status_t BlobCache::unflatten(void const* buffer, size_t size, int fds[],
size_t count) {
// All errors should result in the BlobCache being in an empty state.
mCacheEntries.clear();
if (count != 0) {
ALOGE("unflatten: nonzero fd count: %d", count);
return BAD_VALUE;
}
// Read the cache header
if (size < sizeof(Header)) {
ALOGE("unflatten: not enough room for cache header");
return BAD_VALUE;
}
const Header* header = reinterpret_cast<const Header*>(buffer);
if (header->mMagicNumber != blobCacheMagic) {
ALOGE("unflatten: bad magic number: %d", header->mMagicNumber);
return BAD_VALUE;
}
if (header->mBlobCacheVersion != blobCacheVersion ||
header->mDeviceVersion != blobCacheDeviceVersion) {
// We treat version mismatches as an empty cache.
return OK;
}
// Read cache entries
const uint8_t* byteBuffer = reinterpret_cast<const uint8_t*>(buffer);
off_t byteOffset = align4(sizeof(Header));
size_t numEntries = header->mNumEntries;
for (size_t i = 0; i < numEntries; i++) {
if (byteOffset + sizeof(EntryHeader) > size) {
mCacheEntries.clear();
ALOGE("unflatten: not enough room for cache entry headers");
return BAD_VALUE;
}
const EntryHeader* eheader = reinterpret_cast<const EntryHeader*>(
&byteBuffer[byteOffset]);
size_t keySize = eheader->mKeySize;
size_t valueSize = eheader->mValueSize;
size_t entrySize = sizeof(EntryHeader) + keySize + valueSize;
if (byteOffset + entrySize > size) {
mCacheEntries.clear();
ALOGE("unflatten: not enough room for cache entry headers");
return BAD_VALUE;
}
const uint8_t* data = eheader->mData;
set(data, keySize, data + keySize, valueSize);
byteOffset += align4(entrySize);
}
return OK;
}
size_t BlobCache::getFlattenedSize() const {
size_t size = align4(sizeof(Header) + PROPERTY_VALUE_MAX);
for (const CacheEntry& e : mCacheEntries) {
std::shared_ptr<Blob> const& keyBlob = e.getKey();
std::shared_ptr<Blob> const& valueBlob = e.getValue();
size += align4(sizeof(EntryHeader) + keyBlob->getSize() + valueBlob->getSize());
}
return size;
}
int BlobCache::unflatten(void const* buffer, size_t size) {
// All errors should result in the BlobCache being in an empty state.
mCacheEntries.clear();
// Read the cache header
if (size < sizeof(Header)) {
ALOGE("unflatten: not enough room for cache header");
return -EINVAL;
}
const Header* header = reinterpret_cast<const Header*>(buffer);
if (header->mMagicNumber != blobCacheMagic) {
ALOGE("unflatten: bad magic number: %" PRIu32, header->mMagicNumber);
return -EINVAL;
}
char buildId[PROPERTY_VALUE_MAX];
int len = property_get("ro.build.id", buildId, "");
if (header->mBlobCacheVersion != blobCacheVersion ||
header->mDeviceVersion != blobCacheDeviceVersion ||
len != header->mBuildIdLength ||
strncmp(buildId, header->mBuildId, len)) {
// We treat version mismatches as an empty cache.
return 0;
}
// Read cache entries
const uint8_t* byteBuffer = reinterpret_cast<const uint8_t*>(buffer);
off_t byteOffset = align4(sizeof(Header) + header->mBuildIdLength);
size_t numEntries = header->mNumEntries;
for (size_t i = 0; i < numEntries; i++) {
if (byteOffset + sizeof(EntryHeader) > size) {
mCacheEntries.clear();
ALOGE("unflatten: not enough room for cache entry header");
return -EINVAL;
}
const EntryHeader* eheader = reinterpret_cast<const EntryHeader*>(
&byteBuffer[byteOffset]);
size_t keySize = eheader->mKeySize;
size_t valueSize = eheader->mValueSize;
size_t entrySize = sizeof(EntryHeader) + keySize + valueSize;
size_t totalSize = align4(entrySize);
if (byteOffset + totalSize > size) {
mCacheEntries.clear();
ALOGE("unflatten: not enough room for cache entry");
return -EINVAL;
}
const uint8_t* data = eheader->mData;
set(data, keySize, data + keySize, valueSize);
byteOffset += totalSize;
}
return 0;
}
status_t BlobCache::flatten(void* buffer, size_t size) const {
// Write the cache header
if (size < sizeof(Header)) {
ALOGE("flatten: not enough room for cache header");
return BAD_VALUE;
}
Header* header = reinterpret_cast<Header*>(buffer);
header->mMagicNumber = blobCacheMagic;
header->mBlobCacheVersion = blobCacheVersion;
header->mDeviceVersion = blobCacheDeviceVersion;
header->mNumEntries = mCacheEntries.size();
char buildId[PROPERTY_VALUE_MAX];
header->mBuildIdLength = property_get("ro.build.id", buildId, "");
memcpy(header->mBuildId, buildId, header->mBuildIdLength);
// Write cache entries
uint8_t* byteBuffer = reinterpret_cast<uint8_t*>(buffer);
off_t byteOffset = align4(sizeof(Header) + header->mBuildIdLength);
for (size_t i = 0; i < mCacheEntries.size(); i++) {
const CacheEntry& e(mCacheEntries[i]);
sp<Blob> keyBlob = e.getKey();
sp<Blob> valueBlob = e.getValue();
size_t keySize = keyBlob->getSize();
size_t valueSize = valueBlob->getSize();
size_t entrySize = sizeof(EntryHeader) + keySize + valueSize;
size_t totalSize = align4(entrySize);
if (byteOffset + totalSize > size) {
ALOGE("flatten: not enough room for cache entries");
return BAD_VALUE;
}
EntryHeader* eheader = reinterpret_cast<EntryHeader*>(
&byteBuffer[byteOffset]);
eheader->mKeySize = keySize;
eheader->mValueSize = valueSize;
memcpy(eheader->mData, keyBlob->getData(), keySize);
memcpy(eheader->mData + keySize, valueBlob->getData(), valueSize);
if (totalSize > entrySize) {
// We have padding bytes. Those will get written to storage, and contribute to the CRC,
// so make sure we zero-them to have reproducible results.
memset(eheader->mData + keySize + valueSize, 0, totalSize - entrySize);
}
byteOffset += totalSize;
}
return OK;
}
void* mm_realloc(void* ptr, size_t size)
{
#ifdef MM_USE_STUBS
return realloc(ptr, size);
#else
if(size==0){
free(ptr);
return ptr;
}
if(!ptr)
return malloc(size);
t_block last;
t_block b = valid_addr(ptr,&last);
if(!b)
return ptr;
size_t s = align4(size);
if(b->size >= s){
if(b->size > s+BLOCK_SIZE+4)
split_block(b,s);
return ptr;
}
void *new = malloc(s);
if(!new)
return NULL;
size_t i,s4,*sp,*newp;
s4=s/(sizeof(size_t));
sp=(size_t*)(p);
newp=(size_t*)(new);
for(i=0;i<s4;i++)
newp[i]=sp[i];
free(ptr);
return new;
//#error Not implemented.
#endif
}
void* mm_malloc(size_t size)
{
#ifdef MM_USE_STUBS
return calloc(1, size);
#else
s_block_ptr block, last;
size_t s;
s = align4(size);
if(foot){
last = foot;
block = find_block(last, s);
if(block){
if((block->size - s) >= (BLOCK_SIZE + 4)) split_block(block, s);
block->free = 0;
}
else{
block = extend_heap(last, s);
if(!block) return NULL;
}
}
else{
block = extend_heap(NULL, s);
if(!block) return NULL;
foot = block;
}
return block->data;
//#error Not implemented.
#endif
}
status_t BlobCache::flatten(void* buffer, size_t size, int fds[], size_t count)
const {
if (count != 0) {
ALOGE("flatten: nonzero fd count: %d", count);
return BAD_VALUE;
}
// Write the cache header
if (size < sizeof(Header)) {
ALOGE("flatten: not enough room for cache header");
return BAD_VALUE;
}
Header* header = reinterpret_cast<Header*>(buffer);
header->mMagicNumber = blobCacheMagic;
header->mBlobCacheVersion = blobCacheVersion;
header->mDeviceVersion = blobCacheDeviceVersion;
header->mNumEntries = mCacheEntries.size();
// Write cache entries
uint8_t* byteBuffer = reinterpret_cast<uint8_t*>(buffer);
off_t byteOffset = align4(sizeof(Header));
for (size_t i = 0; i < mCacheEntries.size(); i++) {
const CacheEntry& e(mCacheEntries[i]);
sp<Blob> keyBlob = e.getKey();
sp<Blob> valueBlob = e.getValue();
size_t keySize = keyBlob->getSize();
size_t valueSize = valueBlob->getSize();
size_t entrySize = sizeof(EntryHeader) + keySize + valueSize;
if (byteOffset + entrySize > size) {
ALOGE("flatten: not enough room for cache entries");
return BAD_VALUE;
}
EntryHeader* eheader = reinterpret_cast<EntryHeader*>(
&byteBuffer[byteOffset]);
eheader->mKeySize = keySize;
eheader->mValueSize = valueSize;
memcpy(eheader->mData, keyBlob->getData(), keySize);
memcpy(eheader->mData + keySize, valueBlob->getData(), valueSize);
byteOffset += align4(entrySize);
}
return OK;
}
/*! A strdup version that aligns on 4 bytes. To avoid warning from valgrind */
static inline char * strdup4(char *str)
{
char *dup;
int len;
len = align4(strlen(str)+1);
if ((dup = malloc(len)) == NULL)
return NULL;
strncpy(dup, str, len);
return dup;
}
void QPAGenerator::writeHeader()
{
QFontEngineQPA::Header header;
header.magic[0] = 'Q';
header.magic[1] = 'P';
header.magic[2] = 'F';
header.magic[3] = '2';
header.lock = 1;
header.majorVersion = QFontEngineQPA::CurrentMajorVersion;
header.minorVersion = QFontEngineQPA::CurrentMinorVersion;
header.dataSize = 0;
dev->write((const char *)&header, sizeof(header));
writeTaggedString(QFontEngineQPA::Tag_FontName, fe->fontDef.family.toUtf8());
QFontEngine::FaceId face = fe->faceId();
writeTaggedString(QFontEngineQPA::Tag_FileName, face.filename);
writeTaggedUInt32(QFontEngineQPA::Tag_FileIndex, face.index);
{
uchar data[4];
uint len = 4;
bool ok = fe->getSfntTableData(MAKE_TAG('h', 'e', 'a', 'd'), data, &len);
if (ok) {
const quint32 revision = qFromBigEndian<quint32>(data);
writeTaggedUInt32(QFontEngineQPA::Tag_FontRevision, revision);
}
}
writeTaggedQFixed(QFontEngineQPA::Tag_Ascent, fe->ascent());
writeTaggedQFixed(QFontEngineQPA::Tag_Descent, fe->descent());
writeTaggedQFixed(QFontEngineQPA::Tag_Leading, fe->leading());
writeTaggedQFixed(QFontEngineQPA::Tag_XHeight, fe->xHeight());
writeTaggedQFixed(QFontEngineQPA::Tag_AverageCharWidth, fe->averageCharWidth());
writeTaggedQFixed(QFontEngineQPA::Tag_MaxCharWidth, QFixed::fromReal(fe->maxCharWidth()));
writeTaggedQFixed(QFontEngineQPA::Tag_LineThickness, fe->lineThickness());
writeTaggedQFixed(QFontEngineQPA::Tag_MinLeftBearing, QFixed::fromReal(fe->minLeftBearing()));
writeTaggedQFixed(QFontEngineQPA::Tag_MinRightBearing, QFixed::fromReal(fe->minRightBearing()));
writeTaggedQFixed(QFontEngineQPA::Tag_UnderlinePosition, fe->underlinePosition());
writeTaggedUInt8(QFontEngineQPA::Tag_PixelSize, fe->fontDef.pixelSize);
writeTaggedUInt8(QFontEngineQPA::Tag_Weight, fe->fontDef.weight);
writeTaggedUInt8(QFontEngineQPA::Tag_Style, fe->fontDef.style);
writeTaggedUInt8(QFontEngineQPA::Tag_GlyphFormat, QFontEngineQPA::AlphamapGlyphs);
writeTaggedString(QFontEngineQPA::Tag_EndOfHeader, QByteArray());
align4();
const quint64 size = dev->pos();
header.dataSize = qToBigEndian<quint16>(size - sizeof(header));
dev->seek(0);
dev->write((const char *)&header, sizeof(header));
dev->seek(size);
}
void QPF::addHeader(QFontEngine *fontEngine)
{
QFontEngineQPF::Header *header = reinterpret_cast<QFontEngineQPF::Header *>(addBytes(sizeof(QFontEngineQPF::Header)));
header->magic[0] = 'Q';
header->magic[1] = 'P';
header->magic[2] = 'F';
header->magic[3] = '2';
if (options & RenderGlyphs)
header->lock = 0xffffffff;
else
header->lock = 0;
header->majorVersion = QFontEngineQPF::CurrentMajorVersion;
header->minorVersion = QFontEngineQPF::CurrentMinorVersion;
header->dataSize = 0;
int oldSize = qpf.size();
addTaggedString(QFontEngineQPF::Tag_FontName, fontEngine->fontDef.family.toUtf8());
QFontEngine::FaceId face = fontEngine->faceId();
addTaggedString(QFontEngineQPF::Tag_FileName, face.filename);
addTaggedUInt32(QFontEngineQPF::Tag_FileIndex, face.index);
{
const QByteArray head = fontEngine->getSfntTable(MAKE_TAG('h', 'e', 'a', 'd'));
const quint32 revision = qFromBigEndian<quint32>(reinterpret_cast<const uchar *>(head.constData()) + 4);
addTaggedUInt32(QFontEngineQPF::Tag_FontRevision, revision);
}
addTaggedQFixed(QFontEngineQPF::Tag_Ascent, fontEngine->ascent());
addTaggedQFixed(QFontEngineQPF::Tag_Descent, fontEngine->descent());
addTaggedQFixed(QFontEngineQPF::Tag_Leading, fontEngine->leading());
addTaggedQFixed(QFontEngineQPF::Tag_XHeight, fontEngine->xHeight());
addTaggedQFixed(QFontEngineQPF::Tag_AverageCharWidth, fontEngine->averageCharWidth());
addTaggedQFixed(QFontEngineQPF::Tag_MaxCharWidth, QFixed::fromReal(fontEngine->maxCharWidth()));
addTaggedQFixed(QFontEngineQPF::Tag_LineThickness, fontEngine->lineThickness());
addTaggedQFixed(QFontEngineQPF::Tag_MinLeftBearing, QFixed::fromReal(fontEngine->minLeftBearing()));
addTaggedQFixed(QFontEngineQPF::Tag_MinRightBearing, QFixed::fromReal(fontEngine->minRightBearing()));
addTaggedQFixed(QFontEngineQPF::Tag_UnderlinePosition, fontEngine->underlinePosition());
addTaggedUInt8(QFontEngineQPF::Tag_PixelSize, fontEngine->fontDef.pixelSize);
addTaggedUInt8(QFontEngineQPF::Tag_Weight, fontEngine->fontDef.weight);
addTaggedUInt8(QFontEngineQPF::Tag_Style, fontEngine->fontDef.style);
QByteArray writingSystemBitField = getWritingSystems(fontEngine);
if (!writingSystemBitField.isEmpty())
addTaggedString(QFontEngineQPF::Tag_WritingSystems, writingSystemBitField);
addTaggedUInt8(QFontEngineQPF::Tag_GlyphFormat, QFontEngineQPF::AlphamapGlyphs);
addTaggedString(QFontEngineQPF::Tag_EndOfHeader, QByteArray());
align4();
header = reinterpret_cast<QFontEngineQPF::Header *>(qpf.data());
header->dataSize = qToBigEndian<quint16>(qpf.size() - oldSize);
}
static void dump_png24_impl(
png_struct * ppng, png_info * pinfo,
const uint8_t * data, const size_t width, const size_t height, const size_t rowsize,
const bool bgr, IsOk is_ok
) {
assert(align4(rowsize) == rowsize);
png_set_IHDR(ppng, pinfo, width, height, 8,
PNG_COLOR_TYPE_RGB,
PNG_INTERLACE_NONE,
PNG_COMPRESSION_TYPE_BASE,
PNG_FILTER_TYPE_BASE);
png_write_info(ppng, pinfo);
// send image buffer to file, one pixel row at once
const uint8_t * row = data;
if (bgr) {
uint8_t bgrtmp[8192*4];
for (size_t k = 0 ; k < height && is_ok(); ++k) {
const uint8_t * s = row;
uint8_t * t = bgrtmp;
uint8_t * e = t + (width / 4) * 12;
for (; t < e; s += 12, t += 12){
t[0] = s[2];
t[1] = s[1];
t[2] = s[0];
t[3] = s[5];
t[4] = s[4];
t[5] = s[3];
t[6] = s[8];
t[7] = s[7];
t[8] = s[6];
t[9] = s[11];
t[10] = s[10];
t[11] = s[9];
}
png_write_row(ppng, const_cast<unsigned char*>(bgrtmp));
row += rowsize;
}
}
else {
for (size_t k = 0 ; k < height && is_ok(); ++k) {
png_write_row(ppng, const_cast<unsigned char*>(row));
row += rowsize;
}
}
}
void* mymalloc(size_t size)
{
t_block b, last;
size = align4(size);
if (base) {
b = find_block(size, &last);
if (b) {
if (b->size - size >= BLOCK_SIZE + 4) {
split_block(b, size);
}
b->free = 0;
} else {
b = extend_heap(last, size);
}
} else {
b = extend_heap(NULL, size);
if (!b) base = b;
}
return b ? b->data : NULL;
}
static inline uint32_t aligned_size(int width, int height, uint8_t bpp)
{
return align4(width) * height * ((bpp<=8)?1:(bpp<=16)?2:4);
}
//==============================================================================
inline int datasize() const noexcept
//==============================================================================
{
return align4(nbbytes(this->width) * this->height);
}
static int jz_lcd_hw_init(vidinfo_t *vid)
{
struct jz_fb_info *fbi = &vid->jz_fb;
unsigned int val = 0;
unsigned int pclk;
unsigned int stnH;
#if defined(CONFIG_MIPS_JZ4740)
int pll_div;
#endif
/* Setting Control register */
switch (jzfb.bpp) {
case 1:
val |= LCD_CTRL_BPP_1;
break;
case 2:
val |= LCD_CTRL_BPP_2;
break;
case 4:
val |= LCD_CTRL_BPP_4;
break;
case 8:
val |= LCD_CTRL_BPP_8;
break;
case 15:
val |= LCD_CTRL_RGB555;
case 16:
val |= LCD_CTRL_BPP_16;
break;
#if defined(CONFIG_MIPS_JZ4740)
case 17 ... 32:
val |= LCD_CTRL_BPP_18_24; /* target is 4bytes/pixel */
break;
#endif
default:
printf("jz_lcd.c The BPP %d is not supported\n", jzfb.bpp);
val |= LCD_CTRL_BPP_16;
break;
}
switch (jzfb.cfg & MODE_MASK) {
case MODE_STN_MONO_DUAL:
case MODE_STN_COLOR_DUAL:
case MODE_STN_MONO_SINGLE:
case MODE_STN_COLOR_SINGLE:
switch (jzfb.bpp) {
case 1:
/* val |= LCD_CTRL_PEDN; */
case 2:
val |= LCD_CTRL_FRC_2;
break;
case 4:
val |= LCD_CTRL_FRC_4;
break;
case 8:
default:
val |= LCD_CTRL_FRC_16;
break;
}
break;
}
val |= LCD_CTRL_BST_16; /* Burst Length is 16WORD=64Byte */
val |= LCD_CTRL_OFUP; /* OutFIFO underrun protect */
switch (jzfb.cfg & MODE_MASK) {
case MODE_STN_MONO_DUAL:
case MODE_STN_COLOR_DUAL:
case MODE_STN_MONO_SINGLE:
case MODE_STN_COLOR_SINGLE:
switch (jzfb.cfg & STN_DAT_PINMASK) {
#define align2(n) (n)=((((n)+1)>>1)<<1)
#define align4(n) (n)=((((n)+3)>>2)<<2)
#define align8(n) (n)=((((n)+7)>>3)<<3)
case STN_DAT_PIN1:
/* Do not adjust the hori-param value. */
break;
case STN_DAT_PIN2:
align2(jzfb.hsw);
align2(jzfb.elw);
align2(jzfb.blw);
break;
case STN_DAT_PIN4:
align4(jzfb.hsw);
align4(jzfb.elw);
align4(jzfb.blw);
break;
case STN_DAT_PIN8:
align8(jzfb.hsw);
align8(jzfb.elw);
align8(jzfb.blw);
break;
}
break;
}
REG_LCD_CTRL = val;
switch (jzfb.cfg & MODE_MASK) {
case MODE_STN_MONO_DUAL:
case MODE_STN_COLOR_DUAL:
case MODE_STN_MONO_SINGLE:
case MODE_STN_COLOR_SINGLE:
if (((jzfb.cfg & MODE_MASK) == MODE_STN_MONO_DUAL) ||
((jzfb.cfg & MODE_MASK) == MODE_STN_COLOR_DUAL))
stnH = jzfb.h >> 1;
else
stnH = jzfb.h;
REG_LCD_VSYNC = (0 << 16) | jzfb.vsw;
REG_LCD_HSYNC = ((jzfb.blw+jzfb.w) << 16) | (jzfb.blw+jzfb.w+jzfb.hsw);
/* Screen setting */
REG_LCD_VAT = ((jzfb.blw + jzfb.w + jzfb.hsw + jzfb.elw) << 16) | (stnH + jzfb.vsw + jzfb.bfw + jzfb.efw);
REG_LCD_DAH = (jzfb.blw << 16) | (jzfb.blw + jzfb.w);
REG_LCD_DAV = (0 << 16) | (stnH);
/* AC BIAs signal */
REG_LCD_PS = (0 << 16) | (stnH+jzfb.vsw+jzfb.efw+jzfb.bfw);
break;
case MODE_TFT_GEN:
case MODE_TFT_SHARP:
case MODE_TFT_CASIO:
case MODE_TFT_SAMSUNG:
case MODE_8BIT_SERIAL_TFT:
case MODE_TFT_18BIT:
REG_LCD_VSYNC = (0 << 16) | jzfb.vsw;
REG_LCD_HSYNC = (0 << 16) | jzfb.hsw;
#if defined(CONFIG_JZLCD_INNOLUX_AT080TN42)
REG_LCD_DAV = (0 << 16) | ( jzfb.h );
#else
REG_LCD_DAV =((jzfb.vsw+jzfb.bfw) << 16) | (jzfb.vsw +jzfb.bfw+jzfb.h);
#endif /*#if defined(CONFIG_JZLCD_INNOLUX_AT080TN42)*/
REG_LCD_DAH = ((jzfb.hsw + jzfb.blw) << 16) | (jzfb.hsw + jzfb.blw + jzfb.w );
REG_LCD_VAT = (((jzfb.blw + jzfb.w + jzfb.elw + jzfb.hsw)) << 16) \
| (jzfb.vsw + jzfb.bfw + jzfb.h + jzfb.efw);
break;
}
void model_draw(const shader_t *s, GLuint utrans, GLuint uquats,
const GLuint *texture, const uint32_t *mdl,
int anim_id, double frame, const float *teamcolor,
const float *color, uint16_t tex_over)
{
/* assumes valid model data */
uint8_t ngeo, teamcolor_end, nbone, nanim;
const uint8_t *p, *tr, *qt;
const chunkinfo_t *ck;
const anim_t *anim;
const bone_t *b;
vec3 trans, ptrans;
vec4 rot, prot;
int vis, i, offset, tex;
vec3 rtrans[maxbones];
vec4 rotation[maxbones];
/* parse header */
p = (const uint8_t*)mdl;
ngeo = p[0];
teamcolor_end = p[1];
nbone = p[2];
nanim = p[3];
anim = (const anim_t*)&p[4];
ck = (const chunkinfo_t*)&anim[nanim];
p = (const uint8_t*)&ck[ngeo];
anim += anim_id;
vis = anim->vis;
frame = frame * anim->frames;
/* calculate transformations for frame */
i = 0;
do {
b = (const bone_t*)p;
tr = (const uint8_t*)&b[1];
qt = tr + nanim;
p = qt + nanim;
p = align4(p);
get_trans(&trans, p, tr, anim_id, frame);
p += b->keyframes[0] * sizeof(keyframe_t);
get_rot(&rot, p, qt, anim_id, frame);
p += b->keyframes[1] * sizeof(keyframe4_t);
if(b->parent < 0) {
ptrans = vec3(0.0, 0.0, 0.0);
prot = vec4(0.0, 0.0, 0.0, 1.0);
} else {
ptrans = rtrans[b->parent];
prot = rotation[b->parent];
}
rotation[i] = mul4(rot, prot);
trans = add3(ptrans, qrot3(add3(b->pivot, trans), prot));
rtrans[i] = add3(qrot3(neg3(b->pivot), rotation[i]), trans);
} while (++i < nbone);
/* load transformations */
glUniform4fv(uquats, nbone, (float*)rotation);
glUniform3fv(utrans, nbone, (float*)rtrans);
//GLuint test;
//glGenBuffers(1, &test);
//
//glBufferData(GL_ELEMENT_ARRAY_BUFFER, ck[ngeo - 1].index, indices, GL_STATIC_DRAW);
/* draw visible vertices */
i = 0;
offset = 0;
tex = 0xFFFF;
glUniform4fv(s->k, 1, teamcolor);
glUniform4fv(s->samp, 1, color);
do {
if(i == teamcolor_end)
glUniform4fv(s->k, 1, transparency);
if((vis & (1 << i))) {
if (tex_over != 0xFFFF) {
glBindTexture(GL_TEXTURE_2D, tex_over == 0xFFFE ? 0 : texture[tex_over]);
} else if (ck[i].texture != tex) {
tex = ck[i].texture;
glBindTexture(GL_TEXTURE_2D, texture[tex]);
}
glDrawElements(GL_TRIANGLES, ck[i].index - offset, GL_UNSIGNED_SHORT, (void*)(size_t)offset);
}
offset = ck[i].index;
} while(++i != ngeo);
//glDeleteBuffers(1, &test);
}
/*---------------------------------------------------------------------------*/
int
elfloader_load(char* filename, char* fltfile)
{
struct elf32_ehdr ehdr;
struct elf32_shdr shdr;
struct elf32_shdr strtable;
unsigned int strs;
unsigned int shdrptr;
unsigned int nameptr;
char name[12];
int i;
unsigned short shdrnum, shdrsize;
int ret;
/* Ensure that we have a correct and compatible ELF header. */
ret = b_seek_read( 0, (char *)&ehdr, sizeof(ehdr));
if (ret != sizeof(ehdr)) return ELFFLT_INPUT_ERROR;
if(memcmp(ehdr.e_ident, elf_magic_header, sizeof(elf_magic_header)) != 0) {
PRINTERR(stderr, "ELF header problems\n");
return ELFFLT_BAD_ELF_HEADER;
}
if ( FLAG_VERBOSE )
printf ("Grab section header\n");
// Grab the section header.
shdrptr = ehdr.e_shoff;
ret = b_seek_read( shdrptr, (char *)&shdr, sizeof(shdr));
if (ret != sizeof(shdr)) return ELFFLT_INPUT_ERROR;
shdrsize = ehdr.e_shentsize;
shdrnum = ehdr.e_shnum;
if ( FLAG_VERBOSE )
printf ("Grab string table section\n");
// Grab the string table section for the names of the sections.
ret = b_seek_read( ehdr.e_shoff + shdrsize * ehdr.e_shstrndx,
(char *)&strtable, sizeof(strtable));
if (ret != sizeof(strtable)) return ELFFLT_INPUT_ERROR;
strs = strtable.sh_offset;
/* Parse segments headers to releavant_section entries.
.text = actual code from the ELF file
.data = initialized data
.rodata = contains read-only data
.bss = segment holds the size of the unitialized data segment
.rel.text, .rel.data = relocation information for the contents
of the ".text" and ".data" segments, respectively.
.symtab = symbol table for this file
.strtab = points to the actual string names used by the symbol table.
*/
// Zero size is indicator of unitialized (not found) section
text.size = text.relasize = data.size = data.relasize =
rodata.size = rodata.relasize = symtabsize = strtabsize = 0;
bss.number = data.number = rodata.number = text.number = -1;
shdrptr = ehdr.e_shoff;
for(i = 0; i < shdrnum; ++i) {
ret = b_seek_read( shdrptr, (char *)&shdr, sizeof(shdr));
DEBUGPRINTF("==shdrptr=0x%x, sizeof=%d; size=0x%x\n",shdrptr,sizeof(shdr),shdrsize );
if (ret != sizeof(shdr)) { PRINTERR(stderr, "input error at %s:%d :loaded%d",__FILE__,__LINE__,ret);return ELFFLT_INPUT_ERROR;}
/* The name of the section is contained in the strings table. */
nameptr = strs + shdr.sh_name;
DEBUGPRINTF("==nameptr=%x(%x+%x), size=%d\n",nameptr,strs,shdr.sh_name,sizeof(name) );
ret = b_seek_read( nameptr, name, sizeof(name));
if (ret != sizeof(name)) {PRINTERR(stderr, "input error at %s:%d",__FILE__,__LINE__); return ELFFLT_INPUT_ERROR;}
DEBUGPRINTF("==shdrptr=0x%x, sizeof=%d; size=0x%x\n",shdrptr,sizeof(shdr),shdrsize );
if ( FLAG_DUMP_SECTIONS )
printf ("Section #%d: %-15s [section header 0x%x, offset=0x%x, size %d, vma=0x%x]\n",i,name,shdrptr,
shdr.sh_offset,shdr.sh_size, shdr.sh_addr);
if(strncmp(name, ".text", 5) == 0) {
text.number = i;
text.offset = shdr.sh_offset;
text.size = shdr.sh_size;
text.base_addr = shdr.sh_addr;
} else if(strncmp(name, ".rel.text", 9) == 0) {
text.relaoff = shdr.sh_offset;
text.relasize = shdr.sh_size;
} else if(strncmp(name, ".data", 5) == 0) {
data.number = i;
data.offset = shdr.sh_offset;
data.size = shdr.sh_size;
data.base_addr = shdr.sh_addr;
} else if(strncmp(name, ".rodata", 7) == 0) {
rodata.number = i;
rodata.offset = shdr.sh_offset;
rodata.size = shdr.sh_size;
rodata.base_addr = shdr.sh_addr;
} else if(strncmp(name, ".rel.rodata", 11) == 0) {
rodata.relaoff = shdr.sh_offset;
rodata.relasize = shdr.sh_size;
} else if(strncmp(name, ".rel.data", 9) == 0) {
data.relaoff = shdr.sh_offset;
data.relasize = shdr.sh_size;
} else if(strncmp(name, ".rela.", 6) == 0) {
PRINTERR(stderr,"RELA relocs are not supported.");
return ELFFLT_INPUT_ERROR;
} else if(strncmp(name, ".symtab", 7) == 0) {
symtaboff = shdr.sh_offset;
symtabsize = shdr.sh_size;
} else if(strncmp(name, ".strtab", 7) == 0) {
strtaboff = shdr.sh_offset;
strtabsize = shdr.sh_size;
} else if(strncmp(name, ".bss", 4) == 0) {
bss.size = shdr.sh_size;
bss.number = i;
bss.offset = 0;
}
shdrptr += shdrsize;
}
if(symtabsize == 0) {
PRINTERR(stderr,"No symbol table found.");
return ELFFLT_NO_SYMTAB;
}
if(strtabsize == 0) {
PRINTERR(stderr,"No strings table found.");
return ELFFLT_NO_STRTAB;
}
if(text.size == 0) {
PRINTERR(stderr, "No .text segment found.");
return ELFFLT_NO_TEXT;
}
if ( (text.relasize + rodata.relasize+ data.relasize) <=0 ) {
PRINTERR(stderr,"Found no reloc sections. Please link with -r -d options.\n");
return ELFFLT_UNHANDLED_RELOC;
}
if (bss.size) {
bss.address = (char *)malloc(bss.size);
if (!bss.address) return ELFFLT_OUTPUT_ERROR;
}
if (data.size) {
data.address = (char *)malloc(data.size);
if (!data.address) return ELFFLT_OUTPUT_ERROR;
}
if (text.size) {
text.address = (char *)malloc(text.size);
if (!text.address) return ELFFLT_OUTPUT_ERROR;
}
if (rodata.size) {
rodata.address = (char *)malloc(rodata.size);
if (!rodata.address) return ELFFLT_OUTPUT_ERROR;
}
rodata.name=".rodata";
bss.name=".bss";
text.name=".text";
data.name=".data";
b_seek_read(text.offset, text.address, text.size);
b_seek_read(data.offset, data.address, data.size);
b_seek_read(rodata.offset, rodata.address, rodata.size);
if ( FLAG_DUMP_SOURCE ) {
dump_section( text.name, (unsigned char *)text.address, text.size );
dump_section( data.name, (unsigned char *)data.address, data.size );
dump_section( rodata.name, (unsigned char *)rodata.address, rodata.size );
}
if ( FLAG_DUMP_SYMBOLS ) {
dump_symtable();
}
if ( FLAG_DUMP_SYMBOLS || FLAG_DUMP_SOURCE || FLAG_VERBOSE )
printf("\n\n");
if ( FLAG_VERBOSE )
printf ("Prepare flat\n");
int div0hack_size = sizeof(div0_arm);
int flatmainsize = sizeof(struct flat_hdr)+text.size+div0hack_size+data.size+rodata.size+bss.size;
int flatrelocsize = text.relasize+rodata.relasize+data.relasize;
// Take to account aligning to int32 each section
flatmainsize += align4(text.size) + align4(data.size) + align4(rodata.size) + align4(bss.size);
flat_buf=malloc( flatmainsize+flatrelocsize );
if ( !flat_buf) { PRINTERR(stderr, "fail to malloc flat buf\n"); return ELFFLT_OUTPUT_ERROR;}
memset(flat_buf, 0, flatmainsize+flatrelocsize);
//import is subset of full reloc list, so same count is enough
// but apply multiplier to take into account difference between sizeofs
flat_import_buf=malloc( flatrelocsize* sizeof(import_record_t)/sizeof(reloc_record_t) );
if ( !flat_import_buf) { PRINTERR(stderr, "fail to malloc flat import buf\n"); return ELFFLT_OUTPUT_ERROR;}
memset(flat_import_buf, 0, flatrelocsize);
// Fill flat with sections aligned to int32
flat = (struct flat_hdr*) flat_buf;
if ( FLAG_VERBOSE )
printf(">>elf2flt: load segments\n");
int offset=sizeof(struct flat_hdr);
text.flat_offset = offset;
memcpy( flat_buf+offset, text.address, text.size );
DEBUGPRINTF("load .txt to %x (%x->%x)\n",offset,text.size,text.size+align4(text.size));
offset+=text.size+div0hack_size+align4(text.size);
rodata.flat_offset = offset;
DEBUGPRINTF("load .rodata to %x (%x->%x)\n",offset,rodata.size,rodata.size+align4(rodata.size));
memcpy( flat_buf+offset, rodata.address, rodata.size );
offset+=rodata.size+align4(rodata.size);
data.flat_offset = offset;
DEBUGPRINTF("load .data to %x (%x->%x)\n",offset,data.size,data.size+align4(data.size));
memcpy( flat_buf+offset, data.address, data.size );
offset+=data.size+align4(data.size);
bss.flat_offset = offset;
DEBUGPRINTF(".bss to %x (%x->%x)\n",offset,bss.size,bss.size+align4(bss.size));
DEBUGPRINTF("result=%x\n", flatmainsize);
// Initialize flat headers
memcpy(flat->magic, FLAT_MAGIC_NUMBER, sizeof(flat->magic)); // Set magic (CHDK_FLAT)
flat->rev = FLAT_VERSION;
flat->entry = text.flat_offset;
flat->data_start = rodata.flat_offset;
flat->bss_start = bss.flat_offset;
flat->reloc_start = flatmainsize;
flat_reloc_count = 0;
flat->import_start = 0;
flat_import_count = 0;
flat_reloc = (reloc_record_t*)(flat_buf+flatmainsize);
flat_reloc_cur = flat_reloc;
flat_import_cur = flat_import_buf;
// _div0_arm hack
add_div0_arm();
flag_unsafe_sym = 0;
// Do relocations
ret = relocate_section( &text);
if(ret != ELFFLT_OK)
return ret;
ret = relocate_section( &rodata);
if(ret != ELFFLT_OK)
return ret;
ret = relocate_section( &data);
if(ret != ELFFLT_OK)
return ret;
if ( flag_unsafe_sym )
return ELFFLT_UNSAFE_SYMBOL;
flat->import_start = flat->reloc_start+flat_reloc_count*sizeof(reloc_record_t);
// Init offsets to the entry symbols
if ( FLAG_VERBOSE )
printf(">>elf2flt: lookup entry symbols\n");
flat->_module_info_offset = find_symbol_inflat("_module_info", &data );
if ( flat->_module_info_offset <=0 ) {
PRINTERR(stderr, "No or invalid section of _module_info. This symbol should be initialized as ModuleInfo structure.\n");
return ELFFLT_NO_MODULEINFO;
}
struct ModuleInfo* _module_info = (struct ModuleInfo*) (flat_buf + flat->_module_info_offset);
if ( _module_info->magicnum != MODULEINFO_V1_MAGICNUM )
{
PRINTERR(stderr, "Wrong _module_info->magicnum value. Please check correct filling of this structure\n");
return ELFFLT_NO_MODULEINFO;
}
if ( _module_info->sizeof_struct != sizeof(struct ModuleInfo) )
{
PRINTERR(stderr, "Wrong _module_info->sizeof_struct value. Please check correct filling of this structure\n");
return ELFFLT_NO_MODULEINFO;
}
// Group import relocations
// Input = array of offset/index pairs - one for each address to be relocated to a core CHDK symbol
// Output = list of entries of the form:
// Index, Offset1 | (N<<24), Offset2, ..., OffsetN
// where each offset is a reference to the same core CHDK symbol
uint32_t *new_import_buf = malloc(flat_import_count*3*sizeof(uint32_t));
uint32_t new_import_cnt = 0;
int process = 1;
while (process)
{
process = 0;
for (i=0; i<flat_import_count; i++)
{
if (flat_import_buf[i].offs != 0)
{
process = 1;
int cnt = 0;
uint32_t idx = flat_import_buf[i].importidx;
new_import_buf[new_import_cnt++] = idx;
int pcnt = new_import_cnt;
int j;
for (j=0; j<flat_import_count; j++)
{
if (flat_import_buf[j].importidx == idx)
{
new_import_buf[new_import_cnt++] = flat_import_buf[j].offs;
flat_import_buf[j].offs = 0;
cnt++;
}
}
new_import_buf[pcnt] = (cnt << 24) | new_import_buf[pcnt];
}
}
}
flat->file_size = flat->import_start+new_import_cnt*sizeof(uint32_t);
if ( FLAG_DUMP_FLT_HEADERS ) {
printf("\nFLT Headers:\n");
printf("->entry 0x%x (size %d)\n", flat->entry, flat->data_start - flat->entry );
printf("->data_start 0x%x (size %d)\n", flat->data_start, flat->bss_start - flat->data_start );
printf("->bss_start 0x%x (size %d)\n", flat->bss_start, flat->reloc_start - flat->bss_start );
printf("->reloc_start 0x%x (size %d)\n", flat->reloc_start, flat_reloc_count*sizeof(reloc_record_t) );
printf("->import_start 0x%x (size %d %d)\n", flat->import_start, flat->file_size-flat->import_start, flat_import_count*sizeof(import_record_t) );
printf("\n");
printf("\nModule info:\n");
printf("->Module Name: %s\n", get_flat_string(_module_info->moduleName) );
printf("->Module Ver: %d.%d\n", _module_info->module_version.major, _module_info->module_version.minor );
char* branches_str[] = {"any branch","CHDK", "CHDK_DE", "CHDK_SDM", "PRIVATEBUILD"};
int branch = (_module_info->chdk_required_branch>REQUIRE_CHDK_PRIVATEBUILD) ?
REQUIRE_CHDK_PRIVATEBUILD : _module_info->chdk_required_branch;
printf("->Require: %s-build%d. ", branches_str[branch], _module_info->chdk_required_ver );
if ( _module_info->chdk_required_platfid == 0 )
printf("Any platform.\n");
else
printf(" Platform #%d only.\n", _module_info->chdk_required_platfid );
printf("->Description: %s\n", get_flat_string(_module_info->description) );
print_offs("->lib = ", (int)_module_info->lib,"\n");
//print_offs("->_module_loader() = ", (int)_module_info->loader,"\n");
//print_offs("->_module_unloader() = ", (int)_module_info->unloader,"\n");
//print_offs("->_module_can_unload()= ", (int)_module_info->can_unload,"\n");
//print_offs("->_module_exit_alt() = ", (int)_module_info->exit_alt,"\n");
}
if ( FLAG_DUMP_FLAT ) {
dump_section( "FLT_header", (unsigned char*)flat_buf, sizeof(struct flat_hdr) );
dump_section( "FLT_text", (unsigned char*)flat_buf+flat->entry, flat->data_start-flat->entry );
dump_section( "FLT_data", (unsigned char*)flat_buf+flat->data_start, flat->bss_start-flat->data_start);
dump_section( "FLT_bss", (unsigned char*)flat_buf+flat->bss_start, flat->reloc_start-flat->bss_start );
printf("\nDump relocations 0x%x (size=%d):\n",flat->reloc_start,flat_reloc_count*sizeof(reloc_record_t));
for( i = 0; i< flat_reloc_count; i++)
{
print_offs("Offs: ",*(int*)(flat_buf+flat->reloc_start+i*sizeof(reloc_record_t)), "\n");
}
printf("\nDump imports 0x%x (size=%d):\n",flat->import_start,new_import_cnt*sizeof(uint32_t));
for (i = 0; i< new_import_cnt;)
{
uint32_t idx = new_import_buf[i++];
int cnt = new_import_buf[i] >> 24;
int j;
for (j=0; j<cnt; j++)
{
uint32_t offs = new_import_buf[i++] & 0x00FFFFFF;
print_offs((j==0)?"Offs: ":" ",offs,"");
int addend = *(uint32_t*)(flat_buf+offs);
printf(" = sym_%08x[%s]+0x%x\n",idx,get_import_symbol(idx),addend);
}
}
}
int filesize = flat->file_size;
printf("\n\nOutput file %s (size=%d bytes)\n",fltfile,filesize);
int output_fd = open(fltfile,O_WRONLY|O_CREAT|O_TRUNC|O_BINARY,0777);
i = write(output_fd, flat_buf, flat->import_start);
i = write(output_fd, new_import_buf, new_import_cnt*sizeof(uint32_t));
close(output_fd);
return ELFFLT_OK;
}
static inline uint32_t row_size(int width, uint8_t bpp)
{
return align4(width * nbbytes(bpp));
}
data->page_pos_x = 0;
data->page_pos_y = 0;
data->page_line_height = 0;
}
return page;
}
static unsigned char *alloc_glyph_region(ALLEGRO_TTF_FONT_DATA *data,
int ft_index, int w, int h, bool new, ALLEGRO_TTF_GLYPH_DATA *glyph,
bool lock_more)
{
ALLEGRO_BITMAP *page;
bool relock;
int w4 = align4(w);
int h4 = align4(h);
int glyph_size = w4 > h4 ? w4 : h4;
if (_al_vector_is_empty(&data->page_bitmaps) || new) {
page = push_new_page(data, glyph_size);
relock = true;
if (!page)
return NULL;
}
else {
ALLEGRO_BITMAP **back = _al_vector_ref_back(&data->page_bitmaps);
page = *back;
relock = !data->page_lr;
}
// 4 byte padded strings !
int getString( char * data, char **output )
{
size_t l = strlen(data)+1;
*output = data;
return align4(l);
}