=================================================================== RCS file: /home/cvs/OpenXM/src/asir-port/cgi/r-fd.rr,v retrieving revision 1.7 retrieving revision 1.11 diff -u -p -r1.7 -r1.11 --- OpenXM/src/asir-port/cgi/r-fd.rr 2015/02/25 04:47:50 1.7 +++ OpenXM/src/asir-port/cgi/r-fd.rr 2015/08/16 07:32:21 1.11 @@ -1,23 +1,26 @@ -/* $OpenXM: OpenXM/src/asir-port/cgi/r-fd.rr,v 1.6 2014/12/12 08:29:53 takayama Exp $ */ +/* $OpenXM: OpenXM/src/asir-port/cgi/r-fd.rr,v 1.10 2015/03/11 07:28:45 takayama Exp $ */ load("tk_fd.rr")$ import("tk_r.rr")$ import("oh_number.rr")$ +import("test_hook.rr")$ /* To put overriden functions */ /* r_d2rat(0.3) --> precision loss in truncation if not ctrl("bigfloat",1) */ ctrl("bigfloat",1)$ -def r_d2rat(Y) { - if ((type(Y) ==4)||(type(Y)==5)||(type(Y)==6)) return map(r_d2rat,Y); +def r_d2rat(Y,Prec) { + if ((type(Y) ==4)||(type(Y)==5)||(type(Y)==6)) return map(r_d2rat,Y,Prec); if ((type(Y) == 1) && (ntype(Y) >= 1)) { S = rtostr(Y); Y = "eval(("+S+")*exp(0));"; /* print(Y); */ Y = eval_str(Y); /* printf("Y=%a\n",Y); */ /* return oh_number.rats(Y); */ - return rats2(Y); /* temporary */ + return rats2(Y | prec=Prec); /* temporary */ }else return Y; } def r_ahvec(A,B,C,Y) { - Y = r_d2rat(Y); + if (type(getopt(prec))<0) Prec=20; + else Prec=getopt(prec); + Y = r_d2rat(Y,Prec); Ans=a_ahvec(A,B,C,Y); /* Fans=map(rtostr,map(tk_fd.tk_number_rattofloat,Ans)); */ Fans=map(deval,Ans); @@ -39,12 +42,14 @@ def a_ahvec(A,B,C,Y) { /* temporary */ def rats2(X) { + if (type(getopt(prec))<0) Prec=20; + else Prec=getopt(prec); if (X == 0) return 0; Sign=1; if (X <0) {Sign=-1 ; X = -X;} Digit = number_floor(eval(log(X)/log(10))); - Num = number_floor((X/(10^Digit))*10^20); - return Sign*(Num/(10^20))*(10^Digit); + Num = number_floor((X/(10^Digit))*10^Prec); + return Sign*(Num/(10^Prec))*(10^Digit); } def checkrats2() { @@ -65,11 +70,56 @@ def a_expect(A,B,C,Y) { return(E); } def r_expect(A,B,C,Y) { - Y = r_d2rat(Y); + if (type(getopt(prec))<0) Prec=20; + else Prec=getopt(prec); + + Y = r_d2rat(Y,Prec); E=a_expect(A,B,C,Y); - Fans=map(deval,E); + Fans=map_deval(E); Fans = tk_r.asir2r_c(Fans); return Fans; } +def r_ahmat(A,B,C,Y) { + if (type(getopt(prec))<0) Prec=20; + else Prec=getopt(prec); + Y = r_d2rat(Y,Prec); + Ans=a_ahmat(A,B,C,Y); + Fans=map_deval(Ans); + Fans = tk_r.asir2r_c(Fans); + return Fans; +} + +def a_ahmat(A,B,C,Y) { + return(tk_fd.ahmat_abc(A,B,C,Y)); +} + +def r_log_ahmat(A,B,C,Y) { + if (type(getopt(prec))<0) Prec=20; + else Prec=getopt(prec); + Y = r_d2rat(Y,Prec); + Ans=a_log_ahmat(A,B,C,Y); + Fans=map_deval(Ans); + Fans = tk_r.asir2r_c(Fans); + return Fans; +} + +def a_log_ahmat(A,B,C,Y) { + Ans=tk_fd.log_ahmat_abc(A,B,C,Y); + return Ans; +} + +def map_deval(L) { + if (type(L) >=4) return(map(map_deval,L)); + return(deval(L)); +} + +def fd_hessian2(A,B,C,Xval) { + H = tk_fd.fd_hessian2(A,B,C,Xval); + return([H[0],matrix_matrix_to_list(H[1]),matrix_matrix_to_list(H[2])]); +} +def r_fd_hessian2(A,B,C,Xval) { + H = tk_fd.fd_hessian2(A,B,C,Xval); + return(tk_r.asir2r_c(H)); +} end$