6496269: Many warnings generated from com/sun/java/util/jar/pack/*.cpp when compiled on Linux

Removal of compiler warnings and fixing of assert logic.

Reviewed-by: jrose, ksrini, bristor
This commit is contained in:
Kelly O'Hair 2008-08-17 17:02:04 -07:00
parent 1c42f2e0d3
commit 36a04a49a7
14 changed files with 330 additions and 279 deletions

View file

@ -1,5 +1,5 @@
/* /*
* Copyright 2002-2005 Sun Microsystems, Inc. All Rights Reserved. * Copyright 2002-2008 Sun Microsystems, Inc. All Rights Reserved.
* DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER. * DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER.
* *
* This code is free software; you can redistribute it and/or modify it * This code is free software; you can redistribute it and/or modify it
@ -126,15 +126,15 @@ void band::readData(int expectedLength) {
(*save_meta_rp) = (byte) XB; (*save_meta_rp) = (byte) XB;
cm.init(u->rp, u->rplimit, u->meta_rp, 0, defc, length, null); cm.init(u->rp, u->rplimit, u->meta_rp, 0, defc, length, null);
(*save_meta_rp) = save_meta_xb; // put it back, just to be tidy (*save_meta_rp) = save_meta_xb; // put it back, just to be tidy
NOT_PRODUCT(cp2 = (u->meta_rp - meta_rp0)); NOT_PRODUCT(cp2 = (int)(u->meta_rp - meta_rp0));
} }
rplimit = u->rp; rplimit = u->rp;
rewind(); rewind();
#ifndef PRODUCT #ifndef PRODUCT
printcr(3,"readFrom %s at %p [%d values, %d bytes, cp=%d/%d]", PRINTCR((3,"readFrom %s at %p [%d values, %d bytes, cp=%d/%d]",
(name?name:"(band)"), minRP(), length, size(), cp1, cp2); (name?name:"(band)"), minRP(), length, size(), cp1, cp2));
if (u->verbose_bands || u->verbose >= 4) dump(); if (u->verbose_bands || u->verbose >= 4) dump();
if (ix != null && u->verbose != 0 && length > 0) { if (ix != null && u->verbose != 0 && length > 0) {
@ -421,18 +421,22 @@ const band_init all_band_inits[] = {
BAND_INIT(file_modtime, DELTA5_spec, 0), BAND_INIT(file_modtime, DELTA5_spec, 0),
BAND_INIT(file_options, UNSIGNED5_spec, 0), BAND_INIT(file_options, UNSIGNED5_spec, 0),
//BAND_INIT(file_bits, BYTE1_spec, 0), //BAND_INIT(file_bits, BYTE1_spec, 0),
{0} #ifndef PRODUCT
{ 0, 0, 0, 0 }
#else
{ 0, 0 }
#endif
}; };
#define NUM_BAND_INITS \ #define NUM_BAND_INITS \
(sizeof(all_band_inits)/sizeof(all_band_inits[0])) (sizeof(all_band_inits)/sizeof(all_band_inits[0]))
band* band::makeBands(unpacker* u) { band* band::makeBands(unpacker* u) {
band* all_bands = U_NEW(band, BAND_LIMIT); band* tmp_all_bands = U_NEW(band, BAND_LIMIT);
for (int i = 0; i < BAND_LIMIT; i++) { for (int i = 0; i < BAND_LIMIT; i++) {
assert((byte*)&all_band_inits[i+1] assert((byte*)&all_band_inits[i+1]
< (byte*)all_band_inits+sizeof(all_band_inits)); < (byte*)all_band_inits+sizeof(all_band_inits));
const band_init& bi = all_band_inits[i]; const band_init& bi = all_band_inits[i];
band& b = all_bands[i]; band& b = tmp_all_bands[i];
coding* defc = coding::findBySpec(bi.defc); coding* defc = coding::findBySpec(bi.defc);
assert((defc == null) == (bi.defc == -1)); // no garbage, please assert((defc == null) == (bi.defc == -1)); // no garbage, please
assert(defc == null || !defc->isMalloc); assert(defc == null || !defc->isMalloc);
@ -446,13 +450,13 @@ band* band::makeBands(unpacker* u) {
b.name = bi.name; b.name = bi.name;
#endif #endif
} }
return all_bands; return tmp_all_bands;
} }
void band::initIndexes(unpacker* u) { void band::initIndexes(unpacker* u) {
band* all_bands = u->all_bands; band* tmp_all_bands = u->all_bands;
for (int i = 0; i < BAND_LIMIT; i++) { for (int i = 0; i < BAND_LIMIT; i++) {
band* scan = &all_bands[i]; band* scan = &tmp_all_bands[i];
uint tag = scan->ixTag; // Cf. #define INDEX(tag) above uint tag = scan->ixTag; // Cf. #define INDEX(tag) above
if (tag != 0 && tag != CONSTANT_Literal && (tag & SUBINDEX_BIT) == 0) { if (tag != 0 && tag != CONSTANT_Literal && (tag & SUBINDEX_BIT) == 0) {
scan->setIndex(u->cp.getIndex(tag)); scan->setIndex(u->cp.getIndex(tag));

View file

@ -1,5 +1,5 @@
/* /*
* Copyright 2001-2003 Sun Microsystems, Inc. All Rights Reserved. * Copyright 2001-2008 Sun Microsystems, Inc. All Rights Reserved.
* DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER. * DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER.
* *
* This code is free software; you can redistribute it and/or modify it * This code is free software; you can redistribute it and/or modify it
@ -71,15 +71,17 @@ void bytes::realloc(size_t len_) {
void bytes::free() { void bytes::free() {
if (ptr == dummy) return; // escaping from an error if (ptr == dummy) return; // escaping from an error
if (ptr != null) mtrace('f', ptr, 0); if (ptr != null) {
if (ptr != null) ::free(ptr); mtrace('f', ptr, 0);
::free(ptr);
}
len = 0; len = 0;
ptr = 0; ptr = 0;
} }
int bytes::indexOf(byte c) { int bytes::indexOf(byte c) {
byte* p = (byte*) memchr(ptr, c, len); byte* p = (byte*) memchr(ptr, c, len);
return (p == 0) ? -1 : p - ptr; return (p == 0) ? -1 : (int)(p - ptr);
} }
byte* bytes::writeTo(byte* bp) { byte* bytes::writeTo(byte* bp) {
@ -174,8 +176,10 @@ void ptrlist::freeAll() {
int len = length(); int len = length();
for (int i = 0; i < len; i++) { for (int i = 0; i < len; i++) {
void* p = (void*) get(i); void* p = (void*) get(i);
if (p != null) mtrace('f', p, 0); if (p != null) {
if (p != null) ::free(p); mtrace('f', p, 0);
::free(p);
}
} }
free(); free();
} }

View file

@ -1,5 +1,5 @@
/* /*
* Copyright 2001-2004 Sun Microsystems, Inc. All Rights Reserved. * Copyright 2001-2008 Sun Microsystems, Inc. All Rights Reserved.
* DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER. * DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER.
* *
* This code is free software; you can redistribute it and/or modify it * This code is free software; you can redistribute it and/or modify it
@ -117,7 +117,7 @@ struct fillbytes {
struct ptrlist : fillbytes { struct ptrlist : fillbytes {
typedef const void* cvptr; typedef const void* cvptr;
int length() { return size() / sizeof(cvptr); } int length() { return (int)(size() / sizeof(cvptr)); }
cvptr* base() { return (cvptr*) fillbytes::base(); } cvptr* base() { return (cvptr*) fillbytes::base(); }
cvptr& get(int i) { return *(cvptr*)loc(i * sizeof(cvptr)); } cvptr& get(int i) { return *(cvptr*)loc(i * sizeof(cvptr)); }
cvptr* limit() { return (cvptr*) fillbytes::limit(); } cvptr* limit() { return (cvptr*) fillbytes::limit(); }
@ -133,7 +133,7 @@ struct ptrlist : fillbytes {
::qsort((ptrls).base(), (ptrls).length(), sizeof(void*), fn) ::qsort((ptrls).base(), (ptrls).length(), sizeof(void*), fn)
struct intlist : fillbytes { struct intlist : fillbytes {
int length() { return size() / sizeof(int); } int length() { return (int)(size() / sizeof(int)); }
int* base() { return (int*) fillbytes::base(); } int* base() { return (int*) fillbytes::base(); }
int& get(int i) { return *(int*)loc(i * sizeof(int)); } int& get(int i) { return *(int*)loc(i * sizeof(int)); }
int* limit() { return (int*) fillbytes::limit(); } int* limit() { return (int*) fillbytes::limit(); }

View file

@ -1,5 +1,5 @@
/* /*
* Copyright 2002-2005 Sun Microsystems, Inc. All Rights Reserved. * Copyright 2002-2008 Sun Microsystems, Inc. All Rights Reserved.
* DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER. * DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER.
* *
* This code is free software; you can redistribute it and/or modify it * This code is free software; you can redistribute it and/or modify it
@ -113,7 +113,7 @@ coding* coding::init() {
jlong maxNegCode = range-1; jlong maxNegCode = range-1;
while (IS_NEG_CODE(S, maxPosCode)) --maxPosCode; while (IS_NEG_CODE(S, maxPosCode)) --maxPosCode;
while (!IS_NEG_CODE(S, maxNegCode)) --maxNegCode; while (!IS_NEG_CODE(S, maxNegCode)) --maxNegCode;
int maxPos = decode_sign(S, maxPosCode); int maxPos = decode_sign(S, (uint)maxPosCode);
if (maxPos < 0) if (maxPos < 0)
this->max = INT_MAX_VALUE; // 32-bit wraparound this->max = INT_MAX_VALUE; // 32-bit wraparound
else else
@ -121,7 +121,7 @@ coding* coding::init() {
if (maxNegCode < 0) if (maxNegCode < 0)
this->min = 0; // No negative codings at all. this->min = 0; // No negative codings at all.
else else
this->min = decode_sign(S, maxNegCode); this->min = decode_sign(S, (uint)maxNegCode);
} }
} }
@ -149,10 +149,10 @@ coding* coding::findBySpec(int spec) {
coding* ptr = NEW(coding, 1); coding* ptr = NEW(coding, 1);
CHECK_NULL_0(ptr); CHECK_NULL_0(ptr);
coding* c = ptr->initFrom(spec); coding* c = ptr->initFrom(spec);
if (c == null) mtrace('f', ptr, 0); if (c == null) {
if (c == null) mtrace('f', ptr, 0);
::free(ptr); ::free(ptr);
else } else
// else caller should free it... // else caller should free it...
c->isMalloc = true; c->isMalloc = true;
return c; return c;
@ -167,9 +167,10 @@ coding* coding::findBySpec(int B, int H, int S, int D) {
} }
void coding::free() { void coding::free() {
if (isMalloc) mtrace('f', this, 0); if (isMalloc) {
if (isMalloc) mtrace('f', this, 0);
::free(this); ::free(this);
}
} }
void coding_method::reset(value_stream* state) { void coding_method::reset(value_stream* state) {
@ -187,7 +188,7 @@ uint coding::parse(byte* &rp, int B, int H) {
byte* ptr = rp; byte* ptr = rp;
// hand peel the i==0 part of the loop: // hand peel the i==0 part of the loop:
uint b_i = *ptr++ & 0xFF; uint b_i = *ptr++ & 0xFF;
if (B == 1 || b_i < L) if (B == 1 || b_i < (uint)L)
{ rp = ptr; return b_i; } { rp = ptr; return b_i; }
uint sum = b_i; uint sum = b_i;
uint H_i = H; uint H_i = H;
@ -195,7 +196,7 @@ uint coding::parse(byte* &rp, int B, int H) {
for (int i = 2; i <= B_MAX; i++) { // easy for compilers to unroll if desired for (int i = 2; i <= B_MAX; i++) { // easy for compilers to unroll if desired
b_i = *ptr++ & 0xFF; b_i = *ptr++ & 0xFF;
sum += b_i * H_i; sum += b_i * H_i;
if (i == B || b_i < L) if (i == B || b_i < (uint)L)
{ rp = ptr; return sum; } { rp = ptr; return sum; }
H_i *= H; H_i *= H;
} }
@ -210,7 +211,7 @@ uint coding::parse_lgH(byte* &rp, int B, int H, int lgH) {
byte* ptr = rp; byte* ptr = rp;
// hand peel the i==0 part of the loop: // hand peel the i==0 part of the loop:
uint b_i = *ptr++ & 0xFF; uint b_i = *ptr++ & 0xFF;
if (B == 1 || b_i < L) if (B == 1 || b_i < (uint)L)
{ rp = ptr; return b_i; } { rp = ptr; return b_i; }
uint sum = b_i; uint sum = b_i;
uint lg_H_i = lgH; uint lg_H_i = lgH;
@ -218,7 +219,7 @@ uint coding::parse_lgH(byte* &rp, int B, int H, int lgH) {
for (int i = 2; i <= B_MAX; i++) { // easy for compilers to unroll if desired for (int i = 2; i <= B_MAX; i++) { // easy for compilers to unroll if desired
b_i = *ptr++ & 0xFF; b_i = *ptr++ & 0xFF;
sum += b_i << lg_H_i; sum += b_i << lg_H_i;
if (i == B || b_i < L) if (i == B || b_i < (uint)L)
{ rp = ptr; return sum; } { rp = ptr; return sum; }
lg_H_i += lgH; lg_H_i += lgH;
} }
@ -237,7 +238,7 @@ void coding::parseMultiple(byte* &rp, int N, byte* limit, int B, int H) {
byte* ptr = rp; byte* ptr = rp;
if (B == 1 || H == 256) { if (B == 1 || H == 256) {
size_t len = (size_t)N*B; size_t len = (size_t)N*B;
if (len / B != N || ptr+len > limit) { if (len / B != (size_t)N || ptr+len > limit) {
abort(ERB); abort(ERB);
return; return;
} }
@ -325,7 +326,7 @@ static maybe_inline
int getPopValue(value_stream* self, uint uval) { int getPopValue(value_stream* self, uint uval) {
if (uval > 0) { if (uval > 0) {
// note that the initial parse performed a range check // note that the initial parse performed a range check
assert(uval <= self->cm->fVlength); assert(uval <= (uint)self->cm->fVlength);
return self->cm->fValues[uval-1]; return self->cm->fValues[uval-1];
} else { } else {
// take an unfavored value // take an unfavored value
@ -368,7 +369,7 @@ int coding::sumInUnsignedRange(int x, int y) {
static maybe_inline static maybe_inline
int getDeltaValue(value_stream* self, uint uval, bool isSubrange) { int getDeltaValue(value_stream* self, uint uval, bool isSubrange) {
assert((bool)(self->c.isSubrange) == isSubrange); assert((uint)(self->c.isSubrange) == (uint)isSubrange);
assert(self->c.isSubrange | self->c.isFullRange); assert(self->c.isSubrange | self->c.isFullRange);
if (isSubrange) if (isSubrange)
return self->sum = self->c.sumInUnsignedRange(self->sum, (int)uval); return self->sum = self->c.sumInUnsignedRange(self->sum, (int)uval);
@ -443,7 +444,7 @@ int value_stream::getInt() {
uval = coding::parse(rp, B, H); uval = coding::parse(rp, B, H);
if (S != 0) if (S != 0)
uval = (uint) decode_sign(S, uval); uval = (uint) decode_sign(S, uval);
return getDeltaValue(this, uval, c.isSubrange); return getDeltaValue(this, uval, (bool)c.isSubrange);
case cmk_BHS1D1full: case cmk_BHS1D1full:
assert(S == 1 && D == 1 && c.isFullRange); assert(S == 1 && D == 1 && c.isFullRange);
@ -499,6 +500,9 @@ int value_stream::getInt() {
assert(c.spec == BYTE1_spec); assert(c.spec == BYTE1_spec);
assert(B == 1 && H == 256 && S == 0 && D == 0); assert(B == 1 && H == 256 && S == 0 && D == 0);
return getPopValue(this, *rp++ & 0xFF); return getPopValue(this, *rp++ & 0xFF);
default:
break;
} }
assert(false); assert(false);
return 0; return 0;
@ -695,7 +699,7 @@ void coding_method::init(byte* &band_rp, byte* band_limit,
for (int i = 0; i < N; i++) { for (int i = 0; i < N; i++) {
uint val = vs.getInt(); uint val = vs.getInt();
if (val == 0) UN += 1; if (val == 0) UN += 1;
if (!(val <= fVlength)) { if (!(val <= (uint)fVlength)) {
abort("pop token out of range"); abort("pop token out of range");
return; return;
} }
@ -728,6 +732,7 @@ void coding_method::init(byte* &band_rp, byte* band_limit,
switch (self->vs0.cmk) { switch (self->vs0.cmk) {
case cmk_BHS0: cmk2 = cmk_pop_BHS0; break; case cmk_BHS0: cmk2 = cmk_pop_BHS0; break;
case cmk_BYTE1: cmk2 = cmk_pop_BYTE1; break; case cmk_BYTE1: cmk2 = cmk_pop_BYTE1; break;
default: break;
} }
self->vs0.cmk = cmk2; self->vs0.cmk = cmk2;
if (self != this) { if (self != this) {
@ -947,15 +952,17 @@ coding basic_codings[] = {
CODING_INIT(4,240,1,1), CODING_INIT(4,240,1,1),
CODING_INIT(4,248,0,1), CODING_INIT(4,248,0,1),
CODING_INIT(4,248,1,1), CODING_INIT(4,248,1,1),
CODING_INIT(0,0,0,0)
0
}; };
#define BASIC_INDEX_LIMIT \ #define BASIC_INDEX_LIMIT \
(sizeof(basic_codings)/sizeof(basic_codings[0])-1) (int)(sizeof(basic_codings)/sizeof(basic_codings[0])-1)
coding* coding::findByIndex(int idx) { coding* coding::findByIndex(int idx) {
assert(_meta_canon_min == 1); #ifndef PRODUCT
assert(_meta_canon_max+1 == BASIC_INDEX_LIMIT); /* Tricky assert here, constants and gcc complains about it without local. */
int index_limit = BASIC_INDEX_LIMIT;
assert(_meta_canon_min == 1 && _meta_canon_max+1 == index_limit);
#endif
if (idx >= _meta_canon_min && idx <= _meta_canon_max) if (idx >= _meta_canon_min && idx <= _meta_canon_max)
return basic_codings[idx].init(); return basic_codings[idx].init();
else else

View file

@ -1,5 +1,5 @@
/* /*
* Copyright 2002-2005 Sun Microsystems, Inc. All Rights Reserved. * Copyright 2002-2008 Sun Microsystems, Inc. All Rights Reserved.
* DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER. * DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER.
* *
* This code is free software; you can redistribute it and/or modify it * This code is free software; you can redistribute it and/or modify it
@ -35,9 +35,11 @@ struct unpacker;
#define CODING_D(x) ((x)>>0 & 0xF) #define CODING_D(x) ((x)>>0 & 0xF)
#define CODING_INIT(B, H, S, D) \ #define CODING_INIT(B, H, S, D) \
{ CODING_SPEC(B, H, S, D) } { CODING_SPEC(B, H, S, D) , 0, 0, 0, 0, 0, 0, 0, 0}
#define long do_not_use_C_long_types_use_jlong_or_int // For debugging purposes, some compilers do not like this and will complain.
// #define long do_not_use_C_long_types_use_jlong_or_int
// Use of the type "long" is problematic, do not use it.
struct coding { struct coding {
int spec; // B,H,S,D int spec; // B,H,S,D

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@ -1,5 +1,5 @@
/* /*
* Copyright 2001-2004 Sun Microsystems, Inc. All Rights Reserved. * Copyright 2001-2008 Sun Microsystems, Inc. All Rights Reserved.
* DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER. * DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER.
* *
* This code is free software; you can redistribute it and/or modify it * This code is free software; you can redistribute it and/or modify it
@ -45,15 +45,15 @@
#ifdef PRODUCT #ifdef PRODUCT
#define IF_PRODUCT(xxx) xxx #define IF_PRODUCT(xxx) xxx
#define NOT_PRODUCT(xxx) #define NOT_PRODUCT(xxx)
#define assert(p) (0) #define assert(p)
#define printcr false && #define PRINTCR(args)
#else #else
#define IF_PRODUCT(xxx) #define IF_PRODUCT(xxx)
#define NOT_PRODUCT(xxx) xxx #define NOT_PRODUCT(xxx) xxx
#define assert(p) ((p) || (assert_failed(#p), 1)) #define assert(p) ((p) || assert_failed(#p))
#define printcr u->verbose && u->printcr_if_verbose #define PRINTCR(args) u->verbose && u->printcr_if_verbose args
extern "C" void breakpoint(); extern "C" void breakpoint();
extern void assert_failed(const char*); extern int assert_failed(const char*);
#define BREAK (breakpoint()) #define BREAK (breakpoint())
#endif #endif
@ -79,7 +79,7 @@ extern void assert_failed(const char*);
#define lengthof(array) (sizeof(array)/sizeof(array[0])) #define lengthof(array) (sizeof(array)/sizeof(array[0]))
#define NEW(T, n) (T*) must_malloc(sizeof(T)*(n)) #define NEW(T, n) (T*) must_malloc((int)(sizeof(T)*(n)))
#define U_NEW(T, n) (T*) u->alloc(sizeof(T)*(n)) #define U_NEW(T, n) (T*) u->alloc(sizeof(T)*(n))
#define T_NEW(T, n) (T*) u->temp_alloc(sizeof(T)*(n)) #define T_NEW(T, n) (T*) u->temp_alloc(sizeof(T)*(n))
@ -121,12 +121,12 @@ enum { false, true };
#define null (0) #define null (0)
#ifndef __sparc /* Must cast to void *, then size_t, then int. */
#define intptr_t jlong #define ptrlowbits(x) ((int)(size_t)(void*)(x))
#endif
#define ptrlowbits(x) ((int) (intptr_t)(x))
/* Back and forth from jlong to pointer */
#define ptr2jlong(x) ((jlong)(size_t)(void*)(x))
#define jlong2ptr(x) ((void*)(size_t)(x))
// Keys used by Java: // Keys used by Java:
#define UNPACK_DEFLATE_HINT "unpack.deflate.hint" #define UNPACK_DEFLATE_HINT "unpack.deflate.hint"

View file

@ -1,5 +1,5 @@
/* /*
* Copyright 2003 Sun Microsystems, Inc. All Rights Reserved. * Copyright 2003-2008 Sun Microsystems, Inc. All Rights Reserved.
* DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER. * DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER.
* *
* This code is free software; you can redistribute it and/or modify it * This code is free software; you can redistribute it and/or modify it
@ -59,7 +59,8 @@ static jlong read_input_via_jni(unpacker* self,
void* buf, jlong minlen, jlong maxlen); void* buf, jlong minlen, jlong maxlen);
static unpacker* get_unpacker(JNIEnv *env, jobject pObj, bool noCreate=false) { static unpacker* get_unpacker(JNIEnv *env, jobject pObj, bool noCreate=false) {
unpacker* uPtr = (unpacker*) env->GetLongField(pObj, unpackerPtrFID); unpacker* uPtr;
uPtr = (unpacker*)jlong2ptr(env->GetLongField(pObj, unpackerPtrFID));
//fprintf(stderr, "get_unpacker(%p) uPtr=%p\n", pObj, uPtr); //fprintf(stderr, "get_unpacker(%p) uPtr=%p\n", pObj, uPtr);
if (uPtr == null) { if (uPtr == null) {
if (noCreate) return null; if (noCreate) return null;
@ -71,7 +72,7 @@ static unpacker* get_unpacker(JNIEnv *env, jobject pObj, bool noCreate=false) {
//fprintf(stderr, "get_unpacker(%p) uPtr=%p initializing\n", pObj, uPtr); //fprintf(stderr, "get_unpacker(%p) uPtr=%p initializing\n", pObj, uPtr);
uPtr->init(read_input_via_jni); uPtr->init(read_input_via_jni);
uPtr->jniobj = (void*) env->NewGlobalRef(pObj); uPtr->jniobj = (void*) env->NewGlobalRef(pObj);
env->SetLongField(pObj, unpackerPtrFID, (jlong)uPtr); env->SetLongField(pObj, unpackerPtrFID, ptr2jlong(uPtr));
} }
uPtr->jnienv = env; // keep refreshing this in case of MT access uPtr->jnienv = env; // keep refreshing this in case of MT access
return uPtr; return uPtr;
@ -150,7 +151,7 @@ Java_com_sun_java_util_jar_pack_NativeUnpack_start(JNIEnv *env, jobject pObj,
size_t buflen = 0; size_t buflen = 0;
if (pBuf != null) { if (pBuf != null) {
buf = env->GetDirectBufferAddress(pBuf); buf = env->GetDirectBufferAddress(pBuf);
buflen = env->GetDirectBufferCapacity(pBuf); buflen = (size_t)env->GetDirectBufferCapacity(pBuf);
if (buflen == 0) buf = null; if (buflen == 0) buf = null;
if (buf == null) { THROW_IOE(ERROR_INTERNAL); return 0; } if (buf == null) { THROW_IOE(ERROR_INTERNAL); return 0; }
if ((size_t)offset >= buflen) if ((size_t)offset >= buflen)

View file

@ -1,5 +1,5 @@
/* /*
* Copyright 2003-2005 Sun Microsystems, Inc. All Rights Reserved. * Copyright 2003-2008 Sun Microsystems, Inc. All Rights Reserved.
* DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER. * DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER.
* *
* This code is free software; you can redistribute it and/or modify it * This code is free software; you can redistribute it and/or modify it
@ -86,13 +86,13 @@ static jlong read_input_via_stdio(unpacker* u,
readlen = (int)(maxlen - numread); readlen = (int)(maxlen - numread);
int nr = 0; int nr = 0;
if (u->infileptr != null) { if (u->infileptr != null) {
nr = fread(bufptr, 1, readlen, u->infileptr); nr = (int)fread(bufptr, 1, readlen, u->infileptr);
} else { } else {
#ifndef WIN32 #ifndef WIN32
// we prefer unbuffered inputs // we prefer unbuffered inputs
nr = read(u->infileno, bufptr, readlen); nr = (int)read(u->infileno, bufptr, readlen);
#else #else
nr = fread(bufptr, 1, readlen, stdin); nr = (int)fread(bufptr, 1, readlen, stdin);
#endif #endif
} }
if (nr <= 0) { if (nr <= 0) {
@ -279,7 +279,6 @@ int unpacker::run(int argc, char **argv) {
char** argbuf = init_args(argc, argv, envargc); char** argbuf = init_args(argc, argv, envargc);
char** arg0 = argbuf+envargc; char** arg0 = argbuf+envargc;
char** argp = argbuf; char** argp = argbuf;
int ach;
int verbose = 0; int verbose = 0;
char* logfile = null; char* logfile = null;
@ -370,7 +369,7 @@ int unpacker::run(int argc, char **argv) {
int magic; int magic;
// check for GZIP input // check for GZIP input
magic = read_magic(&u, peek, sizeof(peek)); magic = read_magic(&u, peek, (int)sizeof(peek));
if ((magic & GZIP_MAGIC_MASK) == GZIP_MAGIC) { if ((magic & GZIP_MAGIC_MASK) == GZIP_MAGIC) {
// Oops; must slap an input filter on this data. // Oops; must slap an input filter on this data.
setup_gzin(&u); setup_gzin(&u);
@ -397,8 +396,8 @@ int unpacker::run(int argc, char **argv) {
if (u.aborting()) break; if (u.aborting()) break;
// Peek ahead for more data. // Peek ahead for more data.
magic = read_magic(&u, peek, sizeof(peek)); magic = read_magic(&u, peek, (int)sizeof(peek));
if (magic != JAVA_PACKAGE_MAGIC) { if (magic != (int)JAVA_PACKAGE_MAGIC) {
if (magic != EOF_MAGIC) if (magic != EOF_MAGIC)
u.abort("garbage after end of pack archive"); u.abort("garbage after end of pack archive");
break; // all done break; // all done

View file

@ -1,5 +1,5 @@
/* /*
* Copyright 2001-2005 Sun Microsystems, Inc. All Rights Reserved. * Copyright 2001-2008 Sun Microsystems, Inc. All Rights Reserved.
* DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER. * DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER.
* *
* This code is free software; you can redistribute it and/or modify it * This code is free software; you can redistribute it and/or modify it
@ -27,6 +27,21 @@
// Program for unpacking specially compressed Java packages. // Program for unpacking specially compressed Java packages.
// John R. Rose // John R. Rose
/*
* When compiling for a 64bit LP64 system (longs and pointers being 64bits),
* the printf format %ld is correct and use of %lld will cause warning
* errors from some compilers (gcc/g++).
* _LP64 can be explicitly set (used on Linux).
* Solaris compilers will define __sparcv9 or __x86_64 on 64bit compilations.
*/
#if defined(_LP64) || defined(__sparcv9) || defined(__x86_64)
#define LONG_LONG_FORMAT "%ld"
#define LONG_LONG_HEX_FORMAT "%lx"
#else
#define LONG_LONG_FORMAT "%lld"
#define LONG_LONG_HEX_FORMAT "%016llx"
#endif
#include <sys/types.h> #include <sys/types.h>
#include <stdio.h> #include <stdio.h>
@ -253,12 +268,12 @@ int entry::typeSize() {
inline cpindex* cpool::getFieldIndex(entry* classRef) { inline cpindex* cpool::getFieldIndex(entry* classRef) {
assert(classRef->tagMatches(CONSTANT_Class)); assert(classRef->tagMatches(CONSTANT_Class));
assert((uint)classRef->inord < tag_count[CONSTANT_Class]); assert((uint)classRef->inord < (uint)tag_count[CONSTANT_Class]);
return &member_indexes[classRef->inord*2+0]; return &member_indexes[classRef->inord*2+0];
} }
inline cpindex* cpool::getMethodIndex(entry* classRef) { inline cpindex* cpool::getMethodIndex(entry* classRef) {
assert(classRef->tagMatches(CONSTANT_Class)); assert(classRef->tagMatches(CONSTANT_Class));
assert((uint)classRef->inord < tag_count[CONSTANT_Class]); assert((uint)classRef->inord < (uint)tag_count[CONSTANT_Class]);
return &member_indexes[classRef->inord*2+1]; return &member_indexes[classRef->inord*2+1];
} }
@ -341,7 +356,7 @@ bool unpacker::ensure_input(jlong more) {
rplimit += nr; rplimit += nr;
fetch -= nr; fetch -= nr;
bytes_read += nr; bytes_read += nr;
assert(remaining == (input.limit() - rplimit)); assert(remaining == (julong)(input.limit() - rplimit));
} }
return true; return true;
} }
@ -441,9 +456,13 @@ int unpacker::putref_index(entry* e, int size) {
e->requestOutputIndex(cp, -size); e->requestOutputIndex(cp, -size);
// Later on we'll fix the bits. // Later on we'll fix the bits.
class_fixup_type.addByte(size); class_fixup_type.addByte(size);
class_fixup_offset.add(wpoffset()); class_fixup_offset.add((int)wpoffset());
class_fixup_ref.add(e); class_fixup_ref.add(e);
return !assert(1) ? 0 : 0x20+size; // 0x22 is easy to eyeball #ifdef PRODUCT
return 0;
#else
return 0x20+size; // 0x22 is easy to eyeball
#endif
} }
} }
@ -472,7 +491,7 @@ enum { CHUNK = (1 << 14), SMALL = (1 << 9) };
void* unpacker::alloc_heap(size_t size, bool smallOK, bool temp) { void* unpacker::alloc_heap(size_t size, bool smallOK, bool temp) {
CHECK_0; CHECK_0;
if (!smallOK || size > SMALL) { if (!smallOK || size > SMALL) {
void* res = must_malloc(size); void* res = must_malloc((int)size);
(temp ? &tmallocs : &mallocs)->add(res); (temp ? &tmallocs : &mallocs)->add(res);
return res; return res;
} }
@ -481,7 +500,7 @@ void* unpacker::alloc_heap(size_t size, bool smallOK, bool temp) {
xsmallbuf.init(CHUNK); xsmallbuf.init(CHUNK);
(temp ? &tmallocs : &mallocs)->add(xsmallbuf.base()); (temp ? &tmallocs : &mallocs)->add(xsmallbuf.base());
} }
int growBy = size; int growBy = (int)size;
growBy += -growBy & 7; // round up mod 8 growBy += -growBy & 7; // round up mod 8
return xsmallbuf.grow(growBy); return xsmallbuf.grow(growBy);
} }
@ -514,7 +533,7 @@ void unpacker::read_file_header() {
FIRST_READ = MAGIC_BYTES + AH_LENGTH_MIN FIRST_READ = MAGIC_BYTES + AH_LENGTH_MIN
}; };
bool foreign_buf = (read_input_fn == null); bool foreign_buf = (read_input_fn == null);
byte initbuf[FIRST_READ + C_SLOP + 200]; // 200 is for JAR I/O byte initbuf[(int)FIRST_READ + (int)C_SLOP + 200]; // 200 is for JAR I/O
if (foreign_buf) { if (foreign_buf) {
// inbytes is all there is // inbytes is all there is
input.set(inbytes); input.set(inbytes);
@ -553,7 +572,7 @@ void unpacker::read_file_header() {
// Copy until EOF; assume the JAR file is the last segment. // Copy until EOF; assume the JAR file is the last segment.
fprintf(errstrm, "Copy-mode.\n"); fprintf(errstrm, "Copy-mode.\n");
for (;;) { for (;;) {
jarout->write_data(rp, input_remaining()); jarout->write_data(rp, (int)input_remaining());
if (foreign_buf) if (foreign_buf)
break; // one-time use of a passed in buffer break; // one-time use of a passed in buffer
if (input.size() < CHUNK) { if (input.size() < CHUNK) {
@ -572,7 +591,7 @@ void unpacker::read_file_header() {
// Read the magic number. // Read the magic number.
magic = 0; magic = 0;
for (int i1 = 0; i1 < sizeof(magic); i1++) { for (int i1 = 0; i1 < (int)sizeof(magic); i1++) {
magic <<= 8; magic <<= 8;
magic += (*rp++ & 0xFF); magic += (*rp++ & 0xFF);
} }
@ -586,7 +605,7 @@ void unpacker::read_file_header() {
majver = hdr.getInt(); majver = hdr.getInt();
hdrVals += 2; hdrVals += 2;
if (magic != JAVA_PACKAGE_MAGIC || if (magic != (int)JAVA_PACKAGE_MAGIC ||
(majver != JAVA5_PACKAGE_MAJOR_VERSION && (majver != JAVA5_PACKAGE_MAJOR_VERSION &&
majver != JAVA6_PACKAGE_MAJOR_VERSION) || majver != JAVA6_PACKAGE_MAJOR_VERSION) ||
(minver != JAVA5_PACKAGE_MINOR_VERSION && (minver != JAVA5_PACKAGE_MINOR_VERSION &&
@ -633,19 +652,19 @@ void unpacker::read_file_header() {
// Now we can size the whole archive. // Now we can size the whole archive.
// Read everything else into a mega-buffer. // Read everything else into a mega-buffer.
rp = hdr.rp; rp = hdr.rp;
int header_size_0 = (rp - input.base()); // used-up header (4byte + 3int) int header_size_0 = (int)(rp - input.base()); // used-up header (4byte + 3int)
int header_size_1 = (rplimit - rp); // buffered unused initial fragment int header_size_1 = (int)(rplimit - rp); // buffered unused initial fragment
int header_size = header_size_0+header_size_1; int header_size = header_size_0+header_size_1;
unsized_bytes_read = header_size_0; unsized_bytes_read = header_size_0;
CHECK; CHECK;
if (foreign_buf) { if (foreign_buf) {
if (archive_size > header_size_1) { if (archive_size > (size_t)header_size_1) {
abort("EOF reading fixed input buffer"); abort("EOF reading fixed input buffer");
return; return;
} }
} else if (archive_size > 0) { } else if (archive_size > 0) {
input.set(U_NEW(byte, (size_t) header_size_0 + archive_size + C_SLOP), input.set(U_NEW(byte, (size_t)(header_size_0 + archive_size + C_SLOP)),
(size_t) header_size_0 + archive_size); (size_t) header_size_0 + (size_t)archive_size);
assert(input.limit()[0] == 0); assert(input.limit()[0] == 0);
// Move all the bytes we read initially into the real buffer. // Move all the bytes we read initially into the real buffer.
input.b.copyFrom(initbuf, header_size); input.b.copyFrom(initbuf, header_size);
@ -712,7 +731,7 @@ void unpacker::read_file_header() {
} }
int cp_counts[N_TAGS_IN_ORDER]; int cp_counts[N_TAGS_IN_ORDER];
for (int k = 0; k < N_TAGS_IN_ORDER; k++) { for (int k = 0; k < (int)N_TAGS_IN_ORDER; k++) {
if (!(archive_options & AO_HAVE_CP_NUMBERS)) { if (!(archive_options & AO_HAVE_CP_NUMBERS)) {
switch (TAGS_IN_ORDER[k]) { switch (TAGS_IN_ORDER[k]) {
case CONSTANT_Integer: case CONSTANT_Integer:
@ -753,7 +772,10 @@ void unpacker::read_file_header() {
abort("EOF reading archive header"); abort("EOF reading archive header");
// Now size the CP. // Now size the CP.
assert(N_TAGS_IN_ORDER == cpool::NUM_COUNTS); #ifndef PRODUCT
bool x = (N_TAGS_IN_ORDER == cpool::NUM_COUNTS);
assert(x);
#endif //PRODUCT
cp.init(this, cp_counts); cp.init(this, cp_counts);
CHECK; CHECK;
@ -766,7 +788,7 @@ void unpacker::read_file_header() {
// meta-bytes, if any, immediately follow archive header // meta-bytes, if any, immediately follow archive header
//band_headers.readData(band_headers_size); //band_headers.readData(band_headers_size);
ensure_input(band_headers_size); ensure_input(band_headers_size);
if (input_remaining() < band_headers_size) { if (input_remaining() < (size_t)band_headers_size) {
abort("EOF reading band headers"); abort("EOF reading band headers");
return; return;
} }
@ -789,12 +811,14 @@ void unpacker::read_file_header() {
void unpacker::finish() { void unpacker::finish() {
if (verbose >= 1) { if (verbose >= 1) {
fprintf(errstrm, fprintf(errstrm,
"A total of %lld bytes were read in %d segment(s).\n", "A total of "
bytes_read_before_reset+bytes_read, LONG_LONG_FORMAT " bytes were read in %d segment(s).\n",
(bytes_read_before_reset+bytes_read),
segments_read_before_reset+1); segments_read_before_reset+1);
fprintf(errstrm, fprintf(errstrm,
"A total of %lld file content bytes were written.\n", "A total of "
bytes_written_before_reset+bytes_written); LONG_LONG_FORMAT " file content bytes were written.\n",
(bytes_written_before_reset+bytes_written));
fprintf(errstrm, fprintf(errstrm,
"A total of %d files (of which %d are classes) were written to output.\n", "A total of %d files (of which %d are classes) were written to output.\n",
files_written_before_reset+files_written, files_written_before_reset+files_written,
@ -822,7 +846,7 @@ void cpool::init(unpacker* u_, int counts[NUM_COUNTS]) {
int next_entry = 0; int next_entry = 0;
// Size the constant pool: // Size the constant pool:
for (int k = 0; k < N_TAGS_IN_ORDER; k++) { for (int k = 0; k < (int)N_TAGS_IN_ORDER; k++) {
byte tag = TAGS_IN_ORDER[k]; byte tag = TAGS_IN_ORDER[k];
int len = counts[k]; int len = counts[k];
tag_count[tag] = len; tag_count[tag] = len;
@ -902,8 +926,8 @@ static byte* skip_Utf8_chars(byte* cp, int len) {
} }
static int compare_Utf8_chars(bytes& b1, bytes& b2) { static int compare_Utf8_chars(bytes& b1, bytes& b2) {
int l1 = b1.len; int l1 = (int)b1.len;
int l2 = b2.len; int l2 = (int)b2.len;
int l0 = (l1 < l2) ? l1 : l2; int l0 = (l1 < l2) ? l1 : l2;
byte* p1 = b1.ptr; byte* p1 = b1.ptr;
byte* p2 = b2.ptr; byte* p2 = b2.ptr;
@ -949,10 +973,12 @@ void unpacker::read_Utf8_values(entry* cpMap, int len) {
// First band: Read lengths of shared prefixes. // First band: Read lengths of shared prefixes.
if (len > PREFIX_SKIP_2) if (len > PREFIX_SKIP_2)
cp_Utf8_prefix.readData(len - PREFIX_SKIP_2); cp_Utf8_prefix.readData(len - PREFIX_SKIP_2);
NOT_PRODUCT(else cp_Utf8_prefix.readData(0)); // for asserts
// Second band: Read lengths of unshared suffixes: // Second band: Read lengths of unshared suffixes:
if (len > SUFFIX_SKIP_1) if (len > SUFFIX_SKIP_1)
cp_Utf8_suffix.readData(len - SUFFIX_SKIP_1); cp_Utf8_suffix.readData(len - SUFFIX_SKIP_1);
NOT_PRODUCT(else cp_Utf8_suffix.readData(0)); // for asserts
bytes* allsuffixes = T_NEW(bytes, len); bytes* allsuffixes = T_NEW(bytes, len);
CHECK; CHECK;
@ -999,7 +1025,7 @@ void unpacker::read_Utf8_values(entry* cpMap, int len) {
CHECK; CHECK;
tmallocs.add(chars.ptr); // free it later tmallocs.add(chars.ptr); // free it later
} else { } else {
int shrink = chars.limit() - chp; int shrink = (int)(chars.limit() - chp);
chars.len -= shrink; chars.len -= shrink;
charbuf.b.len -= shrink; // ungrow to reclaim buffer space charbuf.b.len -= shrink; // ungrow to reclaim buffer space
// Note that we did not reclaim the final '\0'. // Note that we did not reclaim the final '\0'.
@ -1008,7 +1034,9 @@ void unpacker::read_Utf8_values(entry* cpMap, int len) {
} }
} }
//cp_Utf8_chars.done(); //cp_Utf8_chars.done();
if (assert(1)) charbuf.b.set(null, 0); // tidy #ifndef PRODUCT
charbuf.b.set(null, 0); // tidy
#endif
// Fourth band: Go back and size the specially packed strings. // Fourth band: Go back and size the specially packed strings.
int maxlen = 0; int maxlen = 0;
@ -1041,7 +1069,7 @@ void unpacker::read_Utf8_values(entry* cpMap, int len) {
for (i = 0; i < len; i++) { for (i = 0; i < len; i++) {
bytes& chars = allsuffixes[i]; bytes& chars = allsuffixes[i];
if (chars.ptr != null) continue; // already input if (chars.ptr != null) continue; // already input
int suffix = chars.len; // pick up the hack int suffix = (int)chars.len; // pick up the hack
uint size3 = suffix * 3; uint size3 = suffix * 3;
if (suffix == 0) continue; // done with empty string if (suffix == 0) continue; // done with empty string
chars.malloc(size3); chars.malloc(size3);
@ -1071,7 +1099,7 @@ void unpacker::read_Utf8_values(entry* cpMap, int len) {
for (i = 0; i < len; i++) { for (i = 0; i < len; i++) {
bytes& chars = allsuffixes[i]; bytes& chars = allsuffixes[i];
int prefix = (i < PREFIX_SKIP_2)? 0: cp_Utf8_prefix.getInt(); int prefix = (i < PREFIX_SKIP_2)? 0: cp_Utf8_prefix.getInt();
int suffix = chars.len; int suffix = (int)chars.len;
byte* fillp; byte* fillp;
// by induction, the buffer is already filled with the prefix // by induction, the buffer is already filled with the prefix
// make sure the prefix value is not corrupted, though: // make sure the prefix value is not corrupted, though:
@ -1084,7 +1112,7 @@ void unpacker::read_Utf8_values(entry* cpMap, int len) {
fillp = chars.writeTo(fillp); fillp = chars.writeTo(fillp);
assert(bigbuf.inBounds(fillp)); assert(bigbuf.inBounds(fillp));
*fillp = 0; // bigbuf must contain a well-formed Utf8 string *fillp = 0; // bigbuf must contain a well-formed Utf8 string
int length = fillp - bigbuf.ptr; int length = (int)(fillp - bigbuf.ptr);
bytes& value = cpMap[i].value.b; bytes& value = cpMap[i].value.b;
value.set(U_NEW(byte, length+1), length); value.set(U_NEW(byte, length+1), length);
value.copyFrom(bigbuf.ptr, length); value.copyFrom(bigbuf.ptr, length);
@ -1215,12 +1243,12 @@ void unpacker::read_cp() {
int i; int i;
for (int k = 0; k < N_TAGS_IN_ORDER; k++) { for (int k = 0; k < (int)N_TAGS_IN_ORDER; k++) {
byte tag = TAGS_IN_ORDER[k]; byte tag = TAGS_IN_ORDER[k];
int len = cp.tag_count[tag]; int len = cp.tag_count[tag];
int base = cp.tag_base[tag]; int base = cp.tag_base[tag];
printcr(1,"Reading %d %s entries...", len, NOT_PRODUCT(TAG_NAME[tag])+0); PRINTCR((1,"Reading %d %s entries...", len, NOT_PRODUCT(TAG_NAME[tag])+0));
entry* cpMap = &cp.entries[base]; entry* cpMap = &cp.entries[base];
for (i = 0; i < len; i++) { for (i = 0; i < len; i++) {
cpMap[i].tag = tag; cpMap[i].tag = tag;
@ -1282,7 +1310,7 @@ void unpacker::read_cp() {
#ifndef PRODUCT #ifndef PRODUCT
cpindex* ix = &cp.tag_index[tag]; cpindex* ix = &cp.tag_index[tag];
assert(ix->ixTag == tag); assert(ix->ixTag == tag);
assert(ix->len == len); assert((int)ix->len == len);
assert(ix->base1 == cpMap); assert(ix->base1 == cpMap);
#endif #endif
CHECK; CHECK;
@ -1293,7 +1321,7 @@ void unpacker::read_cp() {
cp.initMemberIndexes(); cp.initMemberIndexes();
CHECK; CHECK;
printcr(1,"parsed %d constant pool entries in %d bytes", cp.nentries, (rp - rp0)); PRINTCR((1,"parsed %d constant pool entries in %d bytes", cp.nentries, (rp - rp0)));
#define SNAME(n,s) #s "\0" #define SNAME(n,s) #s "\0"
const char* symNames = ( const char* symNames = (
@ -1307,7 +1335,7 @@ void unpacker::read_cp() {
bytes name; name.set(symNames); bytes name; name.set(symNames);
if (name.len > 0 && name.ptr[0] != '0') { if (name.len > 0 && name.ptr[0] != '0') {
cp.sym[sn] = cp.ensureUtf8(name); cp.sym[sn] = cp.ensureUtf8(name);
printcr(4, "well-known sym %d=%s", sn, cp.sym[sn]->string()); PRINTCR((4, "well-known sym %d=%s", sn, cp.sym[sn]->string()));
} }
symNames += name.len + 1; // skip trailing null to next name symNames += name.len + 1; // skip trailing null to next name
} }
@ -1352,7 +1380,7 @@ unpacker::attr_definitions::defineLayout(int idx,
assert(flag_limit != 0); // must be set up already assert(flag_limit != 0); // must be set up already
if (idx >= 0) { if (idx >= 0) {
// Fixed attr. // Fixed attr.
if (idx >= flag_limit) if (idx >= (int)flag_limit)
abort("attribute index too large"); abort("attribute index too large");
if (isRedefined(idx)) if (isRedefined(idx))
abort("redefined attribute index"); abort("redefined attribute index");
@ -1635,7 +1663,7 @@ unpacker::attr_definitions::parseLayout(const char* lp, band** &res,
for (;;) { for (;;) {
int caseval = 0; int caseval = 0;
lp = parseNumeral(lp, caseval); lp = parseNumeral(lp, caseval);
band_stack.add((void*)caseval); band_stack.add((void*)(size_t)caseval);
if (*lp == '-') { if (*lp == '-') {
// new in version 160, allow (1-5) for (1,2,3,4,5) // new in version 160, allow (1-5) for (1,2,3,4,5)
if (u->majver < JAVA6_PACKAGE_MAJOR_VERSION) { if (u->majver < JAVA6_PACKAGE_MAJOR_VERSION) {
@ -1654,7 +1682,7 @@ unpacker::attr_definitions::parseLayout(const char* lp, band** &res,
} }
for (;;) { for (;;) {
++caseval; ++caseval;
band_stack.add((void*)caseval); band_stack.add((void*)(size_t)caseval);
if (caseval == caselimit) break; if (caseval == caselimit) break;
} }
} }
@ -1921,7 +1949,7 @@ static int lastIndexOf(int chmin, int chmax, bytes& x, int pos) {
for (byte* cp = ptr + pos; --cp >= ptr; ) { for (byte* cp = ptr + pos; --cp >= ptr; ) {
assert(x.inBounds(cp)); assert(x.inBounds(cp));
if (*cp >= chmin && *cp <= chmax) if (*cp >= chmin && *cp <= chmax)
return cp - ptr; return (int)(cp - ptr);
} }
return -1; return -1;
} }
@ -1976,7 +2004,7 @@ void unpacker::read_ics() {
entry* inner = ic_this_class.getRef(); entry* inner = ic_this_class.getRef();
CHECK; CHECK;
uint inord = inner->inord; uint inord = inner->inord;
assert(inord < cp.tag_count[CONSTANT_Class]); assert(inord < (uint)cp.tag_count[CONSTANT_Class]);
if (ic_index[inord] != null) { if (ic_index[inord] != null) {
abort("identical inner class"); abort("identical inner class");
break; break;
@ -2003,10 +2031,10 @@ void unpacker::read_ics() {
bytes number; bytes number;
bytes name; bytes name;
// Parse n into pkgOuter and name (and number). // Parse n into pkgOuter and name (and number).
printcr(5, "parse short IC name %s", n.ptr); PRINTCR((5, "parse short IC name %s", n.ptr));
int dollar1, dollar2; // pointers to $ in the pattern int dollar1, dollar2; // pointers to $ in the pattern
// parse n = (<pkg>/)*<outer>($<number>)?($<name>)? // parse n = (<pkg>/)*<outer>($<number>)?($<name>)?
int nlen = n.len; int nlen = (int)n.len;
int pkglen = lastIndexOf(SLASH_MIN, SLASH_MAX, n, nlen) + 1; int pkglen = lastIndexOf(SLASH_MIN, SLASH_MAX, n, nlen) + 1;
dollar2 = lastIndexOf(DOLLAR_MIN, DOLLAR_MAX, n, nlen); dollar2 = lastIndexOf(DOLLAR_MIN, DOLLAR_MAX, n, nlen);
if (dollar2 < 0) { if (dollar2 < 0) {
@ -2035,8 +2063,8 @@ void unpacker::read_ics() {
pkgOuter = n.slice(0, dollar1); pkgOuter = n.slice(0, dollar1);
else else
pkgOuter.set(null,0); pkgOuter.set(null,0);
printcr(5,"=> %s$ 0%s $%s", PRINTCR((5,"=> %s$ 0%s $%s",
pkgOuter.string(), number.string(), name.string()); pkgOuter.string(), number.string(), name.string()));
if (pkgOuter.ptr != null) if (pkgOuter.ptr != null)
ics[i].outer = cp.ensureClass(pkgOuter); ics[i].outer = cp.ensureClass(pkgOuter);
@ -2049,7 +2077,7 @@ void unpacker::read_ics() {
if (ics[i].outer != null) { if (ics[i].outer != null) {
uint outord = ics[i].outer->inord; uint outord = ics[i].outer->inord;
if (outord != NO_INORD) { if (outord != NO_INORD) {
assert(outord < cp.tag_count[CONSTANT_Class]); assert(outord < (uint)cp.tag_count[CONSTANT_Class]);
ics[i].next_sibling = ic_child_index[outord]; ics[i].next_sibling = ic_child_index[outord];
ic_child_index[outord] = &ics[i]; ic_child_index[outord] = &ics[i];
} }
@ -2060,8 +2088,7 @@ void unpacker::read_ics() {
} }
void unpacker::read_classes() { void unpacker::read_classes() {
int i; PRINTCR((1," ...scanning %d classes...", class_count));
printcr(1," ...scanning %d classes...", class_count);
class_this.readData(class_count); class_this.readData(class_count);
class_super.readData(class_count); class_super.readData(class_count);
class_interface_count.readData(class_count); class_interface_count.readData(class_count);
@ -2070,6 +2097,7 @@ void unpacker::read_classes() {
CHECK; CHECK;
#if 0 #if 0
int i;
// Make a little mark on super-classes. // Make a little mark on super-classes.
for (i = 0; i < class_count; i++) { for (i = 0; i < class_count; i++) {
entry* e = class_super.getRefN(); entry* e = class_super.getRefN();
@ -2099,8 +2127,8 @@ void unpacker::read_classes() {
read_code_headers(); read_code_headers();
printcr(1,"scanned %d classes, %d fields, %d methods, %d code headers", PRINTCR((1,"scanned %d classes, %d fields, %d methods, %d code headers",
class_count, field_count, method_count, code_count); class_count, field_count, method_count, code_count));
} }
maybe_inline maybe_inline
@ -2137,7 +2165,7 @@ void unpacker::read_attrs(int attrc, int obj_count) {
} }
indexBits &= indexMask; // ignore classfile flag bits indexBits &= indexMask; // ignore classfile flag bits
for (idx = 0; indexBits != 0; idx++, indexBits >>= 1) { for (idx = 0; indexBits != 0; idx++, indexBits >>= 1) {
ad.flag_count[idx] += (indexBits & 1); ad.flag_count[idx] += (int)(indexBits & 1);
} }
} }
// we'll scan these again later for output: // we'll scan these again later for output:
@ -2337,7 +2365,7 @@ void unpacker::read_attrs(int attrc, int obj_count) {
for (idx = 0; idx < ad.layouts.length(); idx++) { for (idx = 0; idx < ad.layouts.length(); idx++) {
if (ad.getLayout(idx) == null) if (ad.getLayout(idx) == null)
continue; // none at this fixed index <32 continue; // none at this fixed index <32
if (idx < ad.flag_limit && ad.isPredefined(idx)) if (idx < (int)ad.flag_limit && ad.isPredefined(idx))
continue; // already handled continue; // already handled
if (ad.getCount(idx) == 0) if (ad.getCount(idx) == 0)
continue; // no attributes of this type (then why transmit layouts?) continue; // no attributes of this type (then why transmit layouts?)
@ -2351,9 +2379,9 @@ void unpacker::attr_definitions::readBandData(int idx) {
if (count == 0) return; if (count == 0) return;
layout_definition* lo = getLayout(idx); layout_definition* lo = getLayout(idx);
if (lo != null) { if (lo != null) {
printcr(1, "counted %d [redefined = %d predefined = %d] attributes of type %s.%s", PRINTCR((1, "counted %d [redefined = %d predefined = %d] attributes of type %s.%s",
count, isRedefined(idx), isPredefined(idx), count, isRedefined(idx), isPredefined(idx),
ATTR_CONTEXT_NAME[attrc], lo->name); ATTR_CONTEXT_NAME[attrc], lo->name));
} }
bool hasCallables = lo->hasCallables(); bool hasCallables = lo->hasCallables();
band** bands = lo->bands(); band** bands = lo->bands();
@ -2376,13 +2404,13 @@ void unpacker::attr_definitions::readBandData(int idx) {
} }
} }
// Now consult whichever callables have non-zero entry counts. // Now consult whichever callables have non-zero entry counts.
readBandData(bands, -1); readBandData(bands, (uint)-1);
} }
} }
// Recursive helper to the previous function: // Recursive helper to the previous function:
void unpacker::attr_definitions::readBandData(band** body, uint count) { void unpacker::attr_definitions::readBandData(band** body, uint count) {
int i, j, k; int j, k;
for (j = 0; body[j] != null; j++) { for (j = 0; body[j] != null; j++) {
band& b = *body[j]; band& b = *body[j];
if (b.defc != null) { if (b.defc != null) {
@ -2427,7 +2455,7 @@ void unpacker::attr_definitions::readBandData(band** body, uint count) {
} }
break; break;
case EK_CBLE: case EK_CBLE:
assert(count == -1); // incoming count is meaningless assert((int)count == -1); // incoming count is meaningless
k = b.length; k = b.length;
assert(k >= 0); assert(k >= 0);
// This is intended and required for non production mode. // This is intended and required for non production mode.
@ -2490,7 +2518,7 @@ void unpacker::putlayout(band** body) {
assert(le_kind == EK_INT || le_kind == EK_REPL || le_kind == EK_UN); assert(le_kind == EK_INT || le_kind == EK_REPL || le_kind == EK_UN);
x = b.getInt(); x = b.getInt();
assert(!b.le_bci || prevBCI == to_bci(prevBII)); assert(!b.le_bci || prevBCI == (int)to_bci(prevBII));
switch (b.le_bci) { switch (b.le_bci) {
case EK_BCI: // PH: transmit R(bci), store bci case EK_BCI: // PH: transmit R(bci), store bci
x = to_bci(prevBII = x); x = to_bci(prevBII = x);
@ -2505,7 +2533,7 @@ void unpacker::putlayout(band** body) {
prevBCI += x; prevBCI += x;
break; break;
} }
assert(!b.le_bci || prevBCI == to_bci(prevBII)); assert(!b.le_bci || prevBCI == (int)to_bci(prevBII));
switch (b.le_len) { switch (b.le_len) {
case 0: break; case 0: break;
@ -2721,8 +2749,8 @@ band* unpacker::ref_band_for_self_op(int bc, bool& isAloadVar, int& origBCVar) {
// Cf. PackageReader.readByteCodes // Cf. PackageReader.readByteCodes
inline // called exactly once => inline inline // called exactly once => inline
void unpacker::read_bcs() { void unpacker::read_bcs() {
printcr(3, "reading compressed bytecodes and operands for %d codes...", PRINTCR((3, "reading compressed bytecodes and operands for %d codes...",
code_count); code_count));
// read from bc_codes and bc_case_count // read from bc_codes and bc_case_count
fillbytes all_switch_ops; fillbytes all_switch_ops;
@ -2825,18 +2853,18 @@ void unpacker::read_bcs() {
// Go through the formality, so we can use it in a regular fashion later: // Go through the formality, so we can use it in a regular fashion later:
assert(rp == rp0); assert(rp == rp0);
bc_codes.readData(opptr - rp); bc_codes.readData((int)(opptr - rp));
int i = 0; int i = 0;
// To size instruction bands correctly, we need info on switches: // To size instruction bands correctly, we need info on switches:
bc_case_count.readData(all_switch_ops.size()); bc_case_count.readData((int)all_switch_ops.size());
for (i = 0; i < all_switch_ops.size(); i++) { for (i = 0; i < (int)all_switch_ops.size(); i++) {
int caseCount = bc_case_count.getInt(); int caseCount = bc_case_count.getInt();
int bc = all_switch_ops.getByte(i); int bc = all_switch_ops.getByte(i);
bc_label.expectMoreLength(1+caseCount); // default label + cases bc_label.expectMoreLength(1+caseCount); // default label + cases
bc_case_value.expectMoreLength(bc == bc_tableswitch ? 1 : caseCount); bc_case_value.expectMoreLength(bc == bc_tableswitch ? 1 : caseCount);
printcr(2, "switch bc=%d caseCount=%d", bc, caseCount); PRINTCR((2, "switch bc=%d caseCount=%d", bc, caseCount));
} }
bc_case_count.rewind(); // uses again for output bc_case_count.rewind(); // uses again for output
@ -2849,15 +2877,14 @@ void unpacker::read_bcs() {
// The bc_escbyte band is counted by the immediately previous band. // The bc_escbyte band is counted by the immediately previous band.
bc_escbyte.readData(bc_escsize.getIntTotal()); bc_escbyte.readData(bc_escsize.getIntTotal());
printcr(3, "scanned %d opcode and %d operand bytes for %d codes...", PRINTCR((3, "scanned %d opcode and %d operand bytes for %d codes...",
(int)(bc_codes.size()), (int)(bc_codes.size()),
(int)(bc_escsize.maxRP() - bc_case_value.minRP()), (int)(bc_escsize.maxRP() - bc_case_value.minRP()),
code_count); code_count));
} }
void unpacker::read_bands() { void unpacker::read_bands() {
byte* rp0 = rp; byte* rp0 = rp;
int i;
read_file_header(); read_file_header();
CHECK; CHECK;
@ -2886,9 +2913,9 @@ void unpacker::read_bands() {
/// CP routines /// CP routines
entry*& cpool::hashTabRef(byte tag, bytes& b) { entry*& cpool::hashTabRef(byte tag, bytes& b) {
printcr(5, "hashTabRef tag=%d %s[%d]", tag, b.string(), b.len); PRINTCR((5, "hashTabRef tag=%d %s[%d]", tag, b.string(), b.len));
uint hash = tag + b.len; uint hash = tag + (int)b.len;
for (int i = 0; i < b.len; i++) { for (int i = 0; i < (int)b.len; i++) {
hash = hash * 31 + (0xFF & b.ptr[i]); hash = hash * 31 + (0xFF & b.ptr[i]);
} }
entry** ht = hashTab; entry** ht = hashTab;
@ -2905,15 +2932,15 @@ entry*& cpool::hashTabRef(byte tag, bytes& b) {
// Note: hash2 must be relatively prime to hlen, hence the "|1". // Note: hash2 must be relatively prime to hlen, hence the "|1".
hash2 = (((hash % 499) & (hlen-1)) | 1); hash2 = (((hash % 499) & (hlen-1)) | 1);
hash1 += hash2; hash1 += hash2;
if (hash1 >= hlen) hash1 -= hlen; if (hash1 >= (uint)hlen) hash1 -= hlen;
assert(hash1 < hlen); assert(hash1 < (uint)hlen);
assert(++probes < hlen); assert(++probes < hlen);
} }
#ifndef PRODUCT #ifndef PRODUCT
hash_probes[0] += 1; hash_probes[0] += 1;
hash_probes[1] += probes; hash_probes[1] += probes;
#endif #endif
printcr(5, " => @%d %p", hash1, ht[hash1]); PRINTCR((5, " => @%d %p", hash1, ht[hash1]));
return ht[hash1]; return ht[hash1];
} }
@ -2939,7 +2966,7 @@ entry* cpool::ensureUtf8(bytes& b) {
u->saveTo(e.value.b, b); u->saveTo(e.value.b, b);
assert(&e >= first_extra_entry); assert(&e >= first_extra_entry);
insert_extra(&e, tag_extras[CONSTANT_Utf8]); insert_extra(&e, tag_extras[CONSTANT_Utf8]);
printcr(4,"ensureUtf8 miss %s", e.string()); PRINTCR((4,"ensureUtf8 miss %s", e.string()));
return ix = &e; return ix = &e;
} }
@ -2961,7 +2988,7 @@ entry* cpool::ensureClass(bytes& b) {
e.value.b = utf->value.b; e.value.b = utf->value.b;
assert(&e >= first_extra_entry); assert(&e >= first_extra_entry);
insert_extra(&e, tag_extras[CONSTANT_Class]); insert_extra(&e, tag_extras[CONSTANT_Class]);
printcr(4,"ensureClass miss %s", e.string()); PRINTCR((4,"ensureClass miss %s", e.string()));
return &e; return &e;
} }
@ -2980,7 +3007,7 @@ void cpool::expandSignatures() {
int refnum = 0; int refnum = 0;
bytes form = e.refs[refnum++]->asUtf8(); bytes form = e.refs[refnum++]->asUtf8();
buf.empty(); buf.empty();
for (int j = 0; j < form.len; j++) { for (int j = 0; j < (int)form.len; j++) {
int c = form.ptr[j]; int c = form.ptr[j];
buf.addByte(c); buf.addByte(c);
if (c == 'L') { if (c == 'L') {
@ -2990,7 +3017,7 @@ void cpool::expandSignatures() {
} }
assert(refnum == e.nrefs); assert(refnum == e.nrefs);
bytes& sig = buf.b; bytes& sig = buf.b;
printcr(5,"signature %d %s -> %s", i, form.ptr, sig.ptr); PRINTCR((5,"signature %d %s -> %s", i, form.ptr, sig.ptr));
// try to find a pre-existing Utf8: // try to find a pre-existing Utf8:
entry* &e2 = hashTabRef(CONSTANT_Utf8, sig); entry* &e2 = hashTabRef(CONSTANT_Utf8, sig);
@ -2999,7 +3026,7 @@ void cpool::expandSignatures() {
e.value.b = e2->value.b; e.value.b = e2->value.b;
e.refs[0] = e2; e.refs[0] = e2;
e.nrefs = 1; e.nrefs = 1;
printcr(5,"signature replaced %d => %s", i, e.string()); PRINTCR((5,"signature replaced %d => %s", i, e.string()));
nreused++; nreused++;
} else { } else {
// there is no other replacement; reuse this CP entry as a Utf8 // there is no other replacement; reuse this CP entry as a Utf8
@ -3007,15 +3034,15 @@ void cpool::expandSignatures() {
e.tag = CONSTANT_Utf8; e.tag = CONSTANT_Utf8;
e.nrefs = 0; e.nrefs = 0;
e2 = &e; e2 = &e;
printcr(5,"signature changed %d => %s", e.inord, e.string()); PRINTCR((5,"signature changed %d => %s", e.inord, e.string()));
} }
nsigs++; nsigs++;
} }
printcr(1,"expanded %d signatures (reused %d utfs)", nsigs, nreused); PRINTCR((1,"expanded %d signatures (reused %d utfs)", nsigs, nreused));
buf.free(); buf.free();
// go expunge all references to remaining signatures: // go expunge all references to remaining signatures:
for (i = 0; i < nentries; i++) { for (i = 0; i < (int)nentries; i++) {
entry& e = entries[i]; entry& e = entries[i];
for (int j = 0; j < e.nrefs; j++) { for (int j = 0; j < e.nrefs; j++) {
entry*& e2 = e.refs[j]; entry*& e2 = e.refs[j];
@ -3028,7 +3055,7 @@ void cpool::expandSignatures() {
void cpool::initMemberIndexes() { void cpool::initMemberIndexes() {
// This function does NOT refer to any class schema. // This function does NOT refer to any class schema.
// It is totally internal to the cpool. // It is totally internal to the cpool.
int i, j, len; int i, j;
// Get the pre-existing indexes: // Get the pre-existing indexes:
int nclasses = tag_count[CONSTANT_Class]; int nclasses = tag_count[CONSTANT_Class];
@ -3047,13 +3074,13 @@ void cpool::initMemberIndexes() {
for (j = 0; j < nfields; j++) { for (j = 0; j < nfields; j++) {
entry& f = fields[j]; entry& f = fields[j];
i = f.memberClass()->inord; i = f.memberClass()->inord;
assert((uint)i < nclasses); assert(i < nclasses);
field_counts[i]++; field_counts[i]++;
} }
for (j = 0; j < nmethods; j++) { for (j = 0; j < nmethods; j++) {
entry& m = methods[j]; entry& m = methods[j];
i = m.memberClass()->inord; i = m.memberClass()->inord;
assert((uint)i < nclasses); assert(i < nclasses);
method_counts[i]++; method_counts[i]++;
} }
@ -3068,8 +3095,8 @@ void cpool::initMemberIndexes() {
// reuse field_counts and member_counts as fill pointers: // reuse field_counts and member_counts as fill pointers:
field_counts[i] = fbase; field_counts[i] = fbase;
method_counts[i] = mbase; method_counts[i] = mbase;
printcr(3, "class %d fields @%d[%d] methods @%d[%d]", PRINTCR((3, "class %d fields @%d[%d] methods @%d[%d]",
i, fbase, fc, mbase, mc); i, fbase, fc, mbase, mc));
fbase += fc+1; fbase += fc+1;
mbase += mc+1; mbase += mc+1;
// (the +1 leaves a space between every subarray) // (the +1 leaves a space between every subarray)
@ -3093,18 +3120,18 @@ void cpool::initMemberIndexes() {
#ifndef PRODUCT #ifndef PRODUCT
// Test the result immediately on every class and field. // Test the result immediately on every class and field.
int fvisited = 0, mvisited = 0; int fvisited = 0, mvisited = 0;
int prevord; int prevord, len;
for (i = 0; i < nclasses; i++) { for (i = 0; i < nclasses; i++) {
entry* cls = &classes[i]; entry* cls = &classes[i];
cpindex* fix = getFieldIndex(cls); cpindex* fix = getFieldIndex(cls);
cpindex* mix = getMethodIndex(cls); cpindex* mix = getMethodIndex(cls);
printcr(2, "field and method index for %s [%d] [%d]", PRINTCR((2, "field and method index for %s [%d] [%d]",
cls->string(), mix->len, fix->len); cls->string(), mix->len, fix->len));
prevord = -1; prevord = -1;
for (j = 0, len = fix->len; j < len; j++) { for (j = 0, len = fix->len; j < len; j++) {
entry* f = fix->get(j); entry* f = fix->get(j);
assert(f != null); assert(f != null);
printcr(3, "- field %s", f->string()); PRINTCR((3, "- field %s", f->string()));
assert(f->memberClass() == cls); assert(f->memberClass() == cls);
assert(prevord < (int)f->inord); assert(prevord < (int)f->inord);
prevord = f->inord; prevord = f->inord;
@ -3115,7 +3142,7 @@ void cpool::initMemberIndexes() {
for (j = 0, len = mix->len; j < len; j++) { for (j = 0, len = mix->len; j < len; j++) {
entry* m = mix->get(j); entry* m = mix->get(j);
assert(m != null); assert(m != null);
printcr(3, "- method %s", m->string()); PRINTCR((3, "- method %s", m->string()));
assert(m->memberClass() == cls); assert(m->memberClass() == cls);
assert(prevord < (int)m->inord); assert(prevord < (int)m->inord);
prevord = m->inord; prevord = m->inord;
@ -3164,7 +3191,7 @@ void cpool::resetOutputIndexes() {
outputEntries.empty(); outputEntries.empty();
#ifndef PRODUCT #ifndef PRODUCT
// they must all be clear now // they must all be clear now
for (i = 0; i < nentries; i++) for (i = 0; i < (int)nentries; i++)
assert(entries[i].outputIndex == NOT_REQUESTED); assert(entries[i].outputIndex == NOT_REQUESTED);
#endif #endif
} }
@ -3215,7 +3242,7 @@ void cpool::computeOutputIndexes() {
static uint checkStart = 0; static uint checkStart = 0;
int checkStep = 1; int checkStep = 1;
if (nentries > 100) checkStep = nentries / 100; if (nentries > 100) checkStep = nentries / 100;
for (i = (checkStart++ % checkStep); i < nentries; i += checkStep) { for (i = (int)(checkStart++ % checkStep); i < (int)nentries; i += checkStep) {
entry& e = entries[i]; entry& e = entries[i];
if (e.outputIndex != NOT_REQUESTED) { if (e.outputIndex != NOT_REQUESTED) {
assert(outputEntries.contains(&e)); assert(outputEntries.contains(&e));
@ -3225,7 +3252,7 @@ void cpool::computeOutputIndexes() {
} }
// check hand-initialization of TAG_ORDER // check hand-initialization of TAG_ORDER
for (i = 0; i < N_TAGS_IN_ORDER; i++) { for (i = 0; i < (int)N_TAGS_IN_ORDER; i++) {
byte tag = TAGS_IN_ORDER[i]; byte tag = TAGS_IN_ORDER[i];
assert(TAG_ORDER[tag] == i+1); assert(TAG_ORDER[tag] == i+1);
} }
@ -3247,7 +3274,7 @@ void cpool::computeOutputIndexes() {
if (e.isDoubleWord()) nextIndex++; // do not use the next index if (e.isDoubleWord()) nextIndex++; // do not use the next index
} }
outputIndexLimit = nextIndex; outputIndexLimit = nextIndex;
printcr(3,"renumbering CP to %d entries", outputIndexLimit); PRINTCR((3,"renumbering CP to %d entries", outputIndexLimit));
} }
#ifndef PRODUCT #ifndef PRODUCT
@ -3257,9 +3284,9 @@ unpacker* debug_u;
static bytes& getbuf(int len) { // for debugging only! static bytes& getbuf(int len) { // for debugging only!
static int bn = 0; static int bn = 0;
static bytes bufs[8] = { 0 }; static bytes bufs[8];
bytes& buf = bufs[bn++ & 7]; bytes& buf = bufs[bn++ & 7];
while (buf.len < len+10) while ((int)buf.len < len+10)
buf.realloc(buf.len ? buf.len * 2 : 1000); buf.realloc(buf.len ? buf.len * 2 : 1000);
buf.ptr[0] = 0; // for the sake of strcat buf.ptr[0] = 0; // for the sake of strcat
return buf; return buf;
@ -3285,7 +3312,7 @@ char* entry::string() {
case CONSTANT_Long: case CONSTANT_Long:
case CONSTANT_Double: case CONSTANT_Double:
buf = getbuf(24); buf = getbuf(24);
sprintf((char*)buf.ptr, "0x%016llx", value.l); sprintf((char*)buf.ptr, "0x" LONG_LONG_HEX_FORMAT, value.l);
break; break;
default: default:
if (nrefs == 0) { if (nrefs == 0) {
@ -3296,7 +3323,7 @@ char* entry::string() {
} else { } else {
char* s1 = refs[0]->string(); char* s1 = refs[0]->string();
char* s2 = refs[1]->string(); char* s2 = refs[1]->string();
buf = getbuf(strlen(s1) + 1 + strlen(s2) + 4 + 1); buf = getbuf((int)strlen(s1) + 1 + (int)strlen(s2) + 4 + 1);
buf.strcat(s1).strcat(" ").strcat(s2); buf.strcat(s1).strcat(" ").strcat(s2);
if (nrefs > 2) buf.strcat(" ..."); if (nrefs > 2) buf.strcat(" ...");
} }
@ -3409,7 +3436,9 @@ void unpacker::reset() {
segments_read_before_reset += 1; segments_read_before_reset += 1;
if (verbose >= 2) { if (verbose >= 2) {
fprintf(errstrm, fprintf(errstrm,
"After segment %d, %lld bytes read and %lld bytes written.\n", "After segment %d, "
LONG_LONG_FORMAT " bytes read and "
LONG_LONG_FORMAT " bytes written.\n",
segments_read_before_reset-1, segments_read_before_reset-1,
bytes_read_before_reset, bytes_written_before_reset); bytes_read_before_reset, bytes_written_before_reset);
fprintf(errstrm, fprintf(errstrm,
@ -3475,7 +3504,9 @@ void unpacker::init(read_input_fn_t input_fn) {
int i; int i;
NOT_PRODUCT(debug_u = this); NOT_PRODUCT(debug_u = this);
BYTES_OF(*this).clear(); BYTES_OF(*this).clear();
if (assert(1)) free(); // just to make sure freeing is idempotent #ifndef PRODUCT
free(); // just to make sure freeing is idempotent
#endif
this->u = this; // self-reference for U_NEW macro this->u = this; // self-reference for U_NEW macro
errstrm = stdout; // default error-output errstrm = stdout; // default error-output
log_file = LOGFILE_STDOUT; log_file = LOGFILE_STDOUT;
@ -3621,7 +3652,7 @@ void unpacker::put_stackmap_type() {
maybe_inline maybe_inline
void unpacker::put_label(int curIP, int size) { void unpacker::put_label(int curIP, int size) {
code_fixup_type.addByte(size); code_fixup_type.addByte(size);
code_fixup_offset.add(put_empty(size)); code_fixup_offset.add((int)put_empty(size));
code_fixup_source.add(curIP); code_fixup_source.add(curIP);
} }
@ -3658,7 +3689,7 @@ void unpacker::write_bc_ops() {
} }
for (int curIP = 0; ; curIP++) { for (int curIP = 0; ; curIP++) {
int curPC = wpoffset() - codeBase; int curPC = (int)(wpoffset() - codeBase);
bcimap.add(curPC); bcimap.add(curPC);
ensure_put_space(10); // covers most instrs w/o further bounds check ensure_put_space(10); // covers most instrs w/o further bounds check
int bc = *opptr++ & 0xFF; int bc = *opptr++ & 0xFF;
@ -3702,7 +3733,7 @@ void unpacker::write_bc_ops() {
put_label(curIP, 4); //int lVal = bc_label.getInt(); put_label(curIP, 4); //int lVal = bc_label.getInt();
} }
} }
assert(to_bci(curIP) == curPC); assert((int)to_bci(curIP) == curPC);
continue; continue;
} }
case bc_iinc: case bc_iinc:
@ -3805,7 +3836,7 @@ void unpacker::write_bc_ops() {
assert(bc <= bc_jsr_w); assert(bc <= bc_jsr_w);
put_label(curIP, 4); //putu4(lVal); put_label(curIP, 4); //putu4(lVal);
} }
assert(to_bci(curIP) == curPC); assert((int)to_bci(curIP) == curPC);
continue; continue;
} }
bc_which = ref_band_for_op(bc); bc_which = ref_band_for_op(bc);
@ -3880,7 +3911,7 @@ void unpacker::write_bc_ops() {
//bcimap.add(curPC); // PC limit is already also in map, from bc_end_marker //bcimap.add(curPC); // PC limit is already also in map, from bc_end_marker
// Armed with a bcimap, we can now fix up all the labels. // Armed with a bcimap, we can now fix up all the labels.
for (int i = 0; i < code_fixup_type.size(); i++) { for (int i = 0; i < (int)code_fixup_type.size(); i++) {
int type = code_fixup_type.getByte(i); int type = code_fixup_type.getByte(i);
byte* bp = wp_at(code_fixup_offset.get(i)); byte* bp = wp_at(code_fixup_offset.get(i));
int curIP = code_fixup_source.get(i); int curIP = code_fixup_source.get(i);
@ -3896,7 +3927,7 @@ void unpacker::write_bc_ops() {
inline // called exactly once => inline inline // called exactly once => inline
void unpacker::write_code() { void unpacker::write_code() {
int i, j; int j;
int max_stack, max_locals, handler_count, cflags; int max_stack, max_locals, handler_count, cflags;
get_code_header(max_stack, max_locals, handler_count, cflags); get_code_header(max_stack, max_locals, handler_count, cflags);
@ -3919,7 +3950,7 @@ void unpacker::write_code() {
CHECK; CHECK;
byte* bcbasewp = wp_at(bcbase); byte* bcbasewp = wp_at(bcbase);
putu4_at(bcbasewp, wp - (bcbasewp+4)); // size of code attr putu4_at(bcbasewp, (int)(wp - (bcbasewp+4))); // size of code attr
putu2(handler_count); putu2(handler_count);
for (j = 0; j < handler_count; j++) { for (j = 0; j < handler_count; j++) {
@ -3968,10 +3999,10 @@ int unpacker::write_attrs(int attrc, julong indexBits) {
if ((indexBits & 1) != 0) if ((indexBits & 1) != 0)
bitIndexes[biCount++] = idx; bitIndexes[biCount++] = idx;
} }
assert(biCount <= lengthof(bitIndexes)); assert(biCount <= (int)lengthof(bitIndexes));
// Write a provisional attribute count, perhaps to be corrected later. // Write a provisional attribute count, perhaps to be corrected later.
int naOffset = wpoffset(); int naOffset = (int)wpoffset();
int na0 = biCount + oiCount; int na0 = biCount + oiCount;
putu2(na0); putu2(na0);
@ -3986,7 +4017,7 @@ int unpacker::write_attrs(int attrc, julong indexBits) {
entry* ref; // scratch entry* ref; // scratch
size_t abase = put_empty(2+4); size_t abase = put_empty(2+4);
CHECK_0; CHECK_0;
if (idx < ad.flag_limit && ad.isPredefined(idx)) { if (idx < (int)ad.flag_limit && ad.isPredefined(idx)) {
// Switch on the attrc and idx simultaneously. // Switch on the attrc and idx simultaneously.
switch (ADH_BYTE(attrc, idx)) { switch (ADH_BYTE(attrc, idx)) {
@ -4020,16 +4051,16 @@ int unpacker::write_attrs(int attrc, julong indexBits) {
if (ref == null) { if (ref == null) {
bytes& n = cur_class->ref(0)->value.b; bytes& n = cur_class->ref(0)->value.b;
// parse n = (<pkg>/)*<outer>?($<id>)* // parse n = (<pkg>/)*<outer>?($<id>)*
int pkglen = lastIndexOf(SLASH_MIN, SLASH_MAX, n, n.len)+1; int pkglen = lastIndexOf(SLASH_MIN, SLASH_MAX, n, (int)n.len)+1;
bytes prefix = n.slice(pkglen, n.len); bytes prefix = n.slice(pkglen, n.len);
for (;;) { for (;;) {
// Work backwards, finding all '$', '#', etc. // Work backwards, finding all '$', '#', etc.
int dollar = lastIndexOf(DOLLAR_MIN, DOLLAR_MAX, prefix, prefix.len); int dollar = lastIndexOf(DOLLAR_MIN, DOLLAR_MAX, prefix, (int)prefix.len);
if (dollar < 0) break; if (dollar < 0) break;
prefix = prefix.slice(0, dollar); prefix = prefix.slice(0, dollar);
} }
const char* suffix = ".java"; const char* suffix = ".java";
int len = prefix.len + strlen(suffix); int len = (int)(prefix.len + strlen(suffix));
bytes name; name.set(T_NEW(byte, len + 1), len); bytes name; name.set(T_NEW(byte, len + 1), len);
name.strcat(prefix).strcat(suffix); name.strcat(prefix).strcat(suffix);
ref = cp.ensureUtf8(name); ref = cp.ensureUtf8(name);
@ -4081,7 +4112,7 @@ int unpacker::write_attrs(int attrc, julong indexBits) {
// (253) [(1)(2)(2)] // (253) [(1)(2)(2)]
// (254) [(1)(2)(2)(2)] // (254) [(1)(2)(2)(2)]
putu2(code_StackMapTable_offset.getInt()); putu2(code_StackMapTable_offset.getInt());
for (int j2 = (tag - 251); j2 > 0; j2--) { for (int k = (tag - 251); k > 0; k--) {
put_stackmap_type(); put_stackmap_type();
} }
} else { } else {
@ -4165,7 +4196,7 @@ int unpacker::write_attrs(int attrc, julong indexBits) {
abort("bad layout index"); abort("bad layout index");
break; break;
} }
assert(lo->idx == idx); assert((int)lo->idx == idx);
aname = lo->nameEntry; aname = lo->nameEntry;
if (aname == null) { if (aname == null) {
bytes nameb; nameb.set(lo->name); bytes nameb; nameb.set(lo->name);
@ -4198,7 +4229,7 @@ int unpacker::write_attrs(int attrc, julong indexBits) {
// patch the name and length // patch the name and length
putref(aname); putref(aname);
putu4(wp1 - (wp+4)); // put the attr size putu4((int)(wp1 - (wp+4))); // put the attr size
wp = wp1; wp = wp1;
na++; // count the attrs actually written na++; // count the attrs actually written
} }
@ -4279,7 +4310,7 @@ void unpacker::write_classfile_tail() {
cur_class_has_local_ics = false; // may be set true by write_attrs cur_class_has_local_ics = false; // may be set true by write_attrs
int naOffset = wpoffset(); int naOffset = (int)wpoffset();
int na = write_attrs(ATTR_CONTEXT_CLASS, (kflags & indexMask)); int na = write_attrs(ATTR_CONTEXT_CLASS, (kflags & indexMask));
@ -4448,7 +4479,7 @@ void unpacker::write_classfile_head() {
putu1(tag); putu1(tag);
switch (tag) { switch (tag) {
case CONSTANT_Utf8: case CONSTANT_Utf8:
putu2(e.value.b.len); putu2((int)e.value.b.len);
put_bytes(e.value.b); put_bytes(e.value.b);
break; break;
case CONSTANT_Integer: case CONSTANT_Integer:
@ -4479,7 +4510,7 @@ void unpacker::write_classfile_head() {
#ifndef PRODUCT #ifndef PRODUCT
total_cp_size[0] += cp.outputIndexLimit; total_cp_size[0] += cp.outputIndexLimit;
total_cp_size[1] += cur_classfile_head.size(); total_cp_size[1] += (int)cur_classfile_head.size();
#endif #endif
close_output(); close_output();
} }
@ -4544,7 +4575,7 @@ unpacker::file* unpacker::get_next_file() {
if (cur_file.name[0] == '\0') { if (cur_file.name[0] == '\0') {
bytes& prefix = cur_class->ref(0)->value.b; bytes& prefix = cur_class->ref(0)->value.b;
const char* suffix = ".class"; const char* suffix = ".class";
int len = prefix.len + strlen(suffix); int len = (int)(prefix.len + strlen(suffix));
bytes name; name.set(T_NEW(byte, len + 1), len); bytes name; name.set(T_NEW(byte, len + 1), len);
cur_file.name = name.strcat(prefix).strcat(suffix).strval(); cur_file.name = name.strcat(prefix).strcat(suffix).strval();
} }
@ -4564,7 +4595,7 @@ unpacker::file* unpacker::get_next_file() {
} }
if (rpleft < cur_file.size) { if (rpleft < cur_file.size) {
// Caller must read the rest. // Caller must read the rest.
size_t fleft = cur_file.size - rpleft; size_t fleft = (size_t)cur_file.size - rpleft;
bytes_read += fleft; // Credit it to the overall archive size. bytes_read += fleft; // Credit it to the overall archive size.
} }
} }
@ -4580,7 +4611,7 @@ void unpacker::write_file_to_jar(unpacker::file* f) {
julong fsize = f->size; julong fsize = f->size;
#ifndef PRODUCT #ifndef PRODUCT
if (nowrite NOT_PRODUCT(|| skipfiles-- > 0)) { if (nowrite NOT_PRODUCT(|| skipfiles-- > 0)) {
printcr(2,"would write %d bytes to %s", (int) fsize, f->name); PRINTCR((2,"would write %d bytes to %s", (int) fsize, f->name));
return; return;
} }
#endif #endif
@ -4623,7 +4654,8 @@ void unpacker::write_file_to_jar(unpacker::file* f) {
part1, part2); part1, part2);
} }
if (verbose >= 3) { if (verbose >= 3) {
fprintf(errstrm, "Wrote %lld bytes to: %s\n", fsize, f->name); fprintf(errstrm, "Wrote "
LONG_LONG_FORMAT " bytes to: %s\n", fsize, f->name);
} }
} }

View file

@ -1,5 +1,5 @@
/* /*
* Copyright 2002-2005 Sun Microsystems, Inc. All Rights Reserved. * Copyright 2002-2008 Sun Microsystems, Inc. All Rights Reserved.
* DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER. * DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER.
* *
* This code is free software; you can redistribute it and/or modify it * This code is free software; you can redistribute it and/or modify it
@ -314,7 +314,7 @@ struct unpacker {
void readBandData(band** body, uint count); // recursive helper void readBandData(band** body, uint count); // recursive helper
layout_definition* getLayout(uint idx) { layout_definition* getLayout(uint idx) {
if (idx >= layouts.length()) return null; if (idx >= (uint)layouts.length()) return null;
return (layout_definition*) layouts.get(idx); return (layout_definition*) layouts.get(idx);
} }
@ -332,12 +332,12 @@ struct unpacker {
int predefCount(uint idx); int predefCount(uint idx);
bool isRedefined(uint idx) { bool isRedefined(uint idx) {
assert(idx < flag_limit); if (idx >= flag_limit) return false;
return ((redef >> idx) & 1); return (bool)((redef >> idx) & 1);
} }
bool isPredefined(uint idx) { bool isPredefined(uint idx) {
assert(idx < flag_limit); if (idx >= flag_limit) return false;
return (((predef & ~redef) >> idx) & 1); return (bool)(((predef & ~redef) >> idx) & 1);
} }
julong flagIndexMask() { julong flagIndexMask() {
return (predef | redef); return (predef | redef);
@ -345,9 +345,9 @@ struct unpacker {
bool isIndex(uint idx) { bool isIndex(uint idx) {
assert(flag_limit != 0); // must be set up already assert(flag_limit != 0); // must be set up already
if (idx < flag_limit) if (idx < flag_limit)
return (((predef | redef) >> idx) & 1); return (bool)(((predef | redef) >> idx) & 1);
else else
return (idx - flag_limit < overflow_count.length()); return (idx - flag_limit < (uint)overflow_count.length());
} }
int& getCount(uint idx) { int& getCount(uint idx) {
assert(isIndex(idx)); assert(isIndex(idx));

View file

@ -1,5 +1,5 @@
/* /*
* Copyright 2001-2004 Sun Microsystems, Inc. All Rights Reserved. * Copyright 2001-2008 Sun Microsystems, Inc. All Rights Reserved.
* DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER. * DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER.
* *
* This code is free software; you can redistribute it and/or modify it * This code is free software; you can redistribute it and/or modify it
@ -65,7 +65,7 @@ void* must_malloc(int size) {
void mkdirs(int oklen, char* path) { void mkdirs(int oklen, char* path) {
if (strlen(path) <= oklen) return; if (strlen(path) <= (size_t)oklen) return;
char dir[PATH_MAX]; char dir[PATH_MAX];
strcpy(dir, path); strcpy(dir, path);
@ -79,12 +79,13 @@ void mkdirs(int oklen, char* path) {
#ifndef PRODUCT #ifndef PRODUCT
void breakpoint() { } // hook for debugger void breakpoint() { } // hook for debugger
void assert_failed(const char* p) { int assert_failed(const char* p) {
char message[1<<12]; char message[1<<12];
sprintf(message, "@assert failed: %s\n", p); sprintf(message, "@assert failed: %s\n", p);
fprintf(stdout, 1+message); fprintf(stdout, 1+message);
breakpoint(); breakpoint();
unpack_abort(message); unpack_abort(message);
return 0;
} }
#endif #endif

View file

@ -1,5 +1,5 @@
/* /*
* Copyright 2001-2003 Sun Microsystems, Inc. All Rights Reserved. * Copyright 2001-2008 Sun Microsystems, Inc. All Rights Reserved.
* DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER. * DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER.
* *
* This code is free software; you can redistribute it and/or modify it * This code is free software; you can redistribute it and/or modify it
@ -27,7 +27,7 @@
void* must_malloc(int size); void* must_malloc(int size);
#ifndef USE_MTRACE #ifndef USE_MTRACE
#define mtrace(c, ptr, size) (0) #define mtrace(c, ptr, size)
#else #else
void mtrace(char c, void* ptr, size_t size); void mtrace(char c, void* ptr, size_t size);
#endif #endif

View file

@ -1,5 +1,5 @@
/* /*
* Copyright 2001-2005 Sun Microsystems, Inc. All Rights Reserved. * Copyright 2001-2008 Sun Microsystems, Inc. All Rights Reserved.
* DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER. * DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER.
* *
* This code is free software; you can redistribute it and/or modify it * This code is free software; you can redistribute it and/or modify it
@ -85,7 +85,7 @@ void jar::init(unpacker* u_) {
// Write data to the ZIP output stream. // Write data to the ZIP output stream.
void jar::write_data(void* buff, int len) { void jar::write_data(void* buff, int len) {
while (len > 0) { while (len > 0) {
int rc = fwrite(buff, 1, len, jarfp); int rc = (int)fwrite(buff, 1, len, jarfp);
if (rc <= 0) { if (rc <= 0) {
fprintf(u->errstrm, "Error: write on output file failed err=%d\n",errno); fprintf(u->errstrm, "Error: write on output file failed err=%d\n",errno);
exit(1); // Called only from the native standalone unpacker exit(1); // Called only from the native standalone unpacker
@ -98,17 +98,17 @@ void jar::write_data(void* buff, int len) {
void jar::add_to_jar_directory(const char* fname, bool store, int modtime, void jar::add_to_jar_directory(const char* fname, bool store, int modtime,
int len, int clen, uLong crc) { int len, int clen, uLong crc) {
uint fname_length = strlen(fname); uint fname_length = (uint)strlen(fname);
ushort header[23]; ushort header[23];
if (modtime == 0) modtime = default_modtime; if (modtime == 0) modtime = default_modtime;
uLong dostime = get_dostime(modtime); uLong dostime = get_dostime(modtime);
header[0] = SWAP_BYTES(0x4B50); header[0] = (ushort)SWAP_BYTES(0x4B50);
header[1] = SWAP_BYTES(0x0201); header[1] = (ushort)SWAP_BYTES(0x0201);
header[2] = SWAP_BYTES(0xA); header[2] = (ushort)SWAP_BYTES(0xA);
// required version // required version
header[3] = SWAP_BYTES(0xA); header[3] = (ushort)SWAP_BYTES(0xA);
// flags 02 = maximum sub-compression flag // flags 02 = maximum sub-compression flag
header[4] = ( store ) ? 0x0 : SWAP_BYTES(0x2); header[4] = ( store ) ? 0x0 : SWAP_BYTES(0x2);
@ -117,23 +117,23 @@ void jar::add_to_jar_directory(const char* fname, bool store, int modtime,
header[5] = ( store ) ? 0x0 : SWAP_BYTES(0x08); header[5] = ( store ) ? 0x0 : SWAP_BYTES(0x08);
// Last modified date and time. // Last modified date and time.
header[6] = GET_INT_LO(dostime); header[6] = (ushort)GET_INT_LO(dostime);
header[7] = GET_INT_HI(dostime); header[7] = (ushort)GET_INT_HI(dostime);
// CRC // CRC
header[8] = GET_INT_LO(crc); header[8] = (ushort)GET_INT_LO(crc);
header[9] = GET_INT_HI(crc); header[9] = (ushort)GET_INT_HI(crc);
// Compressed length: // Compressed length:
header[10] = GET_INT_LO(clen); header[10] = (ushort)GET_INT_LO(clen);
header[11] = GET_INT_HI(clen); header[11] = (ushort)GET_INT_HI(clen);
// Uncompressed length. // Uncompressed length.
header[12] = GET_INT_LO(len); header[12] = (ushort)GET_INT_LO(len);
header[13] = GET_INT_HI(len); header[13] = (ushort)GET_INT_HI(len);
// Filename length // Filename length
header[14] = SWAP_BYTES(fname_length); header[14] = (ushort)SWAP_BYTES(fname_length);
// So called "extra field" length. // So called "extra field" length.
header[15] = 0; header[15] = 0;
// So called "comment" length. // So called "comment" length.
@ -146,8 +146,8 @@ void jar::add_to_jar_directory(const char* fname, bool store, int modtime,
header[19] = 0; header[19] = 0;
header[20] = 0; header[20] = 0;
// Offset within ZIP file. // Offset within ZIP file.
header[21] = GET_INT_LO(output_file_offset); header[21] = (ushort)GET_INT_LO(output_file_offset);
header[22] = GET_INT_HI(output_file_offset); header[22] = (ushort)GET_INT_HI(output_file_offset);
// Copy the whole thing into the central directory. // Copy the whole thing into the central directory.
central_directory.append(header, sizeof(header)); central_directory.append(header, sizeof(header));
@ -160,17 +160,17 @@ void jar::add_to_jar_directory(const char* fname, bool store, int modtime,
void jar::write_jar_header(const char* fname, bool store, int modtime, void jar::write_jar_header(const char* fname, bool store, int modtime,
int len, int clen, uint crc) { int len, int clen, uint crc) {
uint fname_length = strlen(fname); uint fname_length = (uint)strlen(fname);
ushort header[15]; ushort header[15];
if (modtime == 0) modtime = default_modtime; if (modtime == 0) modtime = default_modtime;
uLong dostime = get_dostime(modtime); uLong dostime = get_dostime(modtime);
// ZIP LOC magic. // ZIP LOC magic.
header[0] = SWAP_BYTES(0x4B50); header[0] = (ushort)SWAP_BYTES(0x4B50);
header[1] = SWAP_BYTES(0x0403); header[1] = (ushort)SWAP_BYTES(0x0403);
// Version // Version
header[2] = SWAP_BYTES(0xA); header[2] = (ushort)SWAP_BYTES(0xA);
// flags 02 = maximum sub-compression flag // flags 02 = maximum sub-compression flag
header[3] = ( store ) ? 0x0 : SWAP_BYTES(0x2); header[3] = ( store ) ? 0x0 : SWAP_BYTES(0x2);
@ -179,31 +179,31 @@ void jar::write_jar_header(const char* fname, bool store, int modtime,
header[4] = ( store ) ? 0x0 : SWAP_BYTES(0x08); header[4] = ( store ) ? 0x0 : SWAP_BYTES(0x08);
// Last modified date and time. // Last modified date and time.
header[5] = GET_INT_LO(dostime); header[5] = (ushort)GET_INT_LO(dostime);
header[6] = GET_INT_HI(dostime); header[6] = (ushort)GET_INT_HI(dostime);
// CRC // CRC
header[7] = GET_INT_LO(crc); header[7] = (ushort)GET_INT_LO(crc);
header[8] = GET_INT_HI(crc); header[8] = (ushort)GET_INT_HI(crc);
// Compressed length: // Compressed length:
header[9] = GET_INT_LO(clen); header[9] = (ushort)GET_INT_LO(clen);
header[10] = GET_INT_HI(clen); header[10] = (ushort)GET_INT_HI(clen);
// Uncompressed length. // Uncompressed length.
header[11] = GET_INT_LO(len); header[11] = (ushort)GET_INT_LO(len);
header[12] = GET_INT_HI(len); header[12] = (ushort)GET_INT_HI(len);
// Filename length // Filename length
header[13] = SWAP_BYTES(fname_length); header[13] = (ushort)SWAP_BYTES(fname_length);
// So called "extra field" length. // So called "extra field" length.
header[14] = 0; header[14] = 0;
// Write the LOC header to the output file. // Write the LOC header to the output file.
write_data(header, sizeof(header)); write_data(header, (int)sizeof(header));
// Copy the fname to the header. // Copy the fname to the header.
write_data((char*)fname, fname_length); write_data((char*)fname, (int)fname_length);
} }
static const char marker_comment[] = ZIP_ARCHIVE_MARKER_COMMENT; static const char marker_comment[] = ZIP_ARCHIVE_MARKER_COMMENT;
@ -214,32 +214,32 @@ void jar::write_central_directory() {
ushort header[11]; ushort header[11];
// Create the End of Central Directory structure. // Create the End of Central Directory structure.
header[0] = SWAP_BYTES(0x4B50); header[0] = (ushort)SWAP_BYTES(0x4B50);
header[1] = SWAP_BYTES(0x0605); header[1] = (ushort)SWAP_BYTES(0x0605);
// disk numbers // disk numbers
header[2] = 0; header[2] = 0;
header[3] = 0; header[3] = 0;
// Number of entries in central directory. // Number of entries in central directory.
header[4] = SWAP_BYTES(central_directory_count); header[4] = (ushort)SWAP_BYTES(central_directory_count);
header[5] = SWAP_BYTES(central_directory_count); header[5] = (ushort)SWAP_BYTES(central_directory_count);
// Size of the central directory} // Size of the central directory}
header[6] = GET_INT_LO(central_directory.size()); header[6] = (ushort)GET_INT_LO((int)central_directory.size());
header[7] = GET_INT_HI(central_directory.size()); header[7] = (ushort)GET_INT_HI((int)central_directory.size());
// Offset of central directory within disk. // Offset of central directory within disk.
header[8] = GET_INT_LO(output_file_offset); header[8] = (ushort)GET_INT_LO(output_file_offset);
header[9] = GET_INT_HI(output_file_offset); header[9] = (ushort)GET_INT_HI(output_file_offset);
// zipfile comment length; // zipfile comment length;
header [10] = SWAP_BYTES(mc.len); header [10] = (ushort)SWAP_BYTES((int)mc.len);
// Write the central directory. // Write the central directory.
printcr(2, "Central directory at %d\n", output_file_offset); PRINTCR((2, "Central directory at %d\n", output_file_offset));
write_data(central_directory.b); write_data(central_directory.b);
// Write the End of Central Directory structure. // Write the End of Central Directory structure.
printcr(2, "end-of-directory at %d\n", output_file_offset); PRINTCR((2, "end-of-directory at %d\n", output_file_offset));
write_data(header, sizeof(header)); write_data(header, (int)sizeof(header));
printcr(2, "writing zip comment\n"); PRINTCR((2, "writing zip comment\n"));
// Write the comment. // Write the comment.
write_data(mc); write_data(mc);
} }
@ -249,7 +249,7 @@ void jar::write_central_directory() {
// Open a Jar file and initialize. // Open a Jar file and initialize.
void jar::openJarFile(const char* fname) { void jar::openJarFile(const char* fname) {
if (!jarfp) { if (!jarfp) {
printcr(1, "jar::openJarFile: opening %s\n",fname); PRINTCR((1, "jar::openJarFile: opening %s\n",fname));
jarfp = fopen(fname, "wb"); jarfp = fopen(fname, "wb");
if (!jarfp) { if (!jarfp) {
fprintf(u->errstrm, "Error: Could not open jar file: %s\n",fname); fprintf(u->errstrm, "Error: Could not open jar file: %s\n",fname);
@ -262,25 +262,25 @@ void jar::openJarFile(const char* fname) {
void jar::addJarEntry(const char* fname, void jar::addJarEntry(const char* fname,
bool deflate_hint, int modtime, bool deflate_hint, int modtime,
bytes& head, bytes& tail) { bytes& head, bytes& tail) {
int len = head.len + tail.len; int len = (int)(head.len + tail.len);
int clen = 0; int clen = 0;
uint crc = get_crc32(0L,Z_NULL,0); uint crc = get_crc32(0,Z_NULL,0);
if (head.len != 0) if (head.len != 0)
crc = get_crc32(crc, (uchar *)head.ptr, head.len); crc = get_crc32(crc, (uchar *)head.ptr, (uint)head.len);
if (tail.len != 0) if (tail.len != 0)
crc = get_crc32(crc, (uchar *)tail.ptr, tail.len); crc = get_crc32(crc, (uchar *)tail.ptr, (uint)tail.len);
bool deflate = (deflate_hint && len > 0); bool deflate = (deflate_hint && len > 0);
if (deflate) { if (deflate) {
if (deflate_bytes(head, tail) == false) { if (deflate_bytes(head, tail) == false) {
printcr(2, "Reverting to store fn=%s\t%d -> %d\n", PRINTCR((2, "Reverting to store fn=%s\t%d -> %d\n",
fname, len, deflated.size()); fname, len, deflated.size()));
deflate = false; deflate = false;
} }
} }
clen = (deflate) ? deflated.size() : len; clen = (int)((deflate) ? deflated.size() : len);
add_to_jar_directory(fname, !deflate, modtime, len, clen, crc); add_to_jar_directory(fname, !deflate, modtime, len, clen, crc);
write_jar_header( fname, !deflate, modtime, len, clen, crc); write_jar_header( fname, !deflate, modtime, len, clen, crc);
@ -306,7 +306,7 @@ void jar::closeJarFile(bool central) {
if (central) write_central_directory(); if (central) write_central_directory();
fflush(jarfp); fflush(jarfp);
fclose(jarfp); fclose(jarfp);
printcr(2, "jar::closeJarFile:closed jar-file\n"); PRINTCR((2, "jar::closeJarFile:closed jar-file\n"));
} }
reset(); reset();
} }
@ -338,6 +338,7 @@ uLong jar::get_dostime(int modtime) {
default_modtime = modtime; // catch a reasonable default default_modtime = modtime; // catch a reasonable default
time_t t = modtime; time_t t = modtime;
struct tm sbuf; struct tm sbuf;
(void)memset((void*)&sbuf,0, sizeof(sbuf));
struct tm* s = gmtime_r(&t, &sbuf); struct tm* s = gmtime_r(&t, &sbuf);
modtime_cache = modtime; modtime_cache = modtime;
dostime_cache = dostime(s->tm_year + 1900, s->tm_mon + 1, s->tm_mday, dostime_cache = dostime(s->tm_year + 1900, s->tm_mon + 1, s->tm_mday,
@ -355,7 +356,7 @@ uLong jar::get_dostime(int modtime) {
input data input data
*/ */
bool jar::deflate_bytes(bytes& head, bytes& tail) { bool jar::deflate_bytes(bytes& head, bytes& tail) {
int len = head.len + tail.len; int len = (int)(head.len + tail.len);
z_stream zs; z_stream zs;
BYTES_OF(zs).clear(); BYTES_OF(zs).clear();
@ -368,26 +369,26 @@ bool jar::deflate_bytes(bytes& head, bytes& tail) {
if (error != Z_OK) { if (error != Z_OK) {
switch (error) { switch (error) {
case Z_MEM_ERROR: case Z_MEM_ERROR:
printcr(2, "Error: deflate error : Out of memory \n"); PRINTCR((2, "Error: deflate error : Out of memory \n"));
break; break;
case Z_STREAM_ERROR: case Z_STREAM_ERROR:
printcr(2,"Error: deflate error : Invalid compression level \n"); PRINTCR((2,"Error: deflate error : Invalid compression level \n"));
break; break;
case Z_VERSION_ERROR: case Z_VERSION_ERROR:
printcr(2,"Error: deflate error : Invalid version\n"); PRINTCR((2,"Error: deflate error : Invalid version\n"));
break; break;
default: default:
printcr(2,"Error: Internal deflate error error = %d\n", error); PRINTCR((2,"Error: Internal deflate error error = %d\n", error));
} }
return false; return false;
} }
deflated.empty(); deflated.empty();
zs.next_out = (uchar*) deflated.grow(len + (len/2)); zs.next_out = (uchar*) deflated.grow(len + (len/2));
zs.avail_out = deflated.size(); zs.avail_out = (int)deflated.size();
zs.next_in = (uchar*)head.ptr; zs.next_in = (uchar*)head.ptr;
zs.avail_in = head.len; zs.avail_in = (int)head.len;
bytes* first = &head; bytes* first = &head;
bytes* last = &tail; bytes* last = &tail;
@ -400,28 +401,28 @@ bool jar::deflate_bytes(bytes& head, bytes& tail) {
if (first != null && error == Z_OK) { if (first != null && error == Z_OK) {
zs.next_in = (uchar*) first->ptr; zs.next_in = (uchar*) first->ptr;
zs.avail_in = first->len; zs.avail_in = (int)first->len;
error = deflate(&zs, Z_NO_FLUSH); error = deflate(&zs, Z_NO_FLUSH);
} }
if (error == Z_OK) { if (error == Z_OK) {
zs.next_in = (uchar*) last->ptr; zs.next_in = (uchar*) last->ptr;
zs.avail_in = last->len; zs.avail_in = (int)last->len;
error = deflate(&zs, Z_FINISH); error = deflate(&zs, Z_FINISH);
} }
if (error == Z_STREAM_END) { if (error == Z_STREAM_END) {
if (len > zs.total_out ) { if (len > (int)zs.total_out ) {
printcr(2, "deflate compressed data %d -> %d\n", len, zs.total_out); PRINTCR((2, "deflate compressed data %d -> %d\n", len, zs.total_out));
deflated.b.len = zs.total_out; deflated.b.len = zs.total_out;
deflateEnd(&zs); deflateEnd(&zs);
return true; return true;
} }
printcr(2, "deflate expanded data %d -> %d\n", len, zs.total_out); PRINTCR((2, "deflate expanded data %d -> %d\n", len, zs.total_out));
deflateEnd(&zs); deflateEnd(&zs);
return false; return false;
} }
deflateEnd(&zs); deflateEnd(&zs);
printcr(2, "Error: deflate error deflate did not finish error=%d\n",error); PRINTCR((2, "Error: deflate error deflate did not finish error=%d\n",error));
return false; return false;
} }
@ -486,7 +487,7 @@ void gunzip::init(unpacker* u_) {
BYTES_OF(*this).clear(); BYTES_OF(*this).clear();
u = u_; u = u_;
assert(u->gzin == null); // once only, please assert(u->gzin == null); // once only, please
read_input_fn = (void*)(intptr_t)u->read_input_fn; read_input_fn = (void*)u->read_input_fn;
zstream = NEW(z_stream, 1); zstream = NEW(z_stream, 1);
u->gzin = this; u->gzin = this;
u->read_input_fn = read_input_via_gzip; u->read_input_fn = read_input_via_gzip;
@ -555,7 +556,7 @@ void gunzip::read_fixed_field(char* buf, size_t buflen) {
if (aborting()) return; if (aborting()) return;
jlong nr = ((unpacker::read_input_fn_t)read_input_fn) jlong nr = ((unpacker::read_input_fn_t)read_input_fn)
(u, buf, buflen, buflen); (u, buf, buflen, buflen);
if (nr != buflen) if ((size_t)nr != buflen)
u->abort("short stream header"); u->abort("short stream header");
} }

View file

@ -1,5 +1,5 @@
/* /*
* Copyright 2001-2004 Sun Microsystems, Inc. All Rights Reserved. * Copyright 2001-2008 Sun Microsystems, Inc. All Rights Reserved.
* DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER. * DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER.
* *
* This code is free software; you can redistribute it and/or modify it * This code is free software; you can redistribute it and/or modify it
@ -69,7 +69,7 @@ struct jar {
// Private Methods // Private Methods
void write_data(void* ptr, int len); void write_data(void* ptr, int len);
void write_data(bytes& b) { write_data(b.ptr, b.len); } void write_data(bytes& b) { write_data(b.ptr, (int)b.len); }
void add_to_jar_directory(const char* fname, bool store, int modtime, void add_to_jar_directory(const char* fname, bool store, int modtime,
int len, int clen, uLong crc); int len, int clen, uLong crc);
void write_jar_header(const char* fname, bool store, int modtime, void write_jar_header(const char* fname, bool store, int modtime,