===================================================================
RCS file: /home/cvs/OpenXM/src/asir-doc/parts/algnum.texi,v
retrieving revision 1.6
retrieving revision 1.7
diff -u -p -r1.6 -r1.7
--- OpenXM/src/asir-doc/parts/algnum.texi	2003/04/19 15:44:55	1.6
+++ OpenXM/src/asir-doc/parts/algnum.texi	2003/04/20 08:01:24	1.7
@@ -1,4 +1,4 @@
-@comment $OpenXM: OpenXM/src/asir-doc/parts/algnum.texi,v 1.5 2000/09/23 07:53:24 noro Exp $
+@comment $OpenXM: OpenXM/src/asir-doc/parts/algnum.texi,v 1.6 2003/04/19 15:44:55 noro Exp $
 \BJP
 @node 代数的数に関する演算,,, Top
 @chapter 代数的数に関する演算
@@ -410,13 +410,15 @@ into the @b{root} by @code{rattoalgp()} function.
 
 @example
 [88] rattoalgp(S,[alg(0)]);
-(((#0+2)/(#0+2))*t#1^2+((#0^2+2*#0)/(#0+2))*t#1+((2*#0^2+4*#0)/(#0+2)))*x
-+((1)/(#0+2))*t#1+((1)/(#0+2))
+(((#0+2)/(#0+2))*t#1^2+((#0^2+2*#0)/(#0+2))*t#1
++((2*#0^2+4*#0)/(#0+2)))*x+((1)/(#0+2))*t#1+((1)/(#0+2))
 [89] rattoalgp(S,[alg(0),alg(1)]);
-(((#0^3+6*#0^2+12*#0+8)*#1^2+(#0^4+6*#0^3+12*#0^2+8*#0)*#1+2*#0^4+12*#0^3
-+24*#0^2+16*#0)/(#0^3+6*#0^2+12*#0+8))*x+(((#0+2)*#1+#0+2)/(#0^2+4*#0+4))
+(((#0^3+6*#0^2+12*#0+8)*#1^2+(#0^4+6*#0^3+12*#0^2+8*#0)*#1
++2*#0^4+12*#0^3+24*#0^2+16*#0)/(#0^3+6*#0^2+12*#0+8))*x
++(((#0+2)*#1+#0+2)/(#0^2+4*#0+4))
 [90] rattoalgp(S,[alg(1),alg(0)]);
-(((#0+2)*#1^2+(#0^2+2*#0)*#1+2*#0^2+4*#0)/(#0+2))*x+((#1+1)/(#0+2))
+(((#0+2)*#1^2+(#0^2+2*#0)*#1+2*#0^2+4*#0)/(#0+2))*x
++((#1+1)/(#0+2))
 [91] simpalg(@@89);
 (#1^2+#0*#1+2*#0)*x+((-1/5*#0+2/5)*#1-1/5*#0+2/5)
 [92] simpalg(@@90);
@@ -499,8 +501,8 @@ where the ground field is a multiple extension.
 (#0)
 [64] B=newalg(75*s^2+(10*A^7-175*A^4-470*A)*s+3*A^8-45*A^5-261*A^2);
 (#1)
-[65] P1=75*x^2+(150*B+10*A^7-175*A^4-395*A)*x+(75*B^2+(10*A^7-175*A^4-395*A)*B
-+13*A^8-220*A^5-581*A^2)$
+[65] P1=75*x^2+(150*B+10*A^7-175*A^4-395*A)*x
++(75*B^2+(10*A^7-175*A^4-395*A)*B+13*A^8-220*A^5-581*A^2)$
 [66] P2=x^2+A*x+A^2$
 [67] cr_gcda(P1,P2);
 27*x+((#0^6-19*#0^3-65)*#1-#0^7+19*#0^4+38*#0)
@@ -531,9 +533,9 @@ The function to do this factorization is @code{asq()}.
 [116] A=newalg(x^2+x+1);                           
 (#4)
 [117] T=simpalg((x+A+1)*(x^2-2*A-3)^2*(x^3-x-A)^2);
-x^11+(#4+1)*x^10+(-4*#4-8)*x^9+(-10*#4-4)*x^8+(16*#4+20)*x^7+(24*#4-6)*x^6
-+(-29*#4-31)*x^5+(-15*#4+28)*x^4+(38*#4+29)*x^3+(#4-23)*x^2+(-21*#4-7)*x
-+(3*#4+8)
+x^11+(#4+1)*x^10+(-4*#4-8)*x^9+(-10*#4-4)*x^8+(16*#4+20)*x^7
++(24*#4-6)*x^6+(-29*#4-31)*x^5+(-15*#4+28)*x^4+(38*#4+29)*x^3
++(#4-23)*x^2+(-21*#4-7)*x+(3*#4+8)
 [118] asq(T);
 [[x^5+(-2*#4-4)*x^3+(-#4)*x^2+(2*#4+3)*x+(#4-2),2],[x+(#4+1),1]]
 @end example
@@ -641,9 +643,9 @@ The function is @code{sp()}.
 
 @example
 [103] sp(x^5-2);
-[[x+(-#1),2*x+(#0^3*#1^3+#0^4*#1^2+2*#1+2*#0),2*x+(-#0^4*#1^2),2*x
-+(-#0^3*#1^3),x+(-#0)],[[(#1),t#1^4+t#0*t#1^3+t#0^2*t#1^2+t#0^3*t#1+t#0^4],
-[(#0),t#0^5-2]]]
+[[x+(-#1),2*x+(#0^3*#1^3+#0^4*#1^2+2*#1+2*#0),2*x+(-#0^4*#1^2),
+2*x+(-#0^3*#1^3),x+(-#0)],
+[[(#1),t#1^4+t#0*t#1^3+t#0^2*t#1^2+t#0^3*t#1+t#0^4],[(#0),t#0^5-2]]]
 @end example
 
 @noindent
@@ -1405,7 +1407,7 @@ is a list containing only integral polynomials.
 \E
 \BEG
 The splitting field is represented as a list of pairs of form
-@code{[root,algptorat(defpoly(root))]}.
+@code{[root,} @code{algptorat(defpoly(root))]}.
 In more detail, the list is interpreted as a representation
 of successive extension obtained by adjoining @b{root}'s
 to the rational number field.  Adjoining is performed from the right
@@ -1432,9 +1434,10 @@ the builtin function @code{res()} is always used.
 
 @example
 [101] L=sp(x^9-54);
-[[x+(-#2),-54*x+(#1^6*#2^4),54*x+(#1^6*#2^4+54*#2),54*x+(-#1^8*#2^2),
--54*x+(#1^5*#2^5),54*x+(#1^5*#2^5+#1^8*#2^2),-54*x+(-#1^7*#2^3-54*#1),
-54*x+(-#1^7*#2^3),x+(-#1)],[[(#2),t#2^6+t#1^3*t#2^3+t#1^6],[(#1),t#1^9-54]]]
+[[x+(-#2),-54*x+(#1^6*#2^4),54*x+(#1^6*#2^4+54*#2),
+54*x+(-#1^8*#2^2),-54*x+(#1^5*#2^5),54*x+(#1^5*#2^5+#1^8*#2^2),
+-54*x+(-#1^7*#2^3-54*#1),54*x+(-#1^7*#2^3),x+(-#1)],
+[[(#2),t#2^6+t#1^3*t#2^3+t#1^6],[(#1),t#1^9-54]]]
 [102] for(I=0,M=1;I<9;I++)M*=L[0][I];
 [111] M=simpalg(M);
 -1338925209984*x^9+72301961339136