=================================================================== RCS file: /home/cvs/OpenXM/src/k097/lib/minimal/minimal-note-ja.txt,v retrieving revision 1.2 retrieving revision 1.12 diff -u -p -r1.2 -r1.12 --- OpenXM/src/k097/lib/minimal/minimal-note-ja.txt 2000/05/24 15:24:54 1.2 +++ OpenXM/src/k097/lib/minimal/minimal-note-ja.txt 2000/08/09 03:45:27 1.12 @@ -1,4 +1,4 @@ -$OpenXM: OpenXM/src/k097/lib/minimal/minimal-note-ja.txt,v 1.1 2000/05/19 11:16:51 takayama Exp $ +$OpenXM: OpenXM/src/k097/lib/minimal/minimal-note-ja.txt,v 1.11 2000/08/02 05:14:30 takayama Exp $ SpairAndReduction() : $BM?$($i$l$?(B pair $B$r(B reduction $B$9$k(B. @@ -77,3 +77,1102 @@ test8() $B$G(B sm1 $B$G=q$$$?J}$N(B Schreyer $B$r kernel = image $B$H$J$C$F$$$k$N$G0J8e$3$N(B option $B$O(B 1 $B$N$^$^;H$&$3$H$H$9$k(B. $BMW$9$k$K(B k0 $B$N%3!<%I$,$I$&$d$i$*$+$7$$$i$7$$(B. +==> +6/8 $B$N%N!<%H$h$j(B. +syzygy $B$r(B homogenization $B$r2p$7$F7W;;$9$k$N$OLdBj$"$j(B. +--> usage of isExact +$BMW$9$k$K(B kernel = image $B$N%3!<%I$bJQ(B. Homogenized $B$N$^$^$d$kI,MW$"$j(B. + +----------------------------------- +June 8, 2000 (Thu), 9:10 (Spain local time) +hol.sm1 : gb_h, syz_h, isSameIdeal, isSameIdeal_h +complex.sm1 : isExact, isExact_h + +syzygy $B$r(B homogenization $B$r2p$7$F7W;;$9$k$N$OLdBj$"$j(B. +--> usage of isExact + +[(Homogenize_vec) 0] system_variable : vector $B$N(B homogenize $B$r$7$J$$(B. +(grade) (module1v) switch_function : vector $BJQ?t$O(B, total + degree $B$K?t$($J$$(B. +==> $BL58B%k!<%W$KCm0U(B ---> gb_h, syz_h $B$N(B usage. + +minimal-test.k $B$N(B ann(x^3-y^2*z^2) $B$N(B laplace $BJQ49$N(B +betti $B?t$,JQ(B, exact $B$G$J$$(B, $B$r(B isExact_h $B$G(B check +$B$7$h$&(B. + +minimal-test.k +test10(); + LaScala-Stillman $B$NJ}K!$G$D$/$C$?(B, schreyer resol $B$,(B exact $B$+(B + $BD4$Y$k(B. + $BNcBj$O(B, ann(1/(x^3-y^2 z^2)) $B$N(B Laplace $BJQ49(B. + ==> OK. IsExact_h $B$G$7$i$Y$k(B. (IsExact $B$O$@$a$h(B) + +June 8, 2000 (Thu), 19:35 +load["minimal-test.k"];; +test11(); + LaScala-Stillman $B$NJ}K!$G$D$/$C$?(B, minimal resol $B$,(B exact $B$+(B + $BD4$Y$k(B. + $BNcBj$O(B, ann(1/(x^3-y^2 z^2)) $B$N(B Laplace $BJQ49(B. + +SwhereInTower $B$r;H$&$H$-$O(B, +SsetTower() $B$G(B gbList $B$rJQ99$7$J$$$H$$$1$J$$(B. +$B$b$A$m$s;HMQ$7$?$i(B, $B$=$l$rLa$9$3$H(B. +SpairAndReduction, SpairAndReduction2 $B$G(B, + SsetTower(StowerOf(tower,level)); + pos = SwhereInTower(syzHead,tower[level]); + + SsetTower(StowerOf(tower,level-1)); + pos2 = SwhereInTower(tmp[0],tower[level-1]); +$B$H(B, SwhereInTower $B$NA0$K(B setTower $B$r$/$o$($?(B. +( $B0c$&%l%Y%k$G$NHf3S$N$?$a(B.) + +IsExact_h $B$O(B, 0 $B%Y%/%H%k$r4^$`>l9g(B, $B$?$@$7$/F0:n$7$J$$$h$&$@(B. +test11(). +test11a() $B$G(B, 0 $B%Y%/%H%k$r OK. + + +--------------------------------- +June 9, 6:20 +SpairAndReduction +$B$H(B +SpairAndReduction2 +$B$N0c$$(B. +SpairAndReduction : SlaScala (LaScala-Stillman's algorithm $B$G;H$&(B) +SpairAndReduction2 : Sschreyer (schreyer algorithm $B$G;H$&(B, laScala $B$O$J$7(B.) + +0 $B$r<+F0$G=|$/%3!<%I$r=q$3$&(B. + +SpruneZeroRow() $B$r(B Sminimal() $B$K2C$($?(B. +test11() $B$b@5$7$/F0:n$9$k$O$:(B. +IsExact_h $B$O(B schreyer $B$r(B off $B$7$F(B, ReParse $B$7$F$+$i(B, +$B8F$S=P$9$3$H(B. + + +#ifdef TOTAL_STRATEGY + return(StotalDegree(f)+Sdegree(tower[level-2,i],tower,level-1)); +#endif + /* Strategy must be compatible with ordering. */ + /* Weight vector must be non-negative, too. */ + /* See Sdegree, SgenerateTable, reductionTable. */ + wd = Sord_w(f,ww); + return(wd+Sdegree(tower[level-2,i],tower,level-1)); +TOTAL_STRATEGY $B$rMQ$$$kI,MW$,$"$k$N$G$O(B?? +Example 1: Sweyl("x,y",[["x",-1,"y",-1,"Dx",1,"Dy",1]]); + v=[[2*x*Dx + 3*y*Dy+6, 0], + [3*x^2*Dy + 2*y*Dx, 0], + [0, x^2+y^2], + [0, x*y]]; + a=Sminimal(v); +strategy $B$,$*$+$7$$$H$$$C$F$H$^$k(B. $BM}M3$O(B? + +a=test_ann3("x^3+y^3+z^3); $B$O;~4V$,$+$+$j$=$&(B. +a=test_ann3("x^3+y^3"); OK. +a=test_ann3("x^2+y^2+z"); OK. + + +$B>e$N(B example 1 $B$N%(%i!<(B $B$N8+J}(B: +Processing [ 1 , 3 ] Strategy = 2 + 1 $B$N(B 3 $BHVL\$N(B spair $B$N(B reduction $B$r=hM}Cf(B. + In(7)=reductionTable: + [[ 1 , 1 , 1 , 2 , 2 , 3 ] , [ 3 , 2 , 1 , 2 , 3 ] , [ 2 ] ] + -- $B$3$l(B. +SpairAndReduction: +[ p and bases , [ [ 0 , 3 ] , [ y*h , -x ] ] , [ 2*x*Dx+3*y*Dy+6*h^2 , e_*x^2+e_*y^2 , e_*x*y , 2*y*Dx*h+3*x^2*Dy , e_*y^3 , %[null] ] ] +0 $B$N(B 0 $BHVL\$H(B 3 $BHVL\(B $B$N(B spair $B$r7W;;$7$F(B, 0 $B%l%Y%k$N(B gb $B$G(B reduction. +[ 1 , 1 , 1 , 2 , 2 , 3 ] $B$K$"$k$h$&$K(B, strategy 3 $B0J30$O7W;;$:$_(B. +( $B7W;;$7$F$J$$$b$N$O(B %[null] $B$H$J$C$F$k(B. ) +[ level= , 1 ] +[ tower2= , [ [ ] ] ] ( $B0lHV2<$J$N$G(B, tower $B$O$J$7$h(B. ) +[ y*h , -es^3*x ] +[gi, gj] = [ 2*x*Dx+3*y*Dy+6*h^2 , 2*y*Dx*h+3*x^2*Dy ] +1 +Reduce the element 3*y^2*Dy*h+6*y*h^3-3*x^3*Dy +by [ 2*x*Dx+3*y*Dy+6*h^2 , e_*x^2+e_*y^2 , e_*x*y , 2*y*Dx*h+3*x^2*Dy , e_*y^3 , %[null] ] +result is [ 3*y^2*Dy*h+6*y*h^3-3*x^3*Dy , 1 , [ 0 , 0 , 0 , 0 , 0 , 0 ] ] +vdegree of the original = -1 +vdegree of the remainder = -1 +[ 3*y^2*Dy*h+6*y*h^3-3*x^3*Dy , [ y*h , 0 , 0 , -x , 0 , 0 ] , 3 , 5 , -1 , -1 ] + +In(11)=freeRes: +[ [ 2*x*Dx+3*y*Dy+6*h^2 , e_*x^2+e_*y^2 , e_*x*y , 2*y*Dx*h+3*x^2*Dy , e_*y^3 , 3*y^2*Dy*h+6*y*h^3-3*x^3*Dy ] , [ %[null] , [ 0 , 0 , y^2 , 0 , -x , 0 ] , [ 0 , -y , x , 0 , 1 , 0 ] , [ -y*h , 0 , 0 , x , 0 , 1 ] , %[null] ] , [ %[null] ] ] +$B$r$_$l$P$o$+$k$h$&$K(B, SlaScala $B$G(B, freeRes $B$K$3$N85$,(B [0,5] $B$K2C$((B +$B$i$l$?(B. + +$B$7$?7k2L(B, +Sminimal $B$O$&$^$/$&$4$1$P@5$7$$Ez$($r$@$7$F$k$_$?$$$G$9$,(B +(D : homogenized Weyl $B$G(B ker = im $B$r(B check $B$7$F$k(B, + V-adapted (strict) $B$+$I$&$+$N(B check routing $B$O$^$@=q$$$F$J$$(B), +strategy $B$,$&$^$/$&$4$+$J$/$F$H$^$k>l9g$b$"$j$^$9(B +( strategy = 2 $B$N(B sp $B$r7W;;$9$k$N$K(B, strategy 3 $B$N(B $B85$rI,MW$H(B + $B$7$?$j$9$k>l9g$"$j(B). + + +strategy $B$O(B +def Sdegree(f,tower,level) { + local i,ww, wd; + /* extern WeightOfSweyl; */ + ww = WeightOfSweyl; + f = Init(f); + if (level <= 1) return(StotalDegree(f)); + i = Degree(f,es); + return(StotalDegree(f)+Sdegree(tower[level-2,i],tower,level-1)); +} +$B$rMQ$$$F(B, + ans_at_each_floor[j] = Sdegree(tower[i,j],tower,i+1)-(i+1) +$B$G7W;;$7$F$^$9(B. + +$B$$$/$D$+=PNO$r$D$1$F$*$-$^$9$N$G(B, $B8!F$(B!!! + +$BNc(B 1: +load["minimal-test.k"];; +a=test_ann3("x^3-y^2*z^2"); $B0z?t$N(B annihilating ideal $B$N(B laplace $BJQ49$N(B + homogenization $B$N(B resolution. + weight vector $B$O(B (-1,-1,-1,1,1,1) + +In(4)=sm1_pmat(a[1]); + [ + [ 0 $BC$9(B operator [1, 0, -y^2] + [ y^3 , 0 , -x^2 ] + [ 0 , y^2 , -x ] + [ y , -x , 0 ] +$B$N(B reduction $B$,I,MW(B. + +----------------------------------------- +June 11, 2000 (Tue), 20:05 +V-strict $B$+$I$&$+$r%A%'%C%/$9$k4X?t$r=q$-$?$$(B. +$B0BA4$K(B ring (schreyer order) $B$rDj5A$9$k4X?t$,M_$7$$(B. +$B0BA4$K(B parse $B$9$k4X?t$bM_$7$$(B. +$B%Y%/%H%k$H(B es $BI=8=$NJQ494X?t$b$$$k(B. + +AvoidTheSameRing == 1 $B$J$i(B, schreyer $B$N(B gbList $B$bJQ99$G$-$J$$$h$&$K(B +$B$9$Y$-$+!)(B +$B4XO"JQ?t(B: +needWarningForAvoidTheSameRing +isTheSameRing() : ring $B$,F1$8$+(B check. pointer $B$G$J$/Cf?H$^$G$_$k(B. +see poly4.c. $B$3$3$N%3%a%s%H$O;29M$K$J$k(B. +3.If Schreyer = 1, then the system always generates a new ring. + +define_ring $B$K(B gbList $B$bEO$;$k$N(B? +==> set_up_ring@ $B$r8+$k(B. grep set_up_ring ==> +primitive.c KsetUpRing() grep KsetUpRing ==> +keyword gbListTower $B$,;H$($k$,(B, list $B$GM?$($J$$$H$$$1$J$$(B. +list $B$KJQ49$9$k$N$O(B, (list) dc. + +tparse $B$NI,MW$J$o$1(B? +?? $B$*$b$$$@$;$J$$(B. + +ring_def $B$G(B ring (schreyer order) $B$rDj5A$9$k$H(B, $B7W;;$N$H$-$N(B +order $B$b(B tower $B$G$d$C$F$/$l$k$N(B? +$BB?J,(B NO. +grep ppAdd *.c ==> +poly2.c + checkRing(f,g); + + while (f != POLYNULL && g != POLYNULL) { + /*printf("%s + %s\n",POLYToString(f,'*',1),POLYToString(g,'*',1));*/ + checkRing2(f,g); /* for debug */ + gt = (*mmLarger)(f,g); + + mmLarger $B$OJQ$($F$J$$$h$&$K8+$($k(B. checkRing $B$O%^%/%m(B. + +mmLarger_tower $B$O(B + if (!(f->m->ringp->schreyer) || !(g->m->ringp->schreyer)) + return(mmLarger_matrix(f,g)); +$B$H$J$C$F$k$N$G(B mmLarger_tower $B$r(B default $B$K$7$F$*$1$P?4G[$J$$$h$&$K8+$($k(B. + +ring_def $B$O@5$7$/F0$/(B? + +TODO: +$B4X?t$N;EMM(B: ( new.sm1 $B$^$?$O(B complex.sm1 $B$K$*$$$H$/(B ) + mmLarger $B$O(B tower $B$KJQ$($F$7$^$&(B. + $BJQ?tL>(B, weight vector, $B%7%U%H%Y%/%H%k(B m $B$rM?$($k$H(B ring (with schreyer order) + $B$r:n$k(B. ==> weyl, weyl + parser $B$O$H$/$K:n$kI,MW$,$J$$$h$&$K8+$($k$,(B...(tparse) ==> name + $B%Y%/%H%k(B <---> es $BI=8=(B cf. toVectors, [(toe_) f] gbext ==> name + $BE,@Z$J(B homogenization $B4X?t(B ==> homogenize + ord_w $B$N(B schreyer $BHG(B ==> ord_w + init $B$N(B schreyer $BHG(B ==> init + gb_h, syz_h $B$NBP1~HG(B ==> [ ii vv ww m] syz_h + resolution $B$+$i(B shift vector $B$r7W;;$9$k4X?t(B. + + $B7k2L$N(B check $B$r$9$k(B assert $B4X?t$bI,MW(B. + +$B>e$N(B $B%7%U%H%Y%/%H%kBP1~HG$N4X?t$OEvJ,(B new.sm1 $B$X(B. $B$=$N$"$H(B complex.sm1 $B$X(B. + +cohom.sm1 $B$N(B interface $B4X?t$O(B cohom.k $B$X(B. +Help key word $B$O(B (Cohom.deRham) $B$_$?$$$K(B, . $B$G$/$.$C$F=q$/(B. + +---------------------- +$B%(%i!<$N860x$,$h$&$d$/$o$+$k(B: June 14, 19:00 +Schreyer frame $B$NCJ3,$G(B syz $B$K(B 1 $B$,$"$k$H(B strategy $B$,(B +$B$O$?$i$+$J$$(B. + +test13() GKZ $B$N(B minimal free resolution. 2 $BEY(B obj to_int --> Done. + weight_vector $B$N(B universalNumber ==> $B$^$@(B. $B%(%i!<$r$@$5$J$$$N$,$3$o$$(B. + s_weight_vector + weightv + ord_w + toVectors + define_ring + init + gkz + +------------- +Schreyer skelton $B$,$I$&$7$F(B 1 $B$rMWAG$K$b$D$+$7$i$Y$k(B. + +June 24 (Sat), 22:30 at Posthouse (Heathrow) www.posthouse-hotels.com +Sevilla $BBZ:_(B, Mega $B$b$h$&$d$/$*$o$j(B minimal resolution $B$N(B check $B$KLa$k(B. +resol1.c $B$Kdeleted = 1; + } + ===> $B$*$+$7$$$N$G:o=|(B. + +isConstant(sv.a) $B$,$J$$$H(B, $B$3$s$I$O(B, +Sminimal([x^2+y^2,x*y]); $B$,%(%i!<$G$H$^$k(B. +(x,y $B$N(B weight $B$O(B -1). +LaScala-Stillman $B$NO@J8$r$b$&0lEY$J$,$a$h$&(B. + +commit $B$9$Y$-(B: misc/mega2000 (cvs-misc add) Done. + OpenXM/src/kan96xx Done. + OpenXM/src/k097/lib/minimal Done. + +July 26. + resol.c $B$N(B schreyerSkelton0 $B$G(B, skelton $B$,(B minimal $B$K$J$k$h$&$K(B + $B%3!<%I$rA^F~(B. + $B%F%9%H$O(B + cd src/k097/lib/minimal + k0 + load["minimal.k"];; + Sweyl("x,y",[["x",-1,"y",-1,"Dx",1,"Dy",1]]); + Sminimal([x^2+y^2,x*y]); + $B$G(B. + + LaScala-Stillman $B$NO@J85U$G(B i e_j $B$H$J$k(B. + (order.c mmLarger_tower()) + + $B%F%9%H(B 2. + cd src/k097/lib/minimal + k0 + load["minimal-test.k"];; + v: + Sminimal(v); + + test11(); /* a = test_ann3("x^3-y^2*z^2"); */ + test14(); /* gkz (1,2,3) */ + +July 30. Removed unnecessary code. + $BNc(B: + Sminimal("x^3-y^2"); + test12() ( x^3-y^2 z^2) + test15() GKZ 1,2,3 with a check. + test15b() toric + test15c() (u,v) = (-1,1) + +August 1. + (u,v)-minimal $B$N%F%9%H%3!<%I$r$$$l$?(B. + IsExact_h $B$G(B $BJQ?t(B c $B$NCM$,$+$o$k(B. $B860xITL@(B. + c=Sinit_w(b,w); + Println("Resolution (b)----"); + sm1_pmat(b); + Println("Initial (c)----"); + sm1_pmat(c); cc=c; + Println("Exactness of the resolution ---"); + Println(IsExact_h(b,v)); /* IsExact_h breaks the variable c. + THIS BUG SHOULD BE FIXED. */ + $B$3$N$"$H$J$<$+(B, c $B$,(B b $B$NCM$K$+$o$C$F$7$^$&(B. + $B$J$*(B def IsExact(c,...) $B$HDj5A$5$l$F$*$j(B, $B$3$N(B c $B$rJL$NJQ?tL>$K(B + $BJQ$($l$P$3$NLdBj$O$*$-$J$$(B. + Println("Why is the initial c rewritten by b? (buggy) ");sm1_pmat(c[0]); + + ===> complex.sm1 $B$N(B isExact_h (isExact) $B$G(B popVariables $B$rK:$l$F$?$@$1(B. + + betti $B?t$O(B, $B9TNs$N>C5n$r$d$k$^$G$o$+$i$J$$$N(B? + SbettiTable(). + + Sminimal $B$O(B [(Homogenize_vec) 0] system_variable $B$K$9$k$h$&$G(B, + $B$3$l$,(B cohomology $B$N7W;;$K$OoF0:n(B. + + +August 7, Mon 13:00JST ( 5:00 St.Andrews, Scotland, 4039 $B9f<<(B) +example-ja.tex $B$r=q$/$?$a$N=PNO(B. + +% k0 +sm1>macro package : dr.sm1, 9/26,1995 --- Version 6/15, 2000. +sm1>macro package : module1.sm1, 1994 -- Nov 8, 1998 +This is kan/k0 Version 1998,12/15 +WARNING: This is an EXPERIMENTAL version +sm1>var.sm1 : Version 3/7, 1997 + + +In(1)=Loading startup files (startup.k) 1997, 3/11. +sm1 version = 3.000726 +Default ring is Z[x,h]. +WARNING(sm): You rewrited the protected symbol pushVariables. +WARNING(sm): You rewrited the protected symbol popVariables. +In(2)=load["minimal-test.k"];; +cpp: -lang-c++: linker input file unused since linking not done +cpp: -lang-c++: linker input file unused since linking not done +cohom.sm1 is the top of an experimental package to compute restrictions +of all degrees based on restall.sm1 and restall_s.sm1 +See, http://www.math.kobe-u.ac.jp to get these files of the latest version. +Note that the package b-function.sm1 cannot be used with this package. +r-interface.sm1 (C) N.Takayama, restriction, deRham + +oxasir.sm1, --- open asir protocol module 3/1 1998, 6/5 1999 + asirconnect, asir, fctr, primadec, (C) M.Noro, N.Takayama +ox.sm1, --- open sm1 protocol module 11/11,1999 (C) N.Takayama. oxhelp for help +hol.sm1, basic package for holonomic systems (C) N.Takayama, 2000, 06/08 +rank characteristic ch rrank gb pgb syz genericAnn annfs gb_h syz_h isSameIdeal isSameIdeal_h +sm1>gkz.sm1 generates gkz systems (C) N.Takayama, 1998, 11/8, cf. rrank in hol.sm1 +gkz +sm1>appell.sm1 generates Appell hypergeometric differential equations (C) N.Takayama, 1998, 11/8, cf. rank in hol.sm1 +appell1 appell4 +sm1>resol0.sm1, package to construct schreyer resolutions -- not minimal + (C) N.Takayama, 1999, 5/18. resol0, resol1 +complex.sm1 : 1999, 9/28, res-div, res-solv, res-kernel-image, res-dual + 2000, 6/8, isExact_h, isExact +In this package, complex is expressed in terms of matrices. +restall.sm1 ... compute all the cohomology groups of the restriction + of a D-module to tt = (t_1,...,t_d) = (0,...,0). +non-Schreyer Version: 19980415 by T.Oaku +usage: [(P1)...] [(t1)...] bfm --> the b-function + [(P1)...] [(t1)...] k0 k1 deg restall --> cohomologies of restriction + [(P1)...] [(t1)...] intbfm --> the b-function for integration + [(P1)...] [(t1)...] k0 k1 deg intall --> cohomologies of integration +restall_s.sm1...compute all the cohomology groups of the restriction + of a D-module to tt = (t_1,...,t_d) = (0,...,0). +Schreyer Version: 19990521 by N.Takayama & T.Oaku +usage: [(P1)...] [(t1)...] k0 k1 deg restall_s -> cohomologies of restriction + [(P1)...] [(t1)...] k0 k1 deg intall_s --> cohomologies of integration +No truncation from below in restall +The variable Schreyer is set to 2. +Loading tower.sm1 in the standard context. You cannot use Schyrer 1. It is controlled from cohom.sm1 + +oxpath.oxlog.xterm is set to /home/nobuki/OpenXM/lib/sm1/bin/oxlog +In(3)=a=Sannfs2("x^3-y^2"); +Starting ox_asir server. +Hello from open. serverName is localhost and portnumber is 0 +Done the initialization. port =1024 +Hello from open. serverName is localhost and portnumber is 0 +Done the initialization. port =1025 +[ 7 , 1025 , 6 , 1024 ] +[1] 250 +Trying to accept from localhost... len= 16 + 4 2 7f 0 0 1 0 0 0 0 0 0 0 0 8 0 +Authentification: localhost is allowed to be accepted. +Accepted. +Trying to accept from localhost... len= 16 + 4 3 7f 0 0 1 0 0 0 0 0 0 0 0 6 0 +Authentification: localhost is allowed to be accepted. +Accepted. + +Control port 1024 : Connected. + +Stream port 1025 : Connected. +Byte order for control process is network byte order. +Byte order for engine process is network byte order. +WeightOfSweyl=[ x , -1 , y , -1 , Dx , 1 , Dy , 1 ] +Automatic homogenization. +[ -2*x*Dx , -3*y*Dx^2 , -9*y^2*Dx*Dy , -27*y^3*Dy^2 ] +Warning: Homogenization and ReduceLowerTerms options are automatically turned off. +....Done. betti=4 +Warning: Homogenization and ReduceLowerTerms options are automatically turned ON. +Warning: Homogenization and ReduceLowerTerms options are automatically turned off. +.Done. betti=1 +Warning: Homogenization and ReduceLowerTerms options are automatically turned ON. +Warning: Homogenization and ReduceLowerTerms options are automatically turned off. +Done. betti=0 +Warning: Homogenization and ReduceLowerTerms options are automatically turned ON. +rf= [ + [ + [ + [ -9*y^2*Dy , 0 , 2*x , 0 ] + [ 0 , 0 , -3*y*Dy , Dx ] + [ 0 , -3*y*Dy , Dx , 0 ] + [ -3*y*Dx , 2*x , 0 , 0 ] + ] + [ + [ -Dx , 0 , 0 , 3*y*Dy ] + ] + [ ] + ] + [ + [ -2*x*Dx , -3*y*Dx^2 , -9*y^2*Dx*Dy , -27*y^3*Dy^2 ] + [ -9*y^2*Dy , -3*es^2*y*Dy , -3*es*y*Dy , -3*y*Dx ] + [ -Dx ] + ] + [ + [ ] + [ + [ + [ 0 , 2 ] + [ -9*y^2*Dy , 2*x ] + ] + [ + [ 2 , 3 ] + [ -3*y*Dy , Dx ] + ] + [ + [ 1 , 2 ] + [ -3*y*Dy , Dx ] + ] + [ + [ 0 , 1 ] + [ -3*y*Dx , 2*x ] + ] + ] + [ + [ + [ 0 , 3 ] + [ -Dx , 3*y*Dy ] + ] + ] + [ ] + ] + [ + [ -2*x*Dx-3*y*Dy+h^2 , -3*y*Dx^2+2*x*Dy*h , -9*y^2*Dx*Dy-3*y*Dx*h^2-4*x^2*Dy*h , -27*y^3*Dy^2-27*y^2*Dy*h^2+3*y*h^4+8*x^3*Dy*h ] + ] + ] +Generating reduction table which gives an order of reduction. +WeghtOfSweyl=[ x , -1 , y , -1 , Dx , 1 , Dy , 1 ] +tower[ [ -2*x*Dx , -3*y*Dx^2 , -9*y^2*Dx*Dy , -27*y^3*Dy^2 ] , [ -9*y^2*Dy , -3*es^2*y*Dy , -3*es*y*Dy , -3*y*Dx ] , [ -Dx ] ] +reductionTable= [ + [ 1 , 2 , 3 , 4 ] + [ 3 , 4 , 3 , 2 ] + [ 3 ] + ] +[ 0 , 0 ] +Processing [level,i]= [ 0 , 0 ] Strategy = 1 +[ 0 , 1 ] +Processing [level,i]= [ 0 , 1 ] Strategy = 2 +[ 1 , 3 ] +Processing [level,i]= [ 1 , 3 ] Strategy = 2 +SpairAndReduction: +[ p and bases , [ [ 0 , 1 ] , [ -3*y*Dx , 2*x ] ] , [ -2*x*Dx-3*y*Dy+h^2 , -3*y*Dx^2+2*x*Dy*h , %[null] , %[null] ] ] +[ level= , 1 ] +[ tower2= , [ [ ] ] ] +[ -3*y*Dx , 2*es*x ] +[gi, gj] = [ -2*x*Dx-3*y*Dy+h^2 , -3*y*Dx^2+2*x*Dy*h ] +1 +Reduce the element 9*y^2*Dx*Dy+3*y*Dx*h^2+4*x^2*Dy*h +by [ -2*x*Dx-3*y*Dy+h^2 , -3*y*Dx^2+2*x*Dy*h , %[null] , %[null] ] +result is [ 9*y^2*Dx*Dy+3*y*Dx*h^2+4*x^2*Dy*h , 1 , [ 0 , 0 , 0 , 0 ] ] +vdegree of the original = 0 +vdegree of the remainder = 0 +[ 9*y^2*Dx*Dy+3*y*Dx*h^2+4*x^2*Dy*h , [ -3*y*Dx , 2*x , 0 , 0 ] , 3 , 2 , 0 , 0 ] +[ 0 , 2 ] +Processing [level,i]= [ 0 , 2 ] Strategy = 3 +[ 1 , 0 ] +Processing [level,i]= [ 1 , 0 ] Strategy = 3 +SpairAndReduction: +[ p and bases , [ [ 0 , 2 ] , [ -9*y^2*Dy , 2*x ] ] , [ -2*x*Dx-3*y*Dy+h^2 , -3*y*Dx^2+2*x*Dy*h , 9*y^2*Dx*Dy+3*y*Dx*h^2+4*x^2*Dy*h , %[null] ] ] +[ level= , 1 ] +[ tower2= , [ [ ] ] ] +[ 9*y^2*Dy , 2*es^2*x ] +[gi, gj] = [ -2*x*Dx-3*y*Dy+h^2 , 9*y^2*Dx*Dy+3*y*Dx*h^2+4*x^2*Dy*h ] +1 +Reduce the element -27*y^3*Dy^2+6*x*y*Dx*h^2-18*y^2*Dy*h^2+8*x^3*Dy*h +by [ -2*x*Dx-3*y*Dy+h^2 , -3*y*Dx^2+2*x*Dy*h , 9*y^2*Dx*Dy+3*y*Dx*h^2+4*x^2*Dy*h , %[null] ] +result is [ 27*y^3*Dy^2+27*y^2*Dy*h^2-3*y*h^4-8*x^3*Dy*h , -1 , [ -3*y*h^2 , 0 , 0 , 0 ] ] +vdegree of the original = -1 +vdegree of the remainder = -1 +[ 27*y^3*Dy^2+27*y^2*Dy*h^2-3*y*h^4-8*x^3*Dy*h , [ -9*y^2*Dy-3*y*h^2 , 0 , -2*x , 0 ] , 0 , 3 , -1 , -1 ] +[ 1 , 2 ] +Processing [level,i]= [ 1 , 2 ] Strategy = 3 +SpairAndReduction: +[ p and bases , [ [ 1 , 2 ] , [ -3*y*Dy , Dx ] ] , [ -2*x*Dx-3*y*Dy+h^2 , -3*y*Dx^2+2*x*Dy*h , 9*y^2*Dx*Dy+3*y*Dx*h^2+4*x^2*Dy*h , 27*y^3*Dy^2+27*y^2*Dy*h^2-3*y*h^4-8*x^3*Dy*h ] ] +[ level= , 1 ] +[ tower2= , [ [ ] ] ] +[ 3*es*y*Dy , es^2*Dx ] +[gi, gj] = [ -3*y*Dx^2+2*x*Dy*h , 9*y^2*Dx*Dy+3*y*Dx*h^2+4*x^2*Dy*h ] +1 +Reduce the element -6*y*Dx^2*h^2+4*x^2*Dx*Dy*h+6*x*y*Dy^2*h+8*x*Dy*h^3 +by [ -2*x*Dx-3*y*Dy+h^2 , -3*y*Dx^2+2*x*Dy*h , 9*y^2*Dx*Dy+3*y*Dx*h^2+4*x^2*Dy*h , 27*y^3*Dy^2+27*y^2*Dy*h^2-3*y*h^4-8*x^3*Dy*h ] +result is [ 0 , 1 , [ 2*x*Dy*h , -2*h^2 , 0 , 0 ] ] +vdegree of the original = 1 +vdegree of the remainder = %[null] +[ 0 , [ 2*x*Dy*h , 3*y*Dy-2*h^2 , Dx , 0 ] , 2 , -1 , 1 , %[null] ] +[ 2 , 0 ] +Processing [level,i]= [ 2 , 0 ] Strategy = 3 +SpairAndReduction: +[ p and bases , [ [ 0 , 3 ] , [ -Dx , 3*y*Dy ] ] , [ [ 9*y^2*Dy+3*y*h^2 , 0 , 2*x , 1 ] , %[null] , [ 2*x*Dy*h , 3*y*Dy-2*h^2 , Dx , 0 ] , [ 3*y*Dx , -2*x , 1 , 0 ] ] ] +[ level= , 2 ] +[ tower2= , [ [ -2*x*Dx , -3*y*Dx^2 , -9*y^2*Dx*Dy , -27*y^3*Dy^2 ] ] ] +[ Dx , -3*es^3*y*Dy ] +[gi, gj] = [ 9*y^2*Dy+2*es^2*x+es^3+3*y*h^2 , 3*y*Dx-2*es*x+es^2 ] +1 +Reduce the element 6*es*x*y*Dy+2*es^2*x*Dx-3*es^2*y*Dy+es^3*Dx-6*y*Dx*h^2+2*es^2*h^2 +by [ [ 9*y^2*Dy+3*y*h^2 , 0 , 2*x , 1 ] , %[null] , [ 2*x*Dy*h , 3*y*Dy-2*h^2 , Dx , 0 ] , [ 3*y*Dx , -2*x , 1 , 0 ] ] +result is [ -3*es^2*y*Dy+es^3*Dx+4*es^2*h^2-4*x^2*Dy*h , 1 , [ 0 , 0 , -2*x , 2*h^2 ] ] +vdegree of the original = 0 +vdegree of the remainder = 0 +[ -3*es^2*y*Dy+es^3*Dx+4*es^2*h^2-4*x^2*Dy*h , [ Dx , 0 , -2*x , -3*y*Dy+2*h^2 ] , 0 , 1 , 0 , 0 ] +[ 0 , 3 ] +Processing [level,i]= [ 0 , 3 ] Strategy = 4 +[ 1 , 1 ] +Processing [level,i]= [ 1 , 1 ] Strategy = 4 +Betti numbers are ------ + [ 2 , 1 , 0 ] +[seq,level,q]=[ 3 , 1 , 1 ] +[ level, q = , 1 , 1 ] +bases= + [ + [ -Dx , 1 , 2*x , 3*y*Dy-2*h^2 ] + ] +dr= + [ Dx , -1 , -2*x , -3*y*Dy+2*h^2 ] +newbases= + [ + [ 0 , 0 , 0 , 0 ] + ] +[seq,level,q]=[ 2 , 0 , 3 ] +[ level, q = , 0 , 3 ] +bases= + [ + [ 9*y^2*Dy+3*y*h^2 , 0 , 2*x , 1 ] + [ -4*x^2*Dy*h , 0 , -3*y*Dy+4*h^2 , Dx ] + [ 2*x*Dy*h , 3*y*Dy-2*h^2 , Dx , 0 ] + [ 3*y*Dx , -2*x , 1 , 0 ] + ] +dr= + [ -9*y^2*Dy-3*y*h^2 , 0 , -2*x , -1 ] +newbases= + [ + [ 0 , 0 , 0 , 0 ] + [ -9*y^2*Dx*Dy-3*y*Dx*h^2-4*x^2*Dy*h , 0 , -2*x*Dx-3*y*Dy+2*h^2 , 0 ] + [ 2*x*Dy*h , 3*y*Dy-2*h^2 , Dx , 0 ] + [ 3*y*Dx , -2*x , 1 , 0 ] + ] +[seq,level,q]=[ 1 , 0 , 2 ] +[ level, q = , 0 , 2 ] +bases= + [ + [ 0 , 0 , 0 , 0 ] + [ -9*y^2*Dx*Dy-3*y*Dx*h^2-4*x^2*Dy*h , 0 , -2*x*Dx-3*y*Dy+2*h^2 , 0 ] + [ 2*x*Dy*h , 3*y*Dy-2*h^2 , Dx , 0 ] + [ 3*y*Dx , -2*x , 1 , 0 ] + ] +dr= + [ -3*y*Dx , 2*x , -1 , 0 ] +newbases= + [ + [ 0 , 0 , 0 , 0 ] + [ 6*x*y*Dx^2-4*x^2*Dy*h , -4*x^2*Dx-6*x*y*Dy , 0 , 0 ] + [ -3*y*Dx^2+2*x*Dy*h , 2*x*Dx+3*y*Dy , 0 , 0 ] + [ 0 , 0 , 0 , 0 ] + ] +[ level= , 0 ] + [ + [ -2*x*Dx-3*y*Dy+h^2 ] + [ -3*y*Dx^2+2*x*Dy*h ] + ] + [ + [ -2*x*Dx-3*y*Dy+h^2 ] + [ -3*y*Dx^2+2*x*Dy*h ] + ] +[ level= , 1 ] + [ + [ 0 , 0 , 0 , 0 ] + [ -3*y*Dx^2+2*x*Dy*h , 2*x*Dx+3*y*Dy , 0 , 0 ] + [ 0 , 0 , 0 , 0 ] + ] + [ + [ 0 , 0 ] + [ -3*y*Dx^2+2*x*Dy*h , 2*x*Dx+3*y*Dy ] + [ 0 , 0 ] + ] +[ level= , 2 ] + [ + [ 0 , 0 , 0 , 0 ] + ] + [ + [ 0 , 0 , 0 ] + ] +------------ Note ----------------------------- +To get shift vectors, use Reparse and SgetShifts(resmat,w) +To get initial of the complex, use Reparse and Sinit_w(resmat,w) +0: minimal resolution, 3: Schreyer resolution +------------ Resolution Summary -------------- +Betti numbers : [ 2 , 1 ] +Betti numbers of the Schreyer frame: [ 4 , 4 , 1 ] +----------------------------------------------- +In(4)=sm1_pmat(a); + [ + [ + [ + [ -2*x*Dx-3*y*Dy+h^2 ] + [ -3*y*Dx^2+2*x*Dy*h ] + ] + [ + [ -3*y*Dx^2+2*x*Dy*h , 2*x*Dx+3*y*Dy ] + ] + ] + [ + [ + [ -2*x*Dx-3*y*Dy+h^2 ] + [ -3*y*Dx^2+2*x*Dy*h ] + ] + [ + [ 0 , 0 ] + [ -3*y*Dx^2+2*x*Dy*h , 2*x*Dx+3*y*Dy ] + [ 0 , 0 ] + ] + [ + [ 0 , 0 , 0 ] + ] + ] + [ + [ + [ + [ -2*x*Dx-3*y*Dy+h^2 ] + [ -3*y*Dx^2+2*x*Dy*h ] + [ 9*y^2*Dx*Dy+3*y*Dx*h^2+4*x^2*Dy*h ] + [ 27*y^3*Dy^2+27*y^2*Dy*h^2-3*y*h^4-8*x^3*Dy*h ] + ] + [ + [ 0 , 0 , 0 , 0 ] + [ 6*x*y*Dx^2-4*x^2*Dy*h , -4*x^2*Dx-6*x*y*Dy , 0 , 0 ] + [ -3*y*Dx^2+2*x*Dy*h , 2*x*Dx+3*y*Dy , 0 , 0 ] + [ 0 , 0 , 0 , 0 ] + ] + [ + [ 0 , 0 , 0 , 0 ] + ] + ] + [ + [ 0 , 0 , 1 , 2 ] + [ 0 , 3 , 0 , 0 ] + [ 0 ] + ] + [ + [ %[null] , %[null] , [ -3*y*Dx , 2*x , -1 , 0 ] , [ -9*y^2*Dy-3*y*h^2 , 0 , -2*x , -1 ] ] + [ %[null] , [ Dx , -1 , -2*x , -3*y*Dy+2*h^2 ] , %[null] , %[null] ] + [ %[null] ] + ] + [ 1 , 4 , 4 , 1 ] + [ + [ 0 , 0 , 1 , 2 ] + [ 0 , 3 , %[null] , 0 ] + [ 0 ] + ] + ] + [ + [ + [ -2*x*Dx-3*y*Dy+h^2 ] + [ -3*y*Dx^2+2*x*Dy*h ] + [ 9*y^2*Dx*Dy+3*y*Dx*h^2+4*x^2*Dy*h ] + [ 27*y^3*Dy^2+27*y^2*Dy*h^2-3*y*h^4-8*x^3*Dy*h ] + ] + [ + [ 9*y^2*Dy+3*y*h^2 , 0 , 2*x , 1 ] + [ -4*x^2*Dy*h , 0 , -3*y*Dy+4*h^2 , Dx ] + [ 2*x*Dy*h , 3*y*Dy-2*h^2 , Dx , 0 ] + [ 3*y*Dx , -2*x , 1 , 0 ] + ] + [ + [ -Dx , 1 , 2*x , 3*y*Dy-2*h^2 ] + ] + ] + [ + [ + [ + [ -9*y^2*Dy , 0 , 2*x , 0 ] + [ 0 , 0 , -3*y*Dy , Dx ] + [ 0 , -3*y*Dy , Dx , 0 ] + [ -3*y*Dx , 2*x , 0 , 0 ] + ] + [ + [ -Dx , 0 , 0 , 3*y*Dy ] + ] + [ ] + ] + [ + [ -2*x*Dx , -3*y*Dx^2 , -9*y^2*Dx*Dy , -27*y^3*Dy^2 ] + [ -9*y^2*Dy , -3*es^2*y*Dy , -3*es*y*Dy , -3*y*Dx ] + [ -Dx ] + ] + [ + [ ] + [ + [ + [ 0 , 2 ] + [ -9*y^2*Dy , 2*x ] + ] + [ + [ 2 , 3 ] + [ -3*y*Dy , Dx ] + ] + [ + [ 1 , 2 ] + [ -3*y*Dy , Dx ] + ] + [ + [ 0 , 1 ] + [ -3*y*Dx , 2*x ] + ] + ] + [ + [ + [ 0 , 3 ] + [ -Dx , 3*y*Dy ] + ] + ] + [ ] + ] + [ + [ -2*x*Dx-3*y*Dy+h^2 , -3*y*Dx^2+2*x*Dy*h , -9*y^2*Dx*Dy-3*y*Dx*h^2-4*x^2*Dy*h , -27*y^3*Dy^2-27*y^2*Dy*h^2+3*y*h^4+8*x^3*Dy*h ] + ] + ] + ] +In(5)= \ No newline at end of file