures-Table
Dyn_NoShearFlow A_field[I].method[I] (i It i=0 b imax)
Dyn_under_E_F ield A_field[j].method[j] (j ti j=0 b jmax)
Dyn under E Shear A field[k].method [k] (k It k=0 b kmax)
Initialization-ProceduresTable
Init_SingleDroplet A_field [n].method [n] (n (i n=0 b nmax)
Init_OnePhaseState A_field[p].method[p] (p It p=0 b pmax)
Init_Lamallae_z_dir A_field[q].method[k] (q It q=0 frb qmax)
★DynamicBifurcation bit's < zl U — s 3 S 41 IZ —'teNf fal (7)7D“f h
CO BifurcationCheckTimeOrNot COpft) h KfCip#)##! Ltz
L, -{rCOiE 0 'fitted T1CO Procedure £5UCO Procedure i-it
ML,
Procedure liy ; zl lx — s 3 > £*#ntsb&mlZ ProceduresTable i)' & 0) 'tCDI#?
Procedure 6#(i^/<zLlx-i/3
Mf
★DynamicAnalization ! b It DynamicBifurcation b , i/ < zl 1/ — -y g 'stfilZ —
TEffiffaJ fol P# (t&xfiCO 7n-f h (O AnalizationPerfomingTimeOrNot copjj) X s <
zL Lf
★Schedule! b (i, v ^ zl U— v a ><7)^T?HlJ(^ 4 U7s*r s sl —)l^)(D Z b X3bZ>0 M-
IZ (i (i) ^7]%9fb Procedure £ ProceduresTable 1 ^-£ L <b 0 (ii)
ProceduresTable {Z&h Procedure L, •£ n y — y -y a_Procedure £ ill
D\ 'bCD a_Procedure ^rjBJ Step frbfil Step i-f(7)Z 9
£ MaxTimeStep ^ £ Cl L 0 (iii) bZX> X 1 %£ DynamicBifurcation,
DynamicAnalization f" 2> %$:£> & Z. b 0 2 (7) 3 o £ h W-^te'i'o
★Managing :b It Schedule <7)fpj?5L ItJE £Lf 7 ^ i
- 178 -
"f‘\ IOP (Input Qutput Earamters) ~7 7 'i ) ]/7 t — ~7 7 h ICf^o Tlr
;< -?OXf v .%-;(/<>//ft < ^X(7)X<ry $fL6o
[ > ^ jl 1/ — > g y (Djfttti]
SetSystem
# System 7 t - 9t^°7 > - 9 X *t v a ~
# Mesh 0)|l£1
iop 7t^;v :
# (RegisterField)
# Schedule Proceudre £ InitiailzationProceduresTable r Sfl?, lifik^b
Dynamics (7) It I, MiffH
/"f f ; 7 X(7)X )■ y j.- jl/£ System tCgx£
End of Simulation
System.EvolutionO X)"y ; % l/-y a 7
System Onyx h 7^ h
Mesh Onyx h y ? h
- 179 -
^ 1/ — -y 3 ytzff'DXHXT^7£ ti£
[ Sy stem.E volution( )60tt1‘CO^!iS(D$f£tL]
False
False
True(l,2,3...)
False
Analization
BifurcationCheck
ChangeProcedure
Procedure
AnalizationPerformingTimeOrNot
BifurcationCheckTimeOrNot
PerformAProcedure
Initialization 1
- 180 -
ilE&vE^b-^S^^X ZL-t^-H^S^ (iicD^xXfEE)(#1: 2D3—fCXf'bSzLb—f)
Temperature
♦TemperatureO ♦TemperatureO
^♦SetFunctionNameO ♦EvolveOOO ♦initial izeOOO♦UpdateBoundarvValueOOO
(PhysicalField< double »
♦PressureFieldO ♦PressureFieldO
^♦SetFunctionNameO ♦EvolveOOO ♦initial izeOOQ______
PressureField
♦VoluhneFractionO ♦VolumeFractionO
T^SetFuncti onNameO ♦EvolveOOO ♦initial izeOOQ_______
VolumeFraction
(PhysicalField< Vector »
VelocityFieldV
♦VelocityField_V() ♦VelocityField_V()
I^SetFuncti onNameO ♦EvolveOOO ♦Evolved 0 ♦initial izeOOQ
^♦SetMatrixO ^♦initAandBO ♦♦Sol veMatrix Eq_AX_eq_B() ^♦UpdatePositionOfVertexO ^♦Refresh, of_Voronoi Poi nt() ^♦SwapEdgesQ ^♦OeterminelnterfacePositionQ
-S^torawCoatingSystemO---------
VelocityField U
♦VelocityField_U() ♦VelocityField_U()
^♦SetFuhcti onNameO ♦EvolveOOO ♦initial izeOOQ______
(^7 7 h 7 t - ^(D X
2.3.2.2 2 a
####&?) Thin-Film ffiMK & If 6 Micro-
- 182 -
ifz, #-l£»WK, I:Wf66. i
tih SrS—69tc$(f)Slv> io<73'>5aix — jr £ LT#A6 X 0 <&§.ifr^tZo
2.3.2.3CONNFFE-X yUl/-?
CONNFFE-X -> 5 a U-fli 1993 $ 1: 6 ttinger KbCioTit*
1- > illff <7)$*6tt*^ftT & 6 CONNFFESSIT (Calculation ef Non-Newtonian Flow :
Finite Elements and Stochastic Simulation Technique) teEti*"f* -So ^4% A y (j
X n h >#*€#### -??u fciifrft 4-fB < *ESSi£ k 5 j'D
IJS-Eii-f f &kt'7
t,<9T*-£0 ^0#$(OS*cofiJ.ir(±, stett£8? < wclSfiK*IS5t4-£-Sk L&v >*(;:&
6. 8EtL^g < Sictiiefrimcti < i), ecos* te* § T
Ix^-n-y-to 1 oro®g*®F5S|SH-c**^o Z<Otz£>, ftMit-fSi®
t:# L T ig@ ^ A & &&#roaiti.&ffiv>T5|le60
t:##L, tngfimirtfiljELr-?? u
i <0 J: 7 - * t ? f- -v—<nmt tc x z> iff 7 tea
vv -ee-c\ $at^^ss < wgi
ZUtap-^m-sS. a.V-9 (MLD, RDSYS) &#rLV'#&#
5n.ly-?4:@fi(ett»6iiAT*vi'n^SixSrft#-f2,'>5iW-3'
(CONNFFE-X simulator : Calculation of Non-Newtonian Flow: Finite Element- and
X-simulator) <DSS9tiff-^ TV'£0 Z.CO'/3. a. ]/ —$ 7 ■? y >
A)«AT (*£v>t±-g;9-) t: < 7 o y <
^ (@A&*-ax-< yy), -e-<o; ?n&-> ~ zLy-^^n-ffstLa
5 JDtfyXrASto-f yy
•y yy^ea+mL, 5 ? n & -> 5 a. y- ? £n*l&st-coSM:*
A&o erottStSIS'tVte J: t), v ? n & j,fg|) |-|t#1" a „ %-f^n Xi
^:+#f w 6 t)>^i*tSteffiS^%(ia 2.3.2.3-i)^Mt'T
CONNFFE-X ylal-yoyniN 7'*^* L Ao^ftteSfeiAif 5 9 n tz -> ; a.
WGI (i±#»M2«ft) T*MISifforv'iy^n->'-^il-> = ay
-9 MU) ;fclirttSwv 5 iU-:$'S-|B|i$affMtefB <&*&*&«-> 5
a y — y 3 y~C£>i>0
- 185 -
-hm# ;nl n 7fcS5#v'^i-^0 Z=i t-«yUi/-> a y<7)*S$4-7Fl
£„ (a)i(b)j:T-liBeF=9X'>--;l/75sSorv>6<7)T-?iSLTaS/-:V>0 Z=1 <7)G, t)?I±-3 S
D L:SM'6>&V'T>T% Z=17 0*S-g-i:|B] LLT-5 L6;i'LJiEl7 7.75 x 10"2 sec
TV>-5„ Z=1 •ei±8fDB#Fal7)s->TV'- h(7)i$KJ: Newton (7 7n 7 7 -f )1/
LTV' < ntfftfrho
JlttTI© Simple Shear mkHli)'1/ 5 a >-->3 > i'Mr LTt'&V'AL
l±tt*B#Ffl7)''J:tRW!Jfi</J'SV'^T*Lllf 1CPU /ilt£OIt#Tt -> 5 a L-'> 3 >11
m Wif $- # 91#^-1: II t 1: A ft T li <
2.3.2.4 7-f A-A 3-t"-f >y
(DW«
afl-fS«tfS±i:3-fi >n, >^T>®gll
##©7 -f W3-fi > Al:jyil6#l#(7)##^f BIT3#A-l:-3V'T*^gST&3.
n-f-f ##-K#-Eib
(v> • y;ves)-»sESi$T* i), ^ oigeror=gt: Mist 5tassn,
® $%(Sv$ffiteS)
© #®isi4sii, $«, ©$»)
© Sett, #— -x — h >%#:
© ftfii-S, SV'j'iiic (Rayleigh-Benard ©mil
© 7-7 > T^^$gl4(g®$*ciS|igttff14, (a)S$toSF=iHSSi:6#^
(b) surfactant 14)
© Wetting, Dewetting
® Bib)
® $£S®« (V- V’flti, t‘-’J > y (##%))
1), c tt-L7)^1111:,l§A-g-oTI*6<)'fcF=1BL'fc-5*1-6-^v>„
3-r-f > T 7‘ n -b x Tff -7 MS IT?© > T iSff SHtO V'itifc (1/ r< ,j >r)igg llot'T
<7>®F?£li© < ALifbtlTv>50 Orchard II 1962 ©I: 2 ©7CC0IESffi|,|T'4x. LftASDtl
HdlOU^'j >X‘£®i!t-5A-fecoSfS4-figL/2 © B#M u ©fell¥A «#£$H
187 -
m h, x bi~&
dh_]_d_ dt 3 dx
fW
dh a3 3VccSt------V dx Ca dx~
uut'ff=Vl> Ca=/uU/o, St=h02gp/pUo L
dh, aSt d2h, a3 d4h,
• A
(2.3.2.4-1)
a >
dt 3 dx2 3Ca dx4
A=a{l+sin(x)|
(2. 3.2.4-2)
h = a + a expf aS( a3 1
— -----+------- fl 3 3Ca J
sin(x) (2. 3.2.4-3)
Orchard
> t: c WT, $- #g L ' < c $ fLT v' 6 »*")
h, 2(7)ix/<v
Gas
£3 2.3.2.4-1 Sketch of a liquid film.
(2)^T';l/
i§(S t m K (S »?•) 7isffi i# L tz -;m £ h b *«± C Sfctt L tz «*J £ # x. Z (Bl 23.2.4-1).
w <7)iSSi*iSI5T*lj:SS t mm*-? frith t SKt" X *) WtGS^ t ggffct 4 „ * S * r
tc#4t*ft#!?-£#i_4 t w^MSYfcli
- 188 -
l O XikiZ,K* 2. SSS*4- N e^SffS
-p Ir,, CWB#, *4$#^ i iSRtoSBlfftttfl-
V4- $ (r,)ttJ0 C(Dt (r,)liti-TroilEroS*8£L & ittU;if& 6 »
V'o
^6{ri(t),t)= V-(LV^(r,(0, 0) (2.3.2.4-4)
:;ti. /- l±«iii«Kfc'(fc**"T>->-v;V-e*6o $E* Newton it#: k®$U -erofi
E*'*Sv>xoi 1)7. h-7 7ato(Re«l)45«i)Soht6kit*coiIi)i±INE$lro#f4;
V -v = 0 (2.3.2.4-5)
— V/7 + V- a + g + [/],„,= 0 (2.3.2.4-6)
p ItEA, a ttfcti, h"‘0#:#^j'e*6)o $#<kStffEHtcEE*b<0iStt<o
s%K*effl«seB#is*^»)»>a
*$^ri)t), Wi)®ot^erV»»It46„ iSEroSiSi:/fifFB
<0iSE v, k E® C * * vLtrk SwitfftDJiK vilV'T
■/=p>-v,)-n (2.3.2.4-7)
fc*tt*(,osl±)#«<OSJS)0 <toTE®<7)iiJ$l±
vs = v-n-j/ps (2.3.2.4-8)
OJSS(2.3.2.4-4) t *f|IE£IK») Ati&ttWf tt b ft w0*iEl:liSIS
sp/tct tm-Hbiiho
(3) '>SiIx-->3 7|±*
7 7*7>->'i}8«£fflV'£#®<ftL'^'J I'-yaXDlMSt. zt#W#
#^#l±M±T-i$)t4: n <0 St ick Boundary Condition
tLtzo -T'lIIliSffiHiJ -> 5 i v—'y a vtc^Atu
It* Orchard ra—JfofitlWg*tit® Lfc0 12.3.2.4-2 |:yUl/->a >?fflWcr
- 189 -
ttz, H 2.3.2.4-5 >nzl3UyUl/-y
3 > h ^ jl U-v a XDf&ZkX-jb %
£ & Orchard
Lfc0
6, S^J <h^@5E^jco^^'W4"t^ 1/^ V yytzjoV^r, #B<7)70n 7 ^
“ 7U £ ilL^cifeSE't’ h Orchard <7)—— yaytcj:
(4)##jtm
i) Orchard, S.E. Appl. Sci. Res. A 1962,11, 451.
ii) Overdiep, W.S. Prog. Org. Coat. 1986,14, 159.
hi) Eres, M.H.; Weidner, D.E.; Schwartz, L.W. Langmuir 1999,15, 1859.
2.3.2.5 y;!/####%#t<?;%
(1) Wi\ EM. jft*
i9^WI±. t«Dp. Kill. V7 ^ Mx>X. *Ama
*?im&te(Dtai:tttiXA^#a^e!g-e*^,iac, s s tsosese
l t). fV7 WtV 7>J LTtftg
5 $ S'i ftlAlf, 0-ilS
ft, 77 ITJ'f ax-j, slSItetiiOT® (controlled drug delivery systems). -t7ft
-, aihw (Aimn) - Aimm^k'#*(oA#ttMmite@AA»#tv^6.
itoi 7 &, S*lc[6]ltZc$rS6l*ti-h LToy;KOW% • J: U-'SIt^ttSSt
fflt'T, 163X hT-flrttcff7 A»i:, 5 i U- ti
T^y5il/-/3 >Jt>->'75:BWE£
MLTliWftin; A*$/i# < , M%ny frnmWi •> 5 a P--> a >liSST-
ii^v>0 A6#*
M#&1: Z L < , ylalz-yaXiMCW^ ^ftS-CIi, It:
- 192 -
StH-X ~J b r7-^^mt£&jer')l' (SlkLXSEXuXirSfl-XX v t 7- ?tffe&frb
tOffij5t4--Stt&7i%li< XtX5 XX) IzX •)»?£#& StiTSXriX Sfl-T* ■yh’7-i’xt
ft X X & ifl±*Z:l|Bfl g tlTt'S w
f ZX\ aWS^ittfl-X-X V t 7-X<7tt|S]|£E"er7H;*o'< ,
;al^-?or®fil, 4-^g(iy> 1*1 g|5-eCl$lS6<)t'SS(7)!£$*$(t)XnZ;#:fifg
iKSiSlixiX'tXt XX £$$£-?--£Sr Lv><t7v ClEXiffilt* -y X V > £SX
L, iotfji'MCyUX^Kl, *T(±, KttXX-y l- 7-X£|Wjt£a<
igJIW&XXt'
«)yUP-#t LXm#aa^#Ef6 h h 61:, «i'i
^-^ffMOigiSCMLTW^froXo mTI:,
(2) x'ti/OXd'Xi XX
iStt^X^coJM-EiliigflcoXt X 5 XXliiSsttf-X y t 7-X#MK%f X7H:%
-D'swsssnTSz^o i$i®fiitictiit^yjumm, essm*^
coxMi/X-y t9-tx,#is]K%mmi:g-x#z i;5>u
Tv^iSiiESsX^tOyi »-X2x, BWg4>^ESfB^<7SEX> >XicX SESEiititc
to It -&^@(7X 4- y#^t.^%|C#t EHgtO^i^ (plateau period) <tl*|pll’'CX>y''X—•
SB<oXEB& XMtgg#+ X X -r xx(7#$*^$#*M@x&3o
ittli, y;vcoBfl^E*SiS$6$Et-5>*Kto^EBl±x iStt^t- y t 7-Xi*j-t-OTJc.
A<7)XS SIcECtzSSdffiKi:, L/:X y h 7-X<omB<7)2
•3ft) i) x #R&#xX'i/Xlt$*Ml:mK%i#E(7##<7)##7)?#@gdTi,'&V'Al:
#l:*mTX)XXy@ PFiS*«) X)ti&tftL(:t6mmi:tj
lt6/<XX(0t&<7)Z t iX'«?§(St£K
i: X -5 $® * 85i$T- £ & It iUi’ffllT- # & to$ i), X-y t-7-X£l»]ffii&:XT7i'T*cD
[UlikiSBirStH-Xy W-XO&a + »#aa*fX y 17-tw|li:);4fi;S©
X# £«iX£]£t'tffi«&ft£tLXI£®£x [SSteft ^ teiEXS X -y h
7-tB'S® + StH-X -y t 7-XX>JStjU<t -BtiwXS SOiXS] j:
ZZ-CIt, fi^x S55HX§®*<7fli£#XtX5 XXliiiV'-t
l$tt7)sEIIi5ti7>oX,aE.XEE* y 7"V >X'(8S<7)SftU <£ oTiWttf-X -y t 7-
- 193
% ^#m L. 2 i: / - i%-
^r^fv\ v y;i/
(3) V 7V ;i/(7)^fb
C(7)#f Lv^y;i/(/)yW f < y X(7)f
Tv^#^^%0AfLT-t'7';i/fb"e#6^#i^fL6o 2^%g#%m#: (i@^f
##) ^^#^L"Cv^i^^|e]
(y;i/%^:) #6#v\ ffiZ
ZcT,
&T vYv 2 m
p^=p^ p, = p(l-^) Z2-C\ p/l##(7)^,
— (f> = —V • ($vp) = V • ((1 — (j>)vs) (2.3.2.5-1)
2 2-C, iT:^^(7)^, IT:##(7)^o v (±,
v = 4>vp +(l-0)v(, (V-v = 0) (2.3.2.52)
ppd,vp = V-n-<!>Vp-y{yp-vs)
Ps^rvs = ~(1 —0)^P + ?7vV vs ~ Y(v,s ~ v p) (2.3.2.5-3)
V • n = (K + p/3)V(V • u) + pV u
2ZT\ p:-t±A^, y
194 -
y(<p) = 6;r?7,^(%^M^'>o 0i##r(± 1/2, 3/5
r & & o ^ mm mo = y / p y ;i/ -r i± 6)o«6^(77, / p, (y a 7 y y ^ x
#5tM#6fi6o v
SdCifc^lJi~ h CL b (Darcy’s |IJ) !
v.v -v,, - -y'1 Vp . (2.3.2.5-4)
##OEE;%43BB6: ^ v h 7 - ^ (7)6y^@dh (7)#^ ^ :
V.p = -V .n. . (2.3.2.5-5)
CfUi, 2 m#:^T/l/T(Dm#^#^CjoV^#%(7)m#:^#6#V^E^f
y/!/# r5^mm^vyv>yj y^
^(05% :
d(f)~dt -V*(0Vp), (2.3.2.S-6)
V-(0v, +(l-0)Vj) = O. (2.3.2.5-7)
g >X y-A^^(7)Z 9 t:#^L/:o ^^f(7)#:#y$^(7)B$^%#(±y§#(7)m^(7)^:
(2.3.2.5-6)Z ^(7)Z :
d<j)~dt = v,i(^)v.n1 j‘ (2.3.2.S-8)
2 2T, ^mj^Z,(^)«^/y (:(±^y^^Onsager#m^^J^mv^o
(^(j^,r)^j3<) (i, ±^(7)^^4-X6fL/:^y
-y&, y;i/|4(7)E'y(7)#0^v4d:^
y/L/m"C(i
^-x. 6 (7)T-e^#5y (7)# 0 Tv^ ^ #X
- 195
,6:e#^Ly;i/(7)^B^:t#:i-6o
F'(%) = FW+p^a{^'W-^(%o,f)}' (2.3.2.S-9)
c CT. 0' : ZZX\ fE©^&F'<7)B 1 Jlliil^cT)
#2^ (a(7)^) (i,
6 j:9
rE^^#*vy;>yj ^gL/jy^yxy^f^?)
(4) yxcogti-^y^y'-^SE
9 KWtf&o
F = f ddx[fm{<j>) -\- — C{(f)){V(f))2 + vion (x)(-j~)ln(y-) + \trW_- 21n(^-))]
* 2 00 00 2 — 0
(2.3.2.5-10)
S ^ ^ ;l/ 4^' — <h ffi ^ )V ^r — t (T) fP £• i" Flory-Huggins M
fm (0) = C1 - 0) ln(l - 0) + Z0(1 ~ 0) Ginzburg-Landau M/m(0) =-^-a202 +-^a4(f)4 £
Tfcyti Ginzburg-Landau §
Flory-Huggins M £ V '-2> >2 £ IZ ~fr h 0 # 2
i&#L-c^d6/2A#(7)@ ^, v.^w (dX y $ 4^(±y;i/(7)
2z-c\ f(%) = Vo(^)A(a % 00
^ WtJ (i Finger strain tensor Xfo 0 > Wtj =---- ------- — "C^# 5 tl> S 1^ni. dxn,
- 196 -
%
MtO
00
tobn
CD
V*Xr4
m
Or
ft}
Lnk>o11 0
?Xftv
I4
4V"y»WV
ftujVft
v44*§
&<IIoolhobL/>
Crosslinking Number Density in the Relaxed State
o
hr
A
tO | U>
Ito I —
to | <o
Ito I ►— +
4X | 00
Ito I —
to00tobni—ito
St4
aftd
hr
aB'NCT“s
crqrP3S3CLs»c
u>m>EH>ft14
Iorrd
V @ d 3 fft 94- _4111 r< null M # m- m r) IIV r< —H >—1
C: ft' E E d -tEp& d #
II (ft H 3 M 11^ESE
M-
to
□rt-)iB{fr
+O
%
ft
Or -ft'
4ifX
%1
S
id2
r«1
!0r#$5&
Or#
hr 5 3 1 4 9ft 94-00
ifX &
4vitjt E>
1hrO'
hrO' V n>
#9ft
4ft
ftii#
4 >£ > 9ft y 4 3 3 Mi
V~nd
Q)
|
-e-
1hrO'
ifXI-V
34A
H$(ft
a>
?E
IICL
Si <1 to 1 1— null Xt 4 ft 1 ft
v 4 4 1. <!5
1 Jn Ju % r < II iM V d -\ V g 11hr 3 n ow 4 ft ft 0 44<S X 1 (ft V 3 l c
m ftbi ft, _Oo 0 3 & ft O9> v t_z -gi m> '00 Ui CD^ H4 d0 I
+E to V S ED-
E H ft 4 (ft s Enfr V 0 ft' h->
00 ft M HXs ft d ° in MXL
TIT -^'(ft <H 4 i
ftM ■ ft
A-e-w 1
(ft Or
ft[
4I
4
d3
0^0>ED-
9ft(ftr^}
ftUiV
11 ml0-
X S E E ft ?l Cn~rX3 itin
Hft'
3null 4 r\
ftOr
1 3 to00 ft # 4 8f O-
xt- V' to 4 hr ft 4)#= y>/ bn 1 lii ft 0-m 1—> r i f9 4Ri e>i
V DJ> 4 d E 0
1 vJv aw 4 i
Thickness (x LO)4 4 p^ * a HH ii zffl 50 # toto <r sS CO
II GO I/, > tooUi
toOr
NJo yi 4
4rv
cnto
d i—1#
6#
r^0V
4a
m
or :™ d [ s (D 4ft
p£ >o y X
4 fv s\r cn Ot-S ~r
44 d :Dr 4) P& o’ s3[rv y £§ 41 4
4> % 4 4 Nr# d 0 $ *a a ft 50n V'
*-4-(—
j; H 94 4?# Jn ll7& V o d
X m> s 4 s 4a 1 iS b Xjl HI V
V' Ftin b Vj dm a Ul ft- a
44Is
Vn
V"in
o 4- #14V
si ft V H <u aWF -4 X q a •t®ibt On l X # <u
F#94-
44a
V'illV
V
4i
5S
rva
a#ssg
-B-X 4> A rv
8 <8 0 N) w 'to-©-Or
>Fdt
r> fflF
94--til
0*
g 8 2 °
I + t
SXH
W'IW
'li:rn
:
<r ft40 vj>
to ad $
#4 94-rt0 XV s
( a*$
V #d Pca> X-fiy -^0
Nra (r t Vtfr<rAd“- a
xs #Am isf# rv54- <r-5 O'* #3 &ow mVyx *d aCM irv C#ra dd $i#94- r(% d
<r ft} s ii 73o3
a (« rv ji<4 rv 54- 54- P O- X 4 FT M ||<rCM
54-9* &
da
3CM
mX
rvco
# to00 A
(irvo-*"/d
J$5r^0
Nr
4-CmtfET
0*d
3
8j:
II
dN4
FTcV-u?n2Em
NrI
V
IdV
3d
tobi3
_V
CoM
54- [ s- □ft o V 4- d d&vCM V
fa9 d o X CP 4t§ a O'° SS t3 94- p 4 4; raS Cmgt S. 41 1—‘ Hi Ok B r < 0r * 54- OPL 4} d V ts" 3 f < d
d
-XV
XNr
1
r<Cm
4 ft}r«9vX5"
&<rA
n9-ror
5Trift)faC
T3
rd
C
trtr<*A
CMi—*
V )Nn>
dowd
Sd <g
4rv0V
CDi~So’P-
dC
94-
#
to
^0X-~r
Oy OFT 94V a
lxII 1 m S3 d <1
1(6nCM
n-3□M-
d
X
O/
4V
94-
S5
Sid
rmrvX
M
<u
1Nr*
rv
$1XA a
54-(fifv
3f *
ov
9^V
aXm
ra)-ra;
d-d
3
§ V #$ Cm a 54- ra)-54- a 94V 4Xii} 3
X # #%sa s
0fd
*"< ra d 4V
5 Nr(
r i tfr
c"d
XM
:Dr# 03 # M d
is4-CM
Vairn
<rA3
FxIItoo
FT9-rCm
54-3
Ci-<pF*oCD
FTVrCM
toCO
to
94-
#1
FrII
d □ft / Md
ov<r 73
VCnCO
Oka
fe 54- a 3 44 xlLTTT9 4 a
3 4i B g a 1 9v aS/ X #1 f * 4- >b O'
gi 2.3.2.5.5 7 7V
(6) ##%&%
1) T.Tanaka and D.J.Fillmore, J. Chem. Phys.70 (1979), 1214.
2) E.S.Sato and T.Tanaka, NATURE 358 (1992), 482.
3) H.Hirose and M.Shibayama, Macromolecules 31 (1998), 5336.
4) M.Doi, Dynamics and Patterns in Complex Fluids,Onuki, K. Kawasaki Eds, Springer (1999), 100.
5) A.Onuki and S.Puri, Phys.Rev.E59 (1999), R1331.
- 200
SF= JWLcwju"' —jS iyM"j<5u,y + 2K(x)u"8u‘
= jdv\ 4G(x)u‘‘8u‘‘ +I2K(x)u"8u" ~^G(x)8 “u"8u(2.3.2.6-4,5)
8F/du‘
V'So ZZX\ 3-^TC 4 «£ FEM fi»
Nb&tffriDmiofflikT- > viv Bk
T&mtziiio
0 00 00 0 AT,Z
0 Nky a^;0 A^
w; 0
(2.3.2.6-6)
SeBTDBu = Fj + F£t b (2.3.2.6-7)
(b##T-tir6o
D-Matrix"C*6o ^.1/
- 9 O
2.CM LTIi, fK + —G K - —G K - -G 0 0 0
3 3 3K 2 _ „ 4 _ r/ 2
0 0 0-----G /l + —G AT-----GL?m&X¥M 3
939
34D = K - — G K --G a: + —g 0 0 0
3 3 3 (2.3.2.68)0 0 0 G 0 0
FEM CZ6# 0 0 0 0 G 0
\ 0 0 0 0 0 Gy
COJ^^JU ^'-yjfLM(J II5^) <b aWMAj&J: * ^ f - O Jfctfc
3Hf "9 ^ ffltf Energy Momentum Tensor (DH5III53^''J&H"C
WG3Class±T#f$f 6^ v v
6 Method ^
- ^ v (@#v ^ v i/^.) - ^ v
- ^ 7 ;yjL<OV ^ V
- 203 -
• 7 -y '> 3-±coWj&) 6IttJMEo
2^1^607 7 7 lx - 7 3 7^r
?)]/- 7° V - / 0 f$^c 43’C&£o
Eshelby, Rice b K limlim (*^7. j^L£_>o 5—>0 j ax
SA£tL(!2<3.2.6-9) r-
ill
Hp“"^+n"'A V
\{dx2w-drr^~ i a*,.
duij Xax7,
)
(2.3.2.6-10)
(2.3.2.6-11)
W = f^,yn,y
M ij 1 .5m7 5m'2 5x' 5w7
7~ 7 v 7i/
(2.3.2.6-12)
(2.3.2.6-13)
P = ITny : (2.3.2.6-14)
r :A :
tt' : i
r :
"Cab^o CL a ^ < ilizE^D Adaptive Meshing fro A0
^ 0 )6A,7^f J #^() t :t# L to c fL(±^T(7) Z 7 $ K6 o
J = -limlim [dTV ^-re—>0 5-»o ^ j ax'
+rr 5«'yax'
(2.3.2.6-15)
(2.3.2.6-16)
3.
1 ~ v 1 K 1 ^AffT-EtsciSSi-te*, -eroSAWiE2 H
io $ (-ilffi Sr #!* L £ X * A- *•-«( 7#^ )<0Bt1
- 204 -
U J: 0. WiMfcti&Mm Kw t J~ ~ A i (v ) K ,2„ iitm.'irhztiztL /i
•9, -eir-(7)EiliSgjg$v £ £ * & 5<r£7)?#x. G ft -E, „ fflLA(v)li*&®@14#
tcit L T li flWW ft 4 t i & as V <r> M RT- * * „
2.3.3 *§g|
(1) asfr->5
JSS# U^OVn yUl'-ya x irfr i 9<7) X 7 X 7 d- 7-7 V —StfPSt L. y< jI/-
X<0#@t lT®-)Wstti*.EXd'ft5 X X -7* y> - X 7 X t ffHfiK U yUI/-y3
'f Ax^y'i —;U755"iiTtit
(2) '> 5 a. 7 — X
(-m^T efRS-iSE.illy^ly-^iMLto W-Wi&Wco^iJ: 0-t •)*§&
M£$7S<Z>y 5 i U-Xd|l95S6-fTV'ES^lr-D Cjov>r-5-d$S'|4j:Wx6ttK'3v>T
tX h 9 $ L/c0
(3) CONNFFE-X -> 5 a 7- X
WG 1 T-MiS^tT) MLD 4-fflv, fX HW&PJMi LTttSfcEjJ** W¥«j
fx ;u hi7)i,f#t^*#v>Z^0
(4) 79)I'A3-T< >X*
7 X' 7 > y 7mmV>r@ff¥®±t;£It£ 7 ft t) i4x.Z:*ft7 4
j7AcoEB$tjftJ:0;Sft£;#®LZ:, ■jteWl'^') 7X'%mi:#f 6#l@%#y < 7
7- v a 7 S-jlffLZ:, 7 ft 0 -7'l±|6J#(0SffTX> Orchard j: 6—%
ffilftrolSSt jSA'-iSc^LZio
(5)
4-¥$, y 5 i 7- X L/clEfti£l4Z; 7 7> KtfWJ, SSromffliJt#® U
7 h 7-X#|Bim#tT";heg#LZ: Wt#6x_&C t£*«
ri'd-5 Xxn±H$Jittme'fc7)»^Z: rr)W7)$®ti?§S<o}£|i:t: J: o rftilSn^. J it
(cMb^$l*(X * >1<7)M. i|mx>fisr$&tHSi|-C§ Zco
(6) @]»-fti'$/<7)tfii*;> i a 7 - 7 3 7
*9F5EI±®»f-«flro«iliia£ Ei$-fE> 7 5 t. 7-X-4-m$U SPIgBttSttffr*
- 205 -
WG3 7 7X±<7)7 d -)U K * S'tr Adaptive Meshing Method ff 7)
I:, ') V-xEt:fttt/:iJUB«®@ttfrX5iL-7«f1:jS4-tTV\ ;
JL V - ? tC[6]ltr<7)S%S|ifl-4-B»/'-o
2.3.4 4-^t0tf-afcS@
(1) ^
-> - A U X X- 5 > 7if 6 rnl-ff X. 4 ? 7 X#jg 1CH-f i> t -e tlI:# 9
^¥Ei±*tSfi)i:->-A vxX- i > xot-> i i u- -> a >&Hfr6-ff 9 T6"t-
abS<7)T\ -5-<t)5hiE4'S^1 L. ixttl-ffi*'LTv>S7Lv>„
(2) ^'##ia
J. L--> 3 J: 9 (:&.§. tfr 9 <,
7 /7r d 7" 7 -y «-»*-> 5 il/-ftll, f % 0 AfdX#
SS^Efl-Ez^v aiz-i-i; 9 1:76. ^WS*L
mO&L, ;<97-y9„
(3) CONNFFE-X yUl/-?
RDSYS 9 1:73.
*f). MLD, RDSYS trffli-.
trtf coEtusro -> 5 3. L- - •> g § s J: 9 t:f&.
(4) 7i)l/i3-f-( >7
11 ^ECM# LXEAt#@#^11:Z6 2;X7C=t--?d >X-> 5 a. l/-7l:#L,?
J$ 12¥J$li, SIEcilz^V >Xcr>*ftca-D-it-B^i6Ux ?a$SVS$iS*SXLTiSS
E%d$i$6-iiii) An, 9kO(7)L^'j
SH?lii*i6e^coJifS-iejnL, j: 91:-> 5 ^ l-7 H£S.1~ £in
"C& &0
(5) nvnfommm
(a) e#Ry;K7)#;flffi|jiS<7)effE(#mfiSftfflC5a$i:oi,>r)
4-¥EXd'*>c03£Bx> ho St:, RPAtii b
£*&*&*.,rtSIS-ew -f* >i*E^ 6#"L fgfrJti L CDM®,
if, WSimKOXd'Xi 7Xt:ov>rai66<)i:9f%L, Liw
- 206 -
itz, **#§-§• <0x6$K-dv>t LZ:v>„
(b) T^iS)—y;Vco "> 5 i — '> a >
4-$%, 4 t >iMl£&-9Z Kn-;f-®C4x.£t£!fi
SISt'-Ti' > tLv'toBirW-:o>0 i tz V;u•
6.tcS< ?77 HK & # < }foy;V^$1R$61S ^ i:;»iim
* W—t v> -) E.6> f. rof!l#r*ffv>SfLv>ai,*f#^v>0
(6) ®9'-F'#>FI-<7)$$® y i — ■> a >
E#mM$(7)4-EC)|tBj: LTIi,
1. i
2. StigBfiy 5 i y-f^C0 3 •^7C'y
3. j «fl-coitSe$*fflv>Z:EttBo«®<7)n:$l0
4. SCF y;j l/ - f f i
5. MC,MD#(7)< 5- n&*j£i:c>-:>-A VxX-5 > X U J: &EiB/7x ;< - ? tOilsIS,
6. $^co»H^j-x(7)iffl(mps, y^totoss, ii«f7x7fY7/f)„
7. ®»W¥4t7d3it&E3^SEro^ilo
^toSS^#x.TV>S„
ti-TtC WG3X>E%*^»tS1"o
wG3(»##mx;p-y)
<)-y-- #n
W?E* /j\#
W5SM Ui±»?£ft mm
*$ me
iitiz ffl%fflm>-MSI5 W5EM
99# ffimmwm® mm%.i
- 207 -
2.4
(it)SfflTcr, s+a*m. m*&a. sm§£ ##%&, /J'#DEW. tm7k$#. fi^llfi—
2.4.1 It Ctot;
*7-487 7'7";i/-T'lt. 7'D-yjL 7 Ub-/3>tn ttiSt/
7"7-y h7*-Al2toT. ##(07 7#GW*#&jE L <
£ £SM£ ItV'J. 7"n-yj:7 h<7)£eF%*7)>4>#jSS *•£;»'*, 4^*81
(#WG E*t8?)4-$<t>, -ec07 y/c'-S-f-blcE^ttAirMiiqUT):,
^iiwtEo-otlt, fjxfuxo mmu Dfcissttj, r-fCE $-#tf-rv»&o 4-*8 it* v■x.-t-u->dlltfttk-7v>
r$as. f'- 7 11:.
*v'-eco*itSrft£ Ltz0
2.4.2 BFSvfiSjs t O'fifcM
##ro#i4ii#»^$F=ix'>--;i/ ?iu;i
tit. rm#Ki. rst-sj. r*jtattj cov-nt.aw^fijis-tau) L*^r7i/4riS£-t*C t E L, t-f;i/<7K:@(D4:i6l:. Mfcroxy y'
7 6-X-; yXCtoTiiig-t-£>::£ 4-hntiSJ (2159LX
It. wgi Vt-Dy-^ilJLy y y 4-jiv^2 h *±ggl2ijv>t:„
2.4.2.1 ##$
•rnt-cct.
5m$o ^wtEiwiRt-stitv>jii>*. *m±M«£ %4roitents£ft&mm&t-&
*§4r7>3£7)t 9 WaMmg#TV'3M: J: c-r. f§*(t±£<%&2>
tffiStlio BP*,, ft* COB® tt Z&amzmtZtztbizli.
t5M«:-/Ul/- f- t. K^tB £ #g,tB £ 6 #i# &?#l L & < T It & ^
£. £ i:*4o
-■X'JjL^yy^^v 7"nt:>y(7)j: i CI59 LT, 7
- 208 -
$l)®X.^V>0 ZZX\ 6-Z4S =1,7^746
^t#BHBffi*gfiLTfeBBa77 7ffl^tfc*-3Tv>*53-T-(;#iL, f-f
|6K|iFMl%ttttS'ei±l653-^-coi*E<oav'k LT|gHBBffi tW^ffiiSrfBiSL, X 7 tcS^iW^toEBfc&to, fit!
1k»f B A#a#+#^X- A f >f 6f6117 7 7-e iU7l47 ?
'!:0-7l»£j£, K3ii:v>o*®BBH-(t<7)^llil±- ¥E«®icj=tt^.»a$ar-li&V')5'\ iS
LT, X-5 y Xd#ffil±«&mx*§ Ssar-ifeS a:Si <b
$m?&3wr#w%6o
2.4.2.2 14*
A»f##(om*(o?#i a #mt:$sai-3?Ei4*(of @ij a, m-fcti
lICECtft^t < afMHiSHI-S®*TiMo 2 o<o®JE^%40 too®H4tcov'
Tt@Tli$3ChX*6^, SrffitmtoliJm toi!,i*-estigxsBg&s
efcSrjf^o #xr«7^*yc#LT, 6tol4##m t m A#axmBFL, ##
$1to' *b 14 * & * to s <b tir v > ^ „ *"vx^-i/yt--3V'-ct),
#4 totatift^Ki*^$x > ->• >m* *sto4#a * ssir
*o -*, #Sbbb#i:#Ebbb«i:6MtoStStcov>r, @14$toJ§£-tra#*ft*<to
^7,;v^toffl#Sh U,
2.4.2.3 jbSiitt
y y77 -f^t'to*###^ LTi5»f##tomm7WA7^TV'&o *##
LTUf to#14±, #BBBl4toS53-f-*?±l2fflv^fLTv>60 *-';xf-yyti|£HBBl4x>
I), m$Mcm%14^*KU1&<, ft^tmtv>7 X*)it71 nsunxitt®,
mm<Di%mKis^T;t<nmw®.tffflmt?j;zw,£-tiis$>z>o *•■;if uy<r>y 4Mtitt, 7 f ;i/A*mc#ai= Z 6*tomL^, ISMSic6*1"Z.OfctotfcSLi:
LXV'6 t#X6k6. -HSK7-f ^A-eiiSBto^StoS-S-TiWtfilJK^S v>„ It)>U
gBtoSStoXX-;vli^jfcKfcJtRL'T/h$ < jt,fli, btu £ 7 *xX
A tcov'Tli4 TlfS. < W'oTV'ii/'o
- 210 -
-ec-eami, 6-)
#, -krizw11)&&cti±mmr~$,z>zkfrh, EStoKy 'i
L, l*lg|5eSK#B l?*rji'£imtzz k k Ltz0 BP*,, jt<n
mmm4#m
istauSL, •eoiSai.cHM x,
TEd-Ha-fk Avrami COS*LT, {|^lW(CijSS^40
-ln(l-^-) 1 Pc I f <tiV(T)
X„ P; [•® dr
V(t,r) = /i:/||G(«)ti!u| (2)
V0, r)<ir + N(0) • V(f,0) (1)
pc : *6bbbSI$S"8L p, :#bbbSS$^ Xc : fflttlSali'ffcJt
X„ : PlW-SBBB-fbE> N : V : #Sbbb#I*
G m: J&fi&gu X, : BVtBJ-
XSiStt 4 ¥il t £ £ »121±, #ibtL7L-y^->&7ci:M7&6##7)%#-e&*) !$«*>
#V't51, $bbb<7)x-a-;vk-e(7)S-6-*, 7dX»--;uj: 4-^—3
2.4.2.4-f *)*£$. #56tt*
f" a. — 7-j6t'7U4S$ t Lfc, {£$<£> y-iPiy-S *?i$X.S y;al/-'/3
wgi 4tp-L>K5F%StLTv>^,0 li#i;x-pvxo-f t)ti$, #g#$£K4Tmit6-
3<7)JtttU, cZ 6#W4ti c 4 7-S, mUtMKM
fiv>^prigs$fLv>i/yT-->3xas^ssstirSTv^,, 1^*
n->*—"fiijixyxo—Oi LT7"? 7 h 7 * - A tcfiAj&OTST-S f), # tc, y-P-1
y-StoEv'MuyLtt»B#ffi<7).l5T*l8#$ft.£o Jx<ai».
9IEfcciit8c4jb'C4v\ ■> 5 jl u--y 3 ><0f£iE4jla6-O/'£|£|5gT-<fc£„ #«eu
WGI <7)#4#B8$tL7^v>„
-r i) ttsco-f t) y-p-iy-sroEv'*- pxf- wo%mm 'k -> 5
J. U--> 3 >(Jt^InM#i£)<7)|g*t <0jtSc4il 2.4.2.4-1 CTPto ->5xlx-->3 >oe
- 211 -
DfciliStiJ
—tef t Avrami a^yAZ^I&L, Tfciliitt 7 * n
■>• -1mtmz#?-x »BBB-y-4 xfrb*iaitzm-ta#*t#wx6.
r-r 0 • ff5itiEj< > ;ab->3/t Mead-Larson-Doi(MLD)g|mI+# X> EE
2.4.4 ^-Eotie^as
5iSmK-t:^£$®(3l51, -f*). f^KlEfs) $-ti:*BfcoS*(E*)t D-fAi:^
n-rv >X££;&7
?)Ef ftJteStiiitfitJtiRU X 'J XX ><0*"t > -y 7 ;v<0®a-(t,
eaBa77 7-stBBBB-#§aBB77 7ao#]is*fflv\sfift»?-*ii^#ftss.y,sff*ff7o
r jfcjfilttXilJ
SM1E & #S L T 3$BBB#ii £ tig U XX>JtBHBx>X'f X\ •y-d'Xco9-*^)fcSjSt$fc
dMiiS-tiWLTvK, ##. y;ii/->3x:fflt4. 775
S^y-yyC-^V'Tli. *® generator t (X-5 > X^) tfT § &
t"') 7# M X 4 o
rxf) • ffBiSffilJJ
«##»%. asM^»tMu-3^r. sm^ttsesrojAUffloitef&tmf 7« x
<r>tzMz, ttS®fl-XiWJ4i4)'774M+40 4 7:3»«X»J17I±. SEIS
SfcMHE ?-£/.:-> 7 h 7 7 7 ?-4ri*£X*x'-?^-7 7 574KL, ttEX>SI$
ttSttuov>TMtses^si^sgi-es &4 7 ux^.o xwf&aaS'Kwa*. m
SI53'lt$6#'7X" V U > (STMiX) star, pom-pom # ) XftiMTi'ft 4X#"7^fl'lic^l2
-swt t>i£$l 4-f&14"t&o
- 213 -
JZITI: WG4
v-/-sm 7c~
# M E+S#b]
$ * tftt gAA
M /J^# HEM
wg 4
#####
(¥)& 11 ¥8^ 1 B-¥E 12¥3 £ 31 0)
#
#
#
mm^nifi-
fcK
mm
JQU TuJ
(?m 11 ¥4j| 1 B~1 ft 31 0
- 214 -
2.5 WG5 (77-7
±#jE^
B*iS£WF$8§r
2.5.1 UCJ6K
6jtiEg##Eft^7 7 1 7 * - A (J!Tt:'t±ig.C7"7 7 I7t-Atl>i) l±®A(Ott
fil?lr7'n?7i« (J7>v >) $:SJ$KM3W. ^>'7'XiS/or-(mgitiSL^S
%lz-fZ,tti>lzs ^y-s-sftm%s?nm%',z.t-3XWgX-&hZ>-hK ±lWT*li*v>?'
77 -f 7 ;/ 7 MS®»<0 y a 7 A P41361- /p11 £ & iti® K@«1- 5 C i: iSMt L£
?Affl » T*-? ga-> 7 r A t V > t i i: t55'T* # ^ „
C CTU##g(0 7'7 7 h 7 * —l*-fu b 9 4 -?-C%htlfz%aM.i i> t C, 7°7 7 b 7
t - A (0#c-< # R##3 1: t 11: (2.5.2). -eftt, *x y-y >gg%:g- • fljffl#
Ztzsb<n-?7 7 b7f-A|*#(0#A^C#%L (2.5.3). *§:
i:*¥«r»flfS4-ST L/-ittffiig * «l& L<(> of* 4 „ (2.5.4)
2.5.2
7° 7 7 5 7*7 7 b 7 t - A CO jf-D-t § R«|g l± ti.T<7) <t 7 l:
2.5.2.1 J: > y
#6%g^M@U7'7 7 b 7 * - A fljffl <0E<7) 7L > -y" >$-g
CKi-6^tihfW:c i r-*4„
fC?. ;«ii &tl.*>F>. T'7 7 5 7*-2<<7)#-3'<Sl#«|g4-ii»61:. blT
coj; -5
(1) xtatir-y<7)m%w&<. (UDF#^*###)(2) f Tt:R%a*0JL7y 7(0 I/O tgatlT"? 7 b 7 * -Afljffi<7)/,:»0<0 I/O c
(i/o^###)
( 3 ) —B-fy 7 b 7 * - A17$ I) 2-A,/if'- 9C01-J-V 9 i 7 7 * -> 77717^ 7 Z i
/>?T-§£0 (r'-^-^i 7 ?«fg)
(41-1/7 7 b 7 t - A }:%0 7 (0#7P##7)(@gT#W^f W (f
7717/Xll)
(5) Iterox>y>-x(Ot*-?cogns l/p’SSt-* a, (f-7#m - g###)
215 -
2.5.2.2 -x y y y fUH# F, jE
(6) J:yyyA^]f-f 6. (A-4f$A$###)
(7) @ * #flST- § S „ (f-J^-X«)
(8) &-£^< #< OOStWFA-Bo irnv^-fy -J F 7 * - AitlS)
(9) 4 racolt#4-Wf-icffict/X-#3„ (ttSItStolE)
2.5.2.3
75 7 F 7 *-2,T*l±^< oxy-y >4-ipff LTfiJlT# -M-S/Afe 0, g
<7)fSWtiK4Ai y 7X£&lZotf8.c>tg.t>tiZ>0 f ZA\
(10) IBrxyy'yoa • -##iL • flgfl • (J:7yy#m##)
i A, jx>-yy— Xt LT, X-iyyiyyVit'twlif, Bffro
Pre/Post Possessor B7n' IP# At DDF #5)/>'$}& 4 t 0 , L A6 Pre/Post Possessor
4 g 161 £ L t $ A * -E, t S ;b A. S „ fCT. *d«|gXi>'-jZ.ST**^o(11) Pre/Post Possessor t 4)SA$$ii (Pre/Post Interface BIB)
2.5.2.4 77 7
(1) udf mjcmvfmm■fy y F 7 ;f-A-ei±#< <75my-yy^'^L, JUKlcr-W^t) t *) 4fT7*g?ls
&i>cox\ -r-? comic4£«ftt6A/m*$*x* 6„
rtoAafSjctioJUtirt "TE1t*?S< xyy'yfllfcov'Ti'lttir'. f*#5:udf 4c»X5 7)7* -ATi±ttfst-& 21
(2) I/O %*##
1-y v>T£M%\$X<D7'y y F 7 * - A t £ < «3X. x > y ><7)|ig%4fi o T vX <0
i)s^MX'i,i,1j'b, -fX’izmbh'CO I/O )l-f yJioTV'4„
f»io ^ 7 y 7 gg%#/,x (7) 7°7 7 F 7 f-A4#@Mt:#mt&A*t:l±AAL
Kffro I/O IP-Ay 4) UDF fix'-- 4> 4 A -A" - FA3 7-IP4 7 FtoAA / 7"7 V - 4
7°7 7 F 7 * A-tir-M'E/XSoL/ALLOJ; i AfStffX.>y >-emmUMikmiJ] ~ SiB A K f, 4 S 4X\ AA4
a4-1; GUI ^7 p v-;p/)X A At-6 A i li»fLhAt’TIBt% 0 . -4tr-P'ticyx >y'y<7)
AAA- 4 A UDF coseaitr-- 4 4 4"g|S4ff A LA UDF 7 7 / ;Pf: j: i, Abb A A
- 216 -
LA>##m.7-7 7£/n7 K'J lie
Zcov'fy'y ') - i±i> 7 7 (0 XtHtl7- 9 KWF <7)S#6|S£fM;-f"-£ ## t UDF <7)6
#a Sr XdBX r*- 9 1C USD Ltz Z t tc l & i 7 7 7 gRXtfXS) V - SET
V^-Bo
(3) 7-9*1. v 9W&
-B.7‘7 7 F 7 * - XIC® U iXA/fr*- S' i± UDF S ja.-S-lfc LTV>Z; i v 7 i fc L/M£
E5nrv<7fcv>0 *zx-7-9coMiMm%t‘<nm9coMm6']%1%Mfrb. 7-9nrfriS
1i£*i 7 9*hmzi?'&%x-hh0
(4 ) 7=97 i 7 97m.it
*l:*-</cZ 7 1:##7. 7 V & & u,
<7)eEV®ft j: totiMMStoTSfiv'o -£CT\ ESk S$, 5A, iilt£ t’imW.t Bill
S-tirT 3 *7cME$6t hffll^s-EST-* 6 0 X E F> I±X 7 V 7 1C X hi*Ex. <3
rhXcigltS n 7 9-^>-x9 F 6 t 7 ##liE@6SX$)&<7)X. 7"7 7 F 7 *
-^i*i<7)Jta7 7 7=9 ') t LXfi-yz 4/c, SScttfiSftFtiESffi
#^cii*3 tijij s 2 -XTcfiS tc r 7 7 f t-r ^ miti> ffi* x * Sr-* z „
(5) f'-S'fttitti •
X-5 A J: 7 7><7)#m$* S- Bi7 -y >(OXtl7— 9 tLTfflV>a.£.g^*.5^\ Z<7);#<7)##m<7)$#|±##J: 7 7 7Mm#^f$a#^X- 5
7 9'i'S's>Xt)7- 9 t LTfBMi-Z>$><nt-$Z,i)K Z(Dt%(0 A x 7 7 7cO##|8S£
@l5S)'Mmf 5/cAtcli, (4) ffl/57< 7 ^«®7)?-£-5E=Tk"e* U, ZESi*mtc*@E
oi> X r'- S' titiUtit^EFE'C* a „ t X6X, Z<7)7-9i B 7 y<9>AZl7-9 tz
ftl£ L X UDF#:&!C^#X6## S&&6E&0
( 6 ) 7—9 {$&$###
x 7 7 7 <7)XX t'- S' <0 j£ EX S* £ GUI XJiilcFp'E'-g-tHtX^iE T-S'f$&£±#f
aamsx? 7171-z.KWtz=t&ztux >). ^77 7#m#<7)we#s *tf ag#
z<nm&\ii>=j>tm<frfrt>^T\<'Ztzib'
&>fc>-7X^7619 T75?J:v't#XF)E-So
(7)
7.777<7)XttiXT--S-|±7"7 7 F 7 t - A7)5^7C6<)17eSX-B'£-S7)?*^ AX X77
7«A3lj7'-Sltti:i$^Fi lc#'stic»)XXr*-S'-t**£<7)-t\ 7-9WS<ntzt>
217 -
117 V - Ox*- S^-xxy-y ySffli/'SittUtitlf # &oofli&o/nt#x_ibti.&„
(8) 7^ft7 y h 7 t — AiilB
~fy -j t-7*-Afi]ffl£ • x > -y >BBSS'i±^Hi V'-te&Sf A
7 y t 7 * — A It windows / Unix /Windows NT #f ##i" -5> jil'5tii"zfe5o
(9)
x>-yyAffi*x-S05M»r07(:»6x iJcfttWf*t’Sftt'£-gA'*£A\ CfibltlW
Ic^RlfbAa Sg;b;h.-50f\ fflSSIgict 0 x*- S SfBA'fi1 x. £ 1$ o t)$ J: o.
(10) if/VIlfil
#mtd'&*)oi#mS'i&#at&#^#af\ ##om#st-s-f ##
f. x7y7 S#AL, -ftlS f*OttiA>l£#S7'7 v P 7 t-A®/5 7 / y t 7^
Ig&Afx Axy Sfii^lJt^'tV'o
(ffi) ^o8|gS=Tim-1"-E>A»KI±7"7 y P 7 * - AAltf'S < , xy-yyfflijf, #J
8 TfS-B 11 l-ExltSiif V'&tttUt& b &v0 t -o
Tt^TiOX > -y 7t:z O-t- K7 Stlttf S ItRS&V',
(11) Pre/Post Interface fill-
Pre/Post Interface ##0|A Pre/Post f — S O Atilt Jt;0 I/O $###SBJof ##
f# i> Pre/Post x'-SOtfJtJtt Pre/Post B*OAtlx-7SSA UDF (f jfcSL&
IttUf&ib&vA.rsX Sit-TilBSO Pre/Post -Sf
^ O t 7 & Pre/Post lix y -y > |i S'# < O S O Stt*. t 1* £-£'gtt &o t g.tetiZ Of,
rttboSSSilSU 77 y P 7 t-XOxt 7*7 V t Lf#*&&C i: I:f3.
2.5.3 7*5 y P7f-A#«#0%m^&
2.5.3.1 Ax y P 7 * - AMf6iCjfiv>.E, wS-f 7-;P
7'7 y P 7 * -X, It 2 infi$'<A7;Vtu'/7 y P7t-AO##S#A&k Java X’M
gt&ZttfMi Lot V'x.J,„y;l/ft7 y P 7t-AS#gA6l:lt OS## LSt £
BUfcSBS-f'-if-B.ftWlW&MSfct Lf Call L. f»T? OS rt07 t 7*7 0 S link
■fhZt <># xbih-SA'x L ft fit OS {$# L Sv>fSaW*MI&OlS:ttS> OS SO 71 7'7
<) mm < o a#w s £~m t1 & of, & i o t itm x. tt o0
—*T\ Java lt#%l:#Lt'#R##f'*&7)L ±&89l:lt C l:@5#Lf Jo 0 . C++o
#-m*$St"Og@Lot tA'WSftf jb'B, y/fi»|*||5t Lftiftigf*£t
- 218 -
#x.TV-E,„
t 4 5 A, Java Tli#&iO OS #t0 7 / X? U WU:*7k6aa'& Java VM TJ?7 XA,
—XBH& k'tOiftStO JavaApplication &M.&IIRD,
-etmt’a&rf&z tttg,A% < &oT§Tv>.£tot\ orngT^^k#
X.TV>40
2.5.2 t-*lf*7"7 7 F 7 t-A|tBlg5-HSt-B/2»<0M5£t:fflV'-£ffIS,?-7-;V'fc
ka6£„
(1) UDF#:Mwmi6E<7>ssSi£
UDF 0 <0T^ yacc/lex (bison/flex) TffiLStSWf 7"n X* 7 A
(/i—f—) SrftfiKL. ktti C source Code k LT, 7’7 y f 7i-i»©7'(7'7 'J t
LT^EX jAtr0
(2) I/0^###(O##^&
I/O l±x > -7 > to A iii * t - X <OjE t/S k’t GUI UDF
7 C/FORTRAN to7 / 7*7 V -#SgT", C++-C^5tlTV>40 (kftl±C++
User OtB-B-lif'-X AttiitiffltOJ' 7X-7jt-XX 7X0^7 X*-7 7 / HiiUtl L
», «»*■f-* t'T— f; i; r- X <o A m ts i Si® ic11 X £>T $> & „)
(3) f'-S'fi 7 X ffil®to3IS^i£
T'-S'fx 7 Xffii®l±UDFI*ltO test MKT’S* U UDF f#i»W«IIT(± k (OMK95*:*
UTBxXiXX, 7°7 7 F 7 * — A T' Python Preprocessor t)? UDF $K£r Python US
#T#&MKC^*LA#, Pythen T #1C, 6$ LT, fiff S-tt S 'll to k t & „
(ktOX*X UDF 1f*(BWaT*(± test MKtOS*«l5£lfcSXiJk LTm*&tt##k
Python k cot'— /S/t® L # # g T & 6,)
(4) X*7 7 4 7 X X##tO*#S&
/77t 7 X Xj^ 7 7 71± OpenGL 7 4* 7*7 U 4-flJv>;£ (, to k U k ®E> li Java/Python
XikMKk LTCall $®6ttOkf6. Lt)> L OpenGL l±$6K$oT <> t X\
V0S{jSS37)>'tij3< , -eco X*X ±I27 4'7'7 U-li Java3D !kj: *), P.1I5 5 titz i> to k
(SB#,i*T JavaSDAPI li Windows 95/98/NT,Linux, Sun Solaris, SGI Xk'/WS- F
LTt'3 ttoto, t-XTtOUnixEWST-D-.K- F £ilTI±v&v>0 L-6>U -*T’k togiifr
li OpenGL (OMTt 6X6 k 7 IX F'^OS 6@i»T*6tOT, LftG
li-k Wfno^x f-<0M*t{$-3k k k LXv>„)
- 219 -
(5) - ^###(7)^#^
f'Vf-AGuiT^y-xm#- y^v P7t-A^77^ 7
^ 6 PostGreSQL & ^(7)7 V -<7) DBMS ^ SQL ^
t6o
t ^(7)f-^^^(7)m3ij^DT#^y7 7^ 7?x##%&y7 7 P7
t “ A ltZffifz-$ Z> ii <7) t i~ 6 o
(6)
J: > 7 > A^7 f - ^ <7)1%#% hl±%#:(7) FEW #<0 Pre-Processor # V \ 2 ft ^ I/O
UDF C^#L^>7>A^-f-^C&6-tir/:m^^^f^6(7)«bf6^,
h W(± Python 2bT6 6o
(7)
## 7V-DBMSr^L^DBMSZD, PostGreSQL^, 2(7)7°
7 v P7 t-A(7)DBMS ^ LT^mf ^ t<7)^t6o
PostGreSQL 6.4.2 T(i Windows NT ±^-,<-##(3+^:## LTV^
7V-DBMS#BB), 6.5T(±WindowsNT±T##LT&0,
(8) '7)l/f7°77p7f-A^%(7)^^^^
JJ&Lt «L 9 c Java 7"7 7 P 7 t-A^7 7 P ^:f6
2 t £#x.TV^60 2 (Di&lZ i> tcl/tk, Perl/tk, Python/tk & <h"T:"7)l/-f- 7°7 7 P 7 t —
62 ^ t Dj#r^6^2K6m#-r(i2(7)Z ^ &±m#&7%fA&##T#&
2fLHZ6^#(J:#x.^v^2^t:L/:o (2fi6Utf VVP#
(9) mMt###(7)^^
_ti$i L tz X ■? IZ. Python X'MM.'f 6 0
(10) %.7 7>####<T)^^
7^7 7 P 7 t-A#jT(d:, %.7i/7(7)^f-^X7 - P^^(7)^h#^%#T#6##
^ J: 7y 7#^^^^ J: 7 7 7JL77:/ ^of ^m-t±6 Z 9
6iP/E"C2b6/)?, > y 7 2(7) 7° 77 p 7 f — A
(7)fIJ * £ PI& v & v'of 2 T, %^(7) J: 7 7 7#m## <b T 7 &'(7)%#fX
- 220 -
f-W-'/wiftt, jL-s-yyigmy 7 4 ;1/C0EASS £ fc-'rolN-a-UEifeM&SreTlT
^ntztxnz-'si/Vi&.b.&H^ -f 7*7 <) (C, FORTRAN source) l± 7‘5 7
F 7 * -i ntt&o
2.5.3.2 7’77 F7*-A^e->'j.-;l/(7)#S:
(1) 7*7 7 F7*-A^->'i-;K7)fSfig
• 7° 7 7 F7 + -Aii?7-f7> Ftcoa L, troeig (7)53-8
l±jy.T(7) j; 1 t:f 3.
■
■ r-?i mmmmm
■ r—-7-7.«|g (Free DBMSfIJJH)
7 7 -i 7 > F (1
• XUitl UDF 7~‘— ?77-f 7V86Etg
• r'-^SSiWtiBUSIIg
• f-f
• T'-j'fgeJiltSWtti LE#
ttZ o
H-'ftiJt 55577 F li#«lg<7)ii?mti IkSEt^S 2^7cEf#(7)#E(:#±L.
-£T<7>StS (fSBfflrottS^S-tr) *-9--7<-fl-C-5f7 6dit-E.o
• Stt(:ii5 55 7> F • •)f-7'i'-a(7)->7f-iJ»V7 F £|8]—
ESK-f >7 F-7FLT#m-e&6Z9l:m:++&. (SI«li57577
• 7°77 f7 [fmu#a#:@-&aos-cm%$ft-rv(6c
t SriKltSil-^# &<7)7:\ 3fub £3<t)7°7 7 F 7 t-A^F;iB(j)-f **I-g-(7)iifi^
Jxl± TCP/IP 7‘n F a 7K2 J: 3 & (7) i: U •(> (Dtt&rtK Java
Cl lent / Java Server 661 LTSS $ ii-B6]i53'l± RMI (2 J: 3##i: "t"3<,
- 221 -
(2) 7*7-7 by* -Att6g<7)fM'Si*6<7)We
• 7*7-7 by t-Avmmzm&t ur, x>-yycoxtti*r-5'<o-7ci;g#i^s±
Ifbtl&o zntztb. Xtti*7-*-7l±*5#6(7)Elr±ICff6LTv>^.£.S7ls*-6k#x.
tft, -5-<ryrz#>'pfi < <k & 7*7 7 t- 7 * -X l±r*- 9*r-£-1
i o T, flJffl#COftcO 7 7 p "C&S 7 7 4* 7 7 h t r'— 7 tO—TuHS-i Xtlf 0 -f —/<
- <o«# t6. ZZT\ ^>-y >Atti*r'-X*ftT<7)J: i
t:#WL, -9—7<-fl/7 7'f 7 7
• DB (Free DBMS fljffl) 4"9--/-i'-±KBv>/,::t»-g\ 7 y -i 7 7 HillCr*
-7teiSLx 7 7-177 h i:. X-7 h7-7±
SH^Xi:B#Ffl*$1"4nj|g'|4ii*4tIX -9--/S--C
i±#%cox 7 7 7^M#(:#m+6 c t -9--7<-T)#*e*iDXAt:
.@lv>ejorffiHi:-7v>Ti±7 7i'7 7 Mi-e<o»at LXo
• W'l, ffiHMilT'-7(7)l|X*jlraH±-9--7'i'-fll]7ifv\ 7 7 T 7 7 7fi
i*li JavaSD (O# t ## V'#/j\RcOT'- 7 »*i:RSLf:„
• i 7 y 7 i 7- 7Kffllfi J- TCP/IP l-tto LXOlix 7-y 7gfl%:#c0ttffl
"t"SSI§t)$ FORTRAN, C, C++ k ^ S S ti, t£ OS & Unix, Windows 95,98, NT, Linux %££
S-61"-<ST% U , C co#A-OS t$x.XJ*'6't:^7-y 7gtt*y-7»'ibJE'7JL-;Pl: L
TfM-t-E, 7 t ®«F-1S^tit=SP«9E^ Xco#&W,#m^E*f 3
x7-y7-ci±«»*SSc«W**S7!ii'lt*:S*(:***f7S!*St?-rt#^<>SS:itf>^-6X
A, r- S -£ R U X 7 -y 7 (7) 5 n X iS^T-, -5-cot tx7-y7*$fiT-S4 7<h7lsai
LV»t,gfcftS„ -5-7T-, TCP/IP affl/ffico 7*7 7 L, X 7-y 7 copses
6 i><DttZ>ZtKLfzoi>t>?>A. TCP/IP am?co/W f V-#mi:li##M<0
zoy’7 7 P7t-Ac0#m#»I@*g-<t6/:AI:aZ(0@%<0V7 7l±
222 -
2.5.4
2.5.4.1 '>XtA<7)®EE
m2. 5.4-1 ^¥E
(imi 7°y 7 F 7 f - A###commT<7) 5 AC0V'T#im#&&4TcT
v^v^0
>x$- mrmm
- V v7t6Ch"C, 6##
- 2D ^77##
• M&itOtzttKDr- 7^77 v.%##E
-y7yh7t-At: m%t 6 ^ ^ # uop ^ ^ imm# tt 6 Map ##
• Pre/Post Processor Interface
v P7^--A(±
m 2.5.4- UZTfi L tz X 7 1: Java Appl icat ion X&titz C, C++"MW Z.tUZ£
^OST’Ci&fWt^tM^^oTV^o
Y7 V P7f-A<0##&2&#&(:&6o
(D: i>y'4\M
(D ! JavaSD Call / return (Java)
(3) : Java3D call / ret run (Java->C++)
(4) ! < K ;l/ 7 7 cal 1/return
(D : < K 11/7^-71*1 gBll/-77 call
(6) ! < Kll/7^:.7|*lo|5ll/“77 return
®! DB return
® : ^7 v 7call / return
(9): UDF Def SBESi call
® \ DB Call / return
© : UDF Def M? 7 >f 1VE&&&
® : UDF Def *B 7 r /f lH$J& (ff$#)
@: ^.7'7'7iB|jj • —^jt • nm
- 223 -
2.5. 4.3
.x. y y y ^ y ? - 7 ^ -X 7 d* 7*7 V (in 4. 5.4- 1 platform I/F Lib. T\ #^jiy^y^T^yy b7f-A6:&#^f674'y7V-C,
6 %> (D'V'db&o
WG1,WG2,WG3 o^jcyyy^ C++"r*3^^, C++(0 I/O
Stream *C § -6 X 7 HfflO 7 / 7*7 U £1BS L tz0
2.5.4.4 b7n>7^/7'J
g|2.5.4-4(7)Z9l:, xyyy^/77 Yy *-Aby&\L\z.&Wi'tZ>M$ 2. 5.4.2 xy
y>^>^-7^-%7^y7 V j3ZC/ 2.S.4.4 7^7 v b7t-A^-T^ Vf
python Interface £IBv Vcn|$5h<h f — -f -f 'Jrf iCoi^Tli PostGre
6#mi:L^t(D^%.yyy<7)7^y7v^
^60 WG1,WG2,WG3 (D^.%.yyymi:CK^^m±L, ffb&X?yK7ny
7 / 7*7 V fc^iJfia/Co
2.5.4.5 'fyy F 7 * - A^-y->f 'Jff
(1) UDF Parser
±#L2= Z7 C, UDF ti0^#^;-CI±*<, LIT(DZ 9
Tv^&o L^L-^-e,
1igbTOv'fcfc, < Kmry'fry'JtLt^Uo
#@T—##^C(Common Data Format)
■ o
■ T-7 <%##&& # * v\,
■ r- 7- 9 tisw k §&v>0
(W Idias Universal format
(Common Data Structure)
■ M-r-*
- 228 -
UDF_DB_HOST / UDF_DB_NAME
udfjnaster:
udf_def:
udf_atr:
ldf udfID, header, step
udfID, udf /eH ,
udfID, show, (test,unit)##'|##
2) a y y yy T*— 9 (binary File)
Q UDF_DB_FILE
udfname_l
1
udf name _m
W&T— 9
stepj
Step “ 9
2.5.4.6 tyJT'y hV7
(1) - m###
tyjry hv7 b2.SA-7
El 2.5.4-4.1 El 2.5.4-7 "Mi WG5
Filter TWG5*J
^iJ^^LTab^o
El 2.5.4-7 >117 7 ^
fBrowseJ ^o/:7t^ 7V <7) fa Sf# la £S,b,p> (Browse, Read-only)6#
- 231 -
P y t h o
show "Express ions "S ^ J a v a^7^T> h3 DJaMUfficO Python
^'iT tCgMT ^ J^ITo coordinate#(±^ [x, y, z]#3r#^ P y
thonVXh, (x, y, z)
coordinate_l ist (d\ 3 •^C7CJ^f®[x,y, z]cOP y t ho n V X h £ $ il 'J X h
i><DV$>Zo attributeJdliJS®i^Iifcti, TIS^ 4 .
#[# P y t h o n V X Ml i & 0
•
1ine( coordinate!, coordinate2, attribute_id )
• A
point ( coordinate!, attribute_id )
• E9E#
tetra( coordinate!, coordinate2, coordinated, coordinate4, attribute_id )
-
polygon( coordinate,!ist, attribute_id )
• A° U y 4 'y
polyline( coordinate,!ist, attribute_id )
• R
disk( coordinate!, attribute_id )
• #R
el 1 ipse!( coordinate!, attribute_id )
el 1ipse2( coordinate!, coordinate2, attribute_id )
• Pto
cylinder( coordinate!, coordinate2, attribute_id )
• #
sphere( coordinate!, attribute_id )
• JfRtt
ellipsoidl( coordinate!, attribute_id )
ell ipsoid2( coordinate!, coordinate2, attribute_id )
- 239 -
coordinate2 < )
arrow( coordinate!, coordinate2, attribute_id )
(#m, ##m)
contour( element_type, node_number, node_coordinate_list,
node_value_list )
cp1ane( point_on_plane, normal_vector, attribute_id )
contour < 0
c1 eve 1 ( min_value, max_value, attribute_id )
contour min_value t max_value
E) 2. 5.4-15, El 2.5.4-16 -(7)^(1^^ L/:o
- 240
TRunJ
fSuspendJ 79 > : BftfBf
TResumeJ > : BBrSftfcMrWffll
rstopj W%7)
IS L, Suspend l±x>>!><7)|*|g|5(; SetPFControl jo Z (/PFControl
£-<0*;fr®jT%6o
ti-Tt-WCS «Sf9SMS»^^+o
')->*-
$$$#
#
$$
#
$#
$
±# JE5 Wffl per
3l+SL#rJ
##rtT Kfo## UM
/Jo# Wft:£#
5E$£w] mm
BUS gA#BB mm
B* JEW
:SJI|f|-
WG 5 (-/yy F7*-A)
itsax^si*
w?emi§»*s
E55M55#HSI5
tttSXSJKEl
w%«
W^EM
9f%«m$ll¥8fl 1 B-¥J$ 12¥3 jl 31 B)
W9S«
w%*m$n¥4fl i b-in 3i b)
»%ua%«xsis
muTmmnu
®f?Ej
BF5EJ
m%\
(7* 11 ¥4fi 1 B —7 M 31 B)
(mitmmMmmmm wf?sm#&**» bf%*(7& 12¥ 1 jl 4 B~3 fl 31 B)
(¥l£ 11 ¥4^ 1 B-7 fl 31 B)
$
#
$# »%K§%*X6K
*B E SF5EMI&**®
6f%*
BF%*
- 244 -
S3S
3.1
3.1.1 liD*lc
->5 a. v--> 3 > tcj: »)$S$to^W4iait4-ff T A»KI±, l) Snl, «ffli--£&pgr-ft
W5 <b $ (SET. SfiT, ifftTif) rcDtittw*®W&Sftf.2) ->s a y--> 3 y^nxts^y ^-9-t Lrwt/tt7-*-?^-xrof#ls, 3) ->s
a U-'y 3 yroiIftfi 7 ?ro£*<0*aftl • MB6) & UK, *E%T*I±
&TiS6i>t LTv>-E,0
(1) MTTwS^li^ftPWOffil
(2) SET-ecosmtJttroiti!
(3) tt$B & file £ *T 5 ttfi-ro y * n -y - (Oltil
3.1.2 WSSortS&OTSS
(1) z«»TT-<0i6»E8BHBlll#»O!tl®BBattS53-EW4(CI±TV7'nt-y>. 1/7? y- h£
t'WE < $V'S> ftTv>ftTv>£0 ^ (7)#liSSSnTB#tzI±|6H, hIN
BBaro$'6-M t tt h tz*>c, *"') xf- u y tt t"ro|f:BEllttci##4Kib'<TpliK7)Til7)>'tt L
v>o Sibic. j$®Sn:m<7)8t!tKJ: 0. fl-TEM5®:; 0,
ti&z (sfEKifeiSllft) met£ g 6
C#Lv't<Dt: Lrv>6„
W^-eiiiSH • f n -y-rojteESi-
fii$ger>IM56£ffo/.:„ 0 3.1.2-1 UBec03F**/TTo ifS8®US 120mm «
R®IC < Ef$ 104mm <7)R$£l±»jAA, e k tc X o TT-tir A-Wf
s-tb?-frrv>4.„ £-£-£**&*, sa^ffs-Estti-r-a^ e t ic <t or, sjs
tSiJfiPLrv>4,„ K#nSE tiBEiirr a f—tz>0 n&iz->vy inf-7 £yy
r-j'-izSESnrjDO, -ttABrliK £®J«r*S h X i ic&oTv.s>„
- 246 -
Pressure (MPa)
m 3.1.2-5 4° >J ^
4 1/XD
^'s
V >St<
Dj±t}
Poisson's ratioCD CD CD CD CD CD CDW W W W W W WN> W -IX U1 o> -sj GO
111111111
o o o oooo
K>‘<J1xCD
ID
CD r-T
CD
rx)CD
“0"3 w <D CD CO CO
CD CD
-QCJ1 $y cd
CD
-sjCD
GOCD
3.0x10
Young's modulus(Pa)W 4X -IX
in CD InX X X
CD CD CD<D <D ID
t | i i i i | i i i i | i i i r
t£J —i -i. _XVi-xM-Px
ooo
CO VI CD OD VI CD VI CD o o o oOOOO
PH t* CO
a > 94 3t
mf d p*v 4
<r 45 S’ 4i i+i
A-tfr 94 £m $ 4
O' ft # d
-il- 4 y Or (^va
a S g vJ* ti- a #
m c 2" K‘
4 V$f d JD £d-
F#
a4 &
nr
PH
r <04
d
W
rH
4
A
4
V
iffiinf
<r9^
i
V
(M
gm
r> M; <r ui M° # ~r 0 V 9+
I^V Mlf«
H V nr 4
M3 0 m4- Mi d m
Ud“- a
Y 1
4w iis
>4 Wl Ftio
Ml I d
S> Sfr
f^v &* CM
0 ti- o
#
r"0
PA FR d
0 M
# PH d FR
-e P*v a 4
% is # d
94-a
rrail m
ft y s 4
a US 94- 4Jmf ft a
Pressure (MPa)
MGOI—1toO)
n>
g m
<P40s1
r>
gmrv5JJr« 9-r <M
#
xm
ra
tv
<?-50§ftf»OW^ mrv 0s1# m
m+gmmOrOHmmnW-d
Or
oo4Cm
coi
a-94-&14 ' r FFl^ 4
m<r
9+’-OCO
Or
4iS-
4 sMV5f IftX)CO
a9-ro<6#
94-
vP4<r
m?gmH?
4a
m 3 <r 9-> 411 HGO Cm 0 4 GO
# 0 d ° i—1
CO S f / <r 4 CO1 94- a Cm V cn
4 # 0 4 M( < 4 ? i f y
4 94- 4 94- %gm
o* 4 ffl gmF#
4 4t S 4 S
d m m f ) M<— ntf V 4
4 9^ r 5 c 4M <r 4 94- d 4# ° no
Ml#m M
4; M (« 4
Hfr■x)o
mKg-
VV
Or :Dr 4 rsr 50 Cm
CO
V # $ a■g d f t ' 4
CV4-raB VM
Cm d ti- 4a f #nf r< m 94- Or# a 4 d 4(^V $ ! » 4411 4 >F M4 (* 4 5S V° 4 Cm Or4 4 # 4, aV Cm Sfc Mi m4 4 M 4# 4 % >Fa ito n
gh r d H?CM # d # f^V
Poiss
onS r
atio
for amorphous part
70MPa
lOMPa
for crystal part
70MPa
lOMPa
Effect of the pressure
Temperature
(g 3.1.2-7
252 -
3.1.4
(1)
sLfctt* • *□ v-ssia
###l: Z i). y y'x 3 t? -y x ft i"<)i'V<o&ikffcy
flNr-C, a^ro^ffTlCjb'lt^SietffVV y-a^yaVffl
tzx><?>&&y- x^-xsns-fify o
(2) iWETr-coSESttiOftSiJ
#§bbb14 • r-x^SEsnrSrv'^,, 4-Etiru
> K*#fi-&fc"KiIlSU EAI:Wf &- X &f 6 X 6o 6
x -/ttiss+ai yxf A(D?r##c-3^T
(3) ay-Oltil
V'TI±inS.75s#ibtvcSrv'60
n v-l<zRl2t¥M*m'<X\' < „ 71/ > K&fc fi:ov>t 6 r*- X coSHirffy „
- 255 -
BF%*i#ik LTI±, S *" V -/n k: v > * * -> K (PPO) k
OgttX^M § ,*fn k6. < #.7t:##T##L/2 4 * '/ igfclzft&Z-tl,
(iSSfa)o iS^tO-k^y > Mittal-dT, SS#f-Bffl#*
^ > > h ISM tegH L T1/> * fc a6, t i*S1ftc 14 SiM/45* * H k
Ctg«$tLTv^0 w%r-l±,
KSffl u i/fibs^aira L»7)^®fl-iLgfl:s*i®4’<y 1- * yroee s* • 4
0 3.2.2-3
75-f o it*6iir6-*ttTv^v>k § tr
li, SUi**tt«*SrSM-<75i::*fL
t, a*6*l4rEnia1-Sk, #*$#
$L<m^f6kk4)l:, 10-1
o o k h
se^tis^u ma^mmm-t
i UMIII I INI
lheh - II UNI
Molt cullt 0tight
6, 0 3.2.2-4,
0 3.2.2-4 SWtoSI
■h'-D-fz* 4/2, PPO<T)l-g-ElV5:$x.^7l?ib|51S<7)5IK^ffo7kk
0 3.2. 2-5 rol o <r 131 O-'l
r rofl-^F-e,
’o lL/2o 0 3.2.2-4 i)'' b,
S-WtV'&V'k # tCli a ccJV'2 (7)
1 ■) 'kffiffttT)5# Hi i k, 4 7k,
S*6S<7)tglaicffv\
k" <? j;k 7)^7)'6 „
—‘^, 0 3.2.2- 5 *c> li, MfDt^FsJ
r 7i!JVKJt«+-5> H k bfrK%
Holt cullr Deight
0 3.2.2-5
- 258 -
X, frfc&®F3E£RM-f&££{t*>5go£<D-C, 4'#UCco^t:c<V'Xt#AKit:#%t
Silt So #t:, t^-ti*i3*®fl-WilXt^6#r=1t^t*,-a.®yd,t 5 y ?x<o
®aSE<0E^»14K»,sS x £ „ 55-«a@HCMLri±, #####
ross-sraes^SiEu i tn<7)S®its»f-(os«^<OTig6istr0 #c, as
*^Jt(2. tt_hroiffl6emir->5 JL U-'y a y<D&%tS£WiL?3:tfb,
a ytn y9AK)###(-#Et&o
- 262 -
3.3
mm a* $
3.3.1 till* 1C
^n$t\ i- 5 j' X - ti53-*ISIgUi.
WSl±|i|t:ii9<jcL-y<-'y-;iz • ?7X (vcbtjiS^f^H) icgf 6 4#x_
Sic, #<WH@J*HI4 U m^KIct. @553-^0 1 *tEM
ISfelitV'T h*"n->'-fi<i^#1Sl±.
t\'n <r>VZtiixn:&m.X$>-otZo Z<0—3<DMBtt, &*3§V'i
$ 9*§ <tcfr-otzzt' izf&btix£tzztK&z>o
L^L. btLbftti. cW x-7^->' a >*«£ t lcrg£-*£
^-5 ?
RogiA*m$mK4 v i ?-^ices
i7-^wiw- Kt^-g-s-at-c. fflfr* • iitoes^ss.
lc#m^#mt4-x.6Ch^. %W4:LT#Z:o *¥J$I±. lWElc31£iK§. 1&M&
-ymi&izt'nx n &£®£4;l*;4'ico
v>T. #lc. 4 i »A#TTmmi-6^t:cv<T.
SWtffi fl-SE^oGSSlSi t -E- ic » i LTSUMW^ffo/co
3.3.2
(i)
t UT. V X -f 1/ > (PS) h -y x-7-;lzv n ?.- h (DEM)<0$-g-®l5-fflV\
m#t4#9x 2%K,M
/z#et:t4, mtuD^mmrL,
-E-jt-e'h-ll 3.3.2-1. @3.3.2-2 ic^-fo AW^SgM^#-&lci4. ->%■
Mi:. %a-*ic#9#±fw%^fi^v'm% atwy) 1^) -e^su •)#
@tt<0Sv>rSS-richffiT)s7ti: ITmUU PS-rich6^ ft-6 .
/^->i±. zomiXftftftftftffimMLftGnxtfy tt,0 ftiaifil,
- 263 -
lift >) k atULra < „ znzkii, 03.3.2-2 t-L iftJJUlii:, /*?->
®EU 6v>z kii'bi>BMb>). SSWTrofSttroSgttt
o
(3)
#### g
cyn V hTO^gl 3.3.2-5 r*6o
2(7)|g|^6t)^6 Z ^ Tc, Tt (i
<b t rjojoZf N-l/2 ^
6 c W4: & -? t <, 2 fu±
T (X)
3.3.2-4 Dependence of the frozen period on the quench depth for a case of Mw=355,000.
rjo^
1\ msmizu, wmt^
Lv>tf)i/ k&'Q'&hz
k 4-^nt ltv>4„
(4) R#(0#:#K*
PS/DEMi#* (fl-f-lS 4 2
75) <r> i orictiitse^T-erofflfl-
ttaerti V 7 flM*!R
li§j!l^M'C<7)'S:fs(7)il|J5E5''fTo/Co ZtD^fe
0.0250.0150.005
[El 3.3.2-5 Dependences of Tt and Tc on N.
gl3.3.2-6t:, #(0#f4:X(7)
3.3.3
- 265 -
an-r i o,
jH-effiSti, k"*d-», OT-i8 4 2 MTOilT< 6i:6<J&tllS
#c, a$to
r t 7)sT-§
• 1.49wtV.PS
> 0.8
ttmmfrhnmn-hmftztiz.
t (min)%3#
J^HtCOl'T HI 3.3.2-6 Temporal change in the volume of apolymer-rich phase in the phase separation
V^0 ^ process of a bulk polymer solution.
m%]) "j
Moving Droplet #|C j3 tf ^ ^ LTV' < ^/E'V& & 0
Ly#/<;k?#i&i:jsv'T,
fm 8 4 2 ^l:oV'T?#l%^^^^#TV'6^ 4"#, v ? D b T coVJU^^^Wj
- 266 -
3.4
3.4.1 liCAt:
*&m.mtx-itj vmmimmtf£i>^')-7-7a41 Lx>k<nma.im*) ±.mza t
s S»TS?ir#:; * ;p A b S£EEI$6ffl ^ v > r r- s .£ „ iWSIIWiSlty? -y H
7*-/.*§fgt_TIH5l5;h.Z:7"n Z7 A 1C J: t)%biltzv 5 ^ U--> a >IS$SrS8@U6
wilSISSfcJtiRU #C.
2 -c-Mni-f-s •> $ ^ >- ?-omtt „
W:#*& t a t C. J:
1^#:®J$V,ffl»!E$J$tESii$reJt£Wfl;S*Z:l£EE#@ffl»!E<0SS£H7oZ:0
5 -t: A-Mi:8-DEER6fflfl-$|iZ7)V>ro$*tof 5r
fi« x ££*»*!!; iff oZy I/:, m-&EE#@##*?mmgE&/W f -
*U7)V>TOIt*ffi-> 5 JL V--y 3 >. $6i:. ®fl^ilz«J*a^SrfflV'Z;->5ilx-3’-
&,nzztib
3.4.2
(1) 7-n 7 ? iSiSroES# i -b;P?SJ$a#U £ it £ Spg-&®
f&n^th
StR?SE4rfflV'Z:7'ny74fcS'S'<*Sf$,4ll^ joV'"t*8-S"*ZsES$i1z/i'fiS'f4'ifiT*?aS
6. rtutrs^sir/v^bj WlitLTvzro$Slt. ='T3rJFM1~-5;ZnsZ'»££-;ZE^3v'
#tSir*5ISS5-tr/wsS(4$-e#S6<)lra6jxd,fcdeESattrofc5aSt*5<!:itxb
ii-5, rzT'H.
ffll/'ZciS'$*lt,/XU7.f-|/yZ4<i)>:7^-/V->n*i)-y*S-S-* (PS-b-PDMS)
(Mw(PS)=2,900;Mw(PDMS) 72,000)7)Z7Dny>Z>-yyv/PT/P:3—/P/ZZSBSfSi:.
- 267
— (PMMA-b-
PtBuA)(Mw(PMMA)=2,900;Mw(PtBuA) =12,000)(7)
fbf ft, PDMS, PMMA
PS-b-PDMS : l-4wt%L;joV
3.4.2-1
z ^ ^ i3o°c ^ ^ L-c < 6 (L
6o^c r
!5fS6<j tcM^ L/C (7) Z> o
C(D##(±K • #^L/cv^LmM^%C
M^$fL6o30°C 60°C
bimodal ##o M^iMJ
f Rh L
3.4.2-2
3.4.2-1 K7FL?ZoMUX'fe&&J},Z&btl2>!fflL
tz 2 ^ frtz
PMMA-b-PtBuA: *eit,
60°C
tH 3.4.2-1 Temperature dependence of scattered light intensity at q = 30° for PS-b- PDMS solution of c = 4.16wt%. (•): totalintensity (□): contribution from large particles; (O): contribution from small particles.
io <
io 3
4 io2
10 '
10 °20 30 40 50 60 70 80
temperature/T
[U 3.4.2~2 Temperature dependence of hydrodynamic radii for fast and slow modes in PS-b-PDMS solution of c=4.16wt%. (□): large particles; (O): small particles.
L/nL,60°C
bimodal
PS-b-PDMS
- 268 -
4 - 9 n u x-f-l->/tf<) y 9 9 ') )]/j&9
(4C1S/PMMA)
x £r?!£U - y &##L
tz o
H 3.4.2-6 :: 4ClS/PMMA=70/30, 130° C
n a it 4 #fcSLftaK WB# WHS * H * s mi u
SLtSl/;. aSL7fc5Ml±,
5 /j\ 6000 s flS'CSiil
v-ttfiK (50-80wt%), fiJS (110-170'C) T-
1!H S7t, PMMA05H-I:£Wx.t'
t mti s „ siffiwa; *> ±j?h mil it a;&n t-# <
ai$l7li*i OBSL&i', gtSL765j£J$7)?SS
O 5 80x 1 O nm"□ 4.24x l0"3nm"
x 2 58x10 nm'A 5 20x i O^nm"
time/sec
M 3.4.2-6Time evolution of intensity of light scattered from 4C1S/PMMA =70/30 sample at 130°C.
±t)$ t)S-7S-f-B#,i5fCKyv-(77 ES¥ l± 4 . 40-50% "C* So X 0
4C1S/PSas-giMteEEroav>5MiSi!ratiiE,isnii, l,
m 3.4.2-? izm-txo
zn&stimwik t U:tg±-tZrf,
L£v>0 -e<0E, 5Md.e,S'fc±#k ifefr LT k- 7S, k-7
com$jits?6$:t±att7i±i$tA-tyv-affi#*§v>tik'to&MKfiie "t" So
e^-SMEESKJ: 0, JtOTti&tE W±7)i-o»T-li, EtEtJStrC'iS P4C1S
ir# < Kn 7 7"V 7 1- irBiSLTti *), y -t- 40Vt%S Z i:
*sl.i/'tb?iu>2o
4C1S/PS *-e t, k- y s -t ^sv>
m5tLTv>s„ ltH, k-y(omafigTisiasiciit:airw-ti-f. t/v-aw
WI k'ffiEMI HflEt S Ski) 4C1S/PMMA * k Sftt L T v > S o L t5'L * t)! *b, ±$d
X 9 l7SSL765i!EC)g||ffl%S<7)L^Z;li*S < %& 0 , $ Z2 4C1S/PS %T'li K n -y 7" V y
- 271 -
fit'll 6 i, cox-i> 6 o) i
0 57003
qX loVnrrf1
IZl 3.4.2-? Time evolution of intensity profile of light scattered from
4ClS/PMMA=70/30 sample at 130°C.
6o m£mnw.-A'b<nw»M.
lb h 2, o L^> L, lit sifts*l$roE$t-ESttt?»-rott-?littill-ti-f. SiliJ*6$&6MBT-S&v>0
t UzmttZWr
- 272 -
W^6o :t##^/< >(:ZcTf (7)^^%6^4:^6&R9#$fL6o
(3)
(4C1S/PS) (g3.4.2-8C^fj:9
?noxfk>&#<^&W?Knyyi/'7h&W(:U f
t- f;l/^ 2 <b LTV'6o Fig. 8(a)(DWL^gAJ^yo 7
6(D#&1:%LTV'6^ 2(7)Z ^ C63#
0
5 ' ' '□ O 42500s
• 23400s
b)
• □ 15600s° ■ 7400s□ A 4000s
■ • A 1100s• *8
»8d
V.
0 0.005 0.01q / nrti
lOjim
IH3.4.2-8: a) Time evolution of the intensity profile of light scattered from a 4C1S/PS (= 50/50)
mixture phase-separated at 130 °C. b) Domain structure of a 4C1S/PS (= 50/50) mixture at 130 °C
and 72 h. The brighter parts corresponds to the P4ClS-rich phase.
& v ^ j- U — '> 3 > £fro /*:<>
- 273 -
itzs EE'^e-S-EEroiS-S-, KE<7)SfTlc#v‘M<7)8*6E7)?S®t:
ZbiZ’&ffiit LX&ifbti&o WfE-C-li,
ibzoc7)#a-r-(ts5*^.0 tmtizmfimmmm <Kr,t)
Ginzburg-Landau^flS L/z)
^ = MV\-b¥+uV3-KV2V) (342.!)
r-$t= l, #mmwwa f o*US7Cft5ti/-:ESx, T, (Slr^v'T
§! = m(r)V;(-aW + f-V» (3.4.2.2)
E /i U, m(t) t a(t)l± M(t), b(t) £ j'S :'ji C' $M M,, />, TM o T (4
bn-aiE*5EE5tix-MS£i^jiTc-fksnt-E-l^i
r = (jK lbr)x, t = (K / MJy?) x ,V = {Jbrl u) </> (3.4.2-S)
'C'/E^ $ ft ^ o
ti(r) = ti(0) +
= 1
[l-a(0)]rTa
T<T,
T>T, (3.4.2-4)
m(r) = [m(0) -m(co)][l + y-J + m(oo)V v (3.4.2-S)
3r#x.6o
(a(0)=0.27)o^m##4%f4:^mv\ ^^(3.4.2-3)^256X256^Z^7C^^#f-±r^
g|3.4.2-9
y $ \tTa = lxl°6’ Te = lxl°6> Th = 2xl05, m(0)= 1, m(oo) = 1x10 ^ cig^L^o
- 274 -
KStUTOJ5ft, < ZZl:o}ii
<#BEA£®TS-££o b V v
Xxrvy K<7)8*8; v>k§tcgift,£,0 *W5ET*I±, cfttbroeitifrSi&tot: i:*
C t r-gfitt i i> -o X ¥m L 7 -2. ^ Srl&ft L !t o
Ah^ezKy-?—A/zh^ezf?y^—B <7)®Z$#B(7j|rB5fiyj/li A-B ZDyX#M-g-ff®SsiPI’J:l9®
Tt-SitttJX&feftfciirT-, #<rog|m to • SSfctoflroVjtSft-cv '5„ rroynyy-^a-S-f*
<7))SE3l)*tt*ro*zed<y-7-yixyKcoft^«6(Syf)ro5Sdlc6!<#-t-5fci(), ZuyKOISSS.
ES#S.SA>6i*ltLTiy><tC'Dtv, SBMy3C0^V'M/>*>feSiV'Sd>^ciXDXzd—
/<-^#6ft5. *tzKy7-/*td<y-7-yyyKlc&ef (m)
t<D#BEto«@Ti-66$*6ft5. Jtroaftas,
**©Az(i^z5^-eii*v'0 rrr-it, ^jxe>H^^zvyK^B^ro^jjaSJ®8b$5r8zy±if, rft
^roSHic^urrom, ##&iBam:AicZ6##to#t-#, as««#®-y^y—yay*tTi/\
-ttvroiiSMSrtfc^Lfc. ciftlciO, tttt^SlroicBA^SBcogl^ll-SroWSlbtttcov'TEii
-f-5„
(l)zXy-y>^/yyDdf-y-y(PDMS; Mw=10,600)tzKyTh7yf-/yyya^f--A/a:f'
yy(PTMDSE; Mw=i7, ooo)©ZyyK('3t-y=f-y>f-/y-yD^-y-y(ODMS; Mw=460)$rSia,
(2)^-y^x5"yy(OS; Mw=600), zyyyyz/yya=^Zy(ODMS; Mw=460)»7VyKiy zy
X^-yy-block-zKyyy^yyynA-y-yfPS-b-PDMS; Mw(PS)=5,700; Mw(PDMS)=4,200)ZZ
ay7#a-a-ft:Sr^PL7cfc®T'S)5„
g **)Baa^ (square-gradient theory: SGTjl'oV'Tli iyEfliSATOTSl'-ot'Tf±ii®cO
SGT SS62r3j$;9'3i^ilffiUc„ ZZWotom Icyv 'TliCiD SGT SSSjlc-Z/D
yX^l-S-ffroSBirjoiySiBBroSliSSrSkyAjxfCo ElSiro/^^y—^ u(#BSB
u=0;5&£BE|6] u=l)Sr^AbT]®Si]g 21
y=€/>/ = A/ + g*(j> + g„« + gaed2 + g„8<i> + gH<j>2 + g„<j)M + g„li2
ZCT, ±WtKyh(-)li«5H*)Ba)^*b. A/lii@*iJtD«3f i 6^/^*-, *6eiiirftfft#
ZyyKzXy-v-IMS:*t-„ u
- 276 -
~Jj* d ci££fj|^f4§J1 nra^ptIS£r!Kj(dynamic mean-field:DMF)COjpl£:£fflV 'T"C
ffoZZ -ZZBifcZ-olyT, sttit#*#
roTtSi/Vc„
«Tlcl6$j:#Si6^-f-0
/tiy-7—z^y-v—z^"yd""v—: %#%=#()
;h.Z#B3iZcoiS$ttfftt£0 5.4.2-10
zzi-, Tc iiizyd'-?—wbzjz
<6TZ5»\Tc Zf>«M
tajJOroeSltt$l$'|slCT<fcd„ 0 5.4.2-11
Zii SGT
<D##iiZy=f-7—'toZVyK
^co*#2tgto#flrit(7)llz)s#^<k-g:Z5J;
^&#zz(T-Tc j:ur) it^Zdcb-en
l±i$jraffllc($iE"(S#Ujv v SibzrrogsMiJ
SMJroam r#R86$j ^taz/zf-e, r*
B8SZi$J litSirZi*#!/ J®,
0.05
0.04
0.03
E
a
» ■__________ 1 180 90
T/°C
El 5.4.2-10 Temperature dependence of interfacial tensions for
PDMS/PTMDSE/ODMS.ODMS contents:
(•): 0wt% (□): 3wt%; (♦): 7wt%.
El 5.4.2-11 Temperature dependence of the interfacial tension calculated
by the square-gradient theory
ism (El 5.4.2-12)
/Ity-v—/zKy-v-
277 -
0.8
0.5 ■■ 0.08
additive ■ 0.075
-40 -30 -20 -10 0 10 20 30 40mish number
10 20 30 10
IE 5.4.2-12 Composition profiles calculated from (a)the square-gradient theory at <j>=0.1 and (b)the dynamic mean field calculation
at 8=0.0156, for the polymerA/polymerB /oligomerA system of N0=6,N1=1, and N2=191.
5.4.2-13, IE 5.4.2-14 SGT
DMF C2-C(7) SGTTWdfoKcZ^^f
6o SGT
0.025
0.015
0.005 -
mesh numbermesh number
IE 5.4.2-13 Composition profiles calculated from IE 5.4.2-14 Composition profiles calculated the square-gradient for the polymerA/polymerB from the dynamic mean field method for /A-b-B system of N0=100,N1=6, and N2=6 with the polymerA/polymerB/A-b-B system of(t>o=0.1% at 8=0.065. N0=100, Nj=6, and N2=6 with <(>0=0.25%
at 8=0.065.
- 278 -
1) T. Nose, T. Tanabe, Macromolecules, 30, 5457 (1997).
2) T. Nose, T. Tanabe, Polym. Preprint, Japan 47, 2702 (1998)
3) J.G.E.M. Fraaije, J.Chem.Phys. 99, 9202 (1993);R. Hasegawa, M. Doi,Macromolecules, 30, 3086
(1997)
3.4.3 turn
MbdKo^rogiS-tcol'-t, :'/a'sttW-k
(1) [yo V tI:j3it6 T'li, Ka
-ea. 7^x,
Eil LM^ntz^nm^r- 9 6-*fl L£„ -eLT, (3) re-g-ESttiEtBfl-iEK&it
pj T-li, f
coa A &-, >5 ilx-->3 >t:4 *) tytyMz-t&tz
i6io«5;;Ef»'i:So'<f(4)
E$AKEt?tv$toi]<7)a$J T-ti, ##
ISSrE^'gfttjSaaim t oJtgi; 4 *)#%?%##+#
tzQ
3.4.4 4-Erofi-BkSa-eiLetLcoEai:-Dviry.Tro4 -?
(i) aa-f<
¥fftt • < !K£o c) 7'U- > K^-94 + Z i> -otz
- 279 -
(2)
zubtixss-ee-
E6fg k & v > t & ti j$ o bfrco&wm-z-Z tmZixZo tiSroii*
#e^x.6zt?\ 7<F>M'mmwxzz0 $/_-,
ffi#«r'-7<D*flr£K3fe1~-£o
(3) Sifl-i^rolftE • EE
t"'CKf#rv>6Sfl-iLZSfl"^!-7'> > K <7)#B$^J ^<0 Z 7* n -y 7&S|-g"ft:it;£ t»6 i:
+ &Sft]«aSu Kw#B5S*if'-?£fflV'-C, M%SE
* -> 5 i lx - 7 - wEfsfttt 5- l-ff 7 o
- 280
3.5
#$#%
3.5.1 1± U-AtC.
®»T##U$*5ft^t4|gl±-e60i|iS)£v^ji(Ot9)i(:#WT*4„ -e2T\ ItiScWtl
&a*^-;b-t±6 C a 1:4 c-r. S146^b*H44
icotzibs • ##1kKi*v\ *-'j7-rn-f
cofg^StfMcoJ; 0#$^M#^K$gfLT#-CV'6o TO v-TTOcofi&lBiiSli,
5 7 n yx'r-)in-7 7 Dfa53-*^, 7 nfgy-gg&irco#*
») t/:6g/i3. TO n^*«*Bf?£r*(±, (l) a2 Mco A-B Sc0 7'n -y 7((A-B)„,(A-B)1,iI'a^)
KtittS 5 ^ nffi53-S6fc V7 j: ^ (2) A-B <%#»—##*
?)«#&% W4:f&Z,h/ABKT*3.
3.52 Bf%oAS5.TO*
(1) (A-B),,(A.B)/E'&m'D 5 7 n/v 7 a#-#-#$%#
A-B StOy-rn ■?J'M^#(A-B)ttISg«-4A t B 7l?f b3NS^T7$*S $ ft T V' -£ 4*
SHi >) , A-rich K7 7 > i B-rich K7 -! 7y)^f (OEgfg@% (f 7 7- HI/74-
JU) roffiTO (i 7nfg»®#jS) JMtJ. 4/2, am (AS»
omt»m a i ifftT-ttm * * 2 mm<o a-b (a & x v p) t /_-& ((a-b)„ / <a-b)
,,*) r*(±, iftniot, A.Birn-yjBoTO u j'nffl^i) fiit-e*<. «,
/3S*l-S-#;Hfl<7)E6lM^afl-# (,lWug2 0#6 i„ z<n x 7 &(a-b)
«/(A-B)^»:jtu, 5^AtceFfE^frbnrbi), atpn^mm 1 <, #
s^am^^i-ss-g-cpio-ck, #<<02 wagW4:g/t-cv'3 2-s0 *ef%T-
i±, :ro < , BiSi’ii4 o i /iwl^u tztiwt, SSEfkt:l
a, r-77 r< 7 ^«fltfiISL/;0
- 281
3.5.2-1 Sample Characterization
Mn Mw/Mn fps morphologyi-2000 1.2 X104 1.06 0.81 disorders-3000 1.3 X104 1.05 0.21 disorder
i%>(ps)-^v ^
(Pl)vyo V
mv^o
#(Mj,
PS#M(7)#:#^(fps),^
E3.5.2-1
i-2000 ^ s-3000 ^ t f fl
f'tUg.ft'Clt 30VlZ&l'X
160
0 5 10 15 20 25Time (hour)
IE 3.5.2-1 Thermal history of SAXS
####^T&cZ:oi-2000 h s-3000 & #lt 50:50 V "7-#^ 10wt.%
(0 1 IMiWrjp-VX b L/:o 2(7)Z 0 K LT#/:7i/> K#
M 3.5.2-1 hZTf.t x i &^JtEE£7W:K m°C£X*(D&U&^&tfZ>
(a)150O^^5O/hour(7)lgJ^-C#^LX:^y'/;l/, j3ZCf, (b)150O"C3
7 - - 71/ L 0O(7)7X2K^^% C T#^ L /z-4- > 7;1/, ^ 6 f ^fT
mu, izgmgii:t%<^A(os04)t:zi9#&#, im
3.5.2-2(a) t:i-2000, Pig. 2(b) t: s-3000 (D40O«k 120"Ct:j3tf6WL@#^^to
&@#Cj3V'"C i) 7n — K£ 1 tfrb, i-2000 t s-3000 It,
#Ci-2000/s-3000=50/50 7L/;/K#$S^:oV'T#/<6o gl
3.5.2-3(a)C7P^fL6Zol: 1500^6 i30O(D7&m%@"e(±,
#|*H:SAXS"C#1
- 282 -
Inte
nsity
10 ' (
e /nm
) In
tens
ity (e
/nm )
• 120°CA 120°C
(a) i-2000 (b) s-3000
q (nm ) q (nm )0 3.5.2 2 SAXS profiles of i-2000 and s-3000
O 150°C A 145°C V 140°C ♦ 130°C
0.20 0.300.20 0.30
q (nm" ) q (nm" )
0 3.5.2-3 Changes in scattered intensity of blend with temperature
- 283 -
ac<E I: Z -oT, a SI
#x.6ti6o —El 3.5.2-3(b)l:^^tiaZ9 ( & < I: sot^T)
$6I:C<7)^(± TEM CZam^t-^Lto
El 3.5.2-4(a)(:^$fia Z 9 I:,i-2000/s-3000=50/50 Y1% > K^r 150%:^^ 0"C^#^L^
#^#(D TEM #^I:Z ^ a $^#"fa i-2000 <E s-3000
ftu:#u c^y^ype isor^
T 5"C/hour (Dimr## LtK#H-d'Wi, ^26 ^\: 5
(±f5o -cwa 6 (7)(D, # 6 L, 0 Pig. 4(b)
C/p $ tia=fc;) ^ty y—co ^ $ u ($ tz it
I:ZcT^&!)^tLTV^o%cT, C(7)^"C(d:, 150t:#i&(7)^#^"e(i,
i-2000 ^ s-3000 7&J^(7)1g:TI:Z 0, PS yny ?
t PI yn y m<Dftt}tfM-k-t& <btUcx i-2000 t S-3000 oTV'fzEMMti
m#mm^a^imi:i^^^ ^v^%m^-^-cv^a^#x.^tLao
El 3.5.2-4 TEM images of blend, (a) quenched sample and (b) slowly-cooled sample
(2)A-B (7)#^—(D##
Sv4:#tS#^A,B ^'6ma A-Byo y
< T >#i#^#^:i-ao t;Pd;ai/-(iA^ B
(:##U 7^9, vV>y-, Leibler
- 284 -
Relative Intensity (a.u.)
COcocn
GOOrtoOr
GO
8 fo d|iall CD CD Oii!
ODD0(0 oQ Da CD̂
>&
—»d 5-
SIII3 Q
IICD c75n
OoV
LLln
s tixv> & „ li *wbts&r>««i± $ tm b n *t>„ -5-n x%
ZSAZW7 ( i 7 n K7 4 ydE?to|6]3i?-tt^liiiS) * It# * ic%$6 8 *#£##
6 2 I: t:Z 0 , C(0K###6#&L/z.
$V>/.:lt#ti, Z 'J X Z U > Z 'J 1- V 7" Z > (PS-PI) 7 7'□ y >.f'j7-z*7 „ a
¥*b5H-* Mn=43900, Mw/M„=1.02 (M, liSBTMjZzZ:) T * 0 , PS -7) fi.“;!±
0.204 ?&6o Kfl-^ro5 7n K7 Z (SAXS) SCTSgUj, It
##$4= K±Elt#S-5Et*U X5T lSOrcTigil • K^-eLtetrE, #@I:«LA.
CT 1 'kTL^X^S^dj^s (PSPC) t 2 Sk7C<S>f£tiji£ff (ImagingPlate; IP)
Ittic iiei±*$#ffl»;TTffv\ ftbtifzr-?-r.imt'rtbtL&m*(ntmZMl
tZo
H 3.5.2-5 It PSPC *fflv>rilSVt:«4-^z£$t:jolt-Ei SAXS 7"n y y -)UT&&0 ii
SliPtSiafSIcrff-Qtto 157.7tWZTLL 7'n- K£ 1 '-kfcf-7A'fiSf?nb-Qh 0. 7 n K7 Z > OflS!: #Z bfi-Ex, 138.2
liszTcm,
frL'5t* (BCC) t§Z*aAA$*#Z >0 17^ 99tW
T«7D7-f-)K1i, Slkt:-7 7)pt7l$V3, V4, V? , V9 ....tOJ: 7 t-SILL.
LA-> V 7 nw-f z#ai:%fkLAZ t ^#$LTv»6.
■> V >r-z«fflroesi±, EffffilXZ-Z j: S®*S«laESci|S$T- kM&bhtzo
now It'S') 7 Z- ^#.##@711C t 6 (#7)4# 1 ft A CD (:# L x 120X1-ei±<oI<,KSI$ ft
iil'o/;, 3*tt5 7D K7 X 7 L®S!fflfflfln5J& < £ o A A«6 <t #x. <bft£„ 110
120‘Cco^r*, ->V 7Z-Zf*«e#&f £ SAXS Zi OPSBZ'iJSLAl: A7>, #iS>
P$aa@r#i: 114.7 116.TOnnx-M'k^-7z>eEXi$E<blS£$7)?»SE.£ft. wf
7 -> 7. I± ti t A t*#4 L * v' Z t o A o
XfPP/4 7 7"7 7PB^(7)ffiEftffl^'7 7 -9- X i: t7)?ia
P>ftTi>iZ fiJ$_h#tcff7 z;l/*n-y-o$fl:li> Leibler LA^'fti 5611641:
$ A, ->v > Z-Z$*<7)e#S$i:jolt7 xN (N l±7-D v 7 Z 0 z-oS-g-Jt)
<7)ttl± 27.6 Leibler #?#i#25.6 i: S.v>-S:£5j7 LA„
a-i-rn !t#t-XS4i-4 X«e-Aco*S $ £ 0
ISMC/JnS < , t)>-dS4-A^[6]4-|S]V'TV>6„
- 286 -
119.6°C (BCC-Sphere)
111,8°C (Hex-Cylinder)
V”v«s&i
(a) (b)
' "**> ' 7
(C) (d)
M 3.S.2-6 2D SAXS patterns (contour patterns composed of isointensity lines) from the samples having a large grain structure. Each pattern was obtained in the order of (a) to (d) two hours after attaining each temperature, (a) and (c) are the patterns taken at 119.8 K, while (b) and (d) are those taken at 111.8 K.
thzx h , f n 'i Z>0
- 287 -
*|6jy3Xi$SyASyi3l i Kttf4*«#Lrilg4-ffoZj0 m 3.5.2-7(a)i3 3«£#-c
iistffo/^ SAXS wr^TGtteU'' ? - x 4-Tjtto 1 ■Xe'-yox.-Ky H±6 mm 1 & o
■tjj 19 . S<r)\i>s 1 > y 377f5A77i6]ft 30 J$"f ftT 6 Ultt^T'ESS
tir jb-1). 3.5.2-3(a)y»#AEIft$-M i t:x v x
bxB.rfx<tt2tixi'i,imr‘&6zttit»frz>o ameimm?
*3 12ir (tefMZi>ib+5'C) (CE’ffcS-ltZZo 3(7)1 #^#3ftX%a/<y-xyFigure
3(b)T-*3„ im'cxx^t£^xttffrfrh0 bcc t&T-fc [l
i i] 6ta###y*33iy3. c<7)*|6]cx#$zisxstLrv>^im-e
*3„ U±<n&Mfrh' XV xy-li#V7l@](:A-*$ft7$*Bl&L. [1 1 1 ] 77|6]U36^
Zt-AmbfrkK-itZo
3.5.3 m#
(1) (A-B).,(A.B),,^e^<Z) 5 y n/-?y nfag-fflfc#IWSF^T-tl, < . «i!1^43fl/>-(77l/>y7n-;}'J
m-&*« 1 /? <7)?IgrMJ K£v>T. se^-fkic 13. r-7^a*»*^**Kcez3K#j
tS'3 r 5 y n tg53-#*''«$6<l ice 3 3 tt.@J ^<7)Sff^ESLZ:o ^<Z>IS*. XftXXl
V v y X > ro ^ T ti ffifi 17 & ft l!Jf WiS -f (i & M ;b 3 f. 15013 ttffi C> iSfitltii -e •*
v7D|»#|2i!, S$cofiTftffv\ ES6^ffi»#to#S?fl5ft, Kfys?iS"3U
|6)ft|ti]Ziy hvy$I^A563 oTV>3 3 tyi,V'aj$ftZ;0
(2) a-b tmie^Mv'-eoR#
y n K y X >f|iiZi'3XSf&^PSrlfrtr X V X y-tR 5 X n
kx -t x t#is^s nJiiiN ft ties * y 3 x y x > 1- v y x > x y □ y y^s-g-ffrofges
ro«#4-. i#%i:i vx#&ywx*•? hxisaa»e-i
+ 33 HU VfPfflLXo -f-cote*. 3(7)fflliiSSfS:T-l±y X11 x #£ 1t§+<7)E|6]iS?«
#5ft3 gvy 3g. xv xy-yu jory y □ k x i1 xSil^y
liSl±, XV xy-y#X0]l:»*gft#g#mL. [l l 1 ] 7jf6ji:j6,K3 itci v$to
5 y □ K X V xISjgyfiM S ft3 3 1tfm 3 + 1 * O tzo
- 289 -
3.5.4 4-?£i7)ltli t ES(1) (A-B)„,(A-B),Jig-&*<7) 5 ? U/-7 ? ntt-s-ties
(A-B)„,(A-B),,m&MicjoV'Tli. «v ? nib frt- StitziiK 4-Eli,
■?- 5 y -eoZrAK. 1/-
f 4 i- Z -y ^xcottil^ffV'^V'i: *X.TV>^,„
(2) A-B (0##
? n Hy 4 S-|Itr-> U > i 5□ -T >nJSfitl(CSS—ttlfffiliSV7‘U>y'7'n 7 X##
A-#t:j3wT. $Zf, -E-rofBKfMS
Sro#|1)l±B8^Ti±»v»0 f z-p.
@"C$)3o
290 -
3.6
®a $
3.6.1 litfelC
«P%»*T:+&eEBE-T5%^'A'V#fPdE*lc|l. UiL
n*. m^Acoturnttf * mc irtttsutes a
TS^iS-v'«roigii)Sr$a^-5e:tia^fflv'6nri'5„
tofftta. gptj. Doi-Edwards $8*53:0 Pearson-Helfand $811. E«jb’J:0a8«
d¥tt®$d*£#ttlf¥Rdi|2Ht;£:£'ttW$fejf-f-5;4s. $*690llS$'e6r*vifcz)s
#<astirs:7t„ rropBmsr*gt-i57tto, m&«Ke#+%ai:*5v \-cti. # @ *tamf
- ro i= dig a ii. tftpKtossufcEdiiiijirxtLT. *-7tocoa*^ax5„ #^d#
$11. $ISA|@r (constraint release; CR) fcl$)2lljl5il:l6j:EA56'(Sld^:S,$i$|l)"Cfc5o
(%$Cd CR MHSft 11118 Rouse 8r*5i:#x:BiLrSzt^. *t1Cl5SW«£5t
#%#Wd@$, # Rouse tttofilSgSilTVS. )*7t, SEcOgbSll, SHl*j5rEi'!i"f'5
S#Rfl$f4S:ii3)0 (ftffift) L /- ffi 0 i: iff t? ,< > Ig All TE fill (ft ty IB 'IK (dynamic tube dilation;
DTD) T-fc5„ DTD iiS-CIl, /^tMeco^^h>i;^y^h^m'Sm!S‘0^~M^ltC
tmm p l-ilfBEVEfbL. ^d$s$. V p £'ilEfn-tdo ZdDTD i@8il.
Bg*il&^dffifPfi@<tLT, Sitdj£®ff$a(tci;tll*Milner.McLeish $8) 11*
*iA*llTV'5„
LtoUe^. Zlt6d%##$ad#mtLTIlK#%l:*-f6f #
hrf—t'dttiKtbtf fettled^!5. DTD ig@8dt,d£SmLt:Mil/,i:V\ $810111'. ft
Sibnffnll-y-cUc'IS^-s-t tp^ilUjLTV '-M'ifozWl, $Bj!d**»^ET§
fc„ $0% a
*$Mt(5B7$%{k$trCd5Z6$#@ L. ZE6dm^l:t:^i"6C6-C DTD
Bit
3.6.2
(1) DTD 8@ i: is it -5tt5¥tt«fnPg K i: BTOlftMScd Mfii
StEd^d Aiaffift#+4 Gauss lEd*B#rjD6i:tiit5Sftfttti
i±. ifid^SPal^* t ;p R(t) 5rftv>r
- 291 -
(3.6.2.1)®(t) = (Na2)"1 <R(t) • R(0)>
z z-e, Nliift—ai±ttA-S-v>-fcy> > t-ro-y-
-TX (= r**4„ i£, lilq i±, &
KtO^SKK? h A' R„(t) (a = 1-q) £rfflt>T
®(t) = (qNaa2) '■ ZOJ) <R„(t) • R„(0)> (3.6.2.2)
fcSSft&o * (3.6.2.1), (3.6.2.2) ^ b ^ <o il'tt i. n C. A Sitfi R(t). R„(t) COE
ft (m6#1 75?e^5EicE««fDtsi-„ mttmm (dtd) sfs-e-^Hco-eii.
•2.75s R(t), R„(t) dEftlia C^v>(OT% IS
sp*>. dtd aetiittjLr, wr
DTD iafiT-V'<o;)>(7)|SA-S-v>-tr^^ > }■ tfWMItt 2> t.
swi<osr^/j,-L.
g^t, n(t) = G(t)/GN(G(t) l±E«SiJi4¥.
gnitjsSA-e-v^iBgiswtt*) tmnmnmw. ®w
LT, q(t) £ 4>(t) <7)fMtoES<oSlff^ffv> 1)a, DTD iifilctilt
SWIM-P <7)111*5 j: (XSSSlro n(t) h <p(t) <7)M<*
n(t) = [0(t)]d (d = 1-1.3) (3.6.2.3)
4-SW-o 4/c. 7l/>FIi:ov>t(). ttA-g-KlSlv h ') ? x tpcoSSSfl-f-*:
ESMfi- <7‘u--7) n n2(t) t <t>2(t) <7)M#
g2 (t) = [n,.m(t)],,2<t>2 (t) (3.6.2.4)
i-SttiLz-»„ nlm(t) iiv h >j ^^#»a^<7)af&fta^e*fnMa*E+o
7k *5. ^ (3.6.2.3), (3.6.2.4) li. §1 <7) ??F S OSMS S’ ®5e t h Z. t & < q(t) h
O(t) <7)%#MES<7)##^'G#G*l/2 t<7)T\ EEfl<7) time scale 14
«mtz > btf¥$Hktz) m-friz-teMiz&LztzMttv&Zo
(2) *®t—4^011:g;*54:U<##
*SM a se-c%e '>x-**v t 77>> (Pi) iwistirffli.',
t4*5X {/IfiWBIjEi'lf -itZo %bMztG* &#*###* e” i:oi>T.
S (3.6.2.3). (3.6.2.4) t)!)$21 -6 <h" 7 z)' 4: M-4 A-0 (G*. e” li g(t), O(t) <7)
Fourier E)&T“4* X. btl Za )
- 292 -
0 3.6.2-1 oe^Dli, 14 75 (M/Me=28) <7)i#9-|6:SE PI titz
e”r-?t6ZV G”r-? %7jit0 e"-7-t> Z&iWJB.t&MW,*'*? (0#A
m 6-fflt'Tx A (S.6.2.3) ii'b DTD SflKtilt-E. G”*lf*LZ:, *<Dlfc?ki%%k
-Clp-to ^ rottse t r- ? (□) liiiir-ifc L. DTD
(S.6.2.3) Z)S'Z)>& t) ft< SiLTl'S i ttf-bi'he (M/Me=10,
19) l: o V > T & 0#Ote%7)?{* ^ tl Zz0
±iewis*i±, c t
£" 7F"t"o $ WZ. E^Z^tZibZ; -& (CR; constraint release) <Z)B#/Ei& t (Kl-ln
EliBl^EWiZfti'o Zz reptation 3rtf o T t cr>X“l& tz < .
Viovy b Z?# X Zz £ 9 IZ > B® ® 41 TiS f, t t' £ MIS® IZ ifi o Zz 3® £ L T V > £ i
fc^ltSZlZzo 2>
z£otoo
u>
*cu00o
M = 140 x 103
log (co/s*1)
m 3.6.2-1 Normalized viscoelastic and dielectric losses G”/GN and e ”/ A e
of a monodisperse bulk PI system with M=140X 103 at 0°C.
^ DTD##j:0im<, ^ (S.6.2.3) (g]3.6.2-2) o
- 293 -
log G
*/G
n, lo
g e'V
Ae
£ o
° / □ GVGn» ------ ■
log (coaVs-1)
HI 3.6.2-2 Normalized viscoelastic and dielectric losses G”/Gn and e’VAe of
a monodisperse 6-arm star PI chains with Ma as indicated. Thick
solid and dashed curves indicate G’/GN and G”/GN calculated form the
dielectric spectra (dotted curve) through the DTD relationship
eq.(3.6.2.3)
- 294 -
DTD ^ (3.G.2.4) (|g
3.6.23) o CR
(±7^:##LTV'&(7)'rit (3.6.2.4) DTD
(S.6.2.3) ^]ZL
$G1:, CR##^±#<^LTv^62
^ Z0±#^ &#^mm#ccwTWG&DTD0#m%]%f
M2 (PI) = 48.8 x 103 Mi (PB) = 9.24 x 103
log (cobt/s-1)
El 3.6.2-3 Normalized viscoelastic moduli G2*/GN2 of dilute PI probe (M2=48.8X 103)
in an entangling matrix of linear PB chains. Solid and dotted curves
indicate G’2/G2N and G”2/GN2 of the dilute probe PI calculated from
the dielectric spectra through the DTD relationship eq. (2.3.6.4)
- 295 -
3.6.3
a) a ii(t)
<D(t) LT. II® fa CO time scale !:##"#-& f /■
y Y rfW-ffiikt Z) *^ici±§I<oai()#Si-ffif>*c>-te»M«^'saa;1-^„ ip.
fi-ffcEE& -t vsaii tzo v> TI f n(t) = [0(t)]d (d = 1-1.3) £&•)> ISA-g-t'V
h V ?xcpcoSSffi^lEE (7’u-7) tz-ovrit n2 (t) = [nlm(t)]1/2 <U(t)
(ii,,m i±v i') ?y&fttik&nmmmmmrm) t%z0
(2) #»#EE<oKN%7'-9 k if*x- 9 iz-yi^x0 A <
U EEfncO time scale Sfl-tScSaE £ SsH
S53-^-S:7"D-7'icov>rii. ZcoM#7)%E-t(-f, ipfti&ffBiRliigc-o rv>
ifcv>z lt7)57Fii$5n-£.„ ZfflfiSll. IWSttA-S-v-fe > h^'VElfcLre^
#$+&mcO#i@@k ^6 CR iH6dSStt*7jt-ffS$T%-B„
3.6.4 4-^toH-eirtoH
Mfii£EE, sa*lz-0V'TltEL/co EE/SSET-
u>K*, WaE^^toctD-Sxto^^lcov'r. ;P4.
l®izB$Lrv'5z)\Yo/i>£1£EU ^coSMSr^^x-T. CR iS®co®St4*
#icma-#ac7)^%Eco?• -f -r 19 x &ei$f PlBflz. ^(D##copg#ir%67)4:t& C t ^ , WfSaizW®
i@fM6*a^iAtfCd)Pg#^im6*4:-f6C):l±. Ito-g-vEW d'd-57x»0Ei$*»Slt:-t5IS(Ofi$*l$JU-e*,5„ ez)S||ISlzlB5SUTt'5^>i:"o^^S
cwamd)#RKic#LT*#<M#i-6tco6%!#$ft6. 1 2 3
1) Y. Matsumiya, H. Watanabe, and K. Osaki,Macromolecules 33,2,499(2000)
2) H. Watanabe, Y. Matsumiya, and K. Osaki,./. Polym. Sci. part B Polym. Phys.
in press
3) H. Watanabe, Prog. Polym. Sci. 24, 9, 1253 (1999)
296 -
s i $
(it)
¥1$ 11 ¥$l±, jB-§-m$BF%$lSlcj3v>ri±. #Sn&Hx ff$K5fc*-£ v'liWSS
SifiSliS-e*&&7- * >?• {ni—y'nrsmvmiKfi< J: t ic|£H L5
-J t:<,urntocigBdii»)cast-e,zk7)?r-§z^„ imifiaot, mn&mv
c it & Mm *, *7'n-y^ ^ i-xcoMs •
it, gk, mitmmix
I'ZZt Sr}Ear*|;*S*T-*oZ:„
4-11: i - n b <n is.£ i;4> LW(&£4-f4t'T v> £ tz v>„
S2S r)-*y'f'f)\'-7(Dmi&ViU
2.i wgi mmt md)
m#*# i#m; i$*i?-
WGl 4 AC*
(1) *fLi'-t-T'^coilJniSii^zflfflmdx>v>o&1
%
(2)
(3) i f n
(4) WB^tL^O 1/1 n ->'-^ill j: x fl-KM'xdffi®
iSft MDi^y> COGNAC <7)|$g+i:S$g|59-<7)5|EI±5cT LT £
*K ±E(l)c0gtol±jiti£5tLTV'4 „ &6. • iSM^'E^tri riL atn/'-ya^Tt,
^£-%f±.£^ts%m.m<07 >if>7>us ftffist (? — n y) f *) iffiftw-y 5
o.u-v3>*t\ #<ro®ig6jtorv>5„ zbizgn^mm'ta^r^mmnmtu;
icss'k^ ki± cognac <7)e*o#sr-*t). f
^ o
(2)l-ov'Tli, $S6 4o(7)|$Hl:oviT@]:$5* jo^^oTv>2,0 /_-4 x.l£Li 4 * >®?&
PEO tp<0 Li 4 4->W3ft;|§:^!C09>T*rU>&£H#£&i\ HI*
- 299 -
t:j$$£±tfTV>.E>„ COGNAC 0, fz
-eg 0 (:#• < coaseF^fftofts^ t 6.
(3) i±X- i y 0, S6 nCB
2 o(c-3V>r, TOft^rOMOfMfczty^ ?<e>ftjiifc£)I»6-Co>&„ @4X»#Rl:gpL
v't)s, tUMro#M<7)$f*te|6]itrSA-ev>40
(4) leov-eii, y>o5fii:i D, IE#-*$(%»)-f D • -#
ili^tny-ro^ilir*pjffiI:^c/_-„ ffl u 6iSiB-iilfSJsmT)5^
v>zti&o d<Dmmzmifzj>K znm&n
1 oi±ft®B#rf5te£> •), ffitojgft t LT##T"-f <ei!K#t:RW?W'o/:Z t
fl-tt Mt:ov>t i±$t^ > -y xeieigiSito S-ff o rt),
6^&?S-e&6. Lrt'U g W::t##WW'6Z a [email protected]&/:A. J: D ®-g(c
IS$<Of*on4§rLv^T;HcS-3'v>Z:JLy-y y y a y tgfi%U
ESM<t)T t)StiiK-ov>-ei±B.ff&’B%£f#Tv-60
2.2 WG2 (#%?%#)
%*#*#
(i) s i
*¥$BtSh LX\
1) »ncott#*?iw&m (#E)
2) -7- • t ny-
4) cartesian
5) Irregular mesh (Delaunay)
zftfboEHdi ESI) 5.1/2) t:MLTl±E5£^'lS
U a 6 WS-e # 6 # < 0 It/2. EH 3) UMLTIi, IISWG4
*%e%l:ffw-o-3*6o EH 4 ) CMLTIi. EzfUI ±r-^S7)='SA
T-Jb'D, »« • fStti i.^> j; 7 lc&o/_-„ $72 EH 5)
300 -
tcMLTli. WG 3 <kil#LTa»rv>^z)?, 1
Ztib<D itSDigiJlA *¥$!±, SfEffl-y 5 a. V-9 iftfcLtzZ. tiib Bl^E^ifSHliJKt'&Zi'oZiA# 1 otiJo
(2) v <-toM9-Tltog6
1)
-#tt>wi*ggi±, $mit»j-uti^bU6(i¥^t:x-atb v-tmmitmt ZZtlZdh&o ;®yUl/-y3>fftt:ov>tli, IBEdi/UB y i
SSAT-* »), 70 V ^##^-#(7); L^:. ffy?^
lx — ^ (7) f£fj| £ ^7 o T V' .£> 0
(3) «BBB<7)|tS#?i<7)g|% (8E)
1)
2) l/tn-7- (Doi-Edwards) ^iidSX
3) *"V-7-»ax^T*<7)ffifl-$
4) HM •
#igaa»fz&#%#*y<k-hi-ztzKxDjrm&zmzi. xj
b-->3 yizxitt-cD^tmtmfrtot: (usd „ s-biz, m*a*f
B y 5 i U - y 3 > i: (, l$a l /: (ISS3) c lx*n-y-c> «t
i (ISS2, 4) KMLTti,
*¥EtiF*A*-fE<o#i6ir-fl:*6ii«)6:P6r*s0
(4) E6l$effi»SI<7)ltS*SciM% («S)
1) Cahn-Hi 1 lard? -f 7>*@Sl:fk*KE'£IR b ADS*i£<7)g§%
2) ES«atfuff^sflx?.jkD, s®$Effc*iR0xnsTraroiigfS
$E$S%<7)Sry uv-zii, Egi:z ama-f 7-^f {'f a-TcoEfki: 6%
izm$kimtrf&£nrm0 nmtizKfcmMcogAit^m-mv^5Et> Hj6()Ilziijti|Z:ltt:''fc < x Ginzburg-Landau fcfifffl LiZi?G *
- 301 -
#$69% y 5 i u--> a y*fi-)i^T-*4„
(5) K»T-S#®<7)|t**'S<7)ffl%
1) -ff y@(0%#(0#A
2) -f t yttiSE-Sfl-^-EWKMcoiSI)
3) 1169 •
Sfl-f-SSSlcM LTiteL, ai$<05K5|4-i|i<>r # ^t)s\ L"S
W:#mM-B^.g^*B. #¥$ttP4, v < a. y- ^7)#*i:|6]itTf$#&mABT
5eT'£>B0
(6) 7’n y j- 3*"V v-<7)ffii|cottS^i£cor»1%
1) S46ES^(7)$SM»tfIJffl 1"-B %■'$ (MatsenO*&)
BcoRgUzMiSLTIjy
->5^ly- l--fB7Li»<7)^y£i: LT, gffig%ro»«lftMI6:U£ -E,®MO#t£^#
5. 'srizX-iKo 3^7cEX*1**(cov>rc07-']18S
4-ffl v> 4 *■£ *> |5)#t:^ST3T6gT** B tiL zniiM#S -> 5 a L - ? ogrlfS L * ft
LT#X.Tk0§*V'o
2.3 WG3
*WG LTg*669tc|l«6Rfl-si • R£-f B Delaunay »
ycoM^Bim*&mAB Bio zflffl? 9X 7 4 7*5 V-oElfSGHSJSI^frV',
txy->*xozfifflft*-®!*LtBMI§^3»*b;i„ Mt:m%L/L?9
X7 4 7*7 'J - ^i.JU8:r. yy y co n y ;y y h :M 7°i: LT 2 ooii-o/xpg
@ro-> $ JL L-y^##69l:*a^-tBy 5 i L-3’WM%tZ*^1-BB tX-h-otZo
*ifSlcBPL. ->5 iU-?ia<9iS«T>S^fc*Bg|Snap<7)»fftlStt*lTV\ ilKff-y
i 7L y--y 3 yffl^7X9x'7'7'J-»<73MISlx£jS'r£#\ HELtL, IEu. ->< j.y-
?C0HSL LTffiAB /-ft5 yUWi'3 yT»#69*Rf ^
UXi->'i-)Ki nTiffii:;wX7X7l'7,7,)-ff^Il>T fLI/T
- 302 -
iRiSZtlfztol'ffc't T'.JG 4 fli v >, Lagragian-Eu 1 erian fSfiKV Euler j: -StflSEXife
5 i 4-4<7)3!£3l4ifo/,;0 Mfti:, fiSfS^-T-O 3 >k TctroiS^rSfl-rS^m, IfSKSffi.
i i U- 9 iVtl&Ltzo 4 /xH*-SB*ffl-CSiiSt4 ->u^? <7)5fe|glt t Sgj£ L£o
7-f M3-ri >?'Ml!t:-l4i}i<t LT, fMXtM, ##*#, ->;yLl^-->3>
^r£«i*£t, -en^fflvV,: WG3 ?7X{-flV>/;y^aU-ya > 7"n y 7 A <7)gJ%T-iib
1) > JftSKKiELfcJ: 7 1:a 4#g LX 2 ^7C(0#Rg#&y a y 7 A 4f$
ist/io ->sii--->s>coe*i±-^aittcj;*te*i:av'-ict^L7i:o *k»i*
7"n-tX'xcoaffll:.£.$^igS15lh-E-tU:ff i^SlCiSXICoV'TtilM^M^T-ife-Bo
y;i/<7)X''f X i j'XMilyil, FSAffiK* 77°'J >y-eyyj
izxi>r^-> i fy###4f&Et &c tr*o, •>i
jiV-xroSyFeiifl-ciSEj:, X 7 h 7-4*EE»^yyT-|±S$"eS4
7)> o x sttoEKrosis i: r< t> ^ y vusEroiia $• h$ lst u > y t y $ «t -> 5 ^ u
-->3 >i£ot£E4 LXo t® •) AEfcS»Ry;K
TFttj-y * t" i;itlisK-e § * t)> o * [*i# t; o v > r iiw g fi t-r * 0
s^H^^rofflHitwiwaiaii-rii, #R^5A:+#4**L,$ 4 § ti k U yi%#4 46 WG3 4 7 7.±(7)7 f -> K4^tr Adaptive
Meshing Method ffroSfit, J flfl-OgfS. 5 j. lz-5'0{M4ff 7
#(0##mm^(0%#@|5»(7)##4iToXo 4X-lcT)JL>y>-ett*5
2.4 wg4
(it) eb« %#
#E##(d< V xty k L. #&7 >ys-4ESL.
H&ttCMtsaJL ±iim£Vcoll$jSlj4;S$A f m***+4?@3 0 !:*&-£3 tkUz, & Z k.tf-e£tzo
- 303 -
2.5WG5 (,-fy-y \-7t--U)
s«igr-7v-ci python ^77
1- 7 * - A (OjeftSIS i: LTEA5:*, x^-t 71/(77-7 7 nco J; 7 £!®:stT\ ISSiH/T^SS
*03DSSitWiJ->^fi.i*il, UDF f#3c4*LT WG1-WG3 »i>y
ycoxmijr-fi-fy 7 h 7*-x<7)t-7'X-xi-(ml1
4frv\ f *IC Windows 95/98/NT do J: Vs Linux T-roebfEi&B 4ff
v\ te//.* V1 OS "C Client/Server & •£> V'li Stand-alone flj4 4 7)ify0'C7) 147f7Itril- 7) {i$i
IS4-^7
304
3.1
'J'lllffirAof#&to#g|M%l:m#, *¥K l±± I- x - X x tofglgto Z: #> toils £ g to i: LA#
*„ Ctogtoti. * A IItSE® T A <o*S bb0 Is] afiis. SETt®#7 v >jt/A> X'^Ste, $ /c U * a -y - ilS<o v >o'#i , 3iS;$l±i6v>h#Arvi^0 CA^to&#
<0SHi±ti,TT**4 i:*ATv^„ ^ ti i T-fSi;* co X* a- LT § A
$mto± - *mf$&Ato*ma y x;\». 2) yoyx? i-i^tots-M^fwiij,
3) -/n-yj,X h j:coS-®^$#t: Jt-BeffElTAS-fe-tir, T"*5„
3.2
## #5
*m%to#$%to^B#w:. g»f##<ot/xy-;i/Tto#ma##&m^. yui/-->3 >izx i^S.SftsektojteHfo c i: A*S„ ittt
Rmfisse&§fa-ics%l. 19, g^sfftfT-tO'l't >f@iy S'IC-3V>rflF8B^5fflS.4-#"C. -> 5 J- ly-y 3 >|£* fc COlt©t ils
;A.4T*<oa«tow5Er*ii. z®a»stisses- urn a mm u
freglHM jb- J; U1'5 -bt:jgffl L, S»^-@ffeiSS^K^v>ri±i'* >eS<0»^-to
##(0#%(:&* L, 5 -t a*i;ov>r ii 7 x 7 - xsy y*K#(oma#amtoilSi:
JilhcolSSli, 8;* toV>Z:-f y l;14iis$<0$ L V>w?*tt6$i" <) <0r6 6„
S6, ^n<bAytittilSii£v>r«*t:ov>rs^tiise*&WfilU
y--> 3 >1$* j:toil:8t<oMtff oTV'^o
3.3
BB S
*9F%<ogtoi±, S#to6 c h l:*6. 2f
mnm^tizx •). 16 • • S»Tm<oSfl-iLtS$l--ov>r, -etoBSWisKItffiAto
xxto»f#l&##. y^>AS$lSfflttfct'tcov'r/4'^is®
totifR£}#£A tW&tzo #1:. iiSffl»$7)>i3tt5¥14ffl»SI'x<oeS-o¥tt7)i\ 5e®
- 305 -
to x-m b friz s s n/zWMtt± z v> t # a b tu>0
4~f^lix tt)$'IK'S:14<7)Bf?Lt-l'C>4r# LTV1 < f @T&60
3.4
t) 99 £> tWc & o T § /-.-(tESSto* t) %• • ^[bjicLtL^'oT.
SgsKEtc-Ex. -£ T-filtitXt »$T§ Z-o $ W:, BWSi Tic#L nr v1 ^HESS
*£fflv>T,*ji»¥^v5 iL-7 a >w«Eft**^«»Lt±v';UTT Lt7)sttI*7Lo
*¥$l-l±. MISS tv*-> 5 i L-A-coi 0$%M*#E{$#CAtv& t^L^^TV1
& o
3.5
R*li±#±#R]Z#W%# S^itin
*¥$i±. u) 2 a-b a</>yn7
((A-B) „,(A-B) ,,?££•*) £>£«*' (2) A-B b B b C A>rI-&* (A-B/C
?!•§•*) SrfflV'T, <An#»^L-7An[ffA<gfk#@ A)
V'H-s. y AA$-996ti4:y6CL^BMT*6. (A-B)„,(A-B)„E-6-^tcOV1 rti, -e-ro
6TL^'T#^:7)L f-ff < y AACMLTWS6^l:f 3C t
^TS&^oZ-rc, TtUi, (A-B)„ L(A-B).,d*"V Af L>L^V < V y 1/AOiEfiKitT)^
Lv>*a6, SAXS. *»gLT”l±3> I-7 A l-7)!07)>^V'LL(;J;^0 i<0iij£cr)*»6i;ii,
b'^bfri fcfc*-ffc+ & C L (: J: i) /LA ttif-ttiSl C J: * A -f T 5 7 A A * m^t 2> Z t tf&1S:X-&Z>tfri)''itZo A-B/C ?!£-** ov>TI±, 5 An • -7An#»#colH:T#g#
5r?IJe;i/:S*, AABfiS-®(Oy^y i yAAC^WTS-I^#*; A n%»*##
iat-t6j^Stl-E>^ti)Edo<L (t BCC latttice tlitfS. blZiZ, Long range order X
Z’ri'BftfrmiD&jgtf&ZiX^&ZttfWbib'l-ZtltzAK Z »)##(: Long
range order A)v A nif:g55'^EfSjS^'^^ISSI^5'd5L &V\ Long
range order dx(j$<7)&V1*T*-V -A-rS-g-^co-etl i: JtR-f-E> T L ^'U-o J: o X&&Z
b i)tt>i}'-3tz0
- 306 -
3.6
sa $
S*fiJfflLre:BBiiae^%^6til'^EL7t*¥Sro9F?Efiit$tt,
^ f 5 ? xcoi:#|l!(73#|*HC:fc
it £ie£E£fit«ft+ £ tilt £41 £ off 14 *&*.£■(,' ? 'ft 5 ?x£gtS •
L <£ t t ~t h Doi-Project <73 engine <055; i> kX9S5tL40 ^tUbtO||
6>6, *4j$<7)6F35 EWli+5t(;ilfi)cS^/it%x5o
- 307 -
(D E%56$-8i3t9F
tomffettn®ft'77yby*-MWRimm-immn mm# mm*
Interfacial Dynamics at Various Length Scales
Masao Doi Annual Meeting of the Swiss Group of Rheology "Rheology and Interfaces"
5,050
Modeling Mesoscopic Phase Separation Dynamics in Polymer Systems.
T. KawakatsuR. HasegawaM. Doi
GEGAM Workshop on "Mesoscopic Simulations of Complex Liquids" , Lyon , France May 17-19, 1999
5JJ 180
BailorIEB
7,080
The Self-consistent Field Theory for Semi- flexible Polymer Systems.
R. HasegawaT. Kawakatsu M. Doi
A NATO Advanced Studies Institute Meeting: Satellite of the 4th Liquid Matter Conference
7,080- 22 0
Stress-diffusion coupled dynamics in volume-phase transition process of Gels
T. YamaueT. TaniguchiM. Doi
A NATO Advanced Studies Institute Meeting: Satellite of the 4th Liquid Matter Conference
7,0 80-22 0
Effects of an electric field on dynamics of Binary fluid Mixtures
T. TaniguchiM. Doi
A NATO Advanced Studies Institute Meeting: Satellite of the 4th Liquid Matter Conference
7,080- 22 0
m-% £g*¥l:j8it5E»iS#W% ismogy*—
±# 3EJ§Si (HEm)
7,0 26 0
Dynamic Density Functional Approach to Phase Separation Dynamics of Polymer Systems.
T. KawakatsuR. HasegawaM. Doi
U.S.-Japan Bilateral Seminar "Undrestanding and Conquering Long Time Scales in Computer Simulaions", Hawaii, U.S.A., July 27-30, 1999
7,0 30 0
Molecular Dynamics Study of Polymer Melt Confined between Walls
Takeshi Aovagi,Tatsuya Shoji, Fumio Sawa, Hiroo Fukunaga,
Jun-ichi Takimoto
Masao Doi
International Workshop on Linking Different Length and Time Scales in (Macro-) Molecular Systems, Dresden, Germany, Sept. 20-25, 1999
9,0 20 0 - 25 0
- 311 -
mm# mm* mmsmPlatform for the multi-scale modeling Masao Doi International Workshop on
Linking Different Length and Time Scales in (Macro-) Molecular Systems, Dresden, Germany, Sept. 20-25, 1999
943 20 0 - 25 0
beb mm B E###^ S54[e]¥ 9^ 24 0 -27 0ee m&
#0 *,E EM EM
nCBmGay-Beme^T>y-Y/P(^{$h&«k#E
fa* B^^0SB^fMm^’99 :
ihj943 29 B-1043 1 0## ©Bj
Mb] #&# 5^#ii* r$— EM EM
ji# M# ®48Bi6tfH^8i£:*rg 1033 6 0-8 0
1043 6 0EM EM
tWi 54E y ^ ^ K (O W ffi 311 E ^ (7) $ij %)}m
%# #M 10^ 6 0 — 80%8k 3£3A
if*mm ¥#±# jEB
KMEHmKPflCiAto6h,fcSBSi^^—->g>"
#W fitl S480i6i*^WI66:ES 1043 60 - 80£h] mm
#
ME w— EM EMEE #m «48@i«4f^WI6S:E® 10^ 6 0 —
80#P *j£ EM EM
i T/PE^54E(D54%#ffisl *». S48@Si^l4Si6:SfS 1043 60 -
80## ©H]tsE# 5^#ME y$— EM EMmm mm 1043 60 -
80#0 ISEM EM
— ^^lx-C/g^(ZE6TEo—e
/p# E3#t 104) 6 0 — 80AE
EM EM
- 312 -
'SO
±7t jEB
*48@iWi^rtSS:SfB 10,71 6 0 —8 0
Parametrization of the Gay-Berne potential for nCB
Hiroo FukunaeaJun-ichi Takimoto
Takeshi Aoyagi Tatsuya Shoji Fumio Sawa Masao Doi
The 5th International Conference on Computational Physics (AiTO
1073110 - 130
Molecular Dynamics Study of Polyethylene oxide) containing Lil Salt
Fumio SawaJun-ichi Takimoto
Takeshi Aoyagi Hiroo Fukunaga Tatsuya Shoji Masao Doi
The 5th International Conference on Computational Physics (AzR)
10^ 110 - 130
Morphologies of multiphase polymer blend systems
Shinzi UrashitaT. Kawakatsu Masao Doi
The 5th International Conference on Computational Physics (AtR)
1073 11 0 - 130
Shrinking Process of Gels by Stress- Diffusion Coupled Dynamics
T. YamaueT. TaniguchiM. Doi
The 5th International Conference on Computational Physics
1073110 - 130
Simulation of Polymeric Material Fracture Akihiro KurodaTatusya Yamaue
Takashi Tagiguchi
Masao Doi
The 5th International Conference on Computational Physics (A^)
1073 11 0 - 130
mm±# jEH
S47Isly^hn>:—(*E)
1073 20 0 —22 0
—->ay 1£h]# amfmzk &m
±# iEB
(wm1073 20 0—22 0
Dynamic Density Functional Study of Structure of Thin Polymer Films
Fliroshi MoritaT. Kawakatsu Masao Doi
7th SPSJ InternationalPolymer Conference (##%)
1073 26 0 -29 0
7v<r>m.mWE jhr 1173 40
r%/j$^v5rry 1173 4 0
- 313 -
W'Mil mm# %m#0
<n&M b'ftwiLl-h iStil 111440
## 6h] 11H40
v':^ 3.1/ “ "> a X t <L <5 U y~ n i/-— ^ $ijfflllll
±# IE^§
111440
SHRINGKING DYNAMICS ANDPATTERNS OF GELS
T. YamaueT. TaniguchiM. Doi
Tohwa International Symposium on Statistical Physics ’99
111480-120
Simulation of Fracture of Polyneric Material A. KurodaT. YamaueT. TaniguchiM. Doi
Tohwa International Symposium on Statistical Physics ’99
111480 - 120
ELECTRO-RHEOLOGICAL EFFECTSOF BINARY FLUID MIXTURES
T. TaniguchiM. Doi
Tohwa International Symposium on Statistical Physics ’99
11H80-120
MEAN-FIELD STUDIES OF A TERNARY BLEND OF A BLOCK COPOLYMERAND HOMOPOLYMERS
H. KodamaS. Komura
Tohwa International Symposium on Statistical Physics ’99
111480 - 120
±# jHB S22laHl»#fc^WS&£:*«
1114100
#yy##(nWf i — y/% ## LU _b iStii 1214140
mm 1211140
lm7k 1211140
yyy-f yy/p&^Z6*&<%^v ^^^^.(D'y^zx-U—'>3yil m# urn ±#
Sl3[al 5)'Ey^L“V/3y 1211 160
—ysYuFm#0 ! ±* tE^ |
#ll[El B^MRS##yy^ yyAUiii#
1211 170
- 314
IS'iSIB ###
ais^yb-h# 1241 170
Eu411Oj± IStil 141240
14124 8
yyx>y—/i/'>^rLix—vg^^Ejv'-ytl'FtSSxE"h
## 1AA 141250
—yayllj>.#0±* lEH
#110 141270
±* IE%-A E
2^20
fj- % f4 ^ (- «fc a W4 is If (1 E'E $.'X* it tf <£> ^EE 5cr 28 100
Molecular dynamics simulation of 5CB molecules using a hybrid of Gay- berne/Lennard-Jones model
H. FukunagaJ. TakimotoT. AoyagiT. ShojiF. SawaM. Doi
Gordon Research Conference on Colloidal, Macromolecules & Polyelectrolyte Solutions (Ventura, CA, USA)
28 6 0-110
Density Functional Approach to Interfaces and Structures of Polymeric Materials.
H. KodamaT. Kawakatsu M. Doi
Gordon Research Conference on Colloidal, Macromolecules & Polyelectrolyte Solutions (Ventura, CA, USA)
28 6 0-110
Density Functional Approach to Interfaces and Structures of Polymeric Materials.
H. Kodama Third Annual University - Industry Workshop: Structure in nanocomposite materials and Neutron Applications (Taejon, Korea)
241 160- 170
## §h]1±h] iitfi
±4E IE^
%Wlra^ (±1%)34130
- 315 -
mm# mm*A molecular dynamics study of lithium ion motion in polyethylene oxide)
Fumio SawaT. AoyagiH. FukunagaT. ShojiJ. TakimotoM. Doi
18th General Conference of the Condensed Matter Division of the European Physical Society (Montreux, Switzerland)
3^ 13- 170
National Project on Polymer Simulation in Japan
M.Yoshida 18th General Conference of the Condensed Matter Division of the European Physical Society (Montreux, Switzerland)
3ij 13- 170
Self-consistent field theory on the polydispersity effects of polymer solutions between polymer-grafted walls
T. HondaT. IgarashiT. Kawakatsu M. Doi
219th ACS National Meeting, San Francsico, USA (March26-30, 2000)
3^290
Molecular Dynamics Simulation of Alkane Crystallization: Effect ofShort-Chain Branching
Tatsuya Shoji Takeshi Aoyagi H. Fukunaga Fumio SawaJ. Takimoto Masao DoiT. Igarashi.
219th ACS National Meeting, San Francsico, USA (March26-30, 2000)
3^26 0 - 30 0
%#%(*$#€)
mm# mm* & rntsc (m$m#m) miczapMMA^#^
tmmm # 5M 100
#-i$—
#0 f %mm m-
w—/JnUjSpA w
120
Molecular Dynamics Simulation of Crystalline Nucleation Induced by Shear Flow
Rvo Sakuvama 5J3 120Y. MasubuchiJ. TakimotoK. Koyama
Direct Observation of Crystallication under Shear Flow
K. Watanabe 5M 120Y. MasubuchiJ. TakimotoK. Koyama
- 316 -
3Gm0B
itottfcSMA#A mmmm m-itA r$— Alii ft A
0 *U-^-ny—#S$26¥ S(6S9
5/j 13 0
TY A/-?■—Wi% a <D u A n A— #t£ (r A. (£ #« 11 -<
sm##SE
BSH43
Btesea
8 AuAo^—#^#26A 5/1130
y-itwea£as##ttSroi>-f^E<mK4-X5WS
*fB m»wi3i mm
mm #-itA W— Alii MA
8 AuAn^—#^#26A 5/3130
i
4H«
1 1 -<«*£i
SSKD
SattiSS:©^
slewssas-B
-E0 AUAn>>—#^#26A 5M 13 0
S^M^rjA^iAAE&ASKYYyf^ A# it
mm #-i#A i$—A A if A
0 AW-nA—#^#26A 5T1 14 0
A!J^—A/K AL>3—y&AlHrtiioCDW
##:em v ^ER#*A
mm m%mm $mi&
SA EAA A if ABA ZEE(II SASA)
*48@ie^6¥#¥»:*6
(HV6SfflK66l:6»)5/1 28 0
PS/UHMW-PSAAyHW/Bi^##;#/:-
ItiASitfciWiti«#A#
mm #-itA i$—A ill if A
#5480* »6¥£¥»::te& (H66SHBS6t:6S)
5/3 28 B
SBS^#A(D-A/UI#'Z#'Aa##A(zjoA6ium#/o##
<a« i
i <tiEM
SaflE«BSE*a■w
eiiia
#480me6#^¥&^A
(B*6»HIS^®:6*)5/3 28 0
Dynamic viscoelasticity and uniaxial behavior of high-melt-strength polypropylene melts
M. SugimotoY. MasubuchiJ. TakimotoK. Koyama
THE POLYMER PROCESSING SOCIETY (PPS15) in DUTCH
633 2 0
- 317 -
3S*-s*SMS **«■mm fcn]#Amm #—iiA i$— /J-uU if A
A#(AlK)6,0 8 0
jn± m#
#A #i#mmitA W— d'lii if A
6,0 8 0
#m m mm Hgj#rWiE JE$mm m-
it A i$— /JnOj i#A
6,0 8 0
^!±T(C^(t6PP/GF%^##(7)mf5#$
*» ammmitA i$^ d^Uu if A
6,0 8 0
Maddock5}ifc fit n't4 hb £7) ^fit '>^ =*- H — # SE %# eg]Alii #A «**-6lS
6,0 9 0
3%^CAE(cj;6^yT^>y#^(7)yf^ i/1—i/3'y
A if PfA# #88 ^/lliS-tii 'B'lHf if A d^fU if A
6J3 100
d^iii if A(W#i)
7M 160
Domain structure and MR effect of ferrofluid emulsion
Chikara OgawaY. MasubuchiJ. TakimotoK. Koyama
Electro-rheological (ER)Fluids and Magnet- rheological (MR) Suspensions: Hawai
7,0210
Domain structure control by electric field and ER effects
K. Koyama Electro-rheological (ER)Fluids and Magnet- rheological (MR) Suspensions: Hawai
7,0 230
Electrically induced viscosity change in immiscible liquid blend
Hiroshi KimuraK. AikawaY. MasubuchiJ. TakimotoK. Koyama
Electro-rheological (ER)Fluids and Magnet- rheological (MR) Suspensions: Hawai
7^23 0
The mechanism of the ER effect by electrodes with flocked fabrics
Y. KatoY. MasubuchiJ. Takimoto j
K. Koyama i
Electro-rheological (ER)Fluids and Magnet- rheological (MR) Suspensions:! Hawai
7,0 230
318 -
Molecular orientation and electrohydrodynamic flow in homogeneous ER fluids
Hiroki Iwatsuki Electro-rheological (ER) Fluids and Magnet- rheological (MR) Suspensions: Hawai
743 23 0Naoto GohkoH. KimuraY. MasubuchiJ. TakimotoK. Koyama
Effects of Softener and Starch on Water Absorption Processes of Cotton Fabrics
Saiii Higuchi International Conference on Advanced Fiber Materials : Ueda, Nagano
104340T.MitsumataY. MasubuchiJ. TakimotoK. KoyamaA. Suzuki
The effect of small amount of long relaxation time components on the elongational rheology polymer melt.
K. Kovama International Conference on Advanced Fiber Materials : Ueda, Nagano
1043 40A. Minegishi
Shear and uniaxial flow behaviors of high- melt-strength polypropylene melt
M. Sugimoto International Conference on Advanced Fiber Materials : Ueda, Nagano
1043 5 0Y. MasubuchiJ. TakimotoK. Koyama
Direct observation of crystallization process under shear flow
K. Watanabe International Conference on Advanced Fiber Materials : Ueda, Nagano
1043 50Y. MasubuchiJ. TakimotoK. Koyama159* i£
#m)10/360
mm mm mm s/J'lli ft A
TMCSY-r—<d a ( t mm eg#mm)
10/360im# ms mm #-/J'lli #ASfffl *?£ SMaie^mss
mm)10/1 6 0
mm Bgiff## MSmm
/.hill # Amm
(Sr®)10/3 6 0
mmy$—
/J^fU iff A##
(Sr®)10/370
mm
A lit #ATSC#%#J#mm)&l-j:5PMMA/ASy mm ^
mm)10/3 8 0
¥0j m%Lmm m-
r#—A'\h #A :
- 319
em# mimeMti i'LAmm #-itA i$— /J^lli if A
#48[g|*ef#&&(#f«)
10,080
#(%«<bAA —MA #HAlii ft Amm mm uu# ##ft Si ASm^a ^7t*ffif»J5M
A^#AA^(^ A#)10,0 130
^i###APP(^i^##%<kAn—^c## jii± m#a* tsi ^ A H #mm #-itA i$—A A ft a
#^##A^(^ A#)10,0 130
«*f tsjCsaba Surimm #-itA i$— Alii 'if A
#^#AA^(^ A#)10,0140
A®»56*d<yyntV>(nS|ltt#tt#tt
#A El#mm m-itA i$—A ill it A
S47@VAni/—thtlmro (AE)
10,0 20 0
SffflMN HS1#
mm s-itA i$— AUi if A
S47[H]l/Anv—iht!£i£
(AIK)10,0 200
JDSSt#M #- iS* i$—'hill tflA
S47[e]L/Ai3'A—(AIK)
10,0 20 0
m%i^ A^m v ^#fg^gy y#iA#
AJU Amm #-itA i$—/J^iii if A
S47Ih]I/Ad>:—(AE)
10A21 0
mmt %m#A Efrmm m-itA i$—AUU if A
S47@l/ADi?—I’tlmS (AE)
10,021 0
IfflA #5A# mm #ia ^Alii ifA Am# Am
S47[H]L/Ar3v:—
(AK)10,021 0
E^fR&mOT^IxAn^- All #A #7[m &###^ ^ (^i AM)
10,021 0
C/gXzZ6l/^"nC/— itA W— ^^zio^A (Ai^) 11,040
320 -
M'MII 3m# 3§#memm Bgi#/J^Lll ?rA
Ml2 WT 'Or 11,050
%8$ *** 588*1 BM'a
ftffl *K## ssTft A* ## #Hwn@sm
5,0 270
#m #x 5J3 28 0
## #H5,0 28 0
#-h #—
/fcft S5: ## #s ^)\mzm
5,0 28 0
m\ $sT>t
S£## #Hmw
5,0 28 0
stmES## $.xW #S
W »S
m48im*^f#6«#Ka 5,9 29 0
SEB 68— Tf-t a* \m #t= #in#z#
5,0 29 0
ss mT# as&» #5
5,0 29 0
^S»#2»7E**a@8r8ft^^i2hDX=rf—
IBJU $5 T#*iR7K# S£ M #5
$48@S^-X¥S¥!ik*= :-i?.®
5,0 29 0
Dielectric Relaxation of PolymerElectrolytes under Shear Flow
*±
## #5
4th Liquid Matter Conference : University of Granada,Spain
6^5 0
- 321 -
5656-SKIS i 563E# 56SEBDielectric Character of Glass Forming Liquid at High Temperature
*B1 Stil SriS ig #» HfH
4th Liquid Matter Conference : University of Granada,Spain
6JJ 130
Insulated Molecular Wire: InclusionComplex of Cyclodextrin and Polyaniline
T#SB #-m# #z ¥ju
The 5th Internatoinal Symposium on Polymers for Advanced Technologies (PAT99-Tokyo), Waseda, Japan
94140
Theory on Inclusion Behavior between Molecular Nanotubes
S-L? ## #5
The 5th Internatoinal Symposium on Polymers for Advanced Technologies (PAT99-Tokyo), Waseda, Japan
94140
T#ip**44 S5: ## #H
0 *#m#^1999#(D## 9^24 0
% "S / ^ 9 SC fp to 41 III J$1 ill 1T jo t T -5 54pm #5 ^-JUfl^il S^E *#
5 *###^1999#(D## 941 24 0
m#44 #* T### #Hmwmztfc
mi-
B *###^1999^(7)54# 9^25 0
^PX-7/Py3yWiiWti^f *44ip* %A*44M #*
104160
m#44 #**44## #H
m# mi-
$48|g]l«5>-H4SS:SfiS 104160
^ ̂ *
glilN
- 1 1 104170
f ####$5# @$£Tf-t a* pm #5
10417 0
- 322 -
##% %mmaB41 W¥ {« #3#;na^M
¥£®!WItEFIfiI"~ 10/370
Hit s,s &m #s 10/3 130
5/ f %### Tit sts ## @le tm *tn #jnmzM
di^A:AR610/3 14 0
<?* its mimmufflftg 11/3240
M
383Hti£JEg
mm
Dynamics of the Formation of a Wetting Layer during Phase Separation and its Stability
Hajime Tanaka EURESCO Conferences: Solid/Fluid Interfaces - Complex Fluids Interfaces-
1999
Viscoelastic phase separation: From Polymer Solutions to Colloid Suspensions
Hajime Tanaka Tohwa StatPhys’99 11/380-120
Numerical Study of Phase Separation Dynamics under External Fields
Takeaki Araki Hajime Tanaka
Tohwa StatPhys’99 11/3 8 0 - 12 0
Viscoelastic phase separation of colloidal suspenstions
Hajime Tanaka Takeaki Araki
Annual APS March 2000 Meeting: Minneapolis, USA
3/3 20 0- 24 0
3D Numerical Simulation of Viscoelastic Phase Separation
Takeaki Araki Hajime Tanaka
Annual APS March 2000 Meeting: Minneapolis, USA
3/3 20 0- 24 0
Transient-gel formation during viscoelastic phase separation in polymer solutions
TakehitoKoyamaHajime Tanaka
Annual APS March 2000 Meeting: Minneapolis, USA
3/3 200- 24 0
M-ySaU—>3>-A eg
fflB K f4Sr:sm9/3 24 0- 27 0
/J'lii SAe
B ##### 1999f 9/3240- 27 0
pg^ E 0 ^###^1999^#(7)^ 9/3240- 27 0
B43 E
- 323 -
fgSHSSMBDynamic of phase separation induced by radical polymerization
M. Okada NIMC-EAPS International Conference (Moscow, Russia)
Oct.Ills, 1999
mm##
%?:5^
mm ^"S’jn i&yt
En ¥$. 5^|53ffl ^
%i&T m-m
£:5^
mm ^
4'^yf-z$5z)!$4bi-5S'6-roffi43'«#®mm
## 5£*jh %yt[53H ^
«k##m*k jm 10^6-8 0
» %$l 10^6-8 0/fc #—
's'* #e mm w«fl$ %<iL 10^6-8 0t#* W*mm
##:#±gR $48Bl6^SflSS:SrfS 10^6-8 0a# *?a* ##«®i j£5A If*
%% #48[glAef;#A6:*T@ 10^ 6-8 0Sis aa s * jne¥?* ±# jE M
6## f■/SiR Kf 10^6-8 0
324 -
*## 5S$5fem% %% 1093 6-8 0lilT
%Uj ^^*9
^!9^^/PT^0/PT^KzK^#(D^^# j£* EA «48@A^^S4SS:SriS 10^6-8 0® %% Si# #¥
y'Dy^#tlS-(*S#roE#ilr/vSgSmztiiizg-itmzi&mm
## S48lHlSi^WSS:SriS 1093 6-8 0msSi® #¥
[IV] ^37 r2n-^§y^-tr/V^/x(7Dj^ffi#Lll ZnZO M48@S4>^ltlSiS:Srig 1093 6-8 0S« #¥
* , W rii 2$ =f r ® /* -3 21^, 7 3 y'j itli Aif HgiBi-feynnaSto^#
mm 4¥ *48B*efM^#:Si® 1093 6-8 0
Anolalous Micellization Behavior of Diblock Copolymer Solution near the CriticalMicelle Temperature
Takuhei Nose The 6th Pacific Polymer Conference, China
Dec. 7-11 (1999)N. Numasawa
SMB
%
Uip *480«»^W!6# (*®)
1093 7 0
fl* Wo
mm-tmms 5$**U3tiS
#32 %WM
593 13 0
&H#32 %91 iW
^isEZWwEl(Si®)
1039 60
ft's* 6 91 #32 ^Hibpf %%
(9c 1%)1033 22 0
- 325 -
(2) 3tSt
fefiIfra^(#^)
#^m0,#\ Vol.#
®3^¥i^SB§rfflWcAKLi-r—yVyK#flI<7) Am %>&jl# ##±# jEH
56# 10# 674-683H(1999)
C/3^TB P#ST %%mm
m-jil# 4#±* jEB
#S#T STM *5 i^i # T — r^3 #
y—yj
56# 12# 762- 771M (1999)
## S^l±# TM
48#5#316M (1999)
Molecular Dynamics Simulation of Entangled Polymers in Shear Flow
Takeshi Aoyagi Masao Doi
Computational and Theoretical Polymer Science (Elsevier Sci.)
MB
## 6h] 0 72# #11# 666M (1999)
## 6^] CICST Bulletin(0Tfk##/
f£)
17# #6# 23-26M (1999)
miifef %m CICST Bulletin (0Tik#^/
lio
17# #6# 27-30M(1999)
A National Project on mesoscipic simulation in Japan
MototsuguYoshida
Computer Phys. Comm.
Vol. (2000)
ffllW 3m±* JEIBTffl T- ST W~
0 ^'Tal/ —/ d ■/ t; RC'
#19#1# 17- 25M (2000)
- 326 -
voi.s;Micelle Formation in Triblock Copolymer Solutions.
Masaharu Monzen. Comput.Theoret. Polym. Sci.
in pressT. Kawakatsu,M. Doi
Dynamic Density Functional Approach toPhase Separation Dynamics of PolymerSystems.
T. KawakatsuR. HasegawaM. Doi
Int. J. Mod.Phys. C
in press
The Outline of Platform for Designing High Functional Materials Project.
MototsuguYoshida
Now & Future in press
GSti&fc) Vol.#Electrically induced phase inversion in polyurethane/dimethylsiloxane blend.
H. KimuraK. AikawaY. MasubuchiJ. TakimotoK. Koyama
Int. J. Mod.Phys. B.
Vol.13(14,15,16), pp.2011-2017 (1999)
Stress rectification in MR fluids under tilted magnetic field.
J. TakimotoH. TakedaY. MasubuchiK. Koyama
Int. J. Mod.Phys. B.
Vol.13(14,15,16), pp.2028-2035 (1999)
Effect of Chain Structure on the Melt Rheology of ModifiedPolypropylene.
M. SugimotoT. TanakaY. MasubuchiJ. TakomotoK. Koyama
J. Appl. Polymer Sci.
Vol. 73 (4), pp.1493-1500 (1999)
A Systematic description by BKZ Model of Strain Hardening or Softening in Uniaxial Elongation of Polymer Melts.
T. TakahashiA. NishiokaY. MasubuchiJ. Takimoto
J. Macromol.Sci.-Phys., B.
Vol. 38 (3),pp.289-304 (1999)
Melt Strength and Extrudate Swell of High- melt-Strength Polypropylene.
M. SugimotoY. MasubuchiJ. Takomoto K. Koyama
J. Soc. Rheol. Jpn.
Vol. 27 (1) pp.67-68 (1999)
Measurement of Young’s modulus andPoisson’s ratio of polymer using Ultrasonics (in Japanese)
Y. MasubuchiJ. TakimotoK. Koyama
Seikei-Kakou Vol. 11 (2) pp.102-107 (1999)
- 327 -
(#^) ■S§\ Vol.^Simulation Study on Effect of Polymer Entanglement on the Strain Hardening
Y. MasubuchiJ. TakimotoK. Koyama
MolecularSimulation
Vol. 21 (5) pp.257-269 (1999)
Elongational Viscositiy for Miscible and Immiscible Polymer Blends. I. PMMA and AS with Similar Elongational Viscosity
T. TakahashiJ. TakimotoK. Koyama
J. Appl. Polymer Sci.
Vol. 73 (5) pp.757-766 (1999)
mm BS1H
mm m-iiA i#—'hill it A
tfcBJ] PX Vol. 11 (6) pp.517-526 (1999)
Elongatinal Viscosity for Miscible andImmiscible Polymer Blends. II. PMMA and AS with similar Elongational Viscosity
T. TakahashiJ. TakimotoK. Koyama
J. Appl. Polymer Sci.
Vol. 72 (7) pp.961-969 (1999)
#1#Sto i'&
7^0# —ZHU it A
Vol. 11(7) pp.627-636 (1999)
Electrorheological Effect in Liquid Blends, Slow Dynamicsin Complex Systems
H. KimuraK. AikawaY. MasubuchiJ. TakimotoK. Koyama
AIP Conf. Proc. Vol. 469 pp.152-153(1999)
Strain-Hardening Property of Polystyrene(PS)/Ultrahigh Molecular Weight (UHMW)-PS Blends
A. MinegishiA. NishiokaT. TakahashiY. MasubuchiJ. TakimotoK. Koyama
AIP Conf. Proc. Vol. 469 pp.649-650(1999)
A Brownian Dynamics Study of StrainHardening of Branching Polymer Melts, Slow dyanmics in complex systems
Y. MasubuchiJ. TakimotoK. Koyama
AIP Conf. Proc. Vol. 469 pp.659-660(1999)
eb mX# #^0$ -XX it A
b%mnx Vol. 11(8) pp.716-725 (1999)
- 328 -
(##&&)3MJW0,
Vol.W
mi#mm is
3# - Alii
Vol.ll (10) pp.856-864 (1999)
The shear-flow properties of electro- rheological liquid polymeric blends
P. RihaH. KimuraK. AikawaY. MasubuchiJ. TakimotoK. Koyama
J. Non-Newtonian Fluid Mech.
VoL 85 (10) pp.249-256 (1999)
Effect of Glass Fiber on the Crystallization Behavior of Polypropylene
W. NagatakeY. SuzukiY. MasubuchiJ. TakimotoK. Koyama
Reports on Progress in Polymer Physics in Japan
Effect of Strain Hardening Properties and Lubricants on Blow Molded Products
J. AsanoY. MasubuchiJ. TakimotoK. Koyama
Reports on Progress in Polymer Physics in Japan
Effect of Gap between Electrodes on the Electrorheological Behavior of Fiber System
Y. KatoY. MasubuchiJ. TakimotoK. Koyama
Reports on Progress in Polymer Physics in Japan
The Viscoelastic Behavior of Electrorheological Fluid under Squeeze Flow
A. NittaN. GohkoH. KimuraY. MasubuchiJ. TakimotoK. Koyama
Reports on Progress in Polymer Physics in Japan
Electrorheological Effect of Polymer Blend inSlit Flow
K. AikawaH. KimuraN. GohkoY. MasubuchiJ. TakimotoK. Koyama
Reports on Progress in Polymer Physics in Japan
Characteristics of Polymer Melts under Planar Elongation
A. NishiokaT. TakahashiY. MasubuchiJ. TakimotoK. Koyama
Reports on Progress in Polymer Physics in Japan
VoL 41(12) pp.293-294 (1999)
Relation between Strain-hardening Property of Elongational Viscosity and Long-timeRelaxation for PS/UHMW-PS
A. MinegishiA. NishiokaT. TakahashiY. MasubuchiJ. TakimotoK. Koyama
Reports on Progress in Polymer Physics in Japan
Vol. 41(12) pp.407-408 (1999)
- 329 -
(##&)% mss a,
Vol.#Relation between Elongational Viscosity and Internal Structure for SBS Block Copolymer Melt
H. NakamimaT. TakahashiY. MasubuchiJ. TakimotoK. Koyama
Reports on Progress in Polymer Physics in Japan
Vol. 41(12) pp.399-400 (1999)
Development of Shear Flow Thermal Rheometer (SFTR) for direct measurement of crystallization fraction of polymer melts under shear deformation
W. NagatakeT. TakahashiY. MasubuchiJ. TakimotoK. Koyama
Polymer Vol. 41(1) pp.523-531 (2000)
($m$)am* 9.
Vol.#
m in 47#. 3^- pp.143-144 (1998)
Inclusion-dissociation transition in the complex formation between molecular nanotubes and linear polymer chains in solutions
YasushiOkumuraKohzo ItoR. Hayakawa
Phys. Rev. Lett. Vol. 80, Issue 22, pp.5003-5006(1998)
Inclusion complex formation of cyclodextrin and polyaniline.
K. YoshidaT. Shimomura Kohzo ItoR. Hayakawa
Langmuir Vol. 15, Issue 4, pp.910-913 (1998)
Two-dimensional spectroscipy of electric birefringence relaxation in frequency domain: Measurment method for second-order nonlinear aafter-effect function.
Kozo Hosokawa T. ShimomuraH. FurusawaY. KimuraKohzo Ito
J. Chem. Phys. Vol. 110 (8),pp.4101-4108 (1999)
tmTt-t Sfc*
52#1170-1173H(1999)
Switching transition of molecular nanotubes forming an inclusion complex with block copolymers in solutions
Y. Okumura Kohzo ItoR. Hayakawa
Phy. Rev. E. Vol. 59, pp.3823-3826 (1999)
- 330 -
(##&) voi.g;Dynamic light scattering in a periodically stationary system
Kohzo ItoY. MaruyamaN. HiroyasuR. Hayakawa
Langumuir Vol. 15 pp.4139-4142 (1999)
Low- and high-frequency electric birefringence relaxations in linear polyelectrolyte solutions
Yuko Nagamine Kohzo ItoR. Hayakawa
Langumuir Vol. 15 pp.4135-4138 (1999)
Dynamics of the inclusion complex formation between molecular nanotubes and flexible polymer chains
T. MiuraKohzo ItoR. Hayakawa
J. Phys. Soc.Jpn.
Vol. 68 pp.1740- 1745 (1999)
Molecular Weight Dependence of Dielectric Behavior of Polymer electrolytes under Shear Flow
S. InoueY. KimuraKohzo ItoR. Hayakawa
Jpn J. Appl.Phys. Part 2
Vol. 38 pp.665-667 (1999)
Dielectric relaxation of glass-forming organicliquid in the crossover regime between normal and supercooled liquid states
Takuya FujimaH. Furusawa Kohzo ItoR. Hayakawa
Jpn J. Appl.Phys. Part 2
Vol. 38 pp.1046-1048 (1999)
Inclusion behavior between molecular nanotubes and linear polymer chains in aqueous solutions
Eiji IkedaY. OkumuraT. Shimomura Kohozo ItoR. Hayakawa
J. Chem. Phys. Vol. 112 pp.4321-4325 (2000)
Mm#*## (##&&)mm EH
voi.#;Viscoelastic model of phase separation in colloidal suspensions and emulsions
Hajime Tanaka Phys. Rev. E. Vol.59 pp.6842-6852 (1999)
Viscoelastic Phase Separation and Transient Formation of Spongelike Patterns
Hajime Tanaka Proceedings ofthe OUM'98
pp.91-99 (1999)
Viscoelastic Phase Separation of Complex Fluids: Roles of Dynamic Asymmetry
Hajime Tanaka IL NUOVO CIMENTO
Vol. 20 pp.2233- 2242 (1999)
- 331 -
($##&&)mtm b .3§\ Vol.#
Micellication behaviour of diblock copolymers in solution near the critical micelle temperature
Y. FukumineK. InomataA. TakanoT. Nose
Polymer in press (2000)
Mecellication and relaxation kinetics of diblock copolymers in dilute solution based on A-W theory. I. Description of a model for corre- corona type micelles
T. NoseK. I yam a
Comp. Theor. Polym. Sci.
in press (2000)
Static and Synamic Properties of Block- Copolymer Solution in Poor Solvent. I. A Light Scattering Study on Solutions in Weakly- Selective Solvents
T. Azuma0. TyagiT. Nose
Polymer J. Vol. 32 (2) pp.151-158 (2000)
Shear-Rate Dependence orf Shear-Induced Orientation in Morphology of Triblock Copolymer
K. ShimizuK. InomataT. Nose
KoubunshiRonbunshu
Vol. 56 (9) pp.565-570 (1999)
A Theoretical Consideration on SwollenMicelles Block Copolymers in dilute Solution
T. NoseN. Numasawa
Rep.Prog.Polym. Phys., Jnp.
Vol. 42,pp.53-54 (1999)
5S0l MD if*
#48# 7^# 432-437Jt (1999)
Thermal-History Dependence of Polymerization-Induced Phase Separation
M. Okada T. Sakaguchi
Macromolecules Vol. 32 pp.4154-4156 (1999)
Q tF #55#14-18H (1999)
Structure and Ordering Processes of Diblock Copolymer Associates in Solution
Takuhei Nose Molecular
Interactions and
Time-Scale
Organization in
Macromolecular Systems. (Osaka,
6/3-6 in 1998)
Springer-Verlarg Berlin Heidelberg 1999
332 -
(#s&&) 3§\ Vol.#Thermal-Noise-Induced First-Order Phase Transition In Symmetric Block Copolymers: Behavior of Block Copolymers as a Complex Liquid
T. Hashimoto Tadanori Koga Tuyoshi Koga N. Sakamoto
The Physics of Complex Liquids
VoL(1999)
Control of Self-Assembled Structure in Binary Mixtures of A-B Diblock Copolymer and A~C Diblock Copolymer by Changing theInteraction between B and C Block Chians
K. KimishimaH. JinnnaiT. Hashimoto
Macromolecules VoL 32, pp.2585 (1999)
Quantitative Analysis of the Staining of a Polyisoprene-block -polystyrene
A. E. RibbeJ. BodycombT. Hashimoto
Macromolecules VoL 32,pp.3154 (1999)
308 (1999)
Ultra-small-angle x-ray scattering studies on order-disorder transition in diblock copolymers
Tadanori Koga Tuyoshi KogaT. Hashimoto
J. Chem. Phys. VoL pp.11076(1999)
Effect of Annealing on the Perfection ofOrdered Structure of High Asymmetric diblock copolymer
D. YamaguchiT. HashimotoN Y. Vaidya C- D Han
Macromolecules Vol. 32, pp.7696 (1999)
Solid-Solid Phase Transformation in Soft Matters: Thermoreversible Transformation between BCC-Spheres and HexagonalCylinders in Block Copolymers
T. HashimotoK. Kimishima Tadanori Koga
The Japan Institute of Metsls Proceedings
VoL120lMIC-3) Pt.II, pp.1377 (1999)
(#:&&) Vol.#Comparison of Dielectric and Viscoelastic Relaxation Functions of cis -Polyisoprenes:Test of Tube Dilation Molecular Picture
Y. MatsumiyaH. WatanabeK. Osaki
Macromolecules Vol. 33 (2), pp.499-506 (2000)
Tube Dilation Process in Star-Branched cis~ Polyisoprenes
H. WatanabeY. MatsumiyaK. Osaki
J. Polym. Sci. part B. Polym. Phys.
Viscoelasticity and Dynamics of Entangled Polymers
H. Watanabe Prog. Polym.Sci.
Vol. 24 (9) pp.1253-1403 (2000)
- 333 -
(##&&)mams,■*§-, Vol.S?
Dielectric Response of Polymer Films Confined Between Mica Surfaces
Y.-K. ChoH. WatanabeS. Granick
J. Chem. Phys. Vol. 110 (19) pp.9688-9696(1999)
Microstructural Changes in a Colloidal Liquid in the Shear Thinning and Shear Tickening Regimes
M. C. Newstein H. WangN. P.BalsaraA. A. LefebvreY. ShinidmanH. WatanabeK. Osaki
J. Chem. Phys. Vol. 110 (10)pp.4827-4838(1999)
Stress Overshoot in Shear Flow of anEntangled Polymer with Bimodal Molecular Weight Distribution
K. OsakiH. WatanabeT. Inoue
J. Soc. Rheol. Japan
Vol. 27 (1) pp.63-64 (1999)
Rheo-Dielectrics: Its Applicability H. WatanabeT. SatoY. MatsumiyaT. InoueK. Osaki
J. Soc. Rheol. Japan
Vol. 27 (2) pp.121-125 (1999)
Synthesis and Linear Viscoelasticity of Model Comb Polymers.
Y. MatsumiyaH. WatanabeT. SatoK. Osaki
J. Soc. Rheol. Japan
Vol. 27 (2) pp.127-128 (1999)
Effects of Spatial Confinement on Dielectric Relaxation of Block Copolymers having Tail, Loop, and Bridge Conformations
H. WatanabeT. SatoK. OsakiY. Matsumiya S.H.Anastasiadis
J. Soc. Rheol. Japan
Vol. 27 (83) pp.173-182 (1999)
1H and 19F NMR study of the CounterionEffect on the Micellar Structures Formed by Tetraethylammonium and Lithium Perfiuorooctylsulfbnates. 2. Mixed Systems
D.P.BossevM. MatsumotoT. SatoH. WatanabeM. Nakahara
J. Phys. Chem.B.
Vol. 103 (39)pp.8259-8366(1999)
Shape Recovery of a Dispersed Droplet Phase and Stress Relaxation after Application of Step Shear Strains in a Polystylene/Polycarbonate Blend Melt
K. OkamotoM. TakahashiH. YamaneH. KashiharaH. WatanabeT. Masuda
J. Rheol. Vol. 43 (4) pp.951-965 (1999)
On the Loops to Bridges Ratio in Ordered Triblock Copolymers: An Investigation by Dielectric Relaxation Spectroscopy and Computer Simulations
K. KaratasosS. H.AnastasadisT. PakulaH. Watanabe 1
Macromolecules Vol. 33 (2) pp.523-542 (2000)
- 334 -
(3) -eroteotiac^uxfiEiF)
¥B BHll.6.18
n T "/ T “ v a > Spro J 7° n / y U j fc
HI 1.11.25
h i/#- hj ®H12.3.22 CCSM#S" jEirig" <D%-IZ
X- 5r±#^nyxi> h Utf- H ©
— 335 —
P146-150, P163-167
P 1 7 3 - 1 8 7• aa”7<£) 7 7 zl 1/— 7 g > 7° □ 7" 7A©^(lSl) cf r#i^tf$^#60#'%^T'#"X 'b
f &(0#;4 :P 1 2 1 - 1 2 8, P136-138, P 1 4 0 - 1 4 1 , P151-163, P187-205
• 7 — A1/7X — 7 7771SIEHX) 77 a. 7— 7 3 7(Z4; :P 2 0 8 - 2 1 3
• 7 7 □ — 7 7 — 7 7 □ tE^IbIX)" 7—A 77 X — 7 7 7" 77a 7 — 7 g 7 pJ ibr##^#ty7vh7^-Aj (0^%:
P 2 1 5 - 2 4 4' ##
. f-7^-X(0#m, ^vP7-7fk(D##:P225-227, P230-231
P 2 0 8 - 2 1 3x-H/co##
- 7Vm^(0##^{k&77:i7-73 7i-6^O(Dg#XnX7A(0fm^&Cf#
PI 19 — 121, P 1 2 9 - 1 4 0
P119-142, P 1 4 6 - 1 6 ( P246-296
7 — A 77X— 7 7 777a 7— 7 3 7607°7 y P 73-—A7°n P7< 7(0%#^36^T#M :
P 1 7 3 - 2 0 6,
:# :
P215-244fAmmmfk#f#^#7'o77A(D#m:j;'5 7:4-n7-?W%777(D#& :
P 1 3 2 - 1 4 1
:
P 1 5 3 - 1 5 6A3(7)g#77 3. 7-7s AXoXXA^j;^^^?-& :
P121-128, P136-138, P 1 4 0 - 1 4 1 , Plol-163, P187-205
- 339 -
(t7t^ ^(7)#^, W#' a/7n-y V-V/7nm^^(D"5/—AL/%X-^ >$roJ#
r$^#;my'7vh7^-Aj (7)M^:P215-244
• x—% ^—X (7)^#^^ ^"j Y 7 — 7 {bC0^E4 :P225-227
- 340 -