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Annotation of OpenXM_contrib2/asir2018/parse/eval.c, Revision 1.4

1.1       noro        1: /*
                      2:  * Copyright (c) 1994-2000 FUJITSU LABORATORIES LIMITED
                      3:  * All rights reserved.
                      4:  *
                      5:  * FUJITSU LABORATORIES LIMITED ("FLL") hereby grants you a limited,
                      6:  * non-exclusive and royalty-free license to use, copy, modify and
                      7:  * redistribute, solely for non-commercial and non-profit purposes, the
                      8:  * computer program, "Risa/Asir" ("SOFTWARE"), subject to the terms and
                      9:  * conditions of this Agreement. For the avoidance of doubt, you acquire
                     10:  * only a limited right to use the SOFTWARE hereunder, and FLL or any
                     11:  * third party developer retains all rights, including but not limited to
                     12:  * copyrights, in and to the SOFTWARE.
                     13:  *
                     14:  * (1) FLL does not grant you a license in any way for commercial
                     15:  * purposes. You may use the SOFTWARE only for non-commercial and
                     16:  * non-profit purposes only, such as academic, research and internal
                     17:  * business use.
                     18:  * (2) The SOFTWARE is protected by the Copyright Law of Japan and
                     19:  * international copyright treaties. If you make copies of the SOFTWARE,
                     20:  * with or without modification, as permitted hereunder, you shall affix
                     21:  * to all such copies of the SOFTWARE the above copyright notice.
                     22:  * (3) An explicit reference to this SOFTWARE and its copyright owner
                     23:  * shall be made on your publication or presentation in any form of the
                     24:  * results obtained by use of the SOFTWARE.
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                     29:  *
                     30:  * THE SOFTWARE IS PROVIDED AS IS WITHOUT ANY WARRANTY OF ANY KIND. FLL
                     31:  * MAKES ABSOLUTELY NO WARRANTIES, EXPRESSED, IMPLIED OR STATUTORY, AND
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                     47:  *
1.4     ! kondoh     48:  * $OpenXM: OpenXM_contrib2/asir2018/parse/eval.c,v 1.3 2019/08/21 00:37:47 noro Exp $
1.1       noro       49: */
                     50: #include <ctype.h>
                     51: #include "ca.h"
                     52: #include "al.h"
                     53: #include "base.h"
                     54: #include "parse.h"
                     55: #if defined(GC7)
                     56: #include "gc.h"
                     57: #endif
                     58: #include <sys/types.h>
                     59: #include <sys/stat.h>
                     60:
                     61: extern JMP_BUF timer_env;
                     62: extern FUNC cur_binf;
                     63: extern NODE PVSS;
                     64: extern int evalef;
                     65:
                     66: int f_break,f_return,f_continue;
                     67: int evalstatline;
                     68: int show_crossref;
                     69: int at_root;
                     70: void gen_searchf_searchonly(char *name,FUNC *r,int global);
                     71: LIST eval_arg(FNODE a,unsigned int quote);
                     72:
                     73: pointer eval(FNODE f)
                     74: {
                     75:   LIST t;
                     76:   STRING str;
                     77:   pointer val = 0;
                     78:   pointer a,a1,a2;
                     79:   NODE tn,tn1,ind,match;
                     80:   R u;
                     81:   DP dp;
                     82:   DPM dpm;
                     83:   unsigned int pv;
                     84:   int c,ret;
                     85:   Obj pos;
                     86:   FNODE f1;
                     87:   UP2 up2;
                     88:   UP up;
                     89:   UM um;
                     90:   Obj obj;
                     91:   GF2N gf2n;
                     92:   GFPN gfpn;
                     93:   GFSN gfsn;
                     94:   RANGE range;
                     95:   QUOTE expr,pattern;
                     96:   Q q;
                     97:
                     98: #if defined(VISUAL) || defined(__MINGW32__)
                     99:   check_intr();
                    100: #endif
                    101:   if ( !f )
                    102:     return ( 0 );
                    103:   switch ( f->id ) {
                    104:     case I_PAREN:
                    105:       val = eval((FNODE)(FA0(f)));
                    106:       break;
                    107:     case I_MINUS:
                    108:       a1 = eval((FNODE)(FA0(f)));
                    109:       arf_chsgn((Obj)a1,&obj);
                    110:       val = (pointer)obj;
                    111:       break;
                    112:     case I_BOP:
                    113:       a1 = eval((FNODE)FA1(f)); a2 = eval((FNODE)FA2(f));
                    114:       (*((ARF)FA0(f))->fp)(CO,a1,a2,&val);
                    115:       break;
                    116:     case I_NARYOP:
                    117:       tn = (NODE)FA1(f);
                    118:       a = eval((FNODE)BDY(tn));
                    119:       for ( tn = NEXT(tn); tn; tn = NEXT(tn) ) {
                    120:         a1 = eval((FNODE)BDY(tn));
                    121:         (*((ARF)FA0(f))->fp)(CO,a,a1,&a2);
                    122:         a = a2;
                    123:       }
                    124:       val = a;
                    125:       break;
                    126:     case I_COP:
                    127:       a1 = eval((FNODE)FA1(f)); a2 = eval((FNODE)FA2(f));
                    128:       c = arf_comp(CO,a1,a2);
                    129:       switch ( (cid)FA0(f) ) {
                    130:         case C_EQ:
                    131:           c = (c == 0); break;
                    132:         case C_NE:
                    133:           c = (c != 0); break;
                    134:         case C_GT:
                    135:           c = (c > 0); break;
                    136:         case C_LT:
                    137:           c = (c < 0); break;
                    138:         case C_GE:
                    139:           c = (c >= 0); break;
                    140:         case C_LE:
                    141:           c = (c <= 0); break;
                    142:         default:
                    143:           c = 0; break;
                    144:       }
                    145:       if ( c )
                    146:         val = (pointer)ONE;
                    147:       break;
                    148:     case I_AND:
                    149:       if ( eval((FNODE)FA0(f)) && eval((FNODE)FA1(f)) )
                    150:         val = (pointer)ONE;
                    151:       break;
                    152:     case I_OR:
                    153:       if ( eval((FNODE)FA0(f)) || eval((FNODE)FA1(f)) )
                    154:         val = (pointer)ONE;
                    155:       break;
                    156:     case I_NOT:
                    157:       if ( eval((FNODE)FA0(f)) )
                    158:         val = 0;
                    159:       else
                    160:         val = (pointer)ONE;
                    161:       break;
                    162:     case I_LOP:
                    163:       a1 = eval((FNODE)FA1(f)); a2 = eval((FNODE)FA2(f));
                    164:       val = evall((lid)FA0(f),a1,a2);
                    165:       break;
                    166:     case I_CE:
                    167:       if ( eval((FNODE)FA0(f)) )
                    168:         val = eval((FNODE)FA1(f));
                    169:       else
                    170:         val = eval((FNODE)FA2(f));
                    171:       break;
                    172:     case I_EV:
                    173:       evalnodebody((NODE)FA0(f),&tn); nodetod(tn,&dp); val = (pointer)dp;
                    174:       break;
                    175:     case I_EVM:
1.3       noro      176:       evalnodebody((NODE)FA0(f),&tn); pos = (Obj)eval((FNODE)FA1(f));
                    177:       if ( !pos )
                    178:         error("position of a module element must be positive.");
                    179:       nodetodpm(tn,pos,&dpm); val = (pointer)dpm;
1.1       noro      180:       break;
                    181:     case I_FUNC:
                    182:       val = evalf((FUNC)FA0(f),(FNODE)FA1(f),0); break;
                    183:     case I_FUNC_OPT:
                    184:       val = evalf((FUNC)FA0(f),(FNODE)FA1(f),(FNODE)FA2(f)); break;
                    185:     case I_FUNC_QARG:
                    186:       tn = BDY(eval_arg((FNODE)FA1(f),(unsigned int)0xffffffff));
                    187:       val = bevalf((FUNC)FA0(f),tn); break;
                    188:     case I_PFDERIV:
                    189:       val = evalf_deriv((FUNC)FA0(f),(FNODE)FA1(f),(FNODE)FA2(f)); break;
                    190:     case I_MAP:
                    191:       val = evalmapf((FUNC)FA0(f),(FNODE)FA1(f)); break;
                    192:     case I_RECMAP:
                    193:       val = eval_rec_mapf((FUNC)FA0(f),(FNODE)FA1(f)); break;
                    194:     case I_IFUNC:
                    195:       val = evalif((FNODE)FA0(f),(FNODE)FA1(f),(FNODE)FA2(f)); break;
                    196: #if !defined(VISUAL) && !defined(__MINGW32__)
                    197:     case I_TIMER:
                    198:       {
                    199:         int interval;
                    200:         Obj expired;
                    201:
1.2       noro      202:         interval = ZTOS((Q)eval((FNODE)FA0(f)));
1.1       noro      203:         expired = (Obj)eval((FNODE)FA2(f));
                    204:         set_timer(interval);
                    205:         savepvs();
                    206:         if ( !SETJMP(timer_env) )
                    207:           val = eval((FNODE)FA1(f));
                    208:         else {
                    209:           val = (pointer)expired;
                    210:           restorepvs();
                    211:         }
                    212:         reset_timer();
                    213:       }
                    214:       break;
                    215: #endif
                    216:     case I_PRESELF:
                    217:       f1 = (FNODE)FA1(f);
                    218:       if ( ID(f1) == I_PVAR ) {
                    219:         pv = (unsigned long)FA0(f1); ind = (NODE)FA1(f1); GETPV(pv,a);
                    220:         if ( !ind ) {
                    221:           (*((ARF)FA0(f))->fp)(CO,a,ONE,&val); ASSPV(pv,val);
                    222:         } else if ( a ) {
                    223:           evalnodebody(ind,&tn); getarray(a,tn,(pointer *)&u);
                    224:           (*((ARF)FA0(f))->fp)(CO,u,ONE,&val); putarray(a,tn,val);
                    225:         }
                    226:       } else
                    227:         error("++ : not implemented yet");
                    228:       break;
                    229:     case I_POSTSELF:
                    230:       f1 = (FNODE)FA1(f);
                    231:       if ( ID(f1) == I_PVAR ) {
                    232:         pv = (unsigned long)FA0(f1); ind = (NODE)FA1(f1); GETPV(pv,val);
                    233:         if ( !ind ) {
                    234:           (*((ARF)FA0(f))->fp)(CO,val,ONE,&u); ASSPV(pv,u);
                    235:         } else if ( val ) {
                    236:           evalnodebody(ind,&tn); getarray(val,tn,&a);
                    237:           (*((ARF)FA0(f))->fp)(CO,a,ONE,&u); putarray(val,tn,(pointer)u);
                    238:           val = a;
                    239:         }
                    240:       } else
                    241:         error("-- : not implemented yet");
                    242:       break;
                    243:     case I_PVAR:
                    244:       pv = (unsigned long)FA0(f);
                    245:       ind = (NODE)FA1(f);
                    246:       GETPV(pv,a);
                    247:       if ( !ind )
                    248:         val = a;
                    249:       else {
                    250:         evalnodebody(ind,&tn); getarray(a,tn,&val);
                    251:       }
                    252:       break;
                    253:     case I_ASSPVAR:
                    254:       f1 = (FNODE)FA0(f);
                    255:       if ( ID(f1) == I_PVAR ) {
                    256:         pv = (unsigned long)FA0(f1); ind = (NODE)FA1(f1);
                    257:         if ( !ind ) {
                    258:           val = eval((FNODE)FA1(f)); ASSPV(pv,val);
                    259:         } else {
                    260:           GETPV(pv,a);
                    261:           evalnodebody(ind,&tn);
                    262:           putarray(a,tn,val = eval((FNODE)FA1(f)));
                    263:         }
                    264:       } else if ( ID(f1) == I_POINT ) {
                    265:         /* f1 <-> FA0(f1)->FA1(f1) */
                    266:         a = eval(FA0(f1));
                    267:         assign_to_member(a,(char *)FA1(f1),val = eval((FNODE)FA1(f)));
                    268:       } else if ( ID(f1) == I_INDEX ) {
                    269:         /* f1 <-> FA0(f1)[FA1(f1)] */
                    270:         a = eval((FNODE)FA0(f1)); ind = (NODE)FA1(f1);
                    271:         evalnodebody(ind,&tn);
                    272:         putarray(a,tn,val = eval((FNODE)FA1(f)));
                    273:       } else {
                    274:         error("eval : invalid assignment");
                    275:       }
                    276:       break;
                    277:     case I_ANS:
                    278:       if ( (pv =(long)FA0(f)) < (long)APVS->n )
                    279:         val = APVS->va[pv].priv;
                    280:       break;
                    281:     case I_GF2NGEN:
                    282:       NEWUP2(up2,1);
                    283:       up2->w=1;
                    284:       up2->b[0] = 2; /* @ */
                    285:       MKGF2N(up2,gf2n);
                    286:       val = (pointer)gf2n;
                    287:       break;
                    288:     case I_GFPNGEN:
                    289:       up = UPALLOC(1);
                    290:       DEG(up)=1;
                    291:       COEF(up)[0] = 0;
                    292:       COEF(up)[1] = (Num)ONELM;
                    293:       MKGFPN(up,gfpn);
                    294:       val = (pointer)gfpn;
                    295:       break;
                    296:     case I_GFSNGEN:
                    297:       um = UMALLOC(1);
                    298:       DEG(um) = 1;
                    299:       COEF(um)[0] = 0;
                    300:       COEF(um)[1] = _onesf();
                    301:       MKGFSN(um,gfsn);
                    302:       val = (pointer)gfsn;
                    303:       break;
                    304:     case I_STR:
                    305:       MKSTR(str,FA0(f)); val = (pointer)str; break;
                    306:     case I_FORMULA:
                    307:       val = FA0(f);
                    308:       break;
                    309:     case I_LIST:
                    310:       evalnodebody((NODE)FA0(f),&tn); MKLIST(t,tn); val = (pointer)t; break;
                    311:     case I_CONS:
                    312:       evalnodebody((NODE)FA0(f),&tn); a2 = eval(FA1(f));
                    313:       if ( !a2 || OID(a2) != O_LIST )
                    314:           error("cons : invalid argument");
                    315:       for ( tn1 = tn; NEXT(tn1); tn1 = NEXT(tn1) );
                    316:       NEXT(tn1) = BDY((LIST)a2);
                    317:       MKLIST(t,tn); val = (pointer)t;
                    318:       break;
                    319:     case I_NEWCOMP:
                    320:       newstruct((long)FA0(f),(struct oCOMP **)&val); break;
                    321:     case I_CAR:
                    322:       if ( !(a = eval((FNODE)FA0(f))) || (OID(a) != O_LIST) )
                    323:         val = 0;
                    324:       else if ( !BDY((LIST)a) )
                    325:         val = a;
                    326:       else
                    327:         val = (pointer)BDY(BDY((LIST)a));
                    328:       break;
                    329:     case I_CDR:
                    330:       if ( !(a = eval((FNODE)FA0(f))) || (OID(a) != O_LIST) )
                    331:         val = 0;
                    332:       else if ( !BDY((LIST)a) )
                    333:         val = a;
                    334:       else {
                    335:         MKLIST(t,NEXT(BDY((LIST)a))); val = (pointer)t;
                    336:       }
                    337:       break;
                    338:     case I_INDEX:
                    339:       a = eval((FNODE)FA0(f)); ind = (NODE)FA1(f);
                    340:       evalnodebody(ind,&tn); getarray(a,tn,&val);
                    341:       break;
                    342:     case I_OPT:
                    343:       MKSTR(str,(char *)FA0(f));
                    344:       a = (pointer)eval(FA1(f));
                    345:       tn = mknode(2,str,a);
                    346:       MKLIST(t,tn); val = (pointer)t;
                    347:       break;
                    348:     case I_GETOPT:
                    349:       val = (pointer)getopt_from_cpvs((char *)FA0(f));
                    350:       break;
                    351:     case I_POINT:
                    352:       a = (pointer)eval(FA0(f));
                    353:       val = (pointer)memberofstruct(a,(char *)FA1(f));
                    354:       break;
                    355:     default:
                    356:       error("eval : unknown id");
                    357:       break;
                    358:   }
                    359:   return ( val );
                    360: }
                    361:
                    362: NODE fnode_to_nary_node(NODE);
                    363: NODE fnode_to_bin_node(NODE,int);
                    364:
                    365: FNODE fnode_to_nary(FNODE f)
                    366: {
                    367:   FNODE a0,a1,a2;
                    368:   NODE n,t,t0;
                    369:   pointer val;
                    370:   char *op;
                    371:
                    372:   if ( !f )
                    373:     return f;
                    374:   switch ( f->id ) {
                    375:     case I_NARYOP:
                    376:         n = fnode_to_nary_node((NODE)FA1(f));
                    377:         return mkfnode(2,I_NARYOP,FA0(f),n);
                    378:
                    379:     case I_BOP:
                    380:       a1 = fnode_to_nary((FNODE)FA1(f));
                    381:       a2 = fnode_to_nary((FNODE)FA2(f));
                    382:       op = ((ARF)FA0(f))->name;
                    383:       if ( !strcmp(op,"+") || !strcmp(op,"*") ) {
                    384:         if ( a1->id == I_NARYOP && !strcmp(op,((ARF)FA0(a1))->name) ) {
                    385:           for ( n = (NODE)FA1(a1); NEXT(n); n = NEXT(n) );
                    386:           if ( a2->id == I_NARYOP && !strcmp(op,((ARF)FA0(a2))->name) )
                    387:             NEXT(n) = (NODE)FA1(a2);
                    388:           else
                    389:             MKNODE(NEXT(n),a2,0);
                    390:           return a1;
                    391:         } else if ( a2->id == I_NARYOP && !strcmp(op,((ARF)FA0(a2))->name) ) {
                    392:           MKNODE(t,a1,(NODE)FA1(a2));
                    393:           return mkfnode(2,I_NARYOP,FA0(f),t);
                    394:         } else {
                    395:           t = mknode(2,a1,a2);
                    396:           return mkfnode(2,I_NARYOP,FA0(f),t);
                    397:         }
                    398:       } else
                    399:         return mkfnode(3,f->id,FA0(f),a1,a2);
                    400:
                    401:     case I_NOT: case I_PAREN: case I_MINUS:
                    402:     case I_CAR: case I_CDR:
                    403:       a0 = fnode_to_nary((FNODE)FA0(f));
                    404:       return mkfnode(1,f->id,a0);
                    405:
                    406:     case I_COP: case I_LOP:
                    407:       a1 = fnode_to_nary((FNODE)FA1(f));
                    408:       a2 = fnode_to_nary((FNODE)FA2(f));
                    409:       return mkfnode(3,f->id,FA0(f),a1,a2);
                    410:
                    411:     case I_AND: case I_OR:
                    412:       a0 = fnode_to_nary((FNODE)FA0(f));
                    413:       a1 = fnode_to_nary((FNODE)FA1(f));
                    414:       return mkfnode(2,f->id,a0,a1);
                    415:
                    416:     /* ternary operators */
                    417:     case I_CE:
                    418:       a0 = fnode_to_nary((FNODE)FA0(f));
                    419:       a1 = fnode_to_nary((FNODE)FA1(f));
                    420:       a2 = fnode_to_nary((FNODE)FA2(f));
                    421:       return mkfnode(3,f->id,a0,a1,a2);
                    422:       break;
                    423:
                    424:     /* function */
                    425:     case I_FUNC:
                    426:       a1 = fnode_to_nary((FNODE)FA1(f));
                    427:       return mkfnode(2,f->id,FA0(f),a1);
                    428:
                    429:     case I_LIST: case I_EV:
                    430:       n = fnode_to_nary_node((NODE)FA0(f));
                    431:       return mkfnode(1,f->id,n);
                    432:
                    433:     case I_STR: case I_FORMULA: case I_PVAR:
                    434:       return f;
                    435:
                    436:     default:
                    437:       error("fnode_to_nary : not implemented yet");
                    438:   }
                    439: }
                    440:
                    441: FNODE fnode_to_bin(FNODE f,int dir)
                    442: {
                    443:   FNODE a0,a1,a2;
                    444:   NODE n,t;
                    445:   pointer val;
                    446:   ARF fun;
                    447:   int len,i;
                    448:   FNODE *arg;
                    449:
                    450:   if ( !f )
                    451:     return f;
                    452:   switch ( f->id ) {
                    453:     case I_NARYOP:
                    454:       fun = (ARF)FA0(f);
                    455:       len = length((NODE)FA1(f));
                    456:       if ( len==1 ) return BDY((NODE)(FA1(f)));
                    457:
                    458:       arg = (FNODE *)ALLOCA(len*sizeof(FNODE));
                    459:       for ( i = 0, t = (NODE)FA1(f); i < len; i++, t = NEXT(t) )
                    460:         arg[i] = fnode_to_bin((FNODE)BDY(t),dir);
                    461:       if ( dir ) {
                    462:         a2 = mkfnode(3,I_BOP,fun,arg[len-2],arg[len-1]);
                    463:         for ( i = len-3; i >= 0; i-- )
                    464:           a2 = mkfnode(3,I_BOP,fun,arg[i],a2);
                    465:       } else {
                    466:         a2 = mkfnode(3,I_BOP,fun,arg[0],arg[1]);
                    467:         for ( i = 2; i < len; i++ )
                    468:           a2 = mkfnode(3,I_BOP,fun,a2,arg[i]);
                    469:       }
                    470:       return a2;
                    471:
                    472:     case I_NOT: case I_PAREN: case I_MINUS:
                    473:     case I_CAR: case I_CDR:
                    474:       a0 = fnode_to_bin((FNODE)FA0(f),dir);
                    475:       return mkfnode(1,f->id,a0);
                    476:
                    477:     case I_BOP: case I_COP: case I_LOP:
                    478:       a1 = fnode_to_bin((FNODE)FA1(f),dir);
                    479:       a2 = fnode_to_bin((FNODE)FA2(f),dir);
                    480:       return mkfnode(3,f->id,FA0(f),a1,a2);
                    481:
                    482:     case I_AND: case I_OR:
                    483:       a0 = fnode_to_bin((FNODE)FA0(f),dir);
                    484:       a1 = fnode_to_bin((FNODE)FA1(f),dir);
                    485:       return mkfnode(2,f->id,a0,a1);
                    486:
                    487:     /* ternary operators */
                    488:     case I_CE:
                    489:       a0 = fnode_to_bin((FNODE)FA0(f),dir);
                    490:       a1 = fnode_to_bin((FNODE)FA1(f),dir);
                    491:       a2 = fnode_to_bin((FNODE)FA2(f),dir);
                    492:       return mkfnode(3,f->id,a0,a1,a2);
                    493:       break;
                    494:
                    495:     /* function */
                    496:     case I_FUNC:
                    497:       a1 = fnode_to_bin((FNODE)FA1(f),dir);
                    498:       return mkfnode(2,f->id,FA0(f),a1);
                    499:
                    500:     case I_LIST: case I_EV:
                    501:       n = fnode_to_bin_node((NODE)FA0(f),dir);
                    502:       return mkfnode(1,f->id,n);
                    503:
                    504:     case I_STR: case I_FORMULA: case I_PVAR:
                    505:       return f;
                    506:
                    507:     default:
                    508:       error("fnode_to_bin : not implemented yet");
                    509:   }
                    510: }
                    511:
                    512: NODE partial_eval_node(NODE n);
                    513: FNODE partial_eval(FNODE f);
                    514:
                    515: FNODE partial_eval(FNODE f)
                    516: {
                    517:   FNODE a0,a1,a2;
                    518:   NODE n;
                    519:   Obj obj;
                    520:   QUOTE q;
                    521:   pointer val;
                    522:   FUNC func;
                    523:
                    524:   if ( !f )
                    525:     return f;
                    526:   switch ( f->id ) {
                    527:     case I_NOT: case I_PAREN: case I_MINUS:
                    528:     case I_CAR: case I_CDR:
                    529:       a0 = partial_eval((FNODE)FA0(f));
                    530:       return mkfnode(1,f->id,a0);
                    531:
                    532:     case I_BOP: case I_COP: case I_LOP:
                    533:       a1 = partial_eval((FNODE)FA1(f));
                    534:       a2 = partial_eval((FNODE)FA2(f));
                    535:       return mkfnode(3,f->id,FA0(f),a1,a2);
                    536:
                    537:     case I_NARYOP:
                    538:       n = partial_eval_node((NODE)FA1(f));
                    539:       return mkfnode(2,f->id,FA0(f),n);
                    540:
                    541:     case I_AND: case I_OR:
                    542:       a0 = partial_eval((FNODE)FA0(f));
                    543:       a1 = partial_eval((FNODE)FA1(f));
                    544:       return mkfnode(2,f->id,a0,a1);
                    545:
                    546:     /* ternary operators */
                    547:     case I_CE:
                    548:       a0 = partial_eval((FNODE)FA0(f));
                    549:       a1 = partial_eval((FNODE)FA1(f));
                    550:       a2 = partial_eval((FNODE)FA2(f));
                    551:       return mkfnode(3,f->id,a0,a1,a2);
                    552:       break;
                    553:
                    554:     /* XXX : function is evaluated with QUOTE args */
                    555:     case I_FUNC:
                    556:       a1 = partial_eval((FNODE)FA1(f));
                    557:       func = (FUNC)FA0(f);
                    558:       if ( func->id == A_UNDEF || func->id != A_USR ) {
                    559:         a1 =  mkfnode(2,I_FUNC,func,a1);
                    560:         return a1;
                    561:       } else {
                    562:         n = BDY(eval_arg(a1,(unsigned int)0xffffffff));
                    563:         obj = bevalf(func,n);
                    564:         objtoquote(obj,&q);
                    565:         return BDY(q);
                    566:       }
                    567:       break;
                    568:
                    569:     case I_LIST: case I_EV:
                    570:       n = partial_eval_node((NODE)FA0(f));
                    571:       return mkfnode(1,f->id,n);
                    572:
                    573:     case I_STR: case I_FORMULA:
                    574:       return f;
                    575:
                    576:     /* program variable */
                    577:     case I_PVAR:
                    578:       val = eval(f);
                    579:       if ( val && OID((Obj)val) == O_QUOTE )
                    580:         return partial_eval((FNODE)BDY((QUOTE)val));
                    581:       else
                    582:         return mkfnode(1,I_FORMULA,val);
                    583:
                    584:     default:
                    585:       error("partial_eval : not implemented yet");
                    586:   }
                    587: }
                    588:
                    589: NODE partial_eval_node(NODE n)
                    590: {
                    591:   NODE r0,r,t;
                    592:
                    593:   for ( r0 = 0, t = n; t; t = NEXT(t) ) {
                    594:     NEXTNODE(r0,r);
                    595:     BDY(r) = partial_eval((FNODE)BDY(t));
                    596:   }
                    597:   if ( r0 ) NEXT(r) = 0;
                    598:   return r0;
                    599: }
                    600:
                    601: NODE rewrite_fnode_node(NODE n,NODE arg,int qarg);
                    602: FNODE rewrite_fnode(FNODE f,NODE arg,int qarg);
                    603:
                    604: FNODE rewrite_fnode(FNODE f,NODE arg,int qarg)
                    605: {
                    606:   FNODE a0,a1,a2,value;
                    607:   NODE n,t,pair;
                    608:   pointer val;
                    609:   int pv,ind;
                    610:
                    611:   if ( !f )
                    612:     return f;
                    613:   switch ( f->id ) {
                    614:     case I_NOT: case I_PAREN: case I_MINUS:
                    615:     case I_CAR: case I_CDR:
                    616:       a0 = rewrite_fnode((FNODE)FA0(f),arg,qarg);
                    617:       return mkfnode(1,f->id,a0);
                    618:
                    619:     case I_BOP: case I_COP: case I_LOP:
                    620:       a1 = rewrite_fnode((FNODE)FA1(f),arg,qarg);
                    621:       a2 = rewrite_fnode((FNODE)FA2(f),arg,qarg);
                    622:       return mkfnode(3,f->id,FA0(f),a1,a2);
                    623:
                    624:     case I_AND: case I_OR:
                    625:       a0 = rewrite_fnode((FNODE)FA0(f),arg,qarg);
                    626:       a1 = rewrite_fnode((FNODE)FA1(f),arg,qarg);
                    627:       return mkfnode(2,f->id,a0,a1);
                    628:
                    629:     /* ternary operators */
                    630:     case I_CE:
                    631:       a0 = rewrite_fnode((FNODE)FA0(f),arg,qarg);
                    632:       a1 = rewrite_fnode((FNODE)FA1(f),arg,qarg);
                    633:       a2 = rewrite_fnode((FNODE)FA2(f),arg,qarg);
                    634:       return mkfnode(3,f->id,a0,a1,a2);
                    635:       break;
                    636:
                    637:     /* nary operators */
                    638:     case I_NARYOP:
                    639:       n = rewrite_fnode_node((NODE)FA1(f),arg,qarg);
                    640:       return mkfnode(2,f->id,FA0(f),n);
                    641:
                    642:     /* and function */
                    643:     case I_FUNC:
                    644:       a1 = rewrite_fnode((FNODE)FA1(f),arg,qarg);
                    645:       return mkfnode(2,qarg?I_FUNC_QARG:f->id,FA0(f),a1);
                    646:
                    647:     case I_LIST: case I_EV:
                    648:       n = rewrite_fnode_node((NODE)FA0(f),arg,qarg);
                    649:       return mkfnode(1,f->id,n);
                    650:
                    651:     case I_STR: case I_FORMULA:
                    652:       return f;
                    653:
                    654:     /* program variable */
                    655:     case I_PVAR:
                    656:       pv = (long)FA0(f);
                    657:       for ( t = arg; t; t = NEXT(t) ) {
                    658:         pair = (NODE)BDY(t);
                    659:         ind = (long)BDY(pair);
                    660:         value = (FNODE)BDY(NEXT(pair));
                    661:         if ( pv == ind )
                    662:           return value;
                    663:       }
                    664:       return f;
                    665:       break;
                    666:
                    667:     default:
                    668:       error("rewrite_fnode : not implemented yet");
                    669:   }
                    670: }
                    671:
                    672: NODE rewrite_fnode_node(NODE n,NODE arg,int qarg)
                    673: {
                    674:   NODE r0,r,t;
                    675:
                    676:   for ( r0 = 0, t = n; t; t = NEXT(t) ) {
                    677:     NEXTNODE(r0,r);
                    678:     BDY(r) = rewrite_fnode((FNODE)BDY(t),arg,qarg);
                    679:   }
                    680:   if ( r0 ) NEXT(r) = 0;
                    681:   return r0;
                    682: }
                    683:
                    684: NODE fnode_to_nary_node(NODE n)
                    685: {
                    686:   NODE r0,r,t;
                    687:
                    688:   for ( r0 = 0, t = n; t; t = NEXT(t) ) {
                    689:     NEXTNODE(r0,r);
                    690:     BDY(r) = fnode_to_nary((FNODE)BDY(t));
                    691:   }
                    692:   if ( r0 ) NEXT(r) = 0;
                    693:   return r0;
                    694: }
                    695:
                    696: NODE fnode_to_bin_node(NODE n,int dir)
                    697: {
                    698:   NODE r0,r,t;
                    699:
                    700:   for ( r0 = 0, t = n; t; t = NEXT(t) ) {
                    701:     NEXTNODE(r0,r);
                    702:     BDY(r) = fnode_to_bin((FNODE)BDY(t),dir);
                    703:   }
                    704:   if ( r0 ) NEXT(r) = 0;
                    705:   return r0;
                    706: }
                    707:
                    708: V searchvar(char *name);
                    709:
                    710: pointer evalstat(SNODE f)
                    711: {
                    712:   pointer val = 0,t,s,s1;
                    713:   P u;
                    714:   NODE tn;
                    715:   int i,ac;
                    716:   V v;
                    717:   V *a;
                    718:   char *buf;
                    719:   FUNC func;
                    720:
                    721:   if ( !f )
                    722:     return ( 0 );
                    723:   if ( nextbp && nextbplevel <= 0 && f->id != S_CPLX ) {
                    724:     nextbp = 0;
                    725:     bp(f);
                    726:   }
                    727:   evalstatline = f->ln;
                    728:   if ( !PVSS ) at_root = evalstatline;
                    729:
                    730:   switch ( f->id ) {
                    731:     case S_BP:
                    732:       if ( !nextbp && (!FA1(f) || eval((FNODE)FA1(f))) ) {
                    733:         if ( (FNODE)FA2(f) ) {
                    734:           asir_out = stderr;
                    735:           printexpr(CO,eval((FNODE)FA2(f)));
                    736:           putc('\n',asir_out); fflush(asir_out);
                    737:           asir_out = stdout;
                    738:         } else {
                    739:           nextbp = 1; nextbplevel = 0;
                    740:         }
                    741:       }
                    742:       val = evalstat((SNODE)FA0(f));
                    743:       break;
                    744:     case S_PFDEF:
                    745:       ac = argc(FA1(f)); a = (V *)MALLOC(ac*sizeof(V));
                    746:       s = eval((FNODE)FA2(f));
                    747:       buf = (char *)ALLOCA(BUFSIZ);
                    748:       for ( i = 0, tn = (NODE)FA1(f); tn; tn = NEXT(tn), i++ ) {
                    749:         t = eval((FNODE)tn->body); sprintf(buf,"_%s",NAME(VR((P)t)));
                    750:         makevar(buf,&u); a[i] = VR(u);
                    751:         substr(CO,0,(Obj)s,VR((P)t),(Obj)u,(Obj *)&s1); s = s1;
                    752:       }
1.4     ! kondoh    753: #if defined(INTERVAL)
        !           754:       mkpf((char *)FA0(f),(Obj)s,ac,a,0,0,0,0,(PF *)&val); val = 0;
        !           755: #else
1.1       noro      756:       mkpf((char *)FA0(f),(Obj)s,ac,a,0,0,0,(PF *)&val); val = 0;
1.4     ! kondoh    757: #endif
1.1       noro      758:       v = searchvar((char *)FA0(f));
                    759:       if ( v ) {
                    760:         searchpf((char *)FA0(f),&func);
                    761:         makesrvar(func,&u);
                    762:       }
                    763:       break;
                    764:     case S_SINGLE:
                    765:       val = eval((FNODE)FA0(f)); break;
                    766:     case S_CPLX:
                    767:       for ( tn = (NODE)FA0(f); tn; tn = NEXT(tn) ) {
                    768:         if ( BDY(tn) )
                    769:           val = evalstat((SNODE)BDY(tn));
                    770:         if ( f_break || f_return || f_continue )
                    771:           break;
                    772:       }
                    773:       break;
                    774:     case S_BREAK:
                    775:       if ( 1 || GPVS != CPVS )
                    776:         f_break = 1;
                    777:       break;
                    778:     case S_CONTINUE:
                    779:       if ( 1 || GPVS != CPVS )
                    780:         f_continue = 1;
                    781:       break;
                    782:     case S_RETURN:
                    783:       if ( 1 || GPVS != CPVS ) {
                    784:         val = eval((FNODE)FA0(f)); f_return = 1;
                    785:       }
                    786:       break;
                    787:     case S_IFELSE:
                    788:       if ( evalnode((NODE)FA1(f)) )
                    789:         val = evalstat((SNODE)FA2(f));
                    790:       else if ( FA3(f) )
                    791:         val = evalstat((SNODE)FA3(f));
                    792:       break;
                    793:     case S_FOR:
                    794:       evalnode((NODE)FA1(f));
                    795:       while ( 1 ) {
                    796:         if ( !evalnode((NODE)FA2(f)) )
                    797:           break;
                    798:         val = evalstat((SNODE)FA4(f));
                    799:         if ( f_break || f_return )
                    800:           break;
                    801:         f_continue = 0;
                    802:         evalnode((NODE)FA3(f));
                    803:       }
                    804:       f_break = 0; break;
                    805:     case S_DO:
                    806:       while ( 1 ) {
                    807:         val = evalstat((SNODE)FA1(f));
                    808:         if ( f_break || f_return )
                    809:           break;
                    810:         f_continue = 0;
                    811:         if ( !evalnode((NODE)FA2(f)) )
                    812:           break;
                    813:       }
                    814:       f_break = 0; break;
                    815:     case S_MODULE:
                    816:       CUR_MODULE = (MODULE)FA0(f);
                    817:       if ( CUR_MODULE )
                    818:           MPVS = CUR_MODULE->pvs;
                    819:       else
                    820:           MPVS = 0;
                    821:       break;
                    822:     default:
                    823:       error("evalstat : unknown id");
                    824:       break;
                    825:   }
                    826:   return ( val );
                    827: }
                    828:
                    829: pointer evalnode(NODE node)
                    830: {
                    831:   NODE tn;
                    832:   pointer val;
                    833:
                    834:   for ( tn = node, val = 0; tn; tn = NEXT(tn) )
                    835:     if ( BDY(tn) )
                    836:       val = eval((FNODE)BDY(tn));
                    837:   return ( val );
                    838: }
                    839:
                    840:
                    841: LIST eval_arg(FNODE a,unsigned int quote)
                    842: {
                    843:   LIST l;
                    844:   FNODE fn;
                    845:   NODE n,n0,tn;
                    846:   QUOTE q;
                    847:   int i;
                    848:
                    849:   for ( tn = (NODE)FA0(a), n0 = 0, i = 0; tn; tn = NEXT(tn), i++ ) {
                    850:     NEXTNODE(n0,n);
                    851:     if ( quote & (1<<i) ) {
                    852:       fn = (FNODE)(BDY(tn));
                    853:       if ( fn->id == I_FORMULA && FA0(fn)
                    854:         && OID((Obj)FA0(fn))== O_QUOTE )
                    855:          BDY(n) = FA0(fn);
                    856:       else {
                    857:         MKQUOTE(q,(FNODE)BDY(tn));
                    858:         BDY(n) = (pointer)q;
                    859:       }
                    860:     } else
                    861:       BDY(n) = eval((FNODE)BDY(tn));
                    862:   }
                    863:   if ( n0 ) NEXT(n) = 0;
                    864:   MKLIST(l,n0);
                    865:   return l;
                    866: }
                    867:
                    868: pointer evalf(FUNC f,FNODE a,FNODE opt)
                    869: {
                    870:   LIST args;
                    871:   pointer val;
                    872:   int i,n,level;
                    873:   NODE tn,sn,opts,opt1,dmy;
                    874:       VS pvs,prev_mpvs;
                    875:   char errbuf[BUFSIZ];
                    876:   static unsigned int stack_size;
                    877:   static void *stack_base;
                    878:   FUNC f1;
                    879:
                    880:   if ( f->id == A_UNDEF ) {
                    881:     gen_searchf_searchonly(f->fullname,&f1,0);
                    882:     if ( f1->id == A_UNDEF ) {
                    883:       sprintf(errbuf,"evalf : %s undefined",NAME(f));
                    884:       error(errbuf);
                    885:     } else
                    886:       *f = *f1;
                    887:   }
                    888:   if ( getsecuremode() && !PVSS && !f->secure ) {
                    889:     sprintf(errbuf,"evalf : %s not permitted",NAME(f));
                    890:     error(errbuf);
                    891:   }
                    892:   if ( f->id != A_PARI ) {
                    893:     for ( i = 0, tn = a?(NODE)FA0(a):0; tn; i++, tn = NEXT(tn) );
                    894:     if ( ((n = f->argc)>= 0 && i != n) || (n < 0 && i > -n) ) {
                    895:       sprintf(errbuf,"evalf : argument mismatch in %s()",NAME(f));
                    896:       error(errbuf);
                    897:     }
                    898:   }
                    899:   switch ( f->id ) {
                    900:     case A_BIN:
                    901:       if ( opt ) {
                    902:         opts = BDY((LIST)eval(opt));
                    903:         /* opts = ["opt1",arg1],... */
                    904:         opt1 = BDY((LIST)BDY(opts));
                    905:         if ( !strcmp(BDY((STRING)BDY(opt1)),"option_list") ) {
                    906:           /*
                    907:            * the special option specification:
                    908:            *  option_list=[["o1","a1"],...]
                    909:            */
                    910:           asir_assert(BDY(NEXT(opt1)),O_LIST,"evalf");
                    911:           opts = BDY((LIST)BDY(NEXT(opt1)));
                    912:         }
                    913:       } else
                    914:         opts = 0;
                    915:       if ( !n ) {
                    916:         current_option = opts;
                    917:         cur_binf = f;
                    918:         (*f->f.binf)(&val);
                    919:       } else {
                    920:         args = (LIST)eval_arg(a,f->quote);
                    921:         current_option = opts;
                    922:         cur_binf = f;
                    923:         (*f->f.binf)(args?BDY(args):0,&val);
                    924:       }
                    925:       cur_binf = 0;
                    926:       break;
                    927:     case A_PARI:
                    928:       args = (LIST)eval(a);
                    929:       cur_binf = f;
                    930:       val = evalparif(f,args?BDY(args):0);
                    931:       cur_binf = 0;
                    932:       break;
                    933:     case A_USR:
                    934:       /* stack check */
                    935: #if !defined(VISUAL) && !defined(__MINGW32__) && !defined(__CYGWIN__)
                    936:       if ( !stack_size ) {
                    937:         struct rlimit rl;
                    938:         getrlimit(RLIMIT_STACK,&rl);
                    939:         stack_size = rl.rlim_cur;
                    940:       }
                    941:             if ( !stack_base ) {
                    942: #if defined(GC7)
                    943:                 stack_base = (void *)GC_get_main_stack_base();
                    944: #else
                    945:                 stack_base = (void *)GC_get_stack_base();
                    946: #endif
                    947:             }
                    948:       if ( (stack_base - (void *)&args) +0x100000 > stack_size )
                    949:         error("stack overflow");
                    950: #endif
                    951:       args = (LIST)eval_arg(a,f->quote);
                    952:       if ( opt ) {
                    953:         opts = BDY((LIST)eval(opt));
                    954:         /* opts = ["opt1",arg1],... */
                    955:         opt1 = BDY((LIST)BDY(opts));
                    956:         if ( !strcmp(BDY((STRING)BDY(opt1)),"option_list") ) {
                    957:           /*
                    958:            * the special option specification:
                    959:            *  option_list=[["o1","a1"],...]
                    960:            */
                    961:           asir_assert(BDY(NEXT(opt1)),O_LIST,"evalf");
                    962:           opts = BDY((LIST)BDY(NEXT(opt1)));
                    963:         }
                    964:       } else
                    965:         opts = 0;
                    966:         pvs = f->f.usrf->pvs;
                    967:         if ( PVSS ) {
                    968:             ((VS)BDY(PVSS))->at = evalstatline;
                    969:         level = ((VS)BDY(PVSS))->level+1;
                    970:       } else
                    971:         level = 1;
                    972:         MKNODE(tn,pvs,PVSS); PVSS = tn;
                    973:         CPVS = (VS)ALLOCA(sizeof(struct oVS)); BDY(PVSS) = (pointer)CPVS;
                    974:         CPVS->usrf = f; CPVS->n = CPVS->asize = pvs->n;
                    975:       CPVS->level = level;
                    976:       CPVS->opt = opts;
                    977:         if ( CPVS->n ) {
                    978:             CPVS->va = (struct oPV *)ALLOCA(CPVS->n*sizeof(struct oPV));
                    979:             bcopy((char *)pvs->va,(char *)CPVS->va,
                    980:           (int)(pvs->n*sizeof(struct oPV)));
                    981:         }
                    982:         if ( nextbp )
                    983:             nextbplevel++;
                    984:       for ( tn = f->f.usrf->args, sn = BDY(args);
                    985:         sn; tn = NEXT(tn), sn = NEXT(sn) )
                    986:         ASSPV((long)FA0((FNODE)BDY(tn)),BDY(sn));
                    987:       f_return = f_break = f_continue = 0;
                    988:       if ( f->f.usrf->module ) {
                    989:         prev_mpvs = MPVS;
                    990:         MPVS = f->f.usrf->module->pvs;
                    991:         val = evalstat((SNODE)BDY(f->f.usrf));
                    992:         MPVS = prev_mpvs;
                    993:       } else
                    994:         val = evalstat((SNODE)BDY(f->f.usrf));
                    995:       f_return = f_break = f_continue = 0; poppvs();
                    996:       if ( PVSS )
                    997:             evalstatline = ((VS)BDY(PVSS))->at;
                    998:       break;
                    999:     case A_PURE:
                   1000:       args = (LIST)eval(a);
                   1001:       val = evalpf(f->f.puref,args?BDY(args):0,0);
                   1002:       break;
                   1003:     default:
                   1004:       sprintf(errbuf,"evalf : %s undefined",NAME(f));
                   1005:       error(errbuf);
                   1006:       break;
                   1007:   }
                   1008:   return val;
                   1009: }
                   1010:
                   1011: pointer evalf_deriv(FUNC f,FNODE a,FNODE deriv)
                   1012: {
                   1013:   LIST args,dargs;
                   1014:   pointer val;
                   1015:   char errbuf[BUFSIZ];
                   1016:
                   1017:   switch ( f->id ) {
                   1018:     case A_PURE:
                   1019:       args = (LIST)eval(a);
                   1020:       dargs = (LIST)eval(deriv);
                   1021:       val = evalpf(f->f.puref,
                   1022:         args?BDY(args):0,dargs?BDY(dargs):0);
                   1023:       break;
                   1024:     default:
                   1025:       sprintf(errbuf,
                   1026:         "evalf : %s is not a pure function",NAME(f));
                   1027:       error(errbuf);
                   1028:       break;
                   1029:   }
                   1030:   return val;
                   1031: }
                   1032:
                   1033: pointer evalmapf(FUNC f,FNODE a)
                   1034: {
                   1035:   LIST args;
                   1036:   NODE node,rest,t,n,r,r0;
                   1037:   Obj head;
                   1038:   VECT v,rv;
                   1039:   MAT m,rm;
                   1040:   LIST rl;
                   1041:   int len,row,col,i,j;
                   1042:   pointer val;
                   1043:
                   1044:   args = (LIST)eval_arg(a,f->quote);
                   1045:   node = BDY(args); head = (Obj)BDY(node); rest = NEXT(node);
                   1046:   if ( !head ) {
                   1047:     val = bevalf(f,node);
                   1048:     return val;
                   1049:   }
                   1050:   switch ( OID(head) ) {
                   1051:     case O_VECT:
                   1052:       v = (VECT)head; len = v->len; MKVECT(rv,len);
                   1053:       for ( i = 0; i < len; i++ ) {
                   1054:         MKNODE(t,BDY(v)[i],rest); BDY(rv)[i] = bevalf(f,t);
                   1055:       }
                   1056:       val = (pointer)rv;
                   1057:       break;
                   1058:     case O_MAT:
                   1059:       m = (MAT)head; row = m->row; col = m->col; MKMAT(rm,row,col);
                   1060:       for ( i = 0; i < row; i++ )
                   1061:         for ( j = 0; j < col; j++ ) {
                   1062:           MKNODE(t,BDY(m)[i][j],rest); BDY(rm)[i][j] = bevalf(f,t);
                   1063:         }
                   1064:       val = (pointer)rm;
                   1065:       break;
                   1066:     case O_LIST:
                   1067:       n = BDY((LIST)head);
                   1068:       for ( r0 = r = 0; n; n = NEXT(n) ) {
                   1069:         NEXTNODE(r0,r); MKNODE(t,BDY(n),rest); BDY(r) = bevalf(f,t);
                   1070:       }
                   1071:       if ( r0 )
                   1072:         NEXT(r) = 0;
                   1073:       MKLIST(rl,r0);
                   1074:       val = (pointer)rl;
                   1075:       break;
                   1076:     default:
                   1077:       val = bevalf(f,node);
                   1078:       break;
                   1079:   }
                   1080:   return val;
                   1081: }
                   1082:
                   1083: pointer eval_rec_mapf(FUNC f,FNODE a)
                   1084: {
                   1085:   LIST args;
                   1086:
                   1087:   args = (LIST)eval_arg(a,f->quote);
                   1088:   return beval_rec_mapf(f,BDY(args));
                   1089: }
                   1090:
                   1091: pointer beval_rec_mapf(FUNC f,NODE node)
                   1092: {
                   1093:   NODE rest,t,n,r,r0;
                   1094:   Obj head;
                   1095:   VECT v,rv;
                   1096:   MAT m,rm;
                   1097:   LIST rl;
                   1098:   int len,row,col,i,j;
                   1099:   pointer val;
                   1100:
                   1101:   head = (Obj)BDY(node); rest = NEXT(node);
                   1102:   if ( !head ) {
                   1103:     val = bevalf(f,node);
                   1104:     return val;
                   1105:   }
                   1106:   switch ( OID(head) ) {
                   1107:     case O_VECT:
                   1108:       v = (VECT)head; len = v->len; MKVECT(rv,len);
                   1109:       for ( i = 0; i < len; i++ ) {
                   1110:         MKNODE(t,BDY(v)[i],rest); BDY(rv)[i] = beval_rec_mapf(f,t);
                   1111:       }
                   1112:       val = (pointer)rv;
                   1113:       break;
                   1114:     case O_MAT:
                   1115:       m = (MAT)head; row = m->row; col = m->col; MKMAT(rm,row,col);
                   1116:       for ( i = 0; i < row; i++ )
                   1117:         for ( j = 0; j < col; j++ ) {
                   1118:           MKNODE(t,BDY(m)[i][j],rest);
                   1119:           BDY(rm)[i][j] = beval_rec_mapf(f,t);
                   1120:         }
                   1121:       val = (pointer)rm;
                   1122:       break;
                   1123:     case O_LIST:
                   1124:       n = BDY((LIST)head);
                   1125:       for ( r0 = r = 0; n; n = NEXT(n) ) {
                   1126:         NEXTNODE(r0,r); MKNODE(t,BDY(n),rest);
                   1127:         BDY(r) = beval_rec_mapf(f,t);
                   1128:       }
                   1129:       if ( r0 )
                   1130:         NEXT(r) = 0;
                   1131:       MKLIST(rl,r0);
                   1132:       val = (pointer)rl;
                   1133:       break;
                   1134:     default:
                   1135:       val = bevalf(f,node);
                   1136:       break;
                   1137:   }
                   1138:   return val;
                   1139: }
                   1140:
                   1141: pointer bevalf(FUNC f,NODE a)
                   1142: {
                   1143:   pointer val;
                   1144:   int i,n;
                   1145:   NODE tn,sn;
                   1146:   VS pvs,prev_mpvs;
                   1147:   char errbuf[BUFSIZ];
                   1148:
                   1149:   if ( f->id == A_UNDEF ) {
                   1150:     sprintf(errbuf,"bevalf : %s undefined",NAME(f));
                   1151:     error(errbuf);
                   1152:   }
                   1153:   if ( getsecuremode() && !PVSS && !f->secure ) {
                   1154:     sprintf(errbuf,"bevalf : %s not permitted",NAME(f));
                   1155:     error(errbuf);
                   1156:   }
                   1157:   if ( f->id != A_PARI ) {
                   1158:     for ( i = 0, tn = a; tn; i++, tn = NEXT(tn) );
                   1159:     if ( ((n = f->argc)>= 0 && i != n) || (n < 0 && i > -n) ) {
                   1160:       sprintf(errbuf,"bevalf : argument mismatch in %s()",NAME(f));
                   1161:       error(errbuf);
                   1162:     }
                   1163:   }
                   1164:   switch ( f->id ) {
                   1165:     case A_BIN:
                   1166:       current_option = 0;
                   1167:       if ( !n ) {
                   1168:         cur_binf = f;
                   1169:         (*f->f.binf)(&val);
                   1170:       } else {
                   1171:         cur_binf = f;
                   1172:         (*f->f.binf)(a,&val);
                   1173:       }
                   1174:       cur_binf = 0;
                   1175:       break;
                   1176:     case A_PARI:
                   1177:       cur_binf = f;
                   1178:       val = evalparif(f,a);
                   1179:       cur_binf = 0;
                   1180:       break;
                   1181:     case A_USR:
                   1182:         pvs = f->f.usrf->pvs;
                   1183:         if ( PVSS )
                   1184:             ((VS)BDY(PVSS))->at = evalstatline;
                   1185:         MKNODE(tn,pvs,PVSS); PVSS = tn;
                   1186:         CPVS = (VS)ALLOCA(sizeof(struct oVS)); BDY(PVSS) = (pointer)CPVS;
                   1187:         CPVS->usrf = f; CPVS->n = CPVS->asize = pvs->n;
                   1188:       CPVS->opt = 0;
                   1189:         if ( CPVS->n ) {
                   1190:             CPVS->va = (struct oPV *)ALLOCA(CPVS->n*sizeof(struct oPV));
                   1191:             bcopy((char *)pvs->va,(char *)CPVS->va,
                   1192:           (int)(pvs->n*sizeof(struct oPV)));
                   1193:         }
                   1194:         if ( nextbp )
                   1195:             nextbplevel++;
                   1196:       for ( tn = f->f.usrf->args, sn = a;
                   1197:         sn; tn = NEXT(tn), sn = NEXT(sn) )
                   1198:         ASSPV((long)FA0((FNODE)BDY(tn)),BDY(sn));
                   1199:       f_return = f_break = f_continue = 0;
                   1200:       if ( f->f.usrf->module ) {
                   1201:         prev_mpvs = MPVS;
                   1202:         MPVS = f->f.usrf->module->pvs;
                   1203:         val = evalstat((SNODE)BDY(f->f.usrf));
                   1204:         MPVS = prev_mpvs;
                   1205:       } else
                   1206:         val = evalstat((SNODE)BDY(f->f.usrf));
                   1207:       f_return = f_break = f_continue = 0; poppvs();
                   1208:       break;
                   1209:     case A_PURE:
                   1210:       val = evalpf(f->f.puref,a,0);
                   1211:       break;
                   1212:     default:
                   1213:       sprintf(errbuf,"bevalf : %s undefined",NAME(f));
                   1214:       error(errbuf);
                   1215:       break;
                   1216:   }
                   1217:   return val;
                   1218: }
                   1219:
                   1220: pointer bevalf_with_opts(FUNC f,NODE a,NODE opts)
                   1221: {
                   1222:   pointer val;
                   1223:   int i,n;
                   1224:   NODE tn,sn;
                   1225:   VS pvs,prev_mpvs;
                   1226:   char errbuf[BUFSIZ];
                   1227:
                   1228:   if ( f->id == A_UNDEF ) {
                   1229:     sprintf(errbuf,"bevalf : %s undefined",NAME(f));
                   1230:     error(errbuf);
                   1231:   }
                   1232:   if ( getsecuremode() && !PVSS && !f->secure ) {
                   1233:     sprintf(errbuf,"bevalf : %s not permitted",NAME(f));
                   1234:     error(errbuf);
                   1235:   }
                   1236:   if ( f->id != A_PARI ) {
                   1237:     for ( i = 0, tn = a; tn; i++, tn = NEXT(tn) );
                   1238:     if ( ((n = f->argc)>= 0 && i != n) || (n < 0 && i > -n) ) {
                   1239:       sprintf(errbuf,"bevalf : argument mismatch in %s()",NAME(f));
                   1240:       error(errbuf);
                   1241:     }
                   1242:   }
                   1243:   switch ( f->id ) {
                   1244:     case A_BIN:
                   1245:       current_option = opts;
                   1246:       if ( !n ) {
                   1247:         cur_binf = f;
                   1248:         (*f->f.binf)(&val);
                   1249:       } else {
                   1250:         cur_binf = f;
                   1251:         (*f->f.binf)(a,&val);
                   1252:       }
                   1253:       cur_binf = 0;
                   1254:       break;
                   1255:     case A_PARI:
                   1256:       cur_binf = f;
                   1257:       val = evalparif(f,a);
                   1258:       cur_binf = 0;
                   1259:       break;
                   1260:     case A_USR:
                   1261:         pvs = f->f.usrf->pvs;
                   1262:         if ( PVSS )
                   1263:             ((VS)BDY(PVSS))->at = evalstatline;
                   1264:         MKNODE(tn,pvs,PVSS); PVSS = tn;
                   1265:         CPVS = (VS)ALLOCA(sizeof(struct oVS)); BDY(PVSS) = (pointer)CPVS;
                   1266:         CPVS->usrf = f; CPVS->n = CPVS->asize = pvs->n;
                   1267:       CPVS->opt = opts;
                   1268:         if ( CPVS->n ) {
                   1269:             CPVS->va = (struct oPV *)ALLOCA(CPVS->n*sizeof(struct oPV));
                   1270:             bcopy((char *)pvs->va,(char *)CPVS->va,
                   1271:           (int)(pvs->n*sizeof(struct oPV)));
                   1272:         }
                   1273:         if ( nextbp )
                   1274:             nextbplevel++;
                   1275:       for ( tn = f->f.usrf->args, sn = a;
                   1276:         sn; tn = NEXT(tn), sn = NEXT(sn) )
                   1277:         ASSPV((long)FA0((FNODE)BDY(tn)),BDY(sn));
                   1278:       f_return = f_break = f_continue = 0;
                   1279:       if ( f->f.usrf->module ) {
                   1280:         prev_mpvs = MPVS;
                   1281:         MPVS = f->f.usrf->module->pvs;
                   1282:         val = evalstat((SNODE)BDY(f->f.usrf));
                   1283:         MPVS = prev_mpvs;
                   1284:       } else
                   1285:         val = evalstat((SNODE)BDY(f->f.usrf));
                   1286:       f_return = f_break = f_continue = 0; poppvs();
                   1287:       break;
                   1288:     case A_PURE:
                   1289:       val = evalpf(f->f.puref,a,0);
                   1290:       break;
                   1291:     default:
                   1292:       sprintf(errbuf,"bevalf : %s undefined",NAME(f));
                   1293:       error(errbuf);
                   1294:       break;
                   1295:   }
                   1296:   return val;
                   1297: }
                   1298:
                   1299: pointer evalif(FNODE f,FNODE a,FNODE opt)
                   1300: {
                   1301:   Obj g;
                   1302:   QUOTE q;
                   1303:   FNODE t;
                   1304:   LIST l;
                   1305:
                   1306:   g = (Obj)eval(f);
                   1307:   if ( g && (OID(g) == O_P) && (VR((P)g)->attr == (pointer)V_SR) )
                   1308:     return evalf((FUNC)VR((P)g)->priv,a,opt);
                   1309:   else if ( g && OID(g) == O_QUOTEARG && ((QUOTEARG)g)->type == A_func ) {
                   1310:     t = mkfnode(2,I_FUNC,((QUOTEARG)g)->body,a);
                   1311:     MKQUOTE(q,t);
                   1312:     return q;
                   1313:   } else {
                   1314:     error("invalid function pointer");
                   1315:     /* NOTREACHED */
                   1316:     return (pointer)-1;
                   1317:   }
                   1318: }
                   1319:
                   1320: pointer evalpf(PF pf,NODE args,NODE dargs)
                   1321: {
                   1322:   Obj s,s1;
                   1323:   int i,di,j;
                   1324:   NODE node,dnode;
                   1325:   PFINS ins;
                   1326:   PFAD ad;
                   1327:
                   1328:   if ( !pf->body ) {
                   1329:     ins = (PFINS)CALLOC(1,sizeof(PF)+pf->argc*sizeof(struct oPFAD));
                   1330:     ins->pf = pf;
                   1331:     for ( i = 0, node = args, dnode = dargs, ad = ins->ad;
                   1332:       node; i++ ) {
                   1333:       ad[i].arg = (Obj)node->body;
                   1334:       if ( !dnode ) ad[i].d = 0;
                   1335:       else
1.2       noro     1336:         ad[i].d = ZTOS((Q)dnode->body);
1.1       noro     1337:       node = NEXT(node);
                   1338:       if ( dnode ) dnode = NEXT(dnode);
                   1339:     }
                   1340:     simplify_ins(ins,&s);
                   1341:   } else {
                   1342:     s = pf->body;
                   1343:     if ( dargs ) {
                   1344:       for ( i = 0, dnode = dargs; dnode; dnode = NEXT(dnode), i++ ) {
1.2       noro     1345:         di = ZTOS((Q)dnode->body);
1.1       noro     1346:         for ( j = 0; j < di; j++ ) {
                   1347:           derivr(CO,s,pf->args[i],&s1); s = s1;
                   1348:         }
                   1349:       }
                   1350:     }
                   1351:     for ( i = 0, node = args; node; node = NEXT(node), i++ ) {
                   1352:       substr(CO,0,s,pf->args[i],(Obj)node->body,&s1); s = s1;
                   1353:     }
                   1354:   }
                   1355:   return (pointer)s;
                   1356: }
                   1357:
                   1358: void evalnodebody(NODE sn,NODE *dnp)
                   1359: {
                   1360:   NODE n,n0,tn;
                   1361:   int line;
                   1362:
                   1363:   if ( !sn ) {
                   1364:     *dnp = 0;
                   1365:     return;
                   1366:   }
                   1367:   line = evalstatline;
                   1368:   for ( tn = sn, n0 = 0; tn; tn = NEXT(tn) ) {
                   1369:     NEXTNODE(n0,n);
                   1370:     BDY(n) = eval((FNODE)BDY(tn));
                   1371:     evalstatline = line;
                   1372:   }
                   1373:   NEXT(n) = 0; *dnp = n0;
                   1374: }
                   1375:
                   1376: MODULE searchmodule(char *name)
                   1377: {
                   1378:   MODULE mod;
                   1379:   NODE m;
                   1380:
                   1381:   for ( m = MODULE_LIST; m; m = NEXT(m) ) {
                   1382:     mod = (MODULE)BDY(m);
                   1383:     if ( !strcmp(mod->name,name) )
                   1384:       return mod;
                   1385:   }
                   1386:   return 0;
                   1387: }
                   1388: /*
                   1389:  * xxx.yyy() is searched in the flist
                   1390:  * of the module xxx.
                   1391:  * yyy() is searched in the global flist.
                   1392:  */
                   1393:
                   1394: void searchuf(char *name,FUNC *r)
                   1395: {
                   1396:   MODULE mod;
                   1397:   char *name0,*dot;
                   1398:
                   1399:   if ( dot = strchr(name,'.') ) {
                   1400:     name0 = (char *)ALLOCA(strlen(name)+1);
                   1401:     strcpy(name0,name);
                   1402:     dot = strchr(name0,'.');
                   1403:     *dot = 0;
                   1404:     mod = searchmodule(name0);
                   1405:     if ( mod )
                   1406:       searchf(mod->usrf_list,dot+1,r);
                   1407:   } else
                   1408:     searchf(usrf,name,r);
                   1409: }
                   1410:
                   1411: void gen_searchf(char *name,FUNC *r)
                   1412: {
                   1413:   FUNC val = 0;
                   1414:   int global = 0;
                   1415:   if ( *name == ':' ) {
                   1416:     global = 1;
                   1417:     name += 2;
                   1418:   }
                   1419:   if ( CUR_MODULE && !global )
                   1420:     searchf(CUR_MODULE->usrf_list,name,&val);
                   1421:   if ( !val )
                   1422:     searchf(sysf,name,&val);
                   1423:   if ( !val )
                   1424:     searchf(ubinf,name,&val);
                   1425:   if ( !val )
                   1426:     searchpf(name,&val);
                   1427:   if ( !val )
                   1428:     searchuf(name,&val);
                   1429:   if ( !val )
                   1430:     appenduf(name,&val);
                   1431:   *r = val;
                   1432: }
                   1433:
                   1434: void gen_searchf_searchonly(char *name,FUNC *r,int global)
                   1435: {
                   1436:   FUNC val = 0;
                   1437:   if ( *name == ':' ) {
                   1438:     global = 1;
                   1439:     name += 2;
                   1440:   }
                   1441:   if ( CUR_MODULE && !global )
                   1442:     searchf(CUR_MODULE->usrf_list,name,&val);
                   1443:   if ( !val )
                   1444:     searchf(sysf,name,&val);
                   1445:   if ( !val )
                   1446:     searchf(ubinf,name,&val);
                   1447:   if ( !val )
                   1448:     searchpf(name,&val);
                   1449:   if ( !val )
                   1450:     searchuf(name,&val);
                   1451:   *r = val;
                   1452: }
                   1453:
                   1454: void searchf(NODE fn,char *name,FUNC *r)
                   1455: {
                   1456:   NODE tn;
                   1457:
                   1458:   for ( tn = fn;
                   1459:     tn && strcmp(NAME((FUNC)BDY(tn)),name); tn = NEXT(tn) );
                   1460:     if ( tn ) {
                   1461:       *r = (FUNC)BDY(tn);
                   1462:       return;
                   1463:     }
                   1464:   *r = 0;
                   1465: }
                   1466:
                   1467: MODULE mkmodule(char *);
                   1468:
                   1469: void appenduf(char *name,FUNC *r)
                   1470: {
                   1471:   NODE tn;
                   1472:   FUNC f;
                   1473:   int len;
                   1474:   MODULE mod;
                   1475:   char *modname,*fname,*dot;
                   1476:
                   1477:   f=(FUNC)MALLOC(sizeof(struct oFUNC));
                   1478:   f->id = A_UNDEF; f->argc = 0; f->f.binf = 0;
                   1479:   if ( dot = strchr(name,'.') ) {
                   1480:     /* undefined function in a module */
                   1481:     len = dot-name;
                   1482:     modname = (char *)MALLOC_ATOMIC(len+1);
                   1483:     strncpy(modname,name,len); modname[len] = 0;
                   1484:     fname = (char *)MALLOC_ATOMIC(strlen(name)-len+1);
                   1485:     strcpy(fname,dot+1);
                   1486:     f->name = fname;
                   1487:     f->fullname = name;
                   1488:     mod = searchmodule(modname);
                   1489:     if ( !mod )
                   1490:       mod = mkmodule(modname);
                   1491:     MKNODE(tn,f,mod->usrf_list); mod->usrf_list = tn;
                   1492:   } else {
                   1493:     f->name = name;
                   1494:     f->fullname = name;
                   1495:     MKNODE(tn,f,usrf); usrf = tn;
                   1496:   }
                   1497:   *r = f;
                   1498: }
                   1499:
                   1500: void appenduf_local(char *name,FUNC *r)
                   1501: {
                   1502:   NODE tn;
                   1503:   FUNC f;
                   1504:   MODULE mod;
                   1505:
                   1506:   for ( tn = CUR_MODULE->usrf_list; tn; tn = NEXT(tn) )
                   1507:     if ( !strcmp(((FUNC)BDY(tn))->name,name) )
                   1508:       break;
                   1509:   if ( tn )
                   1510:     return;
                   1511:
                   1512:   f=(FUNC)MALLOC(sizeof(struct oFUNC));
                   1513:   f->id = A_UNDEF; f->argc = 0; f->f.binf = 0;
                   1514:   f->name = name;
                   1515:   f->fullname =
                   1516:     (char *)MALLOC_ATOMIC(strlen(CUR_MODULE->name)+strlen(name)+1);
                   1517:   sprintf(f->fullname,"%s.%s",CUR_MODULE->name,name);
                   1518:   MKNODE(tn,f,CUR_MODULE->usrf_list); CUR_MODULE->usrf_list = tn;
                   1519:   *r = f;
                   1520: }
                   1521:
                   1522: void appenduflist(NODE n)
                   1523: {
                   1524:   NODE tn;
                   1525:   FUNC f;
                   1526:
                   1527:   for ( tn = n; tn; tn = NEXT(tn) )
                   1528:     appenduf_local((char *)BDY(tn),&f);
                   1529: }
                   1530:
                   1531: void mkparif(char *name,FUNC *r)
                   1532: {
                   1533:   FUNC f;
                   1534:
                   1535:   *r = f =(FUNC)MALLOC(sizeof(struct oFUNC));
                   1536:   f->name = name; f->id = A_PARI; f->argc = 0; f->f.binf = 0;
                   1537:   f->fullname = name;
                   1538: }
                   1539:
                   1540: void mkuf(char *name,char *fname,NODE args,SNODE body,int startl,int endl,char *desc,MODULE module)
                   1541: {
                   1542:   FUNC f;
                   1543:   USRF t;
                   1544:   NODE usrf_list,sn,tn;
                   1545:   FNODE fn;
                   1546:   char *longname;
                   1547:   int argc;
                   1548:
                   1549:   if ( getsecuremode() ) {
                   1550:     error("defining function is not permitted in the secure mode");
                   1551:   }
                   1552:   if ( *name == ':' )
                   1553:     name += 2;
                   1554:   if ( !module ) {
                   1555:     searchf(sysf,name,&f);
                   1556:     if ( f ) {
                   1557:       fprintf(stderr,"def : builtin function %s() cannot be redefined.\n",name);
                   1558:       CPVS = GPVS; return;
                   1559:     }
                   1560:   }
                   1561:   for ( argc = 0, sn = args; sn; argc++, sn = NEXT(sn) ) {
                   1562:     fn = (FNODE)BDY(sn);
                   1563:     if ( !fn || ID(fn) != I_PVAR ) {
                   1564:       fprintf(stderr,"illegal  argument in %s()\n",name);
                   1565:       CPVS = GPVS; return;
                   1566:     }
                   1567:   }
                   1568:   usrf_list = module ? module->usrf_list : usrf;
                   1569:   for ( sn = usrf_list; sn && strcmp(NAME((FUNC)BDY(sn)),name); sn = NEXT(sn) );
                   1570:   if ( sn )
                   1571:     f = (FUNC)BDY(sn);
                   1572:   else {
                   1573:     f=(FUNC)MALLOC(sizeof(struct oFUNC));
                   1574:     f->name = name;
                   1575:     MKNODE(tn,f,usrf_list); usrf_list = tn;
                   1576:     if ( module ) {
                   1577:       f->fullname =
                   1578:         (char *)MALLOC_ATOMIC(strlen(f->name)+strlen(module->name)+1);
                   1579:       sprintf(f->fullname,"%s.%s",module->name,f->name);
                   1580:       module->usrf_list = usrf_list;
                   1581:     } else {
                   1582:       f->fullname = f->name;
                   1583:       usrf = usrf_list;
                   1584:     }
                   1585:   }
                   1586:   if ( Verbose && f->id != A_UNDEF ) {
                   1587:     if ( module )
                   1588:       fprintf(stderr,"Warning : %s.%s() redefined.\n",module->name,name);
                   1589:     else
                   1590:       fprintf(stderr,"Warning : %s() redefined.\n",name);
                   1591:   }
                   1592:   t=(USRF)MALLOC(sizeof(struct oUSRF));
                   1593:   t->args=args; BDY(t)=body; t->pvs = CPVS; t->fname = fname;
                   1594:   t->startl = startl; t->endl = endl; t->module = module;
                   1595:   t->desc = desc;
                   1596:   f->id = A_USR; f->argc = argc; f->f.usrf = t;
                   1597:   CPVS = GPVS;
                   1598:   CUR_FUNC = 0;
                   1599:   clearbp(f);
                   1600: }
                   1601:
                   1602: /*
                   1603:   retrieve value of an option whose key matches 'key'
                   1604:   CVS->opt is a list(node) of key-value pair (list)
                   1605:   CVS->opt = BDY([[key,value],[key,value],...])
                   1606: */
                   1607:
                   1608: Obj getopt_from_cpvs(char *key)
                   1609: {
                   1610:   NODE opts,opt;
                   1611:   LIST r;
                   1612:   extern Obj VOIDobj;
                   1613:
                   1614:   opts = CPVS->opt;
                   1615:   if ( !key ) {
                   1616:     MKLIST(r,opts);
                   1617:     return (Obj)r;
                   1618:   } else {
                   1619:     for ( ; opts; opts = NEXT(opts) ) {
                   1620:       asir_assert(BDY(opts),O_LIST,"getopt_from_cvps");
                   1621:       opt = BDY((LIST)BDY(opts));
                   1622:       if ( !strcmp(key,BDY((STRING)BDY(opt))) )
                   1623:         return (Obj)BDY(NEXT(opt));
                   1624:     }
                   1625:     return VOIDobj;
                   1626:   }
                   1627:
                   1628: }
                   1629:
                   1630: MODULE mkmodule(char *name)
                   1631: {
                   1632:   MODULE mod;
                   1633:   NODE m;
                   1634:   int len;
                   1635:   VS mpvs;
                   1636:
                   1637:   for ( m = MODULE_LIST; m; m = NEXT(m) ) {
                   1638:     mod = (MODULE)m->body;
                   1639:     if ( !strcmp(mod->name,name) )
                   1640:       break;
                   1641:   }
                   1642:   if ( m )
                   1643:     return mod;
                   1644:   else {
                   1645:     mod = (MODULE)MALLOC(sizeof(struct oMODULE));
                   1646:     len = strlen(name);
                   1647:     mod->name = (char *)MALLOC_ATOMIC(len+1);
                   1648:     strcpy(mod->name,name);
                   1649:     mod->pvs = mpvs = (VS)MALLOC(sizeof(struct oVS));
                   1650:     asir_reallocarray((char **)&mpvs->va,(int *)&mpvs->asize,
                   1651:       (int *)&mpvs->n,(int)sizeof(struct oPV));
                   1652:     mod->usrf_list = 0;
                   1653:     MKNODE(m,mod,MODULE_LIST);
                   1654:     MODULE_LIST = m;
                   1655:     return mod;
                   1656:   }
                   1657: }
                   1658:
                   1659: void print_crossref(FUNC f)
                   1660: {
                   1661:   FUNC r;
                   1662:   if ( show_crossref && CUR_FUNC ) {
                   1663:   searchuf(f->fullname,&r);
                   1664:   if (r != NULL) {
                   1665:     fprintf(asir_out,"%s() at line %d in %s()\n",
                   1666:         f->fullname, asir_infile->ln, CUR_FUNC);
                   1667:   }
                   1668:   }
                   1669: }

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