bool code (PrologElement * parameters, PrologResolution * resolution) {
PrologElement * atom = 0;
PrologElement * integers [] = {0, 0, 0, 0}; int integers_pointer = 0;
PrologElement * doubles [] = {0, 0, 0, 0}; int doubles_pointer = 0;
for (int ind = 0; ind < 4; ind++) {integers [ind] = doubles [ind] = 0;}
bool earth_present = false;
while (parameters -> isPair ()) {
PrologElement * left = parameters -> getLeft ();
if (left -> isAtom ()) atom = left;
if (left -> isVar ()) atom = left;
if (left -> isInteger () && integers_pointer < 4) integers [integers_pointer++] = left;
if (left -> isDouble () && doubles_pointer < 4) doubles [doubles_pointer++] = left;
if (left -> isEarth ()) earth_present = true;
parameters = parameters -> getRight ();
}
if (atom != 0) {
if (atom -> isVar ()) atom -> setAtom (new PrologAtom ());
if (! atom -> isAtom ()) return false;
PrologAtom * machine = atom -> getAtom ();
if (machine -> getMachine () != 0) return false;
generic_distributal_code * code = coder (machine, integers, doubles);
if (code == 0) return false;
if (earth_present) code -> seeder ();
else seed_code (code, integers_pointer, integers, doubles_pointer);
if (machine -> setMachine (code)) return true;
delete code;
return false;
}
return false;
}
bool load(const ColorRanges *srcRanges, RacIn<IO> &rac) override {
if (srcRanges->numPlanes() > 4) return false; // something wrong we already have FRA when loading
SimpleSymbolCoder<SimpleBitChance, RacIn<IO>, 18> coder(rac);
max_lookback = coder.read_int2(1, nb_frames-1);
v_printf(5,"[%i]",max_lookback);
return true;
}
void save(const ColorRanges *srcRanges, RacOut<IO> &rac) const {
SimpleSymbolCoder<FLIFBitChanceMeta, RacOut<IO>, 24> coder(rac);
SimpleSymbolCoder<FLIFBitChanceMeta, RacOut<IO>, 24> coderY(rac);
SimpleSymbolCoder<FLIFBitChanceMeta, RacOut<IO>, 24> coderI(rac);
SimpleSymbolCoder<FLIFBitChanceMeta, RacOut<IO>, 24> coderQ(rac);
SimpleSymbolCoder<FLIFBitChanceMeta, RacOut<IO>, 24> coderA(rac);
coder.write_int(1, MAX_PALETTE_SIZE, Palette_vector.size());
// printf("Saving %lu colors: ", Palette_vector.size());
prevPlanes pp(2);
ColorVal min, max;
for (Color c : Palette_vector) {
ColorVal A=std::get<0>(c);
coderA.write_int(srcRanges->min(3),srcRanges->max(3), A);
if (std::get<0>(c) == 0) continue;
srcRanges->minmax(0,pp,min,max);
ColorVal Y=std::get<1>(c);
coderY.write_int(min,max,Y);
pp[0]=Y; srcRanges->minmax(1,pp,min,max);
ColorVal I=std::get<2>(c);
coderI.write_int(min, max, I);
pp[1]=I; srcRanges->minmax(2,pp,min,max);
coderQ.write_int(min, max, std::get<3>(c));
// printf("YIQ(%i,%i,%i)\t", std::get<0>(c), std::get<1>(c), std::get<2>(c));
}
// printf("\nSaved palette of size: %lu\n",Palette_vector.size());
v_printf(5,"[%lu]",Palette_vector.size());
}
void save(const ColorRanges *srcRanges, RacOut<IO> &rac) const {
SimpleSymbolCoder<FLIFBitChanceMeta, RacOut<IO>, 24> coder(rac);
// printf("Saving Y Color Bucket: ");
prevPlanes pixelL, pixelU;
save_bucket(cb->bucket0, coder, srcRanges, 0, pixelL, pixelU);
// printf("\nSaving I Color Buckets\n ");
pixelL.push_back(cb->min0);
pixelU.push_back(cb->min0+CB0a-1);
for (auto b : cb->bucket1) { save_bucket(b, coder, srcRanges, 1, pixelL, pixelU); pixelL[0] += CB0a; pixelU[0] += CB0a; }
// printf("\nSaving Q Color Buckets\n ");
pixelL[0] = cb->min0;
pixelU[0] = cb->min0+CB0b-1;
pixelL.push_back(cb->min1);
pixelU.push_back(cb->min1+CB1-1);
for (auto bv : cb->bucket2) {
pixelL[1] = cb->min1;
pixelU[1] = cb->min1+CB1-1;
for (auto b : bv) {
save_bucket(b, coder, srcRanges, 2, pixelL, pixelU);
pixelL[1] += CB1; pixelU[1] += CB1;
}
pixelL[0] += CB0b; pixelU[0] += CB0b;
}
// printf("\n");
if (srcRanges->numPlanes() > 3) {
// printf("Saving Alpha Color Bucket: ");
save_bucket(cb->bucket3, coder, srcRanges, 3, pixelL, pixelU);
// printf("\n");
}
}
bool load(const ColorRanges *srcRanges, RacIn<IO> &rac) {
SimpleSymbolCoder<FLIFBitChanceMeta, RacIn<IO>, 18> coder(rac);
prevPlanes pixelL, pixelU;
cb->bucket0 = load_bucket(coder, srcRanges, 0, pixelL, pixelU);
pixelL.push_back(cb->min0);
pixelU.push_back(cb->min0+CB0a-1);
for (ColorBucket& b : cb->bucket1) {b=load_bucket(coder, srcRanges, 1, pixelL, pixelU); pixelL[0] += CB0a; pixelU[0] += CB0a; }
if (srcRanges->min(2) < srcRanges->max(2)) {
pixelL[0] = cb->min0;
pixelU[0] = cb->min0+CB0b-1;
pixelL.push_back(cb->min1);
pixelU.push_back(cb->min1+CB1-1);
for (auto& bv : cb->bucket2) {
pixelL[1] = cb->min1;
pixelU[1] = cb->min1+CB1-1;
for (ColorBucket& b : bv) {
b=load_bucket(coder, srcRanges, 2, pixelL, pixelU);
pixelL[1] += CB1; pixelU[1] += CB1;
}
pixelL[0] += CB0b; pixelU[0] += CB0b;
}
}
if (srcRanges->numPlanes() > 3) cb->bucket3 = load_bucket(coder, srcRanges, 3, pixelL, pixelU);
return true;
}
void set_genotype(Population *population)
{
for(int i = 0; i < POPULATION_SIZE; ++i)
{
coder(&population->individuals[i]);
}
}
void LogService::on_message(Requestor* requestor, const PACKET& packet, void* body, const int64_t body_len){
Super::on_message(requestor, packet, body, body_len);
// prepare
if(packet.command == SERVICE_LOG_NOTIFY){
if(packet.option & OPT_BODY_IS_OBJECT_POINTER){
WARN("fail to call %s, OPT_BODY_IS_OBJECT_POINTER is not support", __func__);
return;
}
BinaryCoder<1024> coder(body, body_len);
// decode param
int64_t type =0;
if(!coder.decodeInt64(type)){
WARN("fail to call %s, decode type error", __func__);
return;
}
int64_t flag =0;
if(!coder.decodeInt64(flag)){
WARN("fail to call %s, decode flag error", __func__);
return;
}
String* content =coder.decodeString();
if(!content){
WARN("fail to call %s, decode content error", __func__);
return;
}
// log
_log(type, flag, content);
}
else{
WARN("fail to call %s, command %lld is not support", __func__, (long long)packet.command);
}
}
void save(const ColorRanges *, RacOut<IO> &rac) const {
SimpleSymbolCoder<FLIFBitChanceMeta, RacOut<IO>, 18> coder(rac);
assert(nb == b.size());
assert(nb == e.size());
for (unsigned int i=0; i<nb; i+=1) { coder.write_int(0,cols,b[i]); }
for (unsigned int i=0; i<nb; i+=1) { coder.write_int(0,cols-b[i],cols-e[i]); }
}
bool load(const ColorRanges *srcRanges, RacIn<IO> &rac) {
SimpleSymbolCoder<FLIFBitChanceMeta, RacIn<IO>, 24> coder(rac);
SimpleSymbolCoder<FLIFBitChanceMeta, RacIn<IO>, 24> coderY(rac);
SimpleSymbolCoder<FLIFBitChanceMeta, RacIn<IO>, 24> coderI(rac);
SimpleSymbolCoder<FLIFBitChanceMeta, RacIn<IO>, 24> coderQ(rac);
SimpleSymbolCoder<FLIFBitChanceMeta, RacIn<IO>, 24> coderA(rac);
long unsigned size = coder.read_int(1, MAX_PALETTE_SIZE);
// printf("Loading %lu colors: ", size);
prevPlanes pp(2);
ColorVal min, max;
for (unsigned int p=0; p<size; p++) {
ColorVal A=coderA.read_int(srcRanges->min(3),srcRanges->max(3));
if (A == 0) { Palette_vector.push_back(Color(0,0,0,0)); continue; }
srcRanges->minmax(0,pp,min,max);
ColorVal Y=coderY.read_int(min,max);
pp[0]=Y; srcRanges->minmax(1,pp,min,max);
ColorVal I=coderI.read_int(min,max);
pp[1]=I; srcRanges->minmax(2,pp,min,max);
ColorVal Q=coderQ.read_int(min,max);
Color c(A,Y,I,Q);
Palette_vector.push_back(c);
// printf("YIQ(%i,%i,%i)\t", std::get<0>(c), std::get<1>(c), std::get<2>(c));
}
// printf("\nLoaded palette of size: %lu\n",Palette_vector.size());
v_printf(5,"[%lu]",Palette_vector.size());
return true;
}
void OBJ33(void) {
OBJ33_Employee coder("Joe Smith");
OBJ33_Employee typist("Bill Jones");
OBJ33_Manager designer("Jane Doe", typist);
coder = designer; // slices Jane Doe!
coder.print();
}
bool load(const ColorRanges *, RacIn<IO> &rac) {
SimpleSymbolCoder<FLIFBitChanceMeta, RacIn<IO>, 18> coder(rac);
seen_before.clear();
seen_before.push_back(-1);
for (unsigned int i=1; i<nb; i++) seen_before.push_back(coder.read_int(-1,i-1));
int count=0; for(int i : seen_before) { if(i>=0) count++; } v_printf(5,"[%i]",count);
return true;
}
void save(const ColorRanges *srcRanges, RacOut<IO> &rac) const override {
SimpleSymbolCoder<SimpleBitChance, RacOut<IO>, 18> coder(rac);
coder.write_int2(0, 1, subtract);
if (subtract) v_printf(4,"Subtract");
for (int p=0; p<srcRanges->numPlanes(); p++) {
coder.write_int2(0, srcRanges->numPlanes()-1, permutation[p]);
v_printf(5,"[%i->%i]",p,permutation[p]);
}
}
static void encoding(const char* s)
{
acl::mime_xxcode coder(false, false);
acl::string out;
coder.encode_update(s, strlen(s), &out);
coder.encode_finish(&out);
printf(">>>%s\n", out.c_str());
}
void QAudioManager::addFileExtension(const QString coderName, const QString extension)
{
setError(QCoder::NoError);
QAbstractCoder *theCoder = coder(coderName, QAudioManager::Available);
if(theCoder != NULL)
{
theCoder->addFileExtension(extension);
testLibrary(theCoder);
}
}
void CTarArcFile_Lzma::close()
{
if(m_opened){
// 残ったバッファの分を処理する
m_action = LZMA_FINISH;
coder(NULL,0);
lzma_end(&m_strm);
m_demand_callback(this,NULL,0,DEMAND_CLOSE,m_callback_arg);
m_opened=false;
}
}
void save(const ColorRanges *srcRanges, RacOut<IO> &rac) const {
SimpleSymbolCoder<SimpleBitChance, RacOut<IO>, 24> coder(rac);
for (int p=0; p<srcRanges->numPlanes(); p++) {
ColorVal min = bounds[p].first;
ColorVal max = bounds[p].second;
// coder.write_int(0, srcRanges->max(p) - srcRanges->min(p), min - srcRanges->min(p));
// coder.write_int(0, srcRanges->max(p) - min, max - min);
coder.write_int(srcRanges->min(p), srcRanges->max(p), min);
coder.write_int(min, srcRanges->max(p), max);
v_printf(5,"[%i:%i..%i]",p,min,max);
}
}
bool load(const ColorRanges *, RacIn<IO> &rac) {
SimpleSymbolCoder<FLIFBitChanceMeta, RacIn<IO>, 18> coder(rac);
for (unsigned int i=0; i<nb; i+=1) {b.push_back(coder.read_int(0,cols));}
for (unsigned int i=0; i<nb; i+=1) {
e.push_back(cols-coder.read_int(0,cols-b[i]));
if (e[i] > cols || e[i] < b[i] || e[i] <= 0) {
e_printf("\nError: FRS transform: invalid end column\n");
return false;
}
}
return true;
}
void save(const ColorRanges *srcRanges, RacOut<IO> &rac) const override {
SimpleSymbolCoder<FLIFBitChanceMeta, RacOut<IO>, 18> coder(rac);
for (int p=0; p<srcRanges->numPlanes(); p++) {
coder.write_int(0, srcRanges->max(p)-srcRanges->min(p), CPalette_vector[p].size()-1);
ColorVal min=srcRanges->min(p);
int remaining=CPalette_vector[p].size()-1;
for (unsigned int i=0; i<CPalette_vector[p].size(); i++) {
coder.write_int(0, srcRanges->max(p)-min-remaining, CPalette_vector[p][i]-min);
min = CPalette_vector[p][i]+1;
remaining--;
}
}
}
bool load(const ColorRanges *srcRanges, RacIn<IO> &rac) override {
SimpleSymbolCoder<FLIFBitChanceMeta, RacIn<IO>, 18> coder(rac);
for (int p=0; p<srcRanges->numPlanes(); p++) {
unsigned int nb = coder.read_int(0, srcRanges->max(p)-srcRanges->min(p)) + 1;
ColorVal min=srcRanges->min(p);
int remaining = nb-1;
for (unsigned int i=0; i<nb; i++) {
CPalette_vector[p].push_back(min + coder.read_int(0, srcRanges->max(p)-min-remaining));
min = CPalette_vector[p][i]+1;
remaining--;
}
}
return true;
}
bool CTerrainMgr::LoadTexture(ITexture* pText)
{
if (NULL == pText)
return false;
SafeRelease(m_Texture);
m_Texture = pText;
m_Texture->AddRef();
CJPGDecoder coder(m_Texture, m_szTerrTexName.c_str());
m_Param.m_RS.m_Texture_S0 = m_Texture;
m_Param.m_RS.m_Texture_S1 = HasRenderFlag(TerrainFlag::Cliff)?NULL:m_Texture;
return true;
}
void save(const ColorRanges *srcRanges, RacOut<IO> &rac) const {
SimpleSymbolCoder<FLIFBitChanceMeta, RacOut<IO>, 24> coder(rac);
SimpleSymbolCoder<FLIFBitChanceMeta, RacOut<IO>, 24> coderY(rac);
SimpleSymbolCoder<FLIFBitChanceMeta, RacOut<IO>, 24> coderI(rac);
SimpleSymbolCoder<FLIFBitChanceMeta, RacOut<IO>, 24> coderQ(rac);
SimpleSymbolCoder<FLIFBitChanceMeta, RacOut<IO>, 24> coderA(rac);
coder.write_int(1, MAX_PALETTE_SIZE, Palette_vector.size());
prevPlanes pp(2);
int sorted=1;
coder.write_int(0, 1, sorted);
if (sorted) {
Color min(srcRanges->min(3), srcRanges->min(0), srcRanges->min(1), srcRanges->min(2));
Color max(srcRanges->max(3), srcRanges->max(0), srcRanges->max(1), srcRanges->max(2));
Color prev(-1,-1,-1,-1);
for (Color c : Palette_vector) {
ColorVal A=std::get<0>(c);
coderA.write_int(std::get<0>(min), std::get<0>(max), A);
if (alpha_zero_special && std::get<0>(c) == 0) continue;
ColorVal Y=std::get<1>(c);
coderY.write_int((std::get<0>(prev) == A ? std::get<1>(prev) : std::get<1>(min)), std::get<1>(max), Y);
pp[0]=Y; srcRanges->minmax(1,pp,std::get<2>(min), std::get<2>(max));
ColorVal I=std::get<2>(c);
coderI.write_int(std::get<2>(min), std::get<2>(max), I);
pp[1]=I; srcRanges->minmax(2,pp,std::get<3>(min), std::get<3>(max));
coderQ.write_int(std::get<3>(min), std::get<3>(max), std::get<3>(c));
std::get<0>(min) = std::get<0>(c);
prev = c;
}
} else {
ColorVal min, max;
for (Color c : Palette_vector) {
ColorVal A=std::get<0>(c);
coderA.write_int(srcRanges->min(3),srcRanges->max(3), A);
if (alpha_zero_special && std::get<0>(c) == 0) continue;
srcRanges->minmax(0,pp,min,max);
ColorVal Y=std::get<1>(c);
coderY.write_int(min,max,Y);
pp[0]=Y; srcRanges->minmax(1,pp,min,max);
ColorVal I=std::get<2>(c);
coderI.write_int(min, max, I);
pp[1]=I; srcRanges->minmax(2,pp,min,max);
coderQ.write_int(min, max, std::get<3>(c));
// printf("YIQ(%i,%i,%i)\t", std::get<0>(c), std::get<1>(c), std::get<2>(c));
}
}
// printf("\nSaved palette of size: %lu\n",Palette_vector.size());
v_printf(5,"[%lu]",Palette_vector.size());
}
bool CTerrainMgr::LoadTexture(const char* filename)
{
if (NULL==filename)
return m_isInit = false;
SafeRelease(m_Texture);
m_szTerrTexName = filename;
CTerrainMgr::st_TerrainTex->AddRef();
m_Texture = CTerrainMgr::st_TerrainTex;
CJPGDecoder coder(m_Texture, filename);
m_Param.m_RS.m_Texture_S0 = m_Texture;
m_Param.m_RS.m_Texture_S1 = HasRenderFlag(TerrainFlag::Cliff)?NULL:m_Texture;
return true;
}
size64 CTarArcFile_Lzma::write(void *buf, size64 size)
{
if(m_error_status != ES_NO_ERROR){
return 0;
}
if(m_mode==CM_NOTHING){
m_mode=CM_ENCODE;
if(!coder_initialize()){
m_error_status = ES_FATAL_ERROR;
return 0;
}
} else if(m_mode!=CM_ENCODE){
return 0;
}
return coder(buf,size);
}
bool load(const ColorRanges *srcRanges, RacIn<IO> &rac) {
SimpleSymbolCoder<SimpleBitChance, RacIn<IO>, 24> coder(rac);
bounds.clear();
for (int p=0; p<srcRanges->numPlanes(); p++) {
// ColorVal min = coder.read_int(0, srcRanges->max(p) - srcRanges->min(p)) + srcRanges->min(p);
// ColorVal max = coder.read_int(0, srcRanges->max(p) - min) + min;
ColorVal min = coder.read_int(srcRanges->min(p), srcRanges->max(p));
ColorVal max = coder.read_int(min, srcRanges->max(p));
if (min > max) return false;
if (min < srcRanges->min(p)) return false;
if (max > srcRanges->max(p)) return false;
bounds.push_back(std::make_pair(min,max));
v_printf(5,"[%i:%i..%i]",p,min,max);
}
return true;
}
void save(const ColorRanges *srcRanges, RacOut<IO> &rac) const override {
SimpleSymbolCoder<FLIFBitChanceMeta, RacOut<IO>, 18> coder(rac);
SimpleSymbolCoder<FLIFBitChanceMeta, RacOut<IO>, 18> coderY(rac);
SimpleSymbolCoder<FLIFBitChanceMeta, RacOut<IO>, 18> coderI(rac);
SimpleSymbolCoder<FLIFBitChanceMeta, RacOut<IO>, 18> coderQ(rac);
coder.write_int2(1, MAX_PALETTE_SIZE, Palette_vector.size());
// printf("Saving %lu colors: ", Palette_vector.size());
prevPlanes pp(2);
int sorted=(ordered_palette? 1 : 0);
coder.write_int2(0, 1, sorted);
if (sorted) {
Color min(srcRanges->min(0), srcRanges->min(1), srcRanges->min(2));
Color max(srcRanges->max(0), srcRanges->max(1), srcRanges->max(2));
Color prev(-1,-1,-1);
for (Color c : Palette_vector) {
ColorVal Y=std::get<0>(c);
coderY.write_int2(std::get<0>(min), std::get<0>(max), Y);
pp[0]=Y;
srcRanges->minmax(1,pp,std::get<1>(min), std::get<1>(max));
ColorVal I=std::get<1>(c);
coderI.write_int2((std::get<0>(prev) == Y ? std::get<1>(prev): std::get<1>(min)), std::get<1>(max), I);
pp[1]=I;
srcRanges->minmax(2,pp,std::get<2>(min), std::get<2>(max));
coderQ.write_int2(std::get<2>(min), std::get<2>(max), std::get<2>(c));
std::get<0>(min) = std::get<0>(c);
prev = c;
}
} else {
ColorVal min, max;
for (Color c : Palette_vector) {
ColorVal Y=std::get<0>(c);
srcRanges->minmax(0,pp,min,max);
coderY.write_int2(min,max,Y);
pp[0]=Y;
srcRanges->minmax(1,pp,min,max);
ColorVal I=std::get<1>(c);
coderI.write_int2(min, max, I);
pp[1]=I;
srcRanges->minmax(2,pp,min,max);
coderQ.write_int2(min, max, std::get<2>(c));
// printf("YIQ(%i,%i,%i)\t", std::get<0>(c), std::get<1>(c), std::get<2>(c));
}
}
// printf("\nSaved palette of size: %lu\n",Palette_vector.size());
v_printf(5,"[%lu]",Palette_vector.size());
if (!ordered_palette) v_printf(5,"Unsorted");
}
bool load(const ColorRanges *srcRanges, RacIn<IO> &rac) {
SimpleSymbolCoder<FLIFBitChanceMeta, RacIn<IO>, 24> coder(rac);
SimpleSymbolCoder<FLIFBitChanceMeta, RacIn<IO>, 24> coderY(rac);
SimpleSymbolCoder<FLIFBitChanceMeta, RacIn<IO>, 24> coderI(rac);
SimpleSymbolCoder<FLIFBitChanceMeta, RacIn<IO>, 24> coderQ(rac);
long unsigned size = coder.read_int(1, MAX_PALETTE_SIZE);
// printf("Loading %lu colors: ", size);
prevPlanes pp(2);
int sorted = coder.read_int(0,1);
if (sorted) {
Color min(srcRanges->min(0), srcRanges->min(1), srcRanges->min(2));
Color max(srcRanges->max(0), srcRanges->max(1), srcRanges->max(2));
Color prev(-1,-1,-1);
for (unsigned int p=0; p<size; p++) {
ColorVal Y=coderY.read_int(std::get<0>(min), std::get<0>(max));
pp[0]=Y;
srcRanges->minmax(1,pp,std::get<1>(min), std::get<1>(max));
ColorVal I=coderI.read_int((std::get<0>(prev) == Y ? std::get<1>(prev): std::get<1>(min)), std::get<1>(max));
pp[1]=I;
srcRanges->minmax(2,pp,std::get<2>(min), std::get<2>(max));
ColorVal Q=coderQ.read_int(std::get<2>(min), std::get<2>(max));
Color c(Y,I,Q);
Palette_vector.push_back(c);
std::get<0>(min) = std::get<0>(c);
prev = c;
}
} else {
ColorVal min, max;
for (unsigned int p=0; p<size; p++) {
srcRanges->minmax(0,pp,min,max);
ColorVal Y=coderY.read_int(min,max);
pp[0]=Y;
srcRanges->minmax(1,pp,min,max);
ColorVal I=coderI.read_int(min,max);
pp[1]=I;
srcRanges->minmax(2,pp,min,max);
ColorVal Q=coderQ.read_int(min,max);
Color c(Y,I,Q);
Palette_vector.push_back(c);
// printf("YIQ(%i,%i,%i)\t", std::get<0>(c), std::get<1>(c), std::get<2>(c));
}
}
// printf("\nLoaded palette of size: %lu\n",Palette_vector.size());
v_printf(5,"[%lu]",Palette_vector.size());
return true;
}
QAbstractCoder* QAudioManager::coder(const QAudioCodec *codec, const QAudioManager::Mode mode)
{
setError(QCoder::NoError);
if(codec != NULL)
{
if(mode == QAudioManager::Available)
{
for(int i = 0; i < mAvailableCoders.size(); ++i)
{
QList<QAudioCodec*> codecs = mAvailableCoders[i]->supportedCodecs();
for(int j = 0; j < codecs.size(); ++j)
{
if((*codecs[j]) == (*codec))
{
return mAvailableCoders[i];
}
}
}
if(coder(codec, QAudioManager::Supported) != NULL)
{
setError(QCoder::UnavailableCodecError);
}
}
else
{
for(int i = 0; i < mSupportedCoders.size(); ++i)
{
QList<QAudioCodec*> codecs = mSupportedCoders[i]->supportedCodecs();
for(int j = 0; j < codecs.size(); ++j)
{
if((*codecs[j]) == (*codec))
{
return mSupportedCoders[i];
}
}
}
setError(QCoder::UnsupportedCodecError);
}
}
else
{
setError(QCoder::UnsupportedCodecError);
}
return NULL;
}
void testByteCountCodedStable(const T& value) {
ByteCountCoded<T> coder((T)value);
auto encoded = coder.encode();
#ifndef QT_NO_DEBUG
auto originalEncodedSize = encoded.size();
#endif
for (int i = 0; i < 10; ++i) {
encoded.append(qrand());
}
ByteCountCoded<T> decoder;
decoder.decode(encoded);
Q_ASSERT(decoder.data == coder.data);
#ifndef QT_NO_DEBUG
auto consumed = decoder.decode(encoded.data(), encoded.size());
#endif
Q_ASSERT(consumed == (unsigned int)originalEncodedSize);
}
int main(int argc, char **argv) {
if (argc <= 1) {
print_usage();
return 1;
}
FILE* input_file = (strcmp(argv[1], "-") ? fopen(argv[1], "r") : stdin);
FILE* output_file = (argc <= 2 ? fopen("23.txt", "w")
: (strcmp(argv[2], "-") ? fopen(argv[2], "w") : stdout));
entropycoding::HuffmanCoder coder(source::symbol_frequencies());
for (char c; (c = getc(input_file)) != EOF && !isEndline(c); )
fputs(coder.code(c).toString().c_str(), output_file);
fclose(input_file);
fclose(output_file);
return 0;
}
bool load(const ColorRanges *srcRanges, RacIn<IO> &rac) override {
SimpleSymbolCoder<SimpleBitChance, RacIn<IO>, 18> coder(rac);
subtract = coder.read_int2(0, 1);
if (subtract) v_printf(4,"Subtract");
bool from[4] = {false, false, false, false}, to[4] = {false, false, false, false};
for (int p=0; p<srcRanges->numPlanes(); p++) {
permutation[p] = coder.read_int2(0, srcRanges->numPlanes()-1);
v_printf(5,"[%i->%i]",p,permutation[p]);
from[p] = true;
to[permutation[p]] = true;
}
for (int p=0; p<srcRanges->numPlanes(); p++) {
if (!from[p] || !to[p]) {
e_printf("\nNot a valid permutation!\n");
return false;
}
}
return true;
}
