Perl_croak(aTHX_ "Can't upgrade to undef");
case SVt_IV:
SvANY(sv) = new_XIV();
- SvIVX(sv) = iv;
+ SvIV_set(sv, iv);
break;
case SVt_NV:
SvANY(sv) = new_XNV();
- SvNVX(sv) = nv;
+ SvNV_set(sv, nv);
break;
case SVt_RV:
SvANY(sv) = new_XRV();
SvPVX(sv) = pv;
SvCUR(sv) = cur;
SvLEN(sv) = len;
- SvIVX(sv) = iv;
+ SvIV_set(sv, iv);
if (SvNIOK(sv))
(void)SvIOK_on(sv);
SvNOK_off(sv);
SvPVX(sv) = pv;
SvCUR(sv) = cur;
SvLEN(sv) = len;
- SvIVX(sv) = iv;
- SvNVX(sv) = nv;
+ SvIV_set(sv, iv);
+ SvNV_set(sv, nv);
break;
case SVt_PVMG:
SvANY(sv) = new_XPVMG();
SvPVX(sv) = pv;
SvCUR(sv) = cur;
SvLEN(sv) = len;
- SvIVX(sv) = iv;
- SvNVX(sv) = nv;
+ SvIV_set(sv, iv);
+ SvNV_set(sv, nv);
SvMAGIC(sv) = magic;
SvSTASH(sv) = stash;
break;
SvPVX(sv) = pv;
SvCUR(sv) = cur;
SvLEN(sv) = len;
- SvIVX(sv) = iv;
- SvNVX(sv) = nv;
+ SvIV_set(sv, iv);
+ SvNV_set(sv, nv);
SvMAGIC(sv) = magic;
SvSTASH(sv) = stash;
LvTARGOFF(sv) = 0;
SvPVX(sv) = 0;
AvMAX(sv) = -1;
AvFILLp(sv) = -1;
- SvIVX(sv) = 0;
- SvNVX(sv) = 0.0;
+ SvIV_set(sv, 0);
+ SvNV_set(sv, 0.0);
SvMAGIC(sv) = magic;
SvSTASH(sv) = stash;
AvALLOC(sv) = 0;
SvPVX(sv) = pv;
SvCUR(sv) = cur;
SvLEN(sv) = len;
- SvIVX(sv) = iv;
- SvNVX(sv) = nv;
+ SvIV_set(sv, iv);
+ SvNV_set(sv, nv);
SvMAGIC(sv) = magic;
SvSTASH(sv) = stash;
break;
SvPVX(sv) = pv;
SvCUR(sv) = cur;
SvLEN(sv) = len;
- SvIVX(sv) = iv;
- SvNVX(sv) = nv;
+ SvIV_set(sv, iv);
+ SvNV_set(sv, nv);
SvMAGIC(sv) = magic;
SvSTASH(sv) = stash;
GvGP(sv) = 0;
SvPVX(sv) = pv;
SvCUR(sv) = cur;
SvLEN(sv) = len;
- SvIVX(sv) = iv;
- SvNVX(sv) = nv;
+ SvIV_set(sv, iv);
+ SvNV_set(sv, nv);
SvMAGIC(sv) = magic;
SvSTASH(sv) = stash;
BmRARE(sv) = 0;
SvPVX(sv) = pv;
SvCUR(sv) = cur;
SvLEN(sv) = len;
- SvIVX(sv) = iv;
- SvNVX(sv) = nv;
+ SvIV_set(sv, iv);
+ SvNV_set(sv, nv);
SvMAGIC(sv) = magic;
SvSTASH(sv) = stash;
break;
SvPVX(sv) = pv;
SvCUR(sv) = cur;
SvLEN(sv) = len;
- SvIVX(sv) = iv;
- SvNVX(sv) = nv;
+ SvIV_set(sv, iv);
+ SvNV_set(sv, nv);
SvMAGIC(sv) = magic;
SvSTASH(sv) = stash;
IoPAGE_LEN(sv) = 60;
OP_DESC(PL_op));
}
(void)SvIOK_only(sv); /* validate number */
- SvIVX(sv) = i;
+ SvIV_set(sv, i);
SvTAINT(sv);
}
Perl_croak(aTHX_ "Can't coerce %s to number in %s", sv_reftype(sv,0),
OP_NAME(PL_op));
}
- SvNVX(sv) = num;
+ SvNV_set(sv, num);
(void)SvNOK_only(sv); /* validate number */
SvTAINT(sv);
}
if (SvNVX(sv) < (NV)IV_MIN) {
(void)SvIOKp_on(sv);
(void)SvNOK_on(sv);
- SvIVX(sv) = IV_MIN;
+ SvIV_set(sv, IV_MIN);
return IS_NUMBER_UNDERFLOW_IV;
}
if (SvNVX(sv) > (NV)UV_MAX) {
/* Can't use strtol etc to convert this string. (See truth table in
sv_2iv */
if (SvNVX(sv) <= (UV)IV_MAX) {
- SvIVX(sv) = I_V(SvNVX(sv));
+ SvIV_set(sv, I_V(SvNVX(sv)));
if ((NV)(SvIVX(sv)) == SvNVX(sv)) {
SvIOK_on(sv); /* Integer is precise. NOK, IOK */
} else {
answer is the UV IV_MAX +1. Hence < ensures that dodgy boundary
cases go to UV */
if (SvNVX(sv) < (NV)IV_MAX + 0.5) {
- SvIVX(sv) = I_V(SvNVX(sv));
+ SvIV_set(sv, I_V(SvNVX(sv)));
if (SvNVX(sv) == (NV) SvIVX(sv)
#ifndef NV_PRESERVES_UV
&& (((UV)1 << NV_PRESERVES_UV_BITS) >
if (!(numtype & IS_NUMBER_NEG)) {
/* positive */;
if (value <= (UV)IV_MAX) {
- SvIVX(sv) = (IV)value;
+ SvIV_set(sv, (IV)value);
} else {
SvUVX(sv) = value;
SvIsUV_on(sv);
} else {
/* 2s complement assumption */
if (value <= (UV)IV_MIN) {
- SvIVX(sv) = -(IV)value;
+ SvIV_set(sv, -(IV)value);
} else {
/* Too negative for an IV. This is a double upgrade, but
I'm assuming it will be rare. */
SvNOK_on(sv);
SvIOK_off(sv);
SvIOKp_on(sv);
- SvNVX(sv) = -(NV)value;
- SvIVX(sv) = IV_MIN;
+ SvNV_set(sv, -(NV)value);
+ SvIV_set(sv, IV_MIN);
}
}
}
if ((numtype & (IS_NUMBER_IN_UV | IS_NUMBER_NOT_INT))
!= IS_NUMBER_IN_UV) {
/* It wasn't an (integer that doesn't overflow the UV). */
- SvNVX(sv) = Atof(SvPVX(sv));
+ SvNV_set(sv, Atof(SvPVX(sv)));
if (! numtype && ckWARN(WARN_NUMERIC))
not_a_number(sv);
(void)SvIOKp_on(sv);
(void)SvNOK_on(sv);
if (SvNVX(sv) < (NV)IV_MAX + 0.5) {
- SvIVX(sv) = I_V(SvNVX(sv));
+ SvIV_set(sv, I_V(SvNVX(sv)));
if ((NV)(SvIVX(sv)) == SvNVX(sv)) {
SvIOK_on(sv);
} else {
/* Small enough to preserve all bits. */
(void)SvIOKp_on(sv);
SvNOK_on(sv);
- SvIVX(sv) = I_V(SvNVX(sv));
+ SvIV_set(sv, I_V(SvNVX(sv)));
if ((NV)(SvIVX(sv)) == SvNVX(sv))
SvIOK_on(sv);
/* Assumption: first non-preserved integer is < IV_MAX,
(void)SvIOKp_on(sv); /* Must do this first, to clear any SvOOK */
if (SvNVX(sv) < (NV)IV_MAX + 0.5) {
- SvIVX(sv) = I_V(SvNVX(sv));
+ SvIV_set(sv, I_V(SvNVX(sv)));
if (SvNVX(sv) == (NV) SvIVX(sv)
#ifndef NV_PRESERVES_UV
&& (((UV)1 << NV_PRESERVES_UV_BITS) >
if (!(numtype & IS_NUMBER_NEG)) {
/* positive */;
if (value <= (UV)IV_MAX) {
- SvIVX(sv) = (IV)value;
+ SvIV_set(sv, (IV)value);
} else {
/* it didn't overflow, and it was positive. */
SvUVX(sv) = value;
} else {
/* 2s complement assumption */
if (value <= (UV)IV_MIN) {
- SvIVX(sv) = -(IV)value;
+ SvIV_set(sv, -(IV)value);
} else {
/* Too negative for an IV. This is a double upgrade, but
I'm assuming it will be rare. */
SvNOK_on(sv);
SvIOK_off(sv);
SvIOKp_on(sv);
- SvNVX(sv) = -(NV)value;
- SvIVX(sv) = IV_MIN;
+ SvNV_set(sv, -(NV)value);
+ SvIV_set(sv, IV_MIN);
}
}
}
if ((numtype & (IS_NUMBER_IN_UV | IS_NUMBER_NOT_INT))
!= IS_NUMBER_IN_UV) {
/* It wasn't an integer, or it overflowed the UV. */
- SvNVX(sv) = Atof(SvPVX(sv));
+ SvNV_set(sv, Atof(SvPVX(sv)));
if (! numtype && ckWARN(WARN_NUMERIC))
not_a_number(sv);
(void)SvIOKp_on(sv);
(void)SvNOK_on(sv);
if (SvNVX(sv) < (NV)IV_MAX + 0.5) {
- SvIVX(sv) = I_V(SvNVX(sv));
+ SvIV_set(sv, I_V(SvNVX(sv)));
if ((NV)(SvIVX(sv)) == SvNVX(sv)) {
SvIOK_on(sv);
} else {
/* Small enough to preserve all bits. */
(void)SvIOKp_on(sv);
SvNOK_on(sv);
- SvIVX(sv) = I_V(SvNVX(sv));
+ SvIV_set(sv, I_V(SvNVX(sv)));
if ((NV)(SvIVX(sv)) == SvNVX(sv))
SvIOK_on(sv);
/* Assumption: first non-preserved integer is < IV_MAX,
return SvNVX(sv);
}
if (SvIOKp(sv)) {
- SvNVX(sv) = SvIsUV(sv) ? (NV)SvUVX(sv) : (NV)SvIVX(sv);
+ SvNV_set(sv, SvIsUV(sv) ? (NV)SvUVX(sv) : (NV)SvIVX(sv));
#ifdef NV_PRESERVES_UV
SvNOK_on(sv);
#else
if ((numtype & (IS_NUMBER_IN_UV | IS_NUMBER_NOT_INT))
== IS_NUMBER_IN_UV) {
/* It's definitely an integer */
- SvNVX(sv) = (numtype & IS_NUMBER_NEG) ? -(NV)value : (NV)value;
+ SvNV_set(sv, (numtype & IS_NUMBER_NEG) ? -(NV)value : (NV)value);
} else
- SvNVX(sv) = Atof(SvPVX(sv));
+ SvNV_set(sv, Atof(SvPVX(sv)));
SvNOK_on(sv);
#else
- SvNVX(sv) = Atof(SvPVX(sv));
+ SvNV_set(sv, Atof(SvPVX(sv)));
/* Only set the public NV OK flag if this NV preserves the value in
the PV at least as well as an IV/UV would.
Not sure how to do this 100% reliably. */
SvIOKp_on(sv);
if (numtype & IS_NUMBER_NEG) {
- SvIVX(sv) = -(IV)value;
+ SvIV_set(sv, -(IV)value);
} else if (value <= (UV)IV_MAX) {
- SvIVX(sv) = (IV)value;
+ SvIV_set(sv, (IV)value);
} else {
SvUVX(sv) = value;
SvIsUV_on(sv);
break;
}
(void)SvIOK_only(dstr);
- SvIVX(dstr) = SvIVX(sstr);
+ SvIV_set(dstr, SvIVX(sstr));
if (SvIsUV(sstr))
SvIsUV_on(dstr);
if (SvTAINTED(sstr))
sv_upgrade(dstr, SVt_PVNV);
break;
}
- SvNVX(dstr) = SvNVX(sstr);
+ SvNV_set(dstr, SvNVX(sstr));
(void)SvNOK_only(dstr);
if (SvTAINTED(sstr))
SvTAINT(dstr);
/* Only set the public OK flag if the source has public OK. */
if (sflags & SVf_NOK)
SvFLAGS(dstr) |= SVf_NOK;
- SvNVX(dstr) = SvNVX(sstr);
+ SvNV_set(dstr, SvNVX(sstr));
}
if (sflags & SVp_IOK) {
(void)SvIOKp_on(dstr);
SvFLAGS(dstr) |= SVf_IOK;
if (sflags & SVf_IVisUV)
SvIsUV_on(dstr);
- SvIVX(dstr) = SvIVX(sstr);
+ SvIV_set(dstr, SvIVX(sstr));
}
if (SvAMAGIC(sstr)) {
SvAMAGIC_on(dstr);
SvNOKp_on(dstr);
if (sflags & SVf_NOK)
SvFLAGS(dstr) |= SVf_NOK;
- SvNVX(dstr) = SvNVX(sstr);
+ SvNV_set(dstr, SvNVX(sstr));
}
if (sflags & SVp_IOK) {
(void)SvIOKp_on(dstr);
SvFLAGS(dstr) |= SVf_IOK;
if (sflags & SVf_IVisUV)
SvIsUV_on(dstr);
- SvIVX(dstr) = SvIVX(sstr);
+ SvIV_set(dstr, SvIVX(sstr));
}
if (SvVOK(sstr)) {
MAGIC *smg = mg_find(sstr,PERL_MAGIC_vstring);
/* XXXX Do we want to set IsUV for IV(ROK)? Be extra safe... */
if (sflags & SVf_IVisUV)
SvIsUV_on(dstr);
- SvIVX(dstr) = SvIVX(sstr);
+ SvIV_set(dstr, SvIVX(sstr));
if (sflags & SVp_NOK) {
if (sflags & SVf_NOK)
(void)SvNOK_on(dstr);
else
(void)SvNOKp_on(dstr);
- SvNVX(dstr) = SvNVX(sstr);
+ SvNV_set(dstr, SvNVX(sstr));
}
}
else if (sflags & SVp_NOK) {
(void)SvOK_off(dstr);
SvNOKp_on(dstr);
}
- SvNVX(dstr) = SvNVX(sstr);
+ SvNV_set(dstr, SvNVX(sstr));
}
else {
if (dtype == SVt_PVGV) {
Move(pvx,SvPVX(sv),len,char);
*SvEND(sv) = '\0';
}
- SvIVX(sv) = 0;
+ SvIV_set(sv, 0);
/* Same SvOOK_on but SvOOK_on does a SvIOK_off
and we do that anyway inside the SvNIOK_off
*/
SvLEN(sv) -= delta;
SvCUR(sv) -= delta;
SvPVX(sv) += delta;
- SvIVX(sv) += delta;
+ SvIV_set(sv, SvIVX(sv) + delta);
}
/* sv_catpvn() is now a macro using Perl_sv_catpvn_flags();
screamer2:
if (rslen) {
- register STDCHAR *bpe = buf + sizeof(buf);
+ const register STDCHAR *bpe = buf + sizeof(buf);
bp = buf;
while ((i = PerlIO_getc(fp)) != EOF && (*bp++ = (STDCHAR)i) != rslast && bp < bpe)
; /* keep reading */
sv_setuv(sv, (UV)IV_MAX + 1);
else {
(void)SvIOK_only(sv);
- ++SvIVX(sv);
+ SvIV_set(sv, SvIVX(sv) + 1);
}
}
return;
}
if (flags & SVp_NOK) {
(void)SvNOK_only(sv);
- SvNVX(sv) += 1.0;
+ SvNV_set(sv, SvNVX(sv) + 1.0);
return;
}
if ((flags & SVTYPEMASK) < SVt_PVIV)
sv_upgrade(sv, SVt_IV);
(void)SvIOK_only(sv);
- SvIVX(sv) = 1;
+ SvIV_set(sv, 1);
return;
}
d = SvPVX(sv);
/* sv_2iv *should* have made this an NV */
if (flags & SVp_NOK) {
(void)SvNOK_only(sv);
- SvNVX(sv) += 1.0;
+ SvNV_set(sv, SvNVX(sv) + 1.0);
return;
}
/* I don't think we can get here. Maybe I should assert this
if (SvIsUV(sv)) {
if (SvUVX(sv) == 0) {
(void)SvIOK_only(sv);
- SvIVX(sv) = -1;
+ SvIV_set(sv, -1);
}
else {
(void)SvIOK_only_UV(sv);
sv_setnv(sv, (NV)IV_MIN - 1.0);
else {
(void)SvIOK_only(sv);
- --SvIVX(sv);
+ SvIV_set(sv, SvIVX(sv) - 1);
}
}
return;
}
if (flags & SVp_NOK) {
- SvNVX(sv) -= 1.0;
+ SvNV_set(sv, SvNVX(sv) - 1.0);
(void)SvNOK_only(sv);
return;
}
if (!(flags & SVp_POK)) {
if ((flags & SVTYPEMASK) < SVt_PVNV)
sv_upgrade(sv, SVt_NV);
- SvNVX(sv) = -1.0;
+ SvNV_set(sv, 1.0);
(void)SvNOK_only(sv);
return;
}
/* sv_2iv *should* have made this an NV */
if (flags & SVp_NOK) {
(void)SvNOK_only(sv);
- SvNVX(sv) -= 1.0;
+ SvNV_set(sv, SvNVX(sv) - 1.0);
return;
}
/* I don't think we can get here. Maybe I should assert this
char *
Perl_sv_reftype(pTHX_ const SV *sv, int ob)
{
+ /* The fact that I don't need to downcast to char * everywhere, only in ?:
+ inside return suggests a const propagation bug in g++. */
if (ob && SvOBJECT(sv)) {
char *name = HvNAME(SvSTASH(sv));
- return name ? name : "__ANON__";
+ return name ? name : (char *) "__ANON__";
}
else {
switch (SvTYPE(sv)) {
else
return "SCALAR";
- case SVt_PVLV: return SvROK(sv) ? "REF"
+ case SVt_PVLV: return (char *) (SvROK(sv) ? "REF"
/* tied lvalues should appear to be
* scalars for backwards compatitbility */
: (LvTYPE(sv) == 't' || LvTYPE(sv) == 'T')
- ? "SCALAR" : "LVALUE";
+ ? "SCALAR" : "LVALUE");
case SVt_PVAV: return "ARRAY";
case SVt_PVHV: return "HASH";
case SVt_PVCV: return "CODE";
}
break;
default: /* it had better be ten or less */
-#if defined(PERL_Y2KWARN)
- if (ckWARN(WARN_Y2K)) {
- STRLEN n;
- char *s = SvPV(sv,n);
- if (n >= 2 && s[n-2] == '1' && s[n-1] == '9'
- && (n == 2 || !isDIGIT(s[n-3])))
- {
- Perl_warner(aTHX_ packWARN(WARN_Y2K),
- "Possible Y2K bug: %%%c %s",
- c, "format string following '19'");
- }
- }
-#endif
do {
dig = uv % base;
*--eptr = '0' + dig;
break;
case SVt_IV:
SvANY(dstr) = new_XIV();
- SvIVX(dstr) = SvIVX(sstr);
+ SvIV_set(dstr, SvIVX(sstr));
break;
case SVt_NV:
SvANY(dstr) = new_XNV();
- SvNVX(dstr) = SvNVX(sstr);
+ SvNV_set(dstr, SvNVX(sstr));
break;
case SVt_RV:
SvANY(dstr) = new_XRV();
SvANY(dstr) = new_XPVIV();
SvCUR(dstr) = SvCUR(sstr);
SvLEN(dstr) = SvLEN(sstr);
- SvIVX(dstr) = SvIVX(sstr);
+ SvIV_set(dstr, SvIVX(sstr));
Perl_rvpv_dup(aTHX_ dstr, sstr, param);
break;
case SVt_PVNV:
SvANY(dstr) = new_XPVNV();
SvCUR(dstr) = SvCUR(sstr);
SvLEN(dstr) = SvLEN(sstr);
- SvIVX(dstr) = SvIVX(sstr);
- SvNVX(dstr) = SvNVX(sstr);
+ SvIV_set(dstr, SvIVX(sstr));
+ SvNV_set(dstr, SvNVX(sstr));
Perl_rvpv_dup(aTHX_ dstr, sstr, param);
break;
case SVt_PVMG:
SvANY(dstr) = new_XPVMG();
SvCUR(dstr) = SvCUR(sstr);
SvLEN(dstr) = SvLEN(sstr);
- SvIVX(dstr) = SvIVX(sstr);
- SvNVX(dstr) = SvNVX(sstr);
+ SvIV_set(dstr, SvIVX(sstr));
+ SvNV_set(dstr, SvNVX(sstr));
SvMAGIC(dstr) = mg_dup(SvMAGIC(sstr), param);
SvSTASH(dstr) = hv_dup_inc(SvSTASH(sstr), param);
Perl_rvpv_dup(aTHX_ dstr, sstr, param);
SvANY(dstr) = new_XPVBM();
SvCUR(dstr) = SvCUR(sstr);
SvLEN(dstr) = SvLEN(sstr);
- SvIVX(dstr) = SvIVX(sstr);
- SvNVX(dstr) = SvNVX(sstr);
+ SvIV_set(dstr, SvIVX(sstr));
+ SvNV_set(dstr, SvNVX(sstr));
SvMAGIC(dstr) = mg_dup(SvMAGIC(sstr), param);
SvSTASH(dstr) = hv_dup_inc(SvSTASH(sstr), param);
Perl_rvpv_dup(aTHX_ dstr, sstr, param);
SvANY(dstr) = new_XPVLV();
SvCUR(dstr) = SvCUR(sstr);
SvLEN(dstr) = SvLEN(sstr);
- SvIVX(dstr) = SvIVX(sstr);
- SvNVX(dstr) = SvNVX(sstr);
+ SvIV_set(dstr, SvIVX(sstr));
+ SvNV_set(dstr, SvNVX(sstr));
SvMAGIC(dstr) = mg_dup(SvMAGIC(sstr), param);
SvSTASH(dstr) = hv_dup_inc(SvSTASH(sstr), param);
Perl_rvpv_dup(aTHX_ dstr, sstr, param);
SvANY(dstr) = new_XPVGV();
SvCUR(dstr) = SvCUR(sstr);
SvLEN(dstr) = SvLEN(sstr);
- SvIVX(dstr) = SvIVX(sstr);
- SvNVX(dstr) = SvNVX(sstr);
+ SvIV_set(dstr, SvIVX(sstr));
+ SvNV_set(dstr, SvNVX(sstr));
SvMAGIC(dstr) = mg_dup(SvMAGIC(sstr), param);
SvSTASH(dstr) = hv_dup_inc(SvSTASH(sstr), param);
Perl_rvpv_dup(aTHX_ dstr, sstr, param);
SvANY(dstr) = new_XPVIO();
SvCUR(dstr) = SvCUR(sstr);
SvLEN(dstr) = SvLEN(sstr);
- SvIVX(dstr) = SvIVX(sstr);
- SvNVX(dstr) = SvNVX(sstr);
+ SvIV_set(dstr, SvIVX(sstr));
+ SvNV_set(dstr, SvNVX(sstr));
SvMAGIC(dstr) = mg_dup(SvMAGIC(sstr), param);
SvSTASH(dstr) = hv_dup_inc(SvSTASH(sstr), param);
Perl_rvpv_dup(aTHX_ dstr, sstr, param);
SvANY(dstr) = new_XPVAV();
SvCUR(dstr) = SvCUR(sstr);
SvLEN(dstr) = SvLEN(sstr);
- SvIVX(dstr) = SvIVX(sstr);
- SvNVX(dstr) = SvNVX(sstr);
+ SvIV_set(dstr, SvIVX(sstr));
+ SvNV_set(dstr, SvNVX(sstr));
SvMAGIC(dstr) = mg_dup(SvMAGIC(sstr), param);
SvSTASH(dstr) = hv_dup_inc(SvSTASH(sstr), param);
AvARYLEN((AV*)dstr) = sv_dup_inc(AvARYLEN((AV*)sstr), param);
SvANY(dstr) = new_XPVHV();
SvCUR(dstr) = SvCUR(sstr);
SvLEN(dstr) = SvLEN(sstr);
- SvIVX(dstr) = SvIVX(sstr);
- SvNVX(dstr) = SvNVX(sstr);
+ SvIV_set(dstr, SvIVX(sstr));
+ SvNV_set(dstr, SvNVX(sstr));
SvMAGIC(dstr) = mg_dup(SvMAGIC(sstr), param);
SvSTASH(dstr) = hv_dup_inc(SvSTASH(sstr), param);
HvRITER((HV*)dstr) = HvRITER((HV*)sstr);
dup_pvcv:
SvCUR(dstr) = SvCUR(sstr);
SvLEN(dstr) = SvLEN(sstr);
- SvIVX(dstr) = SvIVX(sstr);
- SvNVX(dstr) = SvNVX(sstr);
+ SvIV_set(dstr, SvIVX(sstr));
+ SvNV_set(dstr, SvNVX(sstr));
SvMAGIC(dstr) = mg_dup(SvMAGIC(sstr), param);
SvSTASH(dstr) = hv_dup_inc(SvSTASH(sstr), param);
Perl_rvpv_dup(aTHX_ dstr, sstr, param);
if (CvCONST(sstr)) {
CvXSUBANY(dstr).any_ptr = GvUNIQUE(CvGV(sstr)) ?
SvREFCNT_inc(CvXSUBANY(sstr).any_ptr) :
- sv_dup_inc(CvXSUBANY(sstr).any_ptr, param);
+ sv_dup_inc((SV *)CvXSUBANY(sstr).any_ptr, param);
}
/* don't dup if copying back - CvGV isn't refcounted, so the
* duped GV may never be freed. A bit of a hack! DAPM */
SvPVX(&PL_sv_no) = SAVEPVN(PL_No, 0);
SvCUR(&PL_sv_no) = 0;
SvLEN(&PL_sv_no) = 1;
- SvIVX(&PL_sv_no) = 0;
- SvNVX(&PL_sv_no) = 0;
+ SvIV_set(&PL_sv_no, 0);
+ SvNV_set(&PL_sv_no, 0);
ptr_table_store(PL_ptr_table, &proto_perl->Isv_no, &PL_sv_no);
SvANY(&PL_sv_yes) = new_XPVNV();
SvPVX(&PL_sv_yes) = SAVEPVN(PL_Yes, 1);
SvCUR(&PL_sv_yes) = 1;
SvLEN(&PL_sv_yes) = 2;
- SvIVX(&PL_sv_yes) = 1;
- SvNVX(&PL_sv_yes) = 1;
+ SvIV_set(&PL_sv_yes, 1);
+ SvNV_set(&PL_sv_yes, 1);
ptr_table_store(PL_ptr_table, &proto_perl->Isv_yes, &PL_sv_yes);
/* create (a non-shared!) shared string table */