newrpl/main.cpp
2014-08-16 17:13:05 -04:00

730 lines
23 KiB
C++

/*
* Copyright (c) 2014, Claudio Lapilli and the newRPL Team
* All rights reserved.
* This file is released under the 3-clause BSD license.
* See the file LICENSE.txt that shipped with this distribution.
*/
#include "newrpl.h"
#include "libraries.h"
#include <stdio.h>
#include <time.h>
extern "C" void rplShowRuntimeState(void);
/*
BYTEPTR testprogram=(BYTEPTR)"<< 1 'A' LAMSTO A 'A' LAMSTO >> " // UNIT TEST: ALREADY DEFINED LAMS COMPILED AS GETLAM/PUTLAM
"<< 1 'A' LAMSTO << A 'A' LAMSTO >> A 'A' LAMSTO >> " // UNIT TEST: LAMS ACROSS SECONDARY BOUNDARIES ARE SEARCHED BY NAME, NOT GETLAM/PUTLAM
"<< 1 'A' LAMSTO 1 A FOR i A i + 'A' LAMSTO NEXT A 'A' LAMSTO 'i' LAMSTO i >> " // UNIT TEST: LAMS ACROSS FOR LOOPS ARE OK AS GETLAM/PUTLAM, LOOP VARS DISSAPPEAR AFTER NEXT/STEP
"<< 1 'A' LAMSTO << 1 'B' LAMSTO A B C >> A B C >> " // UNIT TEST: LAMS AFTER SECONDARIES ARE CLEANED UP PROPERLY
"<< 1 'A' LAMSTO :: 1 'B' LAMSTO A B C ; A B C >> " // UNIT TEST: LAMS ACROSS DOCOL ARE COMPILED AS GETLAM/PUTLAM, BUT NEW ENVIRONMENTS NEED TO BE CREATED/CLEANED UP AS NEEDED
;
*/
/*
BYTEPTR testprogram=(BYTEPTR)"<< 1 'A' LAMSTO DO A A 1 + 'A' LAMSTO UNTIL A 10 == END \"END!\" >> EVAL " // UNIT TEST: DO/UNTIL TEST WITH LAMS
;
*/
/*
BYTEPTR testprogram=(BYTEPTR)//"<< 1 'A' LAMSTO WHILE A 10 <= REPEAT A A 1 + 'A' LAMSTO END \"END!\" >> " // UNIT TEST: WHILE/REPEAT TEST WITH LAMS
"<< 1 'A' LAMSTO WHILE A 'B' LAMSTO A 10 <= REPEAT B A A 1 + 'A' LAMSTO END B \"END!\" >> EVAL " // UNIT TEST: WHILE/REPEAT TEST WITH LAMS
;
*/
/*
BYTEPTR testprogram=(BYTEPTR) "<< 1 'A' STO 'DIR1' CRDIR DIR1 10 'B' STO 'DIR1' RCL 'DIR2' STO DIR2 1000 'C' STO HOME 'DIR1' RCL 'NEWDIR' STO >> EVAL";
*/
/*
BYTEPTR testprogram=(BYTEPTR) "DISPDEBUG 10 2 3 + SWAP DUP + SWAP DROP DISPDEBUG GARBAGE DISPDEBUG 1 SWAP FOR i i i * NEXT DISPDEBUG GARBAGE DISPDEBUG 1 10 FOR i DROP NEXT GARBAGE DISPDEBUG";
*/
/*
BYTEPTR testprogram=(BYTEPTR) "1 DISPDEBUG 1 100000 FOR i i 1 - DUP * + GARBAGE NEXT DISPDEBUG GARBAGE DISPDEBUG";
*/
/*
BYTEPTR testprogram=(BYTEPTR) "{ 1 2 3 4 5 6 7 8 9 } 'A' LAMSTO 'A' 3 16 PUT 'A' 3 GET A";
*/
/*
// N-QUEENS WITH ALL CONSTANT NUMBERS AS REALS
BYTEPTR testprogram=(BYTEPTR) "<< 8. 0. 0. 0. { } -> R S X Y A "
" << "
" 1. R START 0. NEXT R ->LIST 'A' STO "
" DO "
" 'A' 'X' INCR R PUT "
" DO "
" 'S' INCR DROP "
" X 'Y' STO "
" WHILE Y 1 > REPEAT "
" A X GET A 'Y' DECR GET - "
" IF DUP 0. == SWAP ABS X Y - == OR THEN "
" 0. 'Y' STO "
" 'A' X A X GET 1. - PUT "
" WHILE A X GET 0. == REPEAT "
" 'A' 'X' DECR A X GET 1. - PUT "
" END "
" END "
" END "
" UNTIL Y 1. == END "
" UNTIL X R == END "
" "
" S A "
" >> "
" >> "
" 'PRO' STO "
" 1 10 START PRO DROP DROP NEXT"
;
*/
/*
// N-QUEENS WITH ALL CONSTANTS AS INTEGERS (SINT)
BYTEPTR testprogram=(BYTEPTR) "<< 8 0 0 0 { } -> R S X Y A "
" << "
" 1 R START 0 NEXT R ->LIST 'A' STO "
" DO "
" 'A' 'X' INCR R PUT "
" DO "
" 'S' INCR DROP "
" X 'Y' STO "
" WHILE Y 1 > REPEAT "
" A X GET A 'Y' DECR GET - "
" IF DUP 0 == SWAP ABS X Y - == OR THEN "
" 0 'Y' STO "
" 'A' X A X GET 1 - PUT "
" WHILE A X GET 0 == REPEAT "
" 'A' 'X' DECR A X GET 1 - PUT "
" END "
" END "
" END "
" UNTIL Y 1 == END "
" UNTIL X R == END "
" "
" S A "
" >> "
" >> "
" 'PRO' STO "
" 1 1000 START PRO DROP DROP NEXT "
;
*/
/*
BYTEPTR testprogram=(BYTEPTR) "1.0 'val' LAMSTO 1 1000000 FOR J 150. 1. DUP ROT FOR I I * NEXT 'val' LAMSTO NEXT val";
*/
// GENERATE THE TRANSCENDENTALS TABLE ATAN(X) FOR X=1*10^-N
// USES 2016 DIGITS PRECISION (2025 TEMPORARY TO GUARANTEE ROUNDING)
/*
BYTEPTR testprogram=(BYTEPTR) "2025 SETPREC "
" << 0.0 'RESULT' LAMSTO 1 'SIGN' LAMSTO "
"DUP UNROT NEG 10 SWAP ^ * 3000 ROT / IP 2 * 0 FOR k DUP 2 k * 1 + DUP UNROT ^ SWAP / SIGN * "
"RESULT + 'RESULT' LAMSTO SIGN NEG 'SIGN' LAMSTO -1 STEP DROP RESULT >>"
" 'ATAN' STO "
" << 1 'SIGN' LAMSTO 0.0 1200 0 FOR k "
" -32 4 k * 1 + / "
" 4 k * 3 + INV - "
" 256 10 k * 1 + / + "
" 64 10 k * 3 + / - "
" 4 10 k * 5 + / - "
" 4 10 k * 7 + / - "
" 10 k * 9 + INV + "
" SIGN 2 10 k * ^ * INV * + "
" SIGN NEG 'SIGN' LAMSTO -1 STEP 256 / >> "
" 'QUARTERPI' STO "
" QUARTERPI "
" TRANSCENTABLE WRITETABLE 1 1008 FOR I 1 I ATAN TRANSCENTABLE WRITETABLE NEXT "
;
*/
// GENERATE THE TRANSCENDENTALS TABLE ATAN(X) FOR X=2*10^-N
// USES 2016 DIGITS PRECISION w/2025 INTERNAL PRECISION
/*
BYTEPTR testprogram=(BYTEPTR) "2025 SETPREC "
" << 0.0 'RESULT' LAMSTO 1 'SIGN' LAMSTO "
"DUP UNROT NEG 10 SWAP ^ * 3000 ROT / IP 2 * 0 FOR k DUP 2 k * 1 + DUP UNROT ^ SWAP / SIGN * "
"RESULT + 'RESULT' LAMSTO SIGN NEG 'SIGN' LAMSTO -1 STEP DROP RESULT >>"
" 'ATAN' STO "
"1 1008 FOR I 2 I ATAN TRANSCENTABLE WRITETABLE NEXT "
;
*/
// GENERATE THE TRANSCENDENTALS TABLE ATAN(X) FOR X=5*10^-N
// USES 2016 DIGITS PRECISION w/2025 INTERNAL
/*
BYTEPTR testprogram=(BYTEPTR) "2025 SETPREC "
" << 0.0 'RESULT' LAMSTO 1 'SIGN' LAMSTO "
"DUP UNROT NEG 10 SWAP ^ * 3000 ROT / IP 2 * 0 FOR k DUP 2 k * 1 + DUP UNROT ^ SWAP / SIGN * "
"RESULT + 'RESULT' LAMSTO SIGN NEG 'SIGN' LAMSTO -1 STEP DROP RESULT >>"
" 'ATAN' STO "
"1 1008 FOR I 5 I ATAN TRANSCENTABLE WRITETABLE NEXT "
;
*/
// GENERATE THE CONSTANT K = PRODUCT(COS(ALPHAi))=1/SQRT (PRODUCT( 1+k^2*10^-2n)) with k=5,2,2,1... AND n=0,... n DIGITS
// USES 2016 DIGITS PRECISION
/*
BYTEPTR testprogram=(BYTEPTR) "2025 SETPREC "
"2.0 "
"1 1008 FOR I 10 2 I * NEG ^ 1 * 1 + * NEXT "
"1 1008 FOR I 10 2 I * NEG ^ 4 * 1 + DUP * * NEXT "
"1 1008 FOR I 10 2 I * NEG ^ 25 * 1 + * NEXT "
" 0.5 ^ INV DUP TRANSCENTABLE DUP WRITETABLE "
;
*/
// GENERATE THE TRANSCENDENTALS TABLE WITH CONSTANTS 2*PI, PI, PI/2, PI/4 AT MAX. SYSTEM PRECISION
// USES 2016 DIGITS PRECISION (2025 TEMPORARY TO GUARANTEE ROUNDING)
/*
BYTEPTR testprogram=(BYTEPTR) "2025 SETPREC "
" << 1 'SIGN' LAMSTO 0.0 1200 0 FOR k "
" -32 4 k * 1 + / "
" 4 k * 3 + INV - "
" 256 10 k * 1 + / + "
" 64 10 k * 3 + / - "
" 4 10 k * 5 + / - "
" 4 10 k * 7 + / - "
" 10 k * 9 + INV + "
" SIGN 2 10 k * ^ * INV * + "
" SIGN NEG 'SIGN' LAMSTO -1 STEP 64 / >> "
" 'PI' STO "
" PI DUP DUP DUP 2 * TRANSCENTABLE WRITETABLE "
" TRANSCENTABLE WRITETABLE "
" 2 / TRANSCENTABLE WRITETABLE "
" 4 / TRANSCENTABLE WRITETABLE "
;
*/
// HYPERBOLIC TRANSCENDENTAL TABLES FOR ATANH(1*10^-x)
/*
BYTEPTR testprogram=(BYTEPTR) "2025 SETPREC "
" << 'K' LAMSTO 10 K NEG ^ 'X' LAMSTO 0.0 1 2025 K / IP 2 + FOR I X I ^ I / + 2 STEP >> 'MYATANH' STO "
"1 1008 FOR I I MYATANH TRANSCENTABLE WRITETABLE NEXT "
;
*/
// HYPERBOLIC TRANSCENDENTAL TABLES FOR ATANH(2*10^-x)
/*
BYTEPTR testprogram=(BYTEPTR) "2025 SETPREC "
" << 'K' LAMSTO 10 K NEG ^ 2 * 'X' LAMSTO 0.0 4000 K 3 / - K / 2 / IP 2 * 1 + 1 FOR I X I ^ I / + -2 STEP >> 'MYATANH' STO "
"1 1008 FOR I I MYATANH TRANSCENTABLE WRITETABLE NEXT "
;
*/
// HYPERBOLIC TRANSCENDENTAL TABLES FOR ATANH(5*10^-x)
/*
BYTEPTR testprogram=(BYTEPTR) "2025 SETPREC "
" << 'K' LAMSTO 10 K NEG ^ 5 * 'X' LAMSTO 0.0 8000 K - K / 2 / IP 2 * 1 + 1 FOR I X I ^ I / + -2 STEP >> 'MYATANH' STO "
"1 1008 FOR I I MYATANH TRANSCENTABLE WRITETABLE NEXT "
;
*/
// GENERATE THE CONSTANT K = PRODUCT(1/sqrt(1-alphai^2))=1/SQRT (PRODUCT( 1-k^2*10^-2n)) with k=5,2,2,1... AND n=1,... n DIGITS
// USES 2016 DIGITS PRECISION
/*
BYTEPTR testprogram=(BYTEPTR) "2025 SETPREC "
"1.0 "
"1 1008 FOR I 10 2 I * NEG ^ 1 * 1 - * NEXT "
"1 1008 FOR I 10 2 I * NEG ^ 4 * 1 - DUP * * NEXT "
"1 1008 FOR I 10 2 I * NEG ^ 25 * 1 - * NEXT "
" 0.5 ^ INV DUP TRANSCENTABLE DUP WRITETABLE "
;
*/
/*
BYTEPTR testprogram=(BYTEPTR) "2016 SETPREC "
" 1.0 CEXP "
" 0.5 CEXP "
" 0.2 CEXP "
" 0.1 CEXP "
" 0.0 CEXP "
" -0.3 CEXP "
" -0.6 CEXP "
" -0.9 CEXP "
;
*/
// GENERATE THE CONSTANT LN(10)
/*
BYTEPTR testprogram=(BYTEPTR) "2025 SETPREC "
" << DUP 1 - SWAP / 'X' LAMSTO -1 'SIGN' LAMSTO 0.0 50000 1 FOR I X I ^ I / + -1 STEP >> 'MYLN' STO "
" 10 MYLN DUP TRANSCENTABLE WRITETABLE "
;
*/
/*
BYTEPTR testprogram=(BYTEPTR) "2025 SETPREC "
" << 1 CEXP DUP DUP * * / 'Z' LAMSTO -0.7 'X' LAMSTO DO X CEXP DUP Z - SWAP / X SWAP - X SWAP DUP 'X' STO UNTIL - ABS 1E-2016 < END X >> 'MYLN' STO "
" 10 MYLN 3 + 2 / DUP TRANSCENTABLE WRITETABLE "
;
*/
// GENERATE THE CONSTANT Khyp = PRODUCT(1/sqrt(1-alphai^2))=1/SQRT (PRODUCT( 1-k^2*10^-2n)) with k=5,2,2,1... AND n=1,... n DIGITS
// USES 2016 DIGITS PRECISION
/*
BYTEPTR testprogram=(BYTEPTR) "2025 SETPREC "
" 1.0 "
" 1008 1 FOR I 10 2 I * ^ 1 SWAP / 1 - * "
" 10 2 I * ^ 4 SWAP / 1 - DUP * * "
" 10 2 I * ^ 25 SWAP / 1 - * "
" DUP 0.5 ^ INV TRANSCENTABLE WRITETABLE -1 STEP "
;
*/
// GENERATE THE CONSTANT K = PRODUCT(1/sqrt(1+alphai^2))=1/SQRT (PRODUCT( 1+k^2*10^-2n)) with k=5,2,2,1... AND n=1,... n DIGITS
// USES 2016 DIGITS PRECISION
/*
BYTEPTR testprogram=(BYTEPTR) "2025 SETPREC "
" 1.0 "
" 1008 1 FOR I 10 2 I * ^ 1 SWAP / 1 + * "
" 10 2 I * ^ 4 SWAP / 1 + DUP * * "
" 10 2 I * ^ 25 SWAP / 1 + * "
" DUP 0.5 ^ INV TRANSCENTABLE WRITETABLE -1 STEP "
" 2 * 0.5 ^ INV TRANSCENTABLE WRITETABLE "
;
*/
BYTEPTR testprogram=(BYTEPTR) "<< \"\" SWAP "
"WHILE DUP 0 > REPEAT "
"CASE "
"DUP 1000 >= THEN 1000 \"M\" END "
"DUP 900 >= THEN 900 \"CM\" END "
"DUP 500 >= THEN 500 \"D\" END "
"DUP 400 >= THEN 400 \"CD\" END "
"DUP 100 >= THEN 100 \"C\" END "
"DUP 90 >= THEN 90 \"XC\" END "
"DUP 50 >= THEN 50 \"L\" END "
"DUP 40 >= THEN 40 \"XL\" END "
"DUP 10 >= THEN 10 \"X\" END "
"DUP 9 >= THEN 9 \"IX\" END "
"DUP 5 >= THEN 5 \"V\" END "
"DUP 4 >= THEN 4 \"IV\" END "
"DUP 1 >= THEN 1 \"I\" END "
"END "
"ROT ROT - "
"ROT ROT + "
"SWAP "
"END DROP "
">> 'ROMAN' STO "
"<< "
"<< ROT ROT - ROT ROT + SWAP >> -> A "
"<< \"\" SWAP "
"WHILE DUP 1000 >= REPEAT 1000 \"M\" A EVAL END "
"WHILE DUP 900 >= REPEAT 900 \"CM\" A EVAL END "
"WHILE DUP 500 >= REPEAT 500 \"D\" A EVAL END "
"WHILE DUP 400 >= REPEAT 400 \"CD\" A EVAL END "
"WHILE DUP 100 >= REPEAT 100 \"C\" A EVAL END "
"WHILE DUP 90 >= REPEAT 90 \"XC\" A EVAL END "
"WHILE DUP 50 >= REPEAT 50 \"L\" A EVAL END "
"WHILE DUP 40 >= REPEAT 40 \"XL\" A EVAL END "
"WHILE DUP 10 >= REPEAT 10 \"X\" A EVAL END "
"WHILE DUP 9 >= REPEAT 9 \"IX\" A EVAL END "
"WHILE DUP 5 >= REPEAT 5 \"V\" A EVAL END "
"WHILE DUP 4 >= REPEAT 4 \"IV\" A EVAL END "
"WHILE DUP 1 >= REPEAT 1 \"I\" A EVAL END "
"DROP "
">> "
">> 'DBROMAN' STO "
"<< "
"\"\" SWAP "
"<< -> k r "
"<< "
"WHILE k 2 PICK 2 PICK >= "
"REPEAT - SWAP r + SWAP "
"END DROP "
">> "
">> -> A "
"<< "
"1000 \"M\" A EVAL "
"900 \"CM\" A EVAL "
"500 \"D\" A EVAL "
"400 \"CD\" A EVAL "
"100 \"C\" A EVAL "
"90 \"XC\" A EVAL "
"50 \"L\" A EVAL "
"40 \"XL\" A EVAL "
"10 \"X\" A EVAL "
"9 \"IX\" A EVAL "
"5 \"V\" A EVAL "
"4 \"IV\" A EVAL "
"1 \"I\" A EVAL "
">> "
"DROP "
">> 'TK1ROMAN' STO "
"<< -> n "
"<< "
"{ "
"{ \"\" n } "
"{ \"M\" 1000 } "
"{ \"CM\" 900 } "
"{ \"D\" 500 } "
"{ \"CD\" 400 } "
"{ \"C\" 100 } "
"{ \"XC\" 90 } "
"{ \"L\" 50 } "
"{ \"XL\" 40 } "
"{ \"X\" 10 } "
"{ \"IX\" 9 } "
"{ \"V\" 5 } "
"{ \"IV\" 4 } "
"{ \"I\" 1 } "
"} "
"<< "
"ADD LIST-> DROP "
"-> r k "
"<< "
"WHILE DUP k >= "
"REPEAT "
"k - SWAP "
"r + SWAP "
"END "
"2 ->LIST "
">> "
">> "
"STREAM HEAD "
">> "
">> 'TK2ROMAN' STO "
;
void PrintObj(WORDPTR obj)
{
WORDPTR string;
BINT nwords;
BYTEPTR charptr;
string=rplDecompile(obj);
if(string) {
// NOW PRINT THE STRING OBJECT
nwords=OBJSIZE(*string);
charptr=(BYTEPTR) (string+1);
for(;nwords>1;--nwords,charptr+=4)
{
printf("%c%c%c%c",charptr[0],charptr[1],charptr[2],charptr[3]);
}
// LAST WORD MAY CONTAIN LESS THAN 4 CHARACTERS
nwords=4-(LIBNUM(*string)&3);
for(;nwords>0;--nwords,charptr++)
{
printf("%c",*charptr);
}
}
}
void PrintSeco(WORDPTR obj)
{
WORDPTR string;
BINT nwords;
BYTEPTR charptr;
WORDPTR endobj=rplSkipOb(obj);
if(ISPROLOG(*obj) && ((LIBNUM(*obj)==DOCOL) || (LIBNUM(*obj)==SECO))) {
printf("%08X: ",obj-TempOb);
printf(" %s\n",(LIBNUM(*obj)==DOCOL)? "::":"<<");
++obj;
while(obj<endobj) {
if(ISPROLOG(*obj) && ((LIBNUM(*obj)==DOCOL) || (LIBNUM(*obj)==SECO))) {
PrintSeco(obj);
obj=rplSkipOb(obj);
continue;
}
printf("%08X: ",obj-TempOb);
string=rplDecompile(obj);
if(string) {
// NOW PRINT THE STRING OBJECT
nwords=OBJSIZE(*string);
charptr=(BYTEPTR) (string+1);
for(;nwords>1;--nwords,charptr+=4)
{
printf("%c%c%c%c",charptr[0],charptr[1],charptr[2],charptr[3]);
}
// LAST WORD MAY CONTAIN LESS THAN 4 CHARACTERS
nwords=4-(LIBNUM(*string)&3);
for(;nwords>0;--nwords,charptr++)
{
printf("%c",*charptr);
}
}
printf("\n");
obj=rplSkipOb(obj);
}
}
else {
printf("%08X: ",obj-TempOb);
PrintObj(obj);
}
}
void DumpDirs()
{
WORDPTR *scan=Directories;
while(scan<DirsTop) {
if(**scan==DIR_START_MARKER) {
printf("*** START ");
WORDPTR *parent=scan;
WORDPTR name=rplGetDirName(scan);
while(name) {
PrintObj(name);
printf(" ");
parent=rplGetParentDir(parent);
name=rplGetDirName(parent);
}
printf(" *** (%d ITEMS)\n",*(*(scan+1)+1));
}
else {
if(**scan==DIR_PARENT_MARKER) {
}
else {
if(**scan==DIR_END_MARKER) {
printf("*** END!\n");
}
else {
PrintObj(*scan);
printf(" = ");
PrintObj(*(scan+1));
printf("\n");
}
}
}
scan+=2;
}
}
void DumpLAMs()
{
WORDPTR *scan=LAMTop-2;
while(scan>=LAMs) {
if(**scan==LAM_BASESECO) {
printf("*** Parent environment *** \n");
}
else {
PrintObj(*scan);
printf(" = ");
PrintObj(*(scan+1));
printf("\n");
}
scan-=2;
}
}
void DumpDStack()
{
BINT count=0;
BINT nwords;
WORDPTR string;
BYTEPTR charptr;
BINT nlevels=5;
while(nlevels>rplDepthData() && nlevels>0 ) {
printf("%d:\n",nlevels);
--nlevels;
}
while(count<(DSTop-DStk)) {
printf("%d:\t",DSTop-DStk-count);
string=rplDecompile((WORDPTR)DStk[count]);
if(string) {
// NOW PRINT THE STRING OBJECT
nwords=OBJSIZE(*string);
charptr=(BYTEPTR) (string+1);
for(;nwords>1;--nwords,charptr+=4)
{
printf("%c%c%c%c",charptr[0],charptr[1],charptr[2],charptr[3]);
}
// LAST WORD MAY CONTAIN LESS THAN 4 CHARACTERS
nwords=4-(LIBNUM(*string)&3);
for(;nwords>0;--nwords,charptr++)
{
printf("%c",*charptr);
}
} else { printf("***ERROR DURING DECOMPILE!!!***"); }
printf("\n");
++count;
}
}
void DumpErrors()
{
struct error_message {
unsigned int num;
const char *string;
}
error_table[]={
{ 0x00000001,"Bad opcode"},
{ 0x00000002,"BreakPoint"},
{ 0x00000004,"Out of memory"},
{ 0x00000008,"Pointer out of range"}, // WILL CHANGE IN THE FUTURE
{ 0x00000010,"Divide by zero"}, // WILL CHANGE IN THE FUTURE
{ 0x00000020,"Overflow"}, // WILL CHANGE IN THE FUTURE
{ 0x00000040,"Empty stack"},
{ 0x00000080,"Empty return rtack"},
{ 0x00000100,"Syntax error"},
{ 0x00000200,"Undefined"},
{ 0x00000400,"Bad argument count"},
{ 0x00000800,"Bad argument type"},
{ 0x00001000,"Bad argument value"},
{ 0x00002000,"Undefined variable"},
{ 0x00004000,"Directory not empty"},
{ 0x00008000,"Invalid Dimension"},
// THESE ARE MPDECIMAL ERRORS
{ 0x00010000,"Clamped exponent"},
{ 0x00020000,"Conversion syntax"},
{ 0x00040000,"Division by zero"},
{ 0x00080000,"Division impossible"},
{ 0x00100000,"Division undefined"},
{ 0x00200000,"FPU Error"},
{ 0x00400000,"Inexact"},
{ 0x00800000,"Invalid context"},
{ 0x01000000,"Invalid operation"},
{ 0x02000000,"Internal out of memory"},
{ 0x04000000,"Not implemented"},
{ 0x08000000,"Overflow"},
{ 0x10000000,"Rounded"},
{ 0x20000000,"Subnormal"},
{ 0x40000000,"Underflow"},
{ 0x80000000,"Undefined error??"},
};
int errbit;
if(!Exceptions) return;
printf("Error status:\n");
for(errbit=0;errbit<32;++errbit)
{
if(error_table[errbit].num&Exceptions) printf("- %s\n",error_table[errbit].string);
}
}
void Refresh()
{
DumpDStack();
printf("~~> ");
}
int main()
{
char buffer[65535];
rplInit();
Context.prec=36;
Refresh();
/*
if(testprogram) {
WORDPTR ptr=rplCompile(testprogram,strlen((char *)testprogram),1);
if(ptr) { rplSetEntryPoint(ptr); rplRun(); }
}
*/
do {
fgets(buffer,65535,stdin);
if(buffer[0]=='\n' && buffer[1]==0) {
printf("Do you want to exit? Y/n: ");
fgets(buffer,65535,stdin);
if(buffer[0]=='y' || buffer[0]=='Y') return 0;
Refresh();
continue;
}
WORDPTR ptr=rplCompile((BYTEPTR)buffer,strlen(buffer),1);
if(!ptr) {
printf("COMPILE ERROR\n");
DumpErrors();
Exceptions=0;
Refresh();
Exceptions=0; // CLEAR EXCEPTIONS THAT MIGHT HAVE BEEN GENERATED DURING DECOMPILE TO SHOW THE STACK
continue;
}
clock_t start,end;
start=clock();
rplSetEntryPoint(ptr);
rplRun();
end=clock();
if(Exceptions) {
printf("Runtime Error: %08X at %08X\n",Exceptions,ExceptionPointer-TempOb);
DumpErrors();
Exceptions=0;
DumpLAMs();
DumpDirs();
Refresh();
Exceptions=0;
continue;
}
printf("Elapsed time: %.6lf seconds\n",((double)(start-end))/(double)CLOCKS_PER_SEC);
rplShowRuntimeState();
Exceptions=0;
Refresh();
Exceptions=0; // CLEAR EXCEPTIONS THAT MIGHT HAVE BEEN GENERATED DURING DECOMPILE TO SHOW THE STACK
}
while(1);
return 0;
}