static void
f77data_primdata(Symbol* basetype, Datasrc* src, Bytebuffer* codebuf, Datalist* fillsrc)
{
Constant* prim;
Constant target;
prim = srcnext(src);
if(prim == NULL) prim = &fillconstant;
ASSERT(prim->nctype != NC_COMPOUND);
if(prim->nctype == NC_FILLVALUE) {
Datalist* filler = getfiller(basetype,fillsrc);
ASSERT(filler->length == 1);
srcpushlist(src,filler);
bbAppend(codebuf,' ');
f77data_primdata(basetype,src,codebuf,NULL);
srcpop(src);
goto done;
}
target.nctype = basetype->typ.typecode;
convert1(prim,&target);
bbCat(codebuf,f77data_const(&target));
done:
return;
}
static void
processenums(void)
{
unsigned long i,j;
#if 0 /* Unused? */
List* enumids = listnew();
#endif
for(i=0;i<listlength(typdefs);i++) {
Symbol* sym = (Symbol*)listget(typdefs,i);
ASSERT(sym->objectclass == NC_TYPE);
if(sym->subclass != NC_ENUM) continue;
for(j=0;j<listlength(sym->subnodes);j++) {
Symbol* esym = (Symbol*)listget(sym->subnodes,j);
ASSERT(esym->subclass == NC_ECONST);
#if 0 /* Unused? */
listpush(enumids,(void*)esym);
#endif
}
}
/* Convert enum values to match enum type*/
for(i=0;i<listlength(typdefs);i++) {
Symbol* tsym = (Symbol*)listget(typdefs,i);
ASSERT(tsym->objectclass == NC_TYPE);
if(tsym->subclass != NC_ENUM) continue;
for(j=0;j<listlength(tsym->subnodes);j++) {
Symbol* esym = (Symbol*)listget(tsym->subnodes,j);
NCConstant* newec = nullconst();
ASSERT(esym->subclass == NC_ECONST);
newec->nctype = esym->typ.typecode;
convert1(esym->typ.econst,newec);
reclaimconstant(esym->typ.econst);
esym->typ.econst = newec;
}
}
}
static void
generate_primdata(Symbol* basetype, Constant* prim, Bytebuffer* codebuf,
Datalist* filler, Generator* generator)
{
Constant target;
if(prim == NULL || isfillconst(prim)) {
Datalist* fill = (filler==NULL?getfiller(basetype):filler);
ASSERT(fill->length == 1);
prim = datalistith(fill,0);
}
ASSERT(prim->nctype != NC_COMPOUND);
target.nctype = basetype->typ.typecode;
if(target.nctype != NC_ECONST) {
convert1(prim,&target);
}
switch (target.nctype) {
case NC_ECONST:
if(basetype->subclass != NC_ENUM) {
semerror(constline(prim),"Conversion to enum not supported (yet)");
} break;
case NC_OPAQUE:
setprimlength(&target,basetype->typ.size*2);
break;
default:
break;
}
generator->constant(generator,&target,codebuf);
return;
}
int main()
{
check1();
check2();
convert1();
convert2();
convert3();
convert4();
convert5();
return 0;
}
static void
cdata_primdata(Symbol* basetype, Datasrc* src, Bytebuffer* codebuf, Datalist* fillsrc)
{
Constant* prim;
Constant target;
prim = srcnext(src);
if(prim == NULL) prim = &fillconstant;
ASSERT(prim->nctype != NC_COMPOUND);
if(prim->nctype == NC_FILLVALUE) {
Datalist* filler = getfiller(basetype,fillsrc);
ASSERT(filler->length == 1);
srcpushlist(src,filler);
bbAppend(codebuf,' ');
cdata_primdata(basetype,src,codebuf,NULL);
srcpop(src);
goto done;
}
target.nctype = basetype->typ.typecode;
if(target.nctype != NC_ECONST) {
convert1(prim,&target);
}
switch (target.nctype) {
case NC_ECONST:
if(basetype->subclass != NC_ENUM) {
semerror(prim->lineno,"Conversion to enum not supported (yet)");
} else {
Datalist* econ = builddatalist(1);
Symbol* enumv = prim->value.enumv;
srcpushlist(src,econ);
dlappend(econ,&enumv->typ.econst);
cdata_primdata(enumv->typ.basetype,src,codebuf,fillsrc);
srcpop(src);
} break;
case NC_OPAQUE: {
setprimlength(&target,basetype->typ.size*2);
} break;
default: break;
}
bbCat(codebuf,cdata_const(&target));
done:
return;
}
int main(int argc, char* argv[])
{
char b[100],a[100];
int b1=atoi(argv[1]); // b1 is the initial base of the number
int b2=atoi(argv[2]); // b1 is the final base of the number
// This is the number to be converted
// we have given the input as a number(base) and a string
if(check(b1,argv[3])==1)
{
convert1(b1,b2,argv[3],b);
stringrev(b);
printf("%s\n",b);
}
else
printf("0\n");
}
static void
processenums(void)
{
int i,j;
List* enumids = listnew();
for(i=0;i<listlength(typdefs);i++) {
Symbol* sym = (Symbol*)listget(typdefs,i);
ASSERT(sym->objectclass == NC_TYPE);
if(sym->subclass != NC_ENUM) continue;
for(j=0;j<listlength(sym->subnodes);j++) {
Symbol* esym = (Symbol*)listget(sym->subnodes,j);
ASSERT(esym->subclass == NC_ECONST);
listpush(enumids,(void*)esym);
}
}
/* Now walk set of enum ids to look for duplicates with same prefix*/
for(i=0;i<listlength(enumids);i++) {
Symbol* sym1 = (Symbol*)listget(enumids,i);
for(j=i+1;j<listlength(enumids);j++) {
Symbol* sym2 = (Symbol*)listget(enumids,j);
if(strcmp(sym1->name,sym2->name) != 0) continue;
if(!prefixeq(sym1->prefix,sym2->prefix)) continue;
semerror(sym1->lineno,"Duplicate enumeration ids in same scope: %s",
fullname(sym1));
}
}
/* Convert enum values to match enum type*/
for(i=0;i<listlength(typdefs);i++) {
Symbol* tsym = (Symbol*)listget(typdefs,i);
ASSERT(tsym->objectclass == NC_TYPE);
if(tsym->subclass != NC_ENUM) continue;
for(j=0;j<listlength(tsym->subnodes);j++) {
Symbol* esym = (Symbol*)listget(tsym->subnodes,j);
Constant newec;
ASSERT(esym->subclass == NC_ECONST);
newec.nctype = esym->typ.typecode;
convert1(&esym->typ.econst,&newec);
esym->typ.econst = newec;
}
}
}
void search()
{
char str[1000],val[500],hexval[1000];
int d[1000],i;
lptr z;
fflush(stdin);
printf("\nEnter the key to be searched:");
gets(str);
FILE *fp1,*fp;
fp1 = fopen("hfile.txt","w+");
fclose(fp1);
MDString(str);
fp=fopen("hfile.txt","r");
fscanf(fp,"%s",hexval);
fclose(fp);
fp1=fopen("hashvalues.txt","w+");
fclose(fp1);
convert1(hexval);
fp1=fopen("hashvalues.txt","r");
fscanf(fp1,"%s",val);
fclose(fp1);
for(i=0;i<128;i++)
d[i]=val[i]-48;
z=closest(d,root);
if(!strcmp(z->key,str)) printf("\nSuccessful\n");
else printf("\nNO\n");
}
void
convert1(Constant* src, Constant* dst)
{
Constvalue tmp;
unsigned char* bytes = NULL;
size_t bytelen;
dst->lineno = src->lineno;
/* Need to translate all possible sources to all possible sinks.*/
/* Rather than have a nested switch, combine the src and target into*/
/* a single value so we can do a single n*n-way switch*/
/* special case for src being NC_FILLVALUE*/
if(src->nctype == NC_FILLVALUE) {
if(dst->nctype != NC_FILLVALUE) {
nc_getfill(dst);
}
return;
}
/* special case handling for src being NC_ECONST*/
if(src->nctype == NC_ECONST) {
if(dst->nctype == NC_ECONST) {
dst->value = src->value;
} else {
Symbol* econst;
econst = src->value.enumv;
convert1(&econst->typ.econst,dst);
}
return;
} else if(dst->nctype == NC_ECONST) {
/* special case for dst being NC_ECONST*/
semerror(lineno,"Conversion to enum not supported (yet)");
return;
}
if(src->nctype == NC_OPAQUE) {
bytes = makebytestring(src->value.opaquev.stringv,&bytelen);
}
#define CASE(nc1,nc2) (nc1*256+nc2)
switch (CASE(src->nctype,dst->nctype)) {
case CASE(NC_CHAR,NC_CHAR):
tmp.charv = src->value.charv;
break;
case CASE(NC_CHAR,NC_BYTE):
tmp.int8v = (unsigned char)src->value.charv;
break;
case CASE(NC_CHAR,NC_UBYTE):
tmp.uint8v = (unsigned char)src->value.charv;
break;
case CASE(NC_CHAR,NC_USHORT):
tmp.uint16v = (unsigned short)src->value.charv;
break;
case CASE(NC_CHAR,NC_UINT):
tmp.uint32v = (unsigned int)src->value.charv;
break;
case CASE(NC_CHAR,NC_UINT64):
tmp.uint64v = (unsigned long long)src->value.charv;
break;
case CASE(NC_CHAR,NC_SHORT):
tmp.int16v = (short)src->value.charv;
break;
case CASE(NC_CHAR,NC_INT):
tmp.int32v = (int)src->value.charv;
break;
case CASE(NC_CHAR,NC_INT64):
tmp.int64v = (long long)src->value.charv;
break;
case CASE(NC_CHAR,NC_FLOAT):
tmp.floatv = (float)src->value.charv;
break;
case CASE(NC_CHAR,NC_DOUBLE):
tmp.doublev = (double)src->value.charv;
break;
case CASE(NC_BYTE,NC_CHAR):
tmp.charv = (char)src->value.uint8v;
break;
case CASE(NC_BYTE,NC_BYTE):
tmp.uint8v = (unsigned char)src->value.uint8v;
break;
case CASE(NC_BYTE,NC_UBYTE):
tmp.uint8v = (unsigned char)src->value.uint8v;
break;
case CASE(NC_BYTE,NC_USHORT):
tmp.uint16v = (unsigned short)src->value.uint8v;
break;
case CASE(NC_BYTE,NC_UINT):
tmp.uint32v = (unsigned int)src->value.uint8v;
break;
case CASE(NC_BYTE,NC_UINT64):
tmp.uint64v = (unsigned long long)src->value.uint8v;
break;
case CASE(NC_BYTE,NC_SHORT):
tmp.int16v = (short)src->value.uint8v;
break;
case CASE(NC_BYTE,NC_INT):
tmp.int32v = (int)src->value.uint8v;
break;
case CASE(NC_BYTE,NC_INT64):
tmp.int64v = (long long)src->value.uint8v;
break;
case CASE(NC_BYTE,NC_FLOAT):
tmp.floatv = (float)src->value.uint8v;
break;
case CASE(NC_BYTE,NC_DOUBLE):
tmp.doublev = (double)src->value.uint8v;
break;
case CASE(NC_UBYTE,NC_CHAR):
tmp.charv = (char)src->value.uint8v;
break;
case CASE(NC_UBYTE,NC_BYTE):
tmp.uint8v = (unsigned char)src->value.uint8v;
break;
case CASE(NC_UBYTE,NC_UBYTE):
tmp.uint8v = (unsigned char)src->value.uint8v;
break;
case CASE(NC_UBYTE,NC_USHORT):
tmp.uint16v = (unsigned short)src->value.uint8v;
break;
case CASE(NC_UBYTE,NC_UINT):
tmp.uint32v = (unsigned int)src->value.uint8v;
break;
case CASE(NC_UBYTE,NC_UINT64):
tmp.uint64v = (unsigned long long)src->value.uint8v;
break;
case CASE(NC_UBYTE,NC_SHORT):
tmp.int16v = (short)src->value.uint8v;
break;
case CASE(NC_UBYTE,NC_INT):
tmp.int32v = (int)src->value.uint8v;
break;
case CASE(NC_UBYTE,NC_INT64):
tmp.int64v = (long long)src->value.uint8v;
break;
case CASE(NC_UBYTE,NC_FLOAT):
tmp.floatv = (float)src->value.uint8v;
break;
case CASE(NC_UBYTE,NC_DOUBLE):
tmp.doublev = (double)src->value.uint8v;
break;
case CASE(NC_USHORT,NC_BYTE):
tmp.uint8v = (unsigned char)src->value.uint16v;
break;
case CASE(NC_USHORT,NC_UBYTE):
tmp.uint8v = (unsigned char)src->value.uint16v;
break;
case CASE(NC_USHORT,NC_USHORT):
tmp.uint16v = (unsigned short)src->value.uint16v;
break;
case CASE(NC_USHORT,NC_UINT):
tmp.uint32v = (unsigned int)src->value.uint16v;
break;
case CASE(NC_USHORT,NC_UINT64):
tmp.uint64v = (unsigned long long)src->value.uint16v;
break;
case CASE(NC_USHORT,NC_SHORT):
tmp.int16v = (short)src->value.uint16v;
break;
case CASE(NC_USHORT,NC_INT):
tmp.int32v = (int)src->value.uint16v;
break;
case CASE(NC_USHORT,NC_INT64):
tmp.int64v = (long long)src->value.uint16v;
break;
case CASE(NC_USHORT,NC_FLOAT):
tmp.floatv = (float)src->value.uint16v;
break;
case CASE(NC_USHORT,NC_DOUBLE):
tmp.doublev = (double)src->value.uint16v;
break;
case CASE(NC_UINT,NC_BYTE):
tmp.uint8v = (unsigned char)src->value.uint32v;
break;
case CASE(NC_UINT,NC_UBYTE):
tmp.uint8v = (unsigned char)src->value.uint32v;
break;
case CASE(NC_UINT,NC_USHORT):
tmp.uint16v = (unsigned short)src->value.uint32v;
break;
case CASE(NC_UINT,NC_UINT):
tmp.uint32v = (unsigned int)src->value.uint32v;
break;
case CASE(NC_UINT,NC_UINT64):
tmp.uint64v = (unsigned long long)src->value.uint32v;
break;
case CASE(NC_UINT,NC_SHORT):
tmp.int16v = (short)src->value.uint32v;
break;
case CASE(NC_UINT,NC_INT):
tmp.int32v = (int)src->value.uint32v;
break;
case CASE(NC_UINT,NC_INT64):
tmp.int64v = (long long)src->value.uint32v;
break;
case CASE(NC_UINT,NC_FLOAT):
tmp.floatv = (float)src->value.uint32v;
break;
case CASE(NC_UINT,NC_DOUBLE):
tmp.doublev = (double)src->value.uint32v;
break;
case CASE(NC_UINT64,NC_BYTE):
tmp.uint8v = (unsigned char)src->value.uint64v;
break;
case CASE(NC_UINT64,NC_UBYTE):
tmp.uint8v = (unsigned char)src->value.uint64v;
break;
case CASE(NC_UINT64,NC_USHORT):
tmp.uint16v = (unsigned short)src->value.uint64v;
break;
case CASE(NC_UINT64,NC_UINT):
tmp.uint32v = (unsigned int)src->value.uint64v;
break;
case CASE(NC_UINT64,NC_UINT64):
tmp.uint64v = (unsigned long long)src->value.uint64v;
break;
case CASE(NC_UINT64,NC_SHORT):
tmp.int16v = (short)src->value.uint64v;
break;
case CASE(NC_UINT64,NC_INT):
tmp.int32v = (int)src->value.uint64v;
break;
case CASE(NC_UINT64,NC_INT64):
tmp.int64v = (long long)src->value.uint64v;
break;
case CASE(NC_UINT64,NC_FLOAT):
tmp.floatv = (float)src->value.uint64v;
break;
case CASE(NC_UINT64,NC_DOUBLE):
tmp.doublev = (double)src->value.uint64v;
break;
case CASE(NC_SHORT,NC_BYTE):
tmp.uint8v = (unsigned char)src->value.int16v;
break;
case CASE(NC_SHORT,NC_UBYTE):
tmp.uint8v = (unsigned char)src->value.int16v;
break;
case CASE(NC_SHORT,NC_USHORT):
tmp.uint16v = (unsigned short)src->value.int16v;
break;
case CASE(NC_SHORT,NC_UINT):
tmp.uint32v = (unsigned int)src->value.int16v;
break;
case CASE(NC_SHORT,NC_UINT64):
tmp.uint64v = (unsigned long long)src->value.int16v;
break;
case CASE(NC_SHORT,NC_SHORT):
tmp.int16v = (short)src->value.int16v;
break;
case CASE(NC_SHORT,NC_INT):
tmp.int32v = (int)src->value.int16v;
break;
case CASE(NC_SHORT,NC_INT64):
tmp.int64v = (long long)src->value.int16v;
break;
case CASE(NC_SHORT,NC_FLOAT):
tmp.floatv = (float)src->value.int16v;
break;
case CASE(NC_SHORT,NC_DOUBLE):
tmp.doublev = (double)src->value.int16v;
break;
case CASE(NC_INT,NC_BYTE):
tmp.uint8v = (unsigned char)src->value.int32v;
break;
case CASE(NC_INT,NC_UBYTE):
tmp.uint8v = (unsigned char)src->value.int32v;
break;
case CASE(NC_INT,NC_USHORT):
tmp.uint16v = (unsigned short)src->value.int32v;
break;
case CASE(NC_INT,NC_UINT):
tmp.uint32v = (unsigned int)src->value.int32v;
break;
case CASE(NC_INT,NC_UINT64):
tmp.uint64v = (unsigned long long)src->value.int32v;
break;
case CASE(NC_INT,NC_SHORT):
tmp.int16v = (short)src->value.int32v;
break;
case CASE(NC_INT,NC_INT):
tmp.int32v = (int)src->value.int32v;
break;
case CASE(NC_INT,NC_INT64):
tmp.int64v = (long long)src->value.int32v;
break;
case CASE(NC_INT,NC_FLOAT):
tmp.floatv = (float)src->value.int32v;
break;
case CASE(NC_INT,NC_DOUBLE):
tmp.doublev = (double)src->value.int32v;
break;
case CASE(NC_INT64,NC_BYTE):
tmp.uint8v = (unsigned char)src->value.int64v;
break;
case CASE(NC_INT64,NC_UBYTE):
tmp.uint8v = (unsigned char)src->value.int64v;
break;
case CASE(NC_INT64,NC_USHORT):
tmp.uint16v = (unsigned short)src->value.int64v;
break;
case CASE(NC_INT64,NC_UINT):
tmp.uint32v = (unsigned int)src->value.int64v;
break;
case CASE(NC_INT64,NC_UINT64):
tmp.uint64v = (unsigned long long)src->value.int64v;
break;
case CASE(NC_INT64,NC_SHORT):
tmp.int16v = (short)src->value.int64v;
break;
case CASE(NC_INT64,NC_INT):
tmp.int32v = (int)src->value.int64v;
break;
case CASE(NC_INT64,NC_INT64):
tmp.int64v = (long long)src->value.int64v;
break;
case CASE(NC_INT64,NC_FLOAT):
tmp.floatv = (float)src->value.int64v;
break;
case CASE(NC_INT64,NC_DOUBLE):
tmp.doublev = (double)src->value.int64v;
break;
case CASE(NC_FLOAT,NC_BYTE):
tmp.uint8v = (unsigned char)src->value.floatv;
break;
case CASE(NC_FLOAT,NC_UBYTE):
tmp.uint8v = (unsigned char)src->value.floatv;
break;
case CASE(NC_FLOAT,NC_USHORT):
tmp.uint16v = (unsigned short)src->value.floatv;
break;
case CASE(NC_FLOAT,NC_UINT):
tmp.uint32v = (unsigned int)src->value.floatv;
break;
case CASE(NC_FLOAT,NC_UINT64):
tmp.uint64v = (unsigned long long)src->value.floatv;
break;
case CASE(NC_FLOAT,NC_SHORT):
tmp.int16v = (short)src->value.floatv;
break;
case CASE(NC_FLOAT,NC_INT):
tmp.int32v = (int)src->value.floatv;
break;
case CASE(NC_FLOAT,NC_INT64):
tmp.int64v = (long long)src->value.floatv;
break;
case CASE(NC_FLOAT,NC_FLOAT):
tmp.floatv = src->value.floatv;
break;
case CASE(NC_FLOAT,NC_DOUBLE):
tmp.doublev = (isnan(src->value.floatv)?NAN:(double)src->value.floatv);
break;
case CASE(NC_DOUBLE,NC_BYTE):
tmp.uint8v = (unsigned char)src->value.doublev;
break;
case CASE(NC_DOUBLE,NC_UBYTE):
tmp.uint8v = (unsigned char)src->value.doublev;
break;
case CASE(NC_DOUBLE,NC_USHORT):
tmp.uint16v = (unsigned short)src->value.doublev;
break;
case CASE(NC_DOUBLE,NC_UINT):
tmp.uint32v = (unsigned int)src->value.doublev;
break;
case CASE(NC_DOUBLE,NC_UINT64):
tmp.uint64v = (unsigned long long)src->value.doublev;
break;
case CASE(NC_DOUBLE,NC_SHORT):
tmp.int16v = (short)src->value.doublev;
break;
case CASE(NC_DOUBLE,NC_INT):
tmp.int32v = (int)src->value.doublev;
break;
case CASE(NC_DOUBLE,NC_INT64):
tmp.int64v = (long long)src->value.doublev;
break;
case CASE(NC_DOUBLE,NC_FLOAT):
tmp.floatv = (isnan(src->value.doublev)?NANF:(float)src->value.doublev);
break;
case CASE(NC_DOUBLE,NC_DOUBLE):
tmp.doublev = (double)src->value.doublev;
break;
/* Conversion of a string to e.g. an integer should be what?*/
case CASE(NC_STRING,NC_BYTE):
sscanf(src->value.stringv.stringv,"%hhd",&tmp.int8v); break;
case CASE(NC_STRING,NC_UBYTE):
sscanf(src->value.stringv.stringv,"%hhu",&tmp.uint8v); break;
case CASE(NC_STRING,NC_USHORT):
sscanf(src->value.stringv.stringv,"%hu",&tmp.uint16v); break;
case CASE(NC_STRING,NC_UINT):
sscanf(src->value.stringv.stringv,"%u",&tmp.uint32v); break;
case CASE(NC_STRING,NC_UINT64):
sscanf(src->value.stringv.stringv,"%llu",&tmp.uint64v); break;
case CASE(NC_STRING,NC_SHORT):
sscanf(src->value.stringv.stringv,"%hd",&tmp.int16v); break;
case CASE(NC_STRING,NC_INT):
sscanf(src->value.stringv.stringv,"%d",&tmp.int32v); break;
case CASE(NC_STRING,NC_INT64):
sscanf(src->value.stringv.stringv,"%lld",&tmp.int64v); break;
case CASE(NC_STRING,NC_FLOAT):
sscanf(src->value.stringv.stringv,"%g",&tmp.floatv); break;
case CASE(NC_STRING,NC_DOUBLE):
sscanf(src->value.stringv.stringv,"%lg",&tmp.doublev); break;
case CASE(NC_STRING,NC_CHAR):
tmp.charv = src->value.stringv.stringv[0];
break;
case CASE(NC_STRING,NC_STRING):
tmp.stringv.stringv = nulldup(src->value.stringv.stringv);
tmp.stringv.len = src->value.stringv.len;
break;
/* What is the proper conversion for T->STRING?*/
case CASE(NC_CHAR,NC_STRING):
sprintf(stmp,"%c",src->value.charv);
tmp.stringv.len = nulllen(stmp);
tmp.stringv.stringv = nulldup(stmp);
break;
case CASE(NC_BYTE,NC_STRING):
sprintf(stmp,"%hhd",src->value.uint8v);
tmp.stringv.len = nulllen(stmp);
tmp.stringv.stringv = nulldup(stmp);
break;
case CASE(NC_UBYTE,NC_STRING):
sprintf(stmp,"%hhu",src->value.uint8v);
tmp.stringv.len = nulllen(stmp);
tmp.stringv.stringv = nulldup(stmp);
break;
case CASE(NC_USHORT,NC_STRING):
sprintf(stmp,"%hu",src->value.uint16v);
tmp.stringv.len = nulllen(stmp);
tmp.stringv.stringv = nulldup(stmp);
break;
case CASE(NC_UINT,NC_STRING):
sprintf(stmp,"%u",src->value.uint32v);
tmp.stringv.len = nulllen(stmp);
tmp.stringv.stringv = nulldup(stmp);
break;
case CASE(NC_UINT64,NC_STRING):
sprintf(stmp,"%llu",src->value.uint64v);
tmp.stringv.len = nulllen(stmp);
tmp.stringv.stringv = nulldup(stmp);
break;
case CASE(NC_SHORT,NC_STRING):
sprintf(stmp,"%hd",src->value.int16v);
tmp.stringv.len = nulllen(stmp);
tmp.stringv.stringv = nulldup(stmp);
break;
case CASE(NC_INT,NC_STRING):
sprintf(stmp,"%d",src->value.int32v);
tmp.stringv.len = nulllen(stmp);
tmp.stringv.stringv = nulldup(stmp);
break;
case CASE(NC_INT64,NC_STRING):
sprintf(stmp,"%lld",src->value.int64v);
tmp.stringv.len = nulllen(stmp);
tmp.stringv.stringv = nulldup(stmp);
break;
case CASE(NC_FLOAT,NC_STRING):
sprintf(stmp,"%.8g",src->value.floatv);
tmp.stringv.len = nulllen(stmp);
tmp.stringv.stringv = nulldup(stmp);
break;
case CASE(NC_DOUBLE,NC_STRING):
sprintf(stmp,"%.8g",src->value.doublev);
tmp.stringv.len = nulllen(stmp);
tmp.stringv.stringv = nulldup(stmp);
break;
case CASE(NC_OPAQUE,NC_CHAR):
if(bytes)
tmp.charv = *(char*)bytes;
break;
case CASE(NC_OPAQUE,NC_BYTE):
if(bytes)
tmp.uint8v = *(unsigned char*)bytes;
break;
case CASE(NC_OPAQUE,NC_UBYTE):
if(bytes)
tmp.uint8v = *(unsigned char*)bytes;
break;
case CASE(NC_OPAQUE,NC_USHORT):
if(bytes)
tmp.uint16v = *(unsigned short*)bytes;
break;
case CASE(NC_OPAQUE,NC_UINT):
if(bytes)
tmp.uint32v = *(unsigned int*)bytes;
break;
case CASE(NC_OPAQUE,NC_UINT64):
if(bytes)
tmp.uint64v = *(unsigned long long*)bytes;
break;
case CASE(NC_OPAQUE,NC_SHORT):
if(bytes)
tmp.int16v = *(short*)bytes;
break;
case CASE(NC_OPAQUE,NC_INT):
if(bytes)
tmp.int32v = *(int*)bytes;
break;
case CASE(NC_OPAQUE,NC_INT64):
if(bytes)
tmp.int64v = *(long long*)bytes;
break;
case CASE(NC_OPAQUE,NC_FLOAT):
if(bytes)
tmp.floatv = *(float*)bytes;
break;
case CASE(NC_OPAQUE,NC_DOUBLE):
if(bytes)
tmp.doublev = *(double*)bytes;
break;
case CASE(NC_OPAQUE,NC_OPAQUE):
tmp.opaquev.stringv = (char*)malloc(src->value.opaquev.len+1);
memcpy(tmp.opaquev.stringv,src->value.opaquev.stringv,src->value.opaquev.len);
tmp.opaquev.len = src->value.opaquev.len;
tmp.opaquev.stringv[tmp.opaquev.len] = '\0';
break;
/* We are missing all CASE(X,NC_ECONST) cases*/
default:
semerror(lineno,"transform: illegal conversion: %s/%d -> %s/%d",
nctypename(src->nctype),src->nctype,
nctypename(dst->nctype),dst->nctype);
break;;
}
if(bytes != NULL) efree(bytes); /* cleanup*/
/* overwrite minimum necessary parts*/
dst->value = tmp;
}
static void
generate_primdata(Symbol* basetype, NCConstant* prim, Bytebuffer* codebuf,
Datalist* filler, Generator* generator)
{
NCConstant target;
int match;
if(prim == NULL || isfillconst(prim)) {
Datalist* fill = (filler==NULL?getfiller(basetype):filler);
ASSERT(fill->length == 1);
prim = datalistith(fill,0);
}
ASSERT(prim->nctype != NC_COMPOUND);
/* Verify that the constant is consistent with the type */
match = 1;
switch (prim->nctype) {
case NC_CHAR:
case NC_BYTE:
case NC_SHORT:
case NC_INT:
case NC_FLOAT:
case NC_DOUBLE:
case NC_UBYTE:
case NC_USHORT:
case NC_UINT:
case NC_INT64:
case NC_UINT64:
case NC_STRING:
match = (basetype->subclass == NC_PRIM ? 1 : 0);
break;
#ifdef USE_NETCDF4
case NC_NIL:
match = (basetype->subclass == NC_PRIM && basetype->typ.typecode == NC_STRING ? 1 : 0);
break;
case NC_OPAQUE:
/* OPAQUE is also consistent with numbers */
match = (basetype->subclass == NC_OPAQUE
|| basetype->subclass == NC_PRIM ? 1 : 0);
break;
case NC_ECONST:
match = (basetype->subclass == NC_ENUM ? 1 : 0);
if(match) {
/* Make sure this econst belongs to this enum */
Symbol* ec = prim->value.enumv;
Symbol* en = ec->container;
match = (en == basetype);
}
break;
#endif
default:
match = 0;
}
if(!match) {
semerror(constline(prim),"Data value is not consistent with the expected type: %s",
basetype->name);
}
target.nctype = basetype->typ.typecode;
if(target.nctype != NC_ECONST) {
convert1(prim,&target);
}
switch (target.nctype) {
case NC_ECONST:
if(basetype->subclass != NC_ENUM) {
semerror(constline(prim),"Conversion to enum not supported (yet)");
} break;
case NC_OPAQUE:
normalizeopaquelength(&target,basetype->typ.size);
break;
default:
break;
}
generator->constant(generator,&target,codebuf);
return;
}
/* Recursive helper that does the bulk of the work */
static int
bin_generate_data_r(NCConstant* instance, Symbol* tsym, Datalist* fillvalue, Bytebuffer* databuf)
{
int stat = NC_NOERR;
if(instance->nctype == NC_FILLVALUE) {
/* replace with fillvalue for the type */
Datalist* filllist = (fillvalue == NULL ? getfiller(tsym) : fillvalue);
ASSERT(datalistlen(filllist)==1)
instance = datalistith(filllist,0);
}
switch (tsym->subclass) {
case NC_PRIM: {
switch (tsym->nc_id) {
case NC_CHAR: {
char* p = NULL;
NCConstant* tmp = nullconst();
tmp->nctype = NC_CHAR;
convert1(instance,tmp);
p = &tmp->value.charv;;
bbAppendn(databuf,p,sizeof(char));
reclaimconstant(tmp);
} break;
case NC_BYTE: {
signed char* p = NULL;
NCConstant* tmp = nullconst();
tmp->nctype = NC_BYTE;
convert1(instance,tmp);
p = &tmp->value.int8v;
bbAppendn(databuf,p,sizeof(signed char));
reclaimconstant(tmp);
} break;
case NC_UBYTE: {
unsigned char* p = NULL;
NCConstant* tmp = nullconst();
tmp->nctype = NC_UBYTE;
convert1(instance,tmp);
p = &tmp->value.uint8v;
bbAppendn(databuf,p,sizeof(unsigned char));
reclaimconstant(tmp);
} break;
case NC_SHORT: {
short* p = NULL;
NCConstant* tmp = nullconst();
tmp->nctype = NC_SHORT;
convert1(instance,tmp);
p = &tmp->value.int16v;
bbAppendn(databuf,p,sizeof(short));
reclaimconstant(tmp);
} break;
case NC_USHORT: {
unsigned short* p = NULL;
NCConstant* tmp = nullconst();
tmp->nctype = NC_USHORT;
convert1(instance,tmp);
p = &tmp->value.uint16v;
bbAppendn(databuf,p,sizeof(unsigned short));
reclaimconstant(tmp);
} break;
case NC_INT: {
int* p = NULL;
NCConstant* tmp = nullconst();
tmp->nctype = NC_INT;
convert1(instance,tmp);
p = &tmp->value.int32v;
bbAppendn(databuf,p,sizeof(int));
reclaimconstant(tmp);
} break;
case NC_UINT: {
unsigned int* p = NULL;
NCConstant* tmp = nullconst();
tmp->nctype = NC_UINT;
convert1(instance,tmp);
p = &tmp->value.uint32v;
bbAppendn(databuf,p,sizeof(unsigned int));
reclaimconstant(tmp);
} break;
case NC_INT64: {
long long* p = NULL;
NCConstant* tmp = nullconst();
tmp->nctype = NC_INT64;
convert1(instance,tmp);
p = &tmp->value.int64v;
bbAppendn(databuf,p,sizeof(long long));
reclaimconstant(tmp);
} break;
case NC_UINT64: {
unsigned long long* p = NULL;
NCConstant* tmp = nullconst();
tmp->nctype = NC_UINT64;
convert1(instance,tmp);
p = &tmp->value.uint64v;
bbAppendn(databuf,p,sizeof(unsigned long long));
reclaimconstant(tmp);
} break;
case NC_FLOAT: {
float* p = NULL;
NCConstant* tmp = nullconst();
tmp->nctype = NC_FLOAT;
convert1(instance,tmp);
p = &tmp->value.floatv;
bbAppendn(databuf,p,sizeof(float));
reclaimconstant(tmp);
} break;
case NC_DOUBLE: {
double* p = NULL;
NCConstant* tmp = nullconst();
tmp->nctype = NC_DOUBLE;
convert1(instance,tmp);
p = &tmp->value.doublev;
bbAppendn(databuf,p,sizeof(double));
reclaimconstant(tmp);
} break;
case NC_STRING: {
char* p = NULL;
NCConstant* tmp = nullconst();
tmp->nctype = NC_STRING;
convert1(instance,tmp);
p = emalloc(tmp->value.stringv.len+1);
memcpy(p,tmp->value.stringv.stringv,tmp->value.stringv.len);
p[tmp->value.stringv.len] = '\0';
bbAppendn(databuf,&p,sizeof(char*));
reclaimconstant(tmp);
} break;
default: stat = NC_EINTERNAL; goto done; /* Should never happen */
} break; /*switch*/
} break; /*NC_PRIM*/
case NC_ENUM: {
Symbol* basetype = tsym->typ.basetype;
/* Pretend */
stat = bin_generate_data_r(instance,basetype,fillvalue,databuf);
} break;
case NC_OPAQUE: {
unsigned char* bytes = NULL;
size_t len = 0;
if(instance->nctype != NC_OPAQUE)
{stat = NC_EBADTYPE; goto done;}
/* Assume the opaque string has been normalized */
bytes=makebytestring(instance->value.opaquev.stringv,&len);
if(bytes == NULL) {stat = NC_ENOMEM; goto done;}
bbAppendn(databuf,(void*)bytes,len);
free(bytes);
} break;
case NC_VLEN: {
Datalist* sublist = NULL;
Bytebuffer* vlendata = NULL;
nc_vlen_t p;
if(instance->nctype != NC_COMPOUND) {
nclog(NCLOGERR,"Translating vlen: expected sublist");
stat = NC_EBADTYPE; goto done;
}
sublist = instance->value.compoundv;
vlendata = bbNew();
if((stat = binary_generate_data(sublist,tsym->typ.basetype,NULL,vlendata))) goto done;
p.len = datalistlen(sublist);
p.p = bbContents(vlendata);
bbAppendn(databuf,(char*)&p,sizeof(nc_vlen_t));
} break;
case NC_COMPOUND: { /* The really hard one */
size_t nfields, fid, i;
Datalist* cmpd = instance->value.compoundv;
write_alignment(tsym->typ.cmpdalign,databuf);
/* Get info about each field in turn and build it*/
nfields = listlength(tsym->subnodes);
for(fid=0;fid<nfields;fid++) {
Symbol* field = listget(tsym->subnodes,fid);
NCConstant* fieldinstance = datalistith(cmpd,fid);
int ndims = field->typ.dimset.ndims;
size_t arraycount;
if(ndims == 0) {
ndims=1; /* fake the scalar case */
}
/* compute the total number of elements in the field array */
arraycount = 1;
for(i=0;i<ndims;i++) arraycount *= field->typ.dimset.dimsyms[i]->dim.declsize;
write_alignment(field->typ.alignment,databuf);
/* Write the instances */
for(i=0;i<arraycount;i++) {
if((stat = bin_generate_data_r(fieldinstance, field->typ.basetype, NULL, databuf))) goto done;
}
}
} break;
default: stat = NC_EINTERNAL; goto done; /* Should never happen */
}
done:
return stat;
}
int main() {
printf("Start....");
start:
printf("\n(input) "); //계산기 프로그램 시작
scanf("%s", in1);
str_in1 = strlen(in1);
c_hoice();
if (chosen != 1){
scanf("%s", in2);
str_in2 = strlen(in2);
scanf("%s", in3);
str_in3 = strlen(in3);
check_sign_in1();
check_sign_in3();
re_array_in1();
re_array_in3();
separate();
if(in2[0] == '-'){
if(minus_sign_count == 0)
in2[0] = '-';
else if(minus_sign_count == 1){
if(if_minus_first == 1){
in2[0] = '+';
when_put_minus =1;}
if(if_minus_last == 1)
in2[0] = '+';}
else{
in2[0] = '-';
when_remove_minus =1;}}
else if(in2[0] == '+'){
if(minus_sign_count == 0)
in2[0] = '+';
else if(minus_sign_count == 1){
if(if_minus_first == 1)
in2[0] = '-';
if(if_minus_last == 1)
in2[0] = '-';}
else{
in2[0] = '+';
when_put_minus=1;}}
else if(in2[0] == '*'){
if(minus_sign_count == 0 || minus_sign_count == 2)
in2[0] = '*';
else if(minus_sign_count == 1){
in2[0] = '*';
when_put_minus=1;}}
else if(in2[0] == '/'){
if(minus_sign_count == 0 || minus_sign_count == 2)
in2[0] = '/';
else if(minus_sign_count == 1){
in2[0] = '/';
when_put_minus=1;}}
else if(in2[0] == '%'){
if(minus_sign_count == 0 || minus_sign_count == 2)
in2[0] = '%';
else if(minus_sign_count == 1){
in2[0] = '%';
when_put_minus=1;}}
switch (in2[0]) {
case '+' : { invert1(); convert1(); plus(); convert2(); invert2(); break; }
case '-' : { invert1(); compare(); convert1(); minus(); convert2(); invert2(); break; }
case '*' : { invert1(); invert1_mul_s(); multiply(); invert2(); invert2_mul_s(); break; }
case '/' : { invert1(); compare(); convert1(); divide(); convert2(); invert2(); break; }
case '%' : { invert1(); compare(); convert1(); remain(); convert2(); invert2(); break; }
default: ;
}
printf(" = ");
if(when_put_minus == 1)
printf("-");
// if(when_remove_minus == 1)
//여기서 - 부호 하나를 배열에서 빼주는 명령어 쓸 수 없을까?
if (daeso == 1)
printf("-");
comma(res_j);
if (p != 0)
{printf(".");
comma(res_s);}
}
initialization();
goto start;
return 0;
}
int main() {
printf("Start....");
start:
printf("\n(input) "); //계산기 프로그램 시작
input();
error();
if(again == 1)
{
initialization();
goto start;
}
c_hoice();
if (chosen != 1){ //in1에 입력받은 문자가 1자리 대소문자가 아닌 경우
var_cal();
if (var_cal_switch == 1)
{
printf(" = error\n");
initialization();
goto start;
}
check_sign_in1(); // input1 +/- 부호 체크
check_sign_in3(); // input3 +/- 부호 체크
re_array_in1(); // 다항 연산 고려 순서 바꿔 저장
re_array_in3(); // 다항 연산 고려 순사 바꿔 저장
separate();
which_sign();
switch (in2[0]) {
case '+' : { invert1(); convert1(); plus(); convert2(); invert2(); break; }
case '-' : { invert1(); compare(); convert1(); minus(); convert2(); invert2(); break; }
case '*' : { invert1(); invert1_mul_s(); multiply(); invert2(); invert2_mul_s(); break; }
case '/' : { dividing(); break; }
case '%' : { remain2(); break; }
default: ;
}
printf(" = ");
if(when_put_minus == 1)
printf("-");
if (daeso == 1)
printf("-");
comma(res_j);
if (p != 0)
{printf(".");
comma(res_s);}
}
initialization();
goto start;
return 0;
}
string convert1(string loc,string byte)
{
string s = loc;
string b = byte;
string u,v;
string y="NULL";
string x,j;
int n,m,k,p,q,c=0,r=0,e,f;
n= s.length();
m= b.length();
f=n-m;//int f is difference in the length of the two strings
v=s.substr(0,f);//string v is the extra string of larger string
for(int i=m-1;i>=0;i--)
{
//p is the equivalent
c=0;
//cout<<"f+i="<<s[f+i]<<endl;
if(s[f+i]=='A')
{
p=10;
}
else if(s[f+i]=='B')
{
p=11;
}
else if(s[f+i]=='C')
{
p=12;
}
else if(s[f+i]=='D')
{
p=13;
}
else if(s[f+i]=='E')
{
p=14;
}
else if(s[f+i]=='F')
{
p=15;
}
else
p=s[f+i]-'0';//to convert the character to int
//cout<<"p="<<p<<endl;
if(b[i]=='A')
{
q=10;
}
else if(b[i]=='B')
{
q=11;
}
else if(b[i]=='C')
{
q=12;
}
else if(b[i]=='D')
{
q=13;
}
else if(b[i]=='E')
{
q=14;
}
else if(b[i]=='F')
{
q=15;
}
else
q=b[i]-'0';
//cout<<"q="<<q<<endl;
if(p<q)
{
c=1;
k=p+16-q;
//cout<<s[f+i-1];
s[f+i-1]=((s[f+i-1]-'0')-1)+'0';
//cout<<s[f+i-1];
}
else
k=p-q;
//cout<<"k="<<k<<endl;
//if(k>15)
//r=k%16;
r=k;
//c=k/16;
//cout<<"r="<<r<<endl;
//cout<<"c="<<c<<endl;
if (r>9)
{
switch(r)
{
case 10:
x='A';
break;
case 11:
x='B';
break;
case 12:
x='C';
break;
case 13:
x='D';
break;
case 14:
x='E';
break;
case 15:
x='F';
break;
}
}
else
x=r+'0';
//cout<<"x="<<x<<endl;
//j=c+'0';
//cout<<"j="<<j<<endl;
y=x;
//cout<<"y"<<y<<endl;
if (f+i==3)
u=y;
else
u=y+u;
//cout<<"u="<<u<<endl;
}
if(c==1)
v=convert1(v,"1");
return v+u;
}
static void
genbin_primdata(Symbol* basetype, Datasrc* src, Datalist* fillsrc,
Bytebuffer* memory)
{
Constant* prim;
Constant target;
prim = srcnext(src);
if(prim == NULL || prim->nctype == NC_FILLVALUE) {
genbin_fillvalue(basetype,fillsrc,src,memory);
return;
}
target.nctype = basetype->typ.typecode;
if(prim == NULL) {
#ifdef GENFILL
/* generate a fill value*/
nc_getfill(&target);
/* fall thru*/
#else
return;
#endif
}
ASSERT(prim->nctype != NC_COMPOUND);
if(target.nctype != NC_ECONST) {
convert1(prim,&target);
alignbuffer(&target,memory);
}
switch (target.nctype) {
case NC_ECONST:
if(basetype->subclass != NC_ENUM) {
semerror(prim->lineno,"Conversion to enum not supported (yet)");
} else {
Datalist* econ = builddatalist(1);
srcpushlist(src,econ);
dlappend(econ,&prim->value.enumv->typ.econst);
genbin_primdata(prim->value.enumv->typ.basetype,src,
fillsrc,memory);
srcpop(src);
}
break;
case NC_OPAQUE: {
unsigned char* bytes;
size_t len;
setprimlength(&target,basetype->typ.size*2);
bytes=makebytestring(target.value.opaquev.stringv,&len);
bbAppendn(memory,(void*)bytes,len);
} break;
case NC_CHAR:
bbAppendn(memory,&target.value.charv,sizeof(target.value.charv));
break;
case NC_BYTE:
bbAppendn(memory,(void*)&target.value.int8v,sizeof(target.value.int8v));
break;
case NC_SHORT:
bbAppendn(memory,(void*)&target.value.int16v,sizeof(target.value.int16v));
break;
case NC_INT:
bbAppendn(memory,(void*)&target.value.int32v,sizeof(target.value.int32v));
break;
case NC_FLOAT:
bbAppendn(memory,(void*)&target.value.floatv,sizeof(target.value.floatv));
break;
case NC_DOUBLE:
bbAppendn(memory,(void*)&target.value.doublev,sizeof(target.value.doublev));
break;
case NC_UBYTE:
bbAppendn(memory,(void*)&target.value.uint8v,sizeof(target.value.uint8v));
break;
case NC_USHORT:
bbAppendn(memory,(void*)&target.value.uint16v,sizeof(target.value.uint16v));
break;
case NC_UINT:
bbAppendn(memory,(void*)&target.value.uint32v,sizeof(target.value.uint32v));
break;
case NC_INT64: {
union SI64 { char ch[8]; long long i64;} si64;
si64.i64 = target.value.int64v;
bbAppendn(memory,(void*)si64.ch,sizeof(si64.ch));
} break;
case NC_UINT64: {
union SU64 { char ch[8]; unsigned long long i64;} su64;
su64.i64 = target.value.uint64v;
bbAppendn(memory,(void*)su64.ch,sizeof(su64.ch));
} break;
case NC_STRING: {
if(usingclassic) {
bbAppendn(memory,target.value.stringv.stringv,target.value.stringv.len);
} else if(target.nctype == NC_CHAR) {
bbAppendn(memory,target.value.stringv.stringv,target.value.stringv.len);
} else {
char* ptr;
int len = (size_t)target.value.stringv.len;
ptr = poolalloc(len+1); /* CAREFUL: this has short lifetime*/
memcpy(ptr,target.value.stringv.stringv,len);
ptr[len] = '\0';
bbAppendn(memory,(void*)&ptr,sizeof(ptr));
}
} break;
default: PANIC1("genbin_primdata: unexpected type: %d",target.nctype);
}
}
void test() {
__v16sc gv1;
__v16uc gv2;
__v8ss gv3;
__v8us gv4;
__v4si gv5;
__v4ui gv6;
__v2sll gv7;
__v2ull gv8;
__v1slll gv9;
__v1ulll gv10;
__v4f gv11;
__v2d gv12;
vector signed char av1;
vector unsigned char av2;
vector signed short av3;
vector unsigned short av4;
vector signed int av5;
vector unsigned int av6;
vector signed long long av7;
vector unsigned long long av8;
vector signed __int128 av9;
vector unsigned __int128 av10;
vector float av11;
vector double av12;
vector bool int av13;
vector pixel short av14;
__v16sc *gv1_p = convert1(gv1);
__v16uc *gv2_p = convert1(gv2);
__v8ss *gv3_p = convert1(gv3);
__v8us *gv4_p = convert1(gv4);
__v4si *gv5_p = convert1(gv5);
__v4ui *gv6_p = convert1(gv6);
__v2sll *gv7_p = convert1(gv7);
__v2ull *gv8_p = convert1(gv8);
__v1slll *gv9_p = convert1(gv9);
__v1ulll *gv10_p = convert1(gv10);
__v4f *gv11_p = convert1(gv11);
__v2d *gv12_p = convert1(gv12);
vector signed char *av1_p = convert2(av1);
vector unsigned char *av2_p = convert2(av2);
vector signed short *av3_p = convert2(av3);
vector unsigned short *av4_p = convert2(av4);
vector signed int *av5_p = convert2(av5);
vector unsigned int *av6_p = convert2(av6);
vector signed long long *av7_p = convert2(av7);
vector unsigned long long *av8_p = convert2(av8);
vector signed __int128 *av9_p = convert2(av9);
vector unsigned __int128 *av10_p = convert2(av10);
vector float *av11_p = convert2(av11);
vector double *av12_p = convert2(av12);
convert2(av13); // expected-error {{call to 'convert2' is ambiguous}}
convert2(av14); // expected-error {{call to 'convert2' is ambiguous}}
}