mirror of
https://git.code.sf.net/p/newrpl/sources
synced 2024-11-16 19:51:25 +01:00
816 lines
24 KiB
C
816 lines
24 KiB
C
// LIBRARY ONE DEFINES THE BASIC TYPES BINT AND SINT
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#include "newrpl.h"
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#include "libraries.h"
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#include "hal.h"
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// THERE'S ONLY ONE EXTERNAL FUNCTION: THE LIBRARY HANDLER
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// ALL OTHER FUNCTIONS ARE LOCAL
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// MAIN LIBRARY NUMBER, CHANGE THIS FOR EACH LIBRARY
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#define LIBRARY_NUMBER 12
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#define LIB_ENUM lib12_enum
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#define LIB_NAMES lib12_names
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#define LIB_HANDLER lib12_handler
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#define LIB_NUMBEROFCMDS LIB12_NUMBEROFCMDS
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//#define _ISBINT(w) (((LIBNUM(w))&~3)==12)
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// MACRO TO GET NUMBER OF BITS IN THE BASE
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// 1= BINARY, 3=OCTAL, 4=HEX, AND 2=DECIMAL
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#define GETBASE(libnum) ((libnum)-(DECBINT-2))
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#define LIBFROMBASE(base) ((base)+(DECBINT-2))
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#define MIN_SINT -131072
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#define MAX_SINT +131071
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#define MIN_BINT -9223372036854775808LL
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#define MAX_BINT +9223372036854775807LL
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BINT64 powersof10[20]={
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1000000000000000000LL,
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100000000000000000LL,
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10000000000000000LL,
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1000000000000000LL,
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100000000000000LL,
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10000000000000LL,
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1000000000000LL,
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100000000000LL,
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10000000000LL,
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1000000000LL,
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100000000LL,
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10000000LL,
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1000000LL,
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100000LL,
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10000LL,
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1000LL,
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100LL,
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10LL,
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1LL,
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0LL
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};
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char alldigits[]="0123456789ABCDEF";
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void rplNewSINTPush(int num,int base)
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{
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WORDPTR obj;
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obj=rplAllocTempOb(0);
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if(!obj) return;
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*obj=MKOPCODE(base,num&0x3ffff);
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rplPushData(obj);
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}
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void rplNewBINTPush(BINT64 num,int base)
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{
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WORDPTR obj;
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if((num>=MIN_SINT)&&(num<=MAX_SINT)) {
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obj=rplAllocTempOb(0);
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if(!obj) return;
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*obj=MKOPCODE(base,num&0x3ffff);
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}
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else {
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obj=rplAllocTempOb(2);
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if(!obj) return;
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obj[0]=(MKPROLOG(base,2));
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obj[1]=((WORD)(num&0xffffffff)); // CAREFUL: THIS IS FOR LITTLE ENDIAN SYSTEMS ONLY!
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obj[2]=((WORD)( (num>>32)&0xffffffff));
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}
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rplPushData(obj);
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}
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BINT64 rplReadBINT(WORDPTR ptr)
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{
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BINT64 result;
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if(ISPROLOG(*ptr))
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// THERE'S A PAYLOAD, READ THE NUMBER
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result= *((BINT64 *)(ptr+1));
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else {
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result=OPCODE(*ptr);
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if(result&0x20000) result|=0xFFFFFFFFFFFc0000; // SIGN EXTEND
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}
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return result;
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}
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// READS A SINT, BINT OR REAL INTO A REAL NUMBER REGISTER
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void rplNumberToRReg(int num,WORDPTR number)
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{
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if(ISREAL(*number)) rplCopyRealToRReg(num,number);
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else if(ISBINT(*number)) rplBINTToRReg(num,rplReadBINT(number));
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else {
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Exceptions|=EX_BADARGTYPE;
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ExceptionPointer=IPtr;
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}
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}
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// READ A SINT, BINT OR REAL AS A 64-BIT INTEGER
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// ROUNDING A REAL IS BY TRUNCATION
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// DOES NOT CHECK FOR OVERFLOW!
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// USES RREG[0]
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BINT64 rplReadNumberAsBINT(WORDPTR number)
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{
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BINT64 value;
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if(ISREAL(*number)) {
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mpd_t dec;
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int status;
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rplReadReal(number,&dec);
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// CONVERT TO INTEGER BY TRUNCATION
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mpd_qtrunc(&RReg[0],&dec,&Context,(uint32_t *)&status);
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status=0;
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value=mpd_qget_i64(&RReg[0],(uint32_t *)&status);
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if(status) {
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Exceptions|=status<<16;
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ExceptionPointer=IPtr;
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return 0;
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}
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return value;
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}
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else if(ISBINT(*number)) return rplReadBINT(number);
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else {
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Exceptions|=EX_BADARGTYPE;
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ExceptionPointer=IPtr;
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}
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return 0;
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}
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// READ A NUMBER AS A REAL
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// CAREFUL!
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// dec SHOULD BE UNINITIALIZED (WITH NO STORAGE ALLOCATED)
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// DO **NOT** USE WITH RREG REGISTERS OR DATA CORRUPTION MIGHT OCCUR!!
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// USES RREG[0] AS TEMPORARY DATA STORAGE FOR dec
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void rplReadNumberAsReal(WORDPTR number,mpd_t*dec)
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{
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if(ISREAL(*number)) rplReadReal(number,dec);
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else if(ISBINT(*number)) {
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// PROVIDE STORAGE
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dec->alloc=RReg[0].alloc;
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dec->data=RReg[0].data;
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dec->flags=MPD_STATIC|MPD_STATIC_DATA;
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mpd_set_i64(dec,rplReadBINT(number),&Context);
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}
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else {
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Exceptions|=EX_BADARGTYPE;
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ExceptionPointer=IPtr;
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}
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}
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void LIB_HANDLER()
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{
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if(ISPROLOG(CurOpcode)) {
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// NORMAL BEHAVIOR FOR A BINT IS TO PUSH THE OBJECT ON THE STACK:
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rplPushData(IPtr);
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return;
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}
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if(LIBNUM(CurOpcode)==LIB_OVERLOADABLE)
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{
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// THESE ARE OVERLOADABLE COMMANDS DISPATCHED FROM THE
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// OVERLOADABLE OPERATORS LIBRARY.
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// PROVIDE BEHAVIOR FOR OVERLOADABLE OPERATORS HERE
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BINT64 op1,op2;
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mpd_t rop1,rop2;
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int op1type=0,op2type=0;
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int status;
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// USE GC-SAFE POINTERS, NEVER LOCAL COPIES OF POINTERS INTO TEMPOB
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#define arg1 ScratchPointer1
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#define arg2 ScratchPointer2
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int nargs=OVR_GETNARGS(CurOpcode);
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if(rplDepthData()<nargs) {
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Exceptions=EX_BADARGCOUNT;
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ExceptionPointer=IPtr;
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return;
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}
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if(nargs==1) {
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// UNARY OPERATORS
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arg1=rplPeekData(1);
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if(!ISBINT(*arg1)) {
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Exceptions=EX_BADARGTYPE;
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ExceptionPointer=IPtr;
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return;
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}
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op1=rplReadBINT(arg1);
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rplDropData(1);
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}
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else {
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arg1=rplPeekData(2);
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arg2=rplPeekData(1);
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if(!(ISBINT(*arg1)||ISREAL(*arg1)) || !(ISBINT(*arg2)||ISREAL(*arg2))) {
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Exceptions=EX_BADARGTYPE;
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ExceptionPointer=IPtr;
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return;
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}
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if(ISREAL(*arg1)) { rplReadReal(arg1,&rop1); op1type=1; }
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else { op1=rplReadBINT(arg1); op1type=0; }
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if(ISREAL(*arg2)) { rplReadReal(arg2,&rop2); op2type=1; }
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else { op2=rplReadBINT(arg2); op2type=0; }
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rplDropData(2);
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}
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switch(OPCODE(CurOpcode))
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{
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case OVR_ADD:
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// ADD TWO NUMBERS FROM THE STACK
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if(op1type||op2type) {
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if(op1type) {
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rplBINTToRReg(1,op2);
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mpd_add(&RReg[0],&rop1,&RReg[1],&Context);
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}
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if(op2type) {
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// TODO: TRY TO RESPECT THE NUMBER TYPE OF THE FIRST ARGUMENT
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rplBINTToRReg(1,op1);
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mpd_add(&RReg[0],&RReg[1],&rop2,&Context);
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}
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rplRRegToRealPush(0);
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return;
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}
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op1+=op2;
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rplNewBINTPush(op1,LIBNUM(*arg1));
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return;
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case OVR_SUB:
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if(op1type||op2type) {
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if(op1type) {
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rplBINTToRReg(1,-op2);
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mpd_add(&RReg[0],&rop1,&RReg[1],&Context);
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}
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if(op2type) {
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// TODO: TRY TO RESPECT THE NUMBER TYPE OF THE FIRST ARGUMENT
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rplBINTToRReg(1,op1);
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mpd_sub(&RReg[0],&RReg[1],&rop2,&Context);
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}
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rplRRegToRealPush(0);
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return;
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}
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op1-=op2;
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rplNewBINTPush(op1,LIBNUM(*arg1));
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return;
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case OVR_MUL:
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if(op1type||op2type) {
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if(op1type) {
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rplBINTToRReg(1,op2);
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mpd_mul(&RReg[0],&rop1,&RReg[1],&Context);
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}
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if(op2type) {
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// TODO: TRY TO RESPECT THE NUMBER TYPE OF THE FIRST ARGUMENT
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rplBINTToRReg(1,op1);
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mpd_mul(&RReg[0],&RReg[1],&rop2,&Context);
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}
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rplRRegToRealPush(0);
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return;
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}
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// TODO: DETECT OVERFLOW, AND CONVERT TO INTEGERS IF SO
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op1*=op2;
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rplNewBINTPush(op1,LIBNUM(*arg1));
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return;
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case OVR_DIV:
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{
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if(op1type||op2type) {
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if(op1type) {
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rplBINTToRReg(1,op2);
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mpd_div(&RReg[0],&rop1,&RReg[1],&Context);
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}
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if(op2type) {
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// TODO: TRY TO RESPECT THE NUMBER TYPE OF THE FIRST ARGUMENT
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rplBINTToRReg(1,op1);
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mpd_div(&RReg[0],&RReg[1],&rop2,&Context);
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}
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rplRRegToRealPush(0);
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return;
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}
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// TODO: BINT/BINT = REAL IN APPROX. MODE??
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rplBINTToRReg(1,op1);
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rplBINTToRReg(2,op2);
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mpd_div(&RReg[0],&RReg[1],&RReg[2],&Context);
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if(Exceptions) return;
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int status=0;
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BINT64 result=mpd_qget_i64(&RReg[0],&status);
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if(status) rplRRegToRealPush(0);
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else rplNewBINTPush(result,LIBNUM(*arg1));
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return;
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}
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case OVR_POW:
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{
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if(op1type||op2type) {
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if(op1type) {
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rplBINTToRReg(1,op2);
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mpd_pow(&RReg[0],&rop1,&RReg[1],&Context);
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}
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if(op2type) {
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// TODO: TRY TO RESPECT THE NUMBER TYPE OF THE FIRST ARGUMENT
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rplBINTToRReg(1,op1);
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mpd_pow(&RReg[0],&RReg[1],&rop2,&Context);
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}
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rplRRegToRealPush(0);
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return;
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}
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// INTEGER POWER, USE REALS TO DEAL WITH NEGATIVE POWERS AND OVERFLOW
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rplBINTToRReg(1,op1);
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rplBINTToRReg(2,op2);
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mpd_pow(&RReg[0],&RReg[1],&RReg[2],&Context);
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int status=0;
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BINT64 result=mpd_qget_i64(&RReg[0],&status);
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if(status) rplRRegToRealPush(0);
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else rplNewBINTPush(result,LIBNUM(*arg1));
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return;
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}
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case OVR_EQ:
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{
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if(op1type||op2type) {
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if(op1type) {
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// ROUND TO INTEGER
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status=0;
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mpd_qround_to_intx(&RReg[1],&rop1,&Context,(uint32_t *)&status);
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// IF MPD_Rounded OR MPD_Inexact, IT CAN'T BE EQUAL TO A BINT
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if(status) rplNewSINTPush(0,DECBINT);
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else {
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rplBINTToRReg(0,op2);
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int res=mpd_cmp(&RReg[1],&RReg[0],&Context);
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if(res) res=0;
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else res=1;
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rplNewSINTPush(res,DECBINT);
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}
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}
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if(op2type) {
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// ROUND TO INTEGER
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status=0;
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mpd_qround_to_intx(&RReg[1],&rop2,&Context,(uint32_t *)&status);
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// IF MPD_Rounded OR MPD_Inexact, IT CAN'T BE EQUAL TO A BINT
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if(status) rplNewSINTPush(0,DECBINT);
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else {
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rplBINTToRReg(0,op1);
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int res=mpd_cmp(&RReg[0],&RReg[1],&Context);
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if(res) res=0;
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else res=1;
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rplNewSINTPush(res,DECBINT);
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}
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}
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return;
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}
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// BOTH WERE INTEGERS
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if(op1==op2) rplNewSINTPush(1,DECBINT);
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else rplNewSINTPush(0,DECBINT);
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return;
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}
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case OVR_NOTEQ:
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{
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if(op1type||op2type) {
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if(op1type) {
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// ROUND TO INTEGER
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status=0;
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mpd_qround_to_intx(&RReg[1],&rop1,&Context,(uint32_t *)&status);
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// IF MPD_Rounded OR MPD_Inexact, IT CAN'T BE EQUAL TO A BINT
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if(status) rplNewSINTPush(1,DECBINT);
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else {
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rplBINTToRReg(0,op2);
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int res=mpd_cmp(&RReg[1],&RReg[0],&Context);
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if(res) res=1;
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rplNewSINTPush(res,DECBINT);
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}
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}
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if(op2type) {
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// ROUND TO INTEGER
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status=0;
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mpd_qround_to_intx(&RReg[1],&rop2,&Context,(uint32_t *)&status);
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// IF MPD_Rounded OR MPD_Inexact, IT CAN'T BE EQUAL TO A BINT
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if(status) rplNewSINTPush(1,DECBINT);
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else {
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rplBINTToRReg(0,op1);
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int res=mpd_cmp(&RReg[0],&RReg[1],&Context);
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if(res) res=1;
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rplNewSINTPush(res,DECBINT);
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}
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}
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return;
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}
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if(op1==op2) rplNewSINTPush(0,DECBINT);
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else rplNewSINTPush(1,DECBINT);
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return;
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}
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case OVR_LT:
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{
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if(op1type||op2type) {
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if(op1type) {
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rplBINTToRReg(0,op2);
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int res=mpd_cmp(&rop1,&RReg[0],&Context);
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if(res<0) res=1;
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else res=0;
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rplNewSINTPush(res,DECBINT);
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}
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if(op2type) {
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rplBINTToRReg(0,op1);
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int res=mpd_cmp(&RReg[0],&rop2,&Context);
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if(res<0) res=1;
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else res=0;
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rplNewSINTPush(res,DECBINT);
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}
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return;
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}
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if(op1<op2) rplNewSINTPush(1,DECBINT);
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else rplNewSINTPush(0,DECBINT);
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return;
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}
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case OVR_GT:
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{
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if(op1type||op2type) {
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if(op1type) {
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rplBINTToRReg(0,op2);
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int res=mpd_cmp(&rop1,&RReg[0],&Context);
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if(res>0) res=1;
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else res=0;
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rplNewSINTPush(res,DECBINT);
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}
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if(op2type) {
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rplBINTToRReg(0,op1);
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int res=mpd_cmp(&RReg[0],&rop2,&Context);
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if(res>0) res=1;
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else res=0;
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rplNewSINTPush(res,DECBINT);
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}
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return;
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}
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if(op1>op2) rplNewSINTPush(1,DECBINT);
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else rplNewSINTPush(0,DECBINT);
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return;
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}
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case OVR_LTE:
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{
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if(op1type||op2type) {
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if(op1type) {
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rplBINTToRReg(0,op2);
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int res=mpd_cmp(&rop1,&RReg[0],&Context);
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if(res<=0) res=1;
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else res=0;
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rplNewSINTPush(res,DECBINT);
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}
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if(op2type) {
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rplBINTToRReg(0,op1);
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int res=mpd_cmp(&RReg[0],&rop2,&Context);
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if(res<=0) res=1;
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else res=0;
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rplNewSINTPush(res,DECBINT);
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}
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return;
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}
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if(op1<=op2) rplNewSINTPush(1,DECBINT);
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else rplNewSINTPush(0,DECBINT);
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return;
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}
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case OVR_GTE:
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{
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if(op1type||op2type) {
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if(op1type) {
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rplBINTToRReg(0,op2);
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int res=mpd_cmp(&rop1,&RReg[0],&Context);
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if(res>=0) res=1;
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else res=0;
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|
rplNewSINTPush(res,DECBINT);
|
|
}
|
|
if(op2type) {
|
|
rplBINTToRReg(0,op1);
|
|
int res=mpd_cmp(&RReg[0],&rop2,&Context);
|
|
if(res>=0) res=1;
|
|
else res=0;
|
|
rplNewSINTPush(res,DECBINT);
|
|
}
|
|
return;
|
|
}
|
|
|
|
if(op1>=op2) rplNewSINTPush(1,DECBINT);
|
|
else rplNewSINTPush(0,DECBINT);
|
|
return;
|
|
}
|
|
case OVR_SAME:
|
|
{
|
|
if(op1type||op2type) {
|
|
if(op1type) {
|
|
// ROUND TO INTEGER
|
|
status=0;
|
|
mpd_qround_to_intx(&RReg[1],&rop1,&Context,(uint32_t *)&status);
|
|
// IF MPD_Rounded OR MPD_Inexact, IT CAN'T BE EQUAL TO A BINT
|
|
if(status) rplNewSINTPush(0,DECBINT);
|
|
else {
|
|
rplBINTToRReg(0,op2);
|
|
int res=mpd_cmp(&RReg[1],&RReg[0],&Context);
|
|
if(res) res=0;
|
|
else res=1;
|
|
rplNewSINTPush(res,DECBINT);
|
|
}
|
|
}
|
|
|
|
if(op2type) {
|
|
// ROUND TO INTEGER
|
|
status=0;
|
|
mpd_qround_to_intx(&RReg[1],&rop2,&Context,(uint32_t *)&status);
|
|
// IF MPD_Rounded OR MPD_Inexact, IT CAN'T BE EQUAL TO A BINT
|
|
if(status) rplNewSINTPush(0,DECBINT);
|
|
else {
|
|
rplBINTToRReg(0,op1);
|
|
int res=mpd_cmp(&RReg[0],&RReg[1],&Context);
|
|
if(res) res=0;
|
|
else res=1;
|
|
rplNewSINTPush(res,DECBINT);
|
|
}
|
|
}
|
|
return;
|
|
}
|
|
// BOTH WERE INTEGERS
|
|
if(op1==op2) rplNewSINTPush(1,DECBINT);
|
|
else rplNewSINTPush(0,DECBINT);
|
|
return;
|
|
}
|
|
|
|
|
|
|
|
|
|
case OVR_AND:
|
|
if(op1type) op1=!mpd_iszero(&rop1);
|
|
if(op2type) op2=!mpd_iszero(&rop2);
|
|
if(op1&&op2) rplNewSINTPush(1,DECBINT);
|
|
else rplNewSINTPush(0,DECBINT);
|
|
return;
|
|
case OVR_OR:
|
|
if(op1type) op1=!mpd_iszero(&rop1);
|
|
if(op2type) op2=!mpd_iszero(&rop2);
|
|
if(op1||op2) rplNewSINTPush(1,DECBINT);
|
|
else rplNewSINTPush(0,DECBINT);
|
|
return;
|
|
|
|
|
|
case OVR_INV:
|
|
// INVERSE WILL ALWAYS BE A REAL, SINCE 1/N == 0 FOR ALL N>1 IN STRICT INTEGER MATH, ORIGINAL UserRPL DOES NOT SUPPORT INVERSE OF INTEGERS
|
|
rplOneToRReg(0);
|
|
rplBINTToRReg(1,op1);
|
|
mpd_div(&RReg[2],&RReg[0],&RReg[1],&Context);
|
|
rplRRegToRealPush(2);
|
|
return;
|
|
case OVR_NEG:
|
|
op1=-op1;
|
|
rplNewBINTPush(op1,LIBNUM(*arg1));
|
|
return;
|
|
case OVR_EVAL:
|
|
// NOTHING TO DO, JUST KEEP THE ARGUMENT IN THE STACK
|
|
rplPushData(arg1);
|
|
return;
|
|
case OVR_ABS:
|
|
if(op1<0) rplNewBINTPush(-op1,LIBNUM(*arg1));
|
|
else rplPushData(arg1);
|
|
return;
|
|
case OVR_NOT:
|
|
if(op1) rplNewSINTPush(0,DECBINT);
|
|
else rplNewSINTPush(1,DECBINT);
|
|
return;
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
// ADD MORE case's HERE
|
|
default:
|
|
Exceptions=EX_BADARGTYPE; // RETURN BAD TYPE SINCE THIS LIBRARY DOES NOT OVERLOAD THE OPERATOR
|
|
ExceptionPointer=IPtr;
|
|
return;
|
|
|
|
|
|
}
|
|
return;
|
|
#undef arg1
|
|
#undef arg2
|
|
} // END OF OVERLOADABLE OPERATORS
|
|
|
|
|
|
BINT64 result;
|
|
BYTEPTR strptr;
|
|
int base,libbase,digit,count,neg,argnum1;
|
|
char basechr;
|
|
|
|
switch(OPCODE(CurOpcode))
|
|
{
|
|
// STANDARIZED OPCODES:
|
|
// --------------------
|
|
// LIBRARIES ARE FORCED TO ALWAYS HANDLE THE STANDARD OPCODES
|
|
|
|
|
|
case OPCODE_COMPILE:
|
|
// COMPILE RECEIVES:
|
|
// TokenStart = token string
|
|
// TokenLen = token length
|
|
// ArgPtr2 = token blanks afterwards
|
|
// ArgNum2 = blanks length
|
|
|
|
// COMPILE RETURNS:
|
|
// RetNum = enum CompileErrors
|
|
|
|
|
|
|
|
// COMPILE A NUMBER TO A SINT OR A BINT, DEPENDING ON THE ACTUAL NUMERIC VALUE
|
|
result=0;
|
|
strptr=(BYTEPTR )TokenStart;
|
|
base=10;
|
|
libbase=DECBINT;
|
|
neg=0;
|
|
argnum1=TokenLen; // LOCAL COPY
|
|
|
|
if(*strptr=='-') { neg=1; ++strptr; --argnum1; }
|
|
else if(*strptr=='+') { neg=0; ++strptr; --argnum1; }
|
|
|
|
if(*strptr=='#') {
|
|
++strptr;
|
|
--argnum1;
|
|
// THIS IS A NUMBER WITH A BASE
|
|
basechr=strptr[argnum1-1];
|
|
|
|
if( (basechr=='d') || (basechr=='D')) { --argnum1; }
|
|
if( (basechr=='h') || (basechr=='H')) { base=16; libbase=DECBINT+2; --argnum1; }
|
|
if( (basechr=='o') || (basechr=='O')) { base=8; libbase=DECBINT+1; --argnum1; }
|
|
if( (basechr=='b') || (basechr=='B')) { base=2; libbase=DECBINT-1; --argnum1; }
|
|
}
|
|
|
|
for(count=0;count<argnum1;++count) {
|
|
digit=strptr[count];
|
|
if((digit>='0')&&(digit<='9')) digit-=48;
|
|
else if((digit>='a')&&(digit<='f')) digit-=87;
|
|
else if((digit>='A')&&(digit<='F')) digit-=55;
|
|
else digit+=100;
|
|
|
|
if((digit>=0) && (digit<base))
|
|
{
|
|
if( ((result>>32)*base)>>31 ) {
|
|
// OVERFLOW, CANNOT BE AN INTEGER
|
|
RetNum=ERR_NOTMINE;
|
|
return;
|
|
}
|
|
result=result*base+digit;
|
|
}
|
|
else {
|
|
// AN INVALID DIGIT
|
|
RetNum=ERR_NOTMINE;
|
|
return;
|
|
}
|
|
}
|
|
|
|
// NOTHING ABOVE DEALS WITH MEMORY, SO NO PROBLEMS WITH GC
|
|
// FROM NOW ON, ANY POINTERS TO THE STRING BECOME INVALID
|
|
// DUE TO POSSIBLE GC
|
|
|
|
// FINISHED CONVERSION, NOW COMPILE TO SINT OR BINT AS NEEDED
|
|
if(neg) result=-result;
|
|
|
|
if((result>=MIN_SINT)&&(result<=MAX_SINT)) {
|
|
rplCompileAppend(MKOPCODE(libbase,result&0x3ffff));
|
|
RetNum=OK_CONTINUE;
|
|
return;
|
|
}
|
|
rplCompileAppend(MKPROLOG(libbase,2));
|
|
rplCompileAppend((WORD)(result&0xffffffff)); // CAREFUL: THIS IS FOR LITTLE ENDIAN SYSTEMS ONLY!
|
|
rplCompileAppend((WORD)( (result>>32)&0xffffffff));
|
|
RetNum=OK_CONTINUE;
|
|
return;
|
|
|
|
case OPCODE_DECOMPILE:
|
|
// DECOMPILE RECEIVES:
|
|
// DecompileObject = Ptr to WORD of object to decompile
|
|
// DecompStringEnd = Byte Ptr to end of current string. Write here with rplDecompAppendString(); rplDecompAppendChar();
|
|
|
|
if(ISPROLOG(*DecompileObject)) {
|
|
// THERE'S A PAYLOAD, READ THE NUMBER
|
|
result= *((BINT64 *)(DecompileObject+1));
|
|
}
|
|
else {
|
|
result=OPCODE(*DecompileObject);
|
|
if(result&0x20000) result|=0xFFFFFFFFFFFc0000; // SIGN EXTEND
|
|
}
|
|
|
|
base=GETBASE(LIBNUM(*DecompileObject));
|
|
|
|
if(result<0) {
|
|
rplDecompAppendChar('-');
|
|
result=-result;
|
|
}
|
|
|
|
|
|
if(base==2) {
|
|
// THIS IS A BASE-10 NUMBER
|
|
digit=0;
|
|
basechr='0';
|
|
while(result<powersof10[digit]) ++digit; // SKIP ALL LEADING ZEROS
|
|
// NOW DECOMPILE THE NUMBER
|
|
while(digit<18) {
|
|
while(result>=powersof10[digit]) { ++basechr; result-=powersof10[digit]; }
|
|
rplDecompAppendChar(basechr);
|
|
++digit;
|
|
basechr='0';
|
|
}
|
|
basechr+=result;
|
|
rplDecompAppendChar(basechr);
|
|
}
|
|
else {
|
|
// THIS IS A BINARY, OCTAL OR HEXA NUMBER
|
|
// base HAS THE NUMBER OF BITS PER DIGIT
|
|
rplDecompAppendChar('#');
|
|
|
|
digit=64-base;
|
|
|
|
neg=(1<<base)-1; // CREATE A MASK TO ISOLATE THE DIGIT
|
|
|
|
// SKIP ALL LEADING ZEROS
|
|
while(digit>0) {
|
|
if( (result>>digit)&neg ) break;
|
|
digit-=base;
|
|
}
|
|
// NOW DECOMPILE THE NUMBER
|
|
while(digit>=0) {
|
|
rplDecompAppendChar(alldigits[(result>>digit)&neg]);
|
|
digit-=base;
|
|
}
|
|
|
|
// ADD BASE CHARACTER
|
|
if(base==1) rplDecompAppendChar('b');
|
|
if(base==3) rplDecompAppendChar('o');
|
|
if(base==4) rplDecompAppendChar('h');
|
|
|
|
}
|
|
|
|
RetNum=OK_CONTINUE;
|
|
|
|
//DECOMPILE RETURNS
|
|
// RetNum = enum DecompileErrors
|
|
|
|
return;
|
|
case OPCODE_VALIDATE:
|
|
// VALIDATE RECEIVES OPCODES COMPILED BY OTHER LIBRARIES, TO BE INCLUDED WITHIN A COMPOSITE OWNED BY
|
|
// THIS LIBRARY. EVERY COMPOSITE HAS TO EVALUATE IF THE OBJECT BEING COMPILED IS ALLOWED INSIDE THIS
|
|
// COMPOSITE OR NOT. FOR EXAMPLE, A REAL MATRIX SHOULD ONLY ALLOW REAL NUMBERS INSIDE, ANY OTHER
|
|
// OPCODES SHOULD BE REJECTED AND AN ERROR THROWN.
|
|
// ArgPtr1 = token string
|
|
// ArgNum1 = token length
|
|
// ArgPtr2 =
|
|
// ArgNum2 = Opcode/WORD of object
|
|
|
|
// VALIDATE RETURNS:
|
|
// RetNum = enum CompileErrors
|
|
|
|
// ONLY USED ON COMPOSITES, DO NOTHING
|
|
|
|
return;
|
|
|
|
|
|
default:
|
|
// ALL OTHER OPCODES ARE SINT NUMBERS, JUST PUSH THEM ON THE STACK
|
|
rplPushData(IPtr);
|
|
return;
|
|
|
|
}
|
|
// DON'T ISSUE A BAD_OPCODE ERROR SINCE ALL OPCODES ARE VALID SINT NUMBERS
|
|
}
|
|
|
|
|
|
|
|
|