void KConfigBase::revertToDefault(const QString &key)
{
setDirty(true);
KEntryKey aEntryKey(mGroup, key.utf8());
aEntryKey.bDefault = true;
if(!locale().isNull())
{
// try the localized key first
aEntryKey.bLocal = true;
KEntry entry = lookupData(aEntryKey);
if(entry.mValue.isNull())
entry.bDeleted = true;
entry.bDirty = true;
putData(aEntryKey, entry, true); // Revert
aEntryKey.bLocal = false;
}
// try the non-localized version
KEntry entry = lookupData(aEntryKey);
if(entry.mValue.isNull())
entry.bDeleted = true;
entry.bDirty = true;
putData(aEntryKey, entry, true); // Revert
}
bool I2c::wReg (uint8_t adress, uint8_t reg, uint8_t *data, uint8_t l)
{
start ();
//Записываем в регистр данных адрес ведомого устройства
putData (adress & 0xFE);
while(!flagAddr());
//Очистка бита ADDR чтением регистра SR3
uint8_t temp = I2C->SR3;
//Ждем освобождения регистра данных
while(!flagTxe());
//Отправляем адрес регистра
putData (reg);
//Отправка данных
while(l--){
//Ждем освобождения регистра данных
while(!flagTxe());
//Отправляем адрес регистра
putData (*data++);
}
//Ловим момент, когда DR освободился и данные попали в сдвиговый регистр
while(!(flagTxe() && flagBtf ()));
//Посылаем СТОП-посылку
stop ();
//Ждем выполнения условия СТОП
while(flagStop ());
return true;
}
/*********************************************************************
* ターゲット側のメモリー内容(1バイト)を書き換える.
*********************************************************************
* int adr :ターゲット側のメモリーアドレス
* int arena :ターゲット側のメモリー種別(現在未使用)
* int data0 :書き込みデータ. (OR)
* int data1 :書き込みビットマスク.(AND)
*注意
* pic32mxのbootloaderはメモリー節約のため DWORDアクセスのみ実装されている.
* よって、maskは実装されない.
* char,shortのアクセスを行う場合はread modifiedにする必要がある.
*/
int pokemem(int adr,int arena,int data0,int data1)
{
int buf[64/4];
char *byte=(char *)buf;
int off = adr & 3; //端数.
int size = 4;
if(arena == MEM_BYTE) {
int rc = UsbRead(adr & (-4),MEM_WORD,byte,size);
byte[off]=data0;
}else if(arena == MEM_HALF) {
int rc = UsbRead(adr & (-4),MEM_WORD,byte,size);
byte[off]=data0; // FIXME! SHORT WORD!
}else{
buf[0]=data0;
}
return putData(adr & (-4),size,(char*) buf);
#if 0
int size = 1;
if(arena==MEM_HALF) size = 2;
if(arena==MEM_WORD) size = 4;
buf[0]=data0;
printf("putData(%x %d)\n",adr,size);
return putData(adr,size,(char*) buf);
#endif
}
/**
* ¬ывод последнего собщени¤ по событию на представление
*/
void logger::sendDataToViewer( int type, QString msg, int logger ) {
if ( logger == SYSTEM_LOGGER ) {
putData( QString("%1 %2").arg(hsTypeMsg[type]).arg(msg), logger );
}
else {
putData( QString("%1").arg(msg), logger );
}
signalReceiveLastMsg( logger );
}
// renyang - 替音訊解碼
void Call::decodeAudioData(char *buf, int len)
{
#ifdef REN_DEBUG
qWarning("Call::decodeAudioData()");
#endif
if (dec_state)
{
// renyang - Initializes the bit-stream from the data in an area of memory
// renyang - 把一連串的buf轉到bit-stream
speex_bits_read_from(&bits, buf, len);
// renyang - 把bits解碼到outBuffer(為float型態)
// renyang - 當<0表示解碼失敗
if (speex_decode(dec_state, &bits, outBuffer) < 0)
{
emit warning("Warning: wrong decryption key or stream corrupted!");
disableDecrypt();
}
else
{
// renyang - 來到這裡表示解碼成功
// renyang - 把解碼之後的音訊(outBuffer)放到soundBuffer中
putData(outBuffer, frame_size);
}
}
}
//
// Info::putChunkATAG
//
void Info::putChunkATAG()
{
if(!numChunkATAG) return;
for(auto const &itr : init)
if(itr.first->space.base == IR::AddrBase::MapArr)
{
auto const &ini = itr.second;
if(!ini.needTag || ini.onlyStr) continue;
putData("ATAG", 4);
putWord(ini.vals.size() + 5);
putByte(0); // version
putWord(itr.first->value);
for(auto const &i : itr.second.vals) switch(i.tag)
{
case InitTag::Empty: putByte(0); break;
case InitTag::Fixed: putByte(0); break;
case InitTag::Funct: putByte(2); break;
case InitTag::StrEn: putByte(1); break;
}
}
}
bool KConfigBase::deleteGroup(const QString &group, bool bDeep, bool bGlobal)
{
KEntryMap aEntryMap = internalEntryMap(group);
if(!bDeep)
{
// Check if it empty
return aEntryMap.isEmpty();
}
bool dirty = false;
bool checkGroup = true;
// we want to remove all entries in the group
KEntryMapIterator aIt;
for(aIt = aEntryMap.begin(); aIt != aEntryMap.end(); ++aIt)
{
if(!aIt.key().mKey.isEmpty() && !aIt.key().bDefault && !(*aIt).bDeleted)
{
(*aIt).bDeleted = true;
(*aIt).bDirty = true;
(*aIt).bGlobal = bGlobal;
(*aIt).mValue = 0;
putData(aIt.key(), *aIt, checkGroup);
checkGroup = false;
dirty = true;
}
}
if(dirty)
setDirty(true);
return true;
}
void KConfigBase::writeEntry(const char *pKey, const QString &value, bool bPersistent, bool bGlobal, bool bNLS, bool bExpand)
{
// the KConfig object is dirty now
// set this before any IO takes place so that if any derivative
// classes do caching, they won't try and flush the cache out
// from under us before we read. A race condition is still
// possible but minimized.
if(bPersistent)
setDirty(true);
if(!bLocaleInitialized && KGlobal::locale())
setLocale();
KEntryKey entryKey(mGroup, pKey);
entryKey.bLocal = bNLS;
KEntry aEntryData;
aEntryData.mValue = value.utf8(); // set new value
aEntryData.bGlobal = bGlobal;
aEntryData.bNLS = bNLS;
aEntryData.bExpand = bExpand;
if(bPersistent)
aEntryData.bDirty = true;
// rewrite the new value
putData(entryKey, aEntryData, true);
}
//
// Info::putChunkMIMP
//
void Info::putChunkMIMP()
{
if(!numChunkMIMP) return;
Core::Array<IR::Object const *> imps{numChunkMIMP};
auto itr = imps.begin();
for(auto const &obj : prog->rangeObject())
{
if(!obj.defin && obj.space.base == IR::AddrBase::MapReg)
*itr++ = &obj;
}
Core::FastU size = numChunkMIMP * 4;
for(auto const &imp : imps)
size += lenString(imp->glyph);
putData("MIMP", 4);
putWord(size);
for(auto const &imp : imps)
{
putWord(imp->value);
putString(imp->glyph);
}
}
void Engine::setAccType(QString type) {
if (currentType != type || recoveredDStack) {
if (dStack.isEmpty()) {
currentType = type;
executeInstructionOnStack("Factory"); // No tr
state = sAppend;
} else {
if (recoveredDStack) {
//don't call dualReset() or recoveredDStack will be deleted
dStack.clear();
iStack.clear();
braceCount = 0;
softReset();
changeResetState(drNone);
putData(recoveredDStack);
}
wantedType = type;
if (currentType == "NONE") // workaround for bug #3356
currentType = dStack.top()->getType();
if (currentType != wantedType) {
if (!recoveredDStack)
executeInstructionOnStack("Convert"); // No tr
else // don't convert recoveredStack
recoveredDStack = 0;
}
}
// Doublecheck the type in case a factory or convert doesn't go as planned.
currentType = dStack.top()->getType();
emit(stackChanged());
}
changeResetState(drs);
}
//
// Info::putChunkSFLG
//
void Info::putChunkSFLG()
{
if(!numChunkSFLG) return;
putData("SFLG", 4);
putWord(numChunkSFLG * 4);
for(auto const &itr : prog->rangeFunction())
{
if(itr.ctype != IR::CallType::Script &&
itr.ctype != IR::CallType::ScriptI &&
itr.ctype != IR::CallType::ScriptS)
continue;
if(!itr.defin) continue;
Core::FastU flags = 0;
if(itr.sflagClS) flags |= 0x0002;
if(itr.sflagNet) flags |= 0x0001;
if(!flags) continue;
putHWord(itr.valueInt);
putHWord(flags);
}
}
//
// Info::putChunkCODE
//
void Info::putChunkCODE()
{
putData("\0\0\0\0", 4);
putWord(numChunkCODE);
// Put statements.
for(auto &itr : prog->rangeFunction())
putFunc(itr);
}
RddResultCode GroupTransformer::transform(const ActorMessagePtr& msg, const vector<BaseRddPartition*>& input,
RddPartition* output) {
if (input.size() != 1) {
LOG(ERROR)<< "group transformer '" << output->getRddName() << "' with partition " << output->getPartition() << " must have one input RDD, caused by code " << RRC_INVALID_RDD_INPUT;
return RRC_INVALID_RDD_INPUT;
}
if (input[0]->empty()) {
DVLOG(3) << "group transformer '" << output->getRddName() << "' with partition " << output->getPartition() << " have no data.";
return RRC_SUCCESS;
}
RddResultCode code = RRC_SUCCESS;
ExpressionContext ctx;
auto& outMsg = output->getOutMessage(0);
auto filterExpr = output->getFilterExpression(0);
std::multimap<PbMessagePtr, PbMessagePtr, idgs::store::less> localCache;
input[0]->foreach([this, output, outMsg, filterExpr, &code, &ctx, &localCache] (const PbMessagePtr& key, const PbMessagePtr& value) {
ctx.setKeyValue(&key, &value);
try {
if (filterExpr) {
PbVariant var = filterExpr->evaluate(&ctx);
if (!(bool) var) {
return;
}
}
} catch (RddResultCode& err) {
LOG(ERROR) << "evaluate error, caused by code " << err;
code = err;
}
PbMessagePtr outKey, outValue;
outMsg.key.fillMessage(outKey, ctx);
outMsg.value.fillMessage(outValue, ctx);
#if (REPARTITION_BATCH <= 1)
std::vector<PbMessagePtr> values;
values.push_back(outValue);
output->put(outKey, values);
#else // (REPARTITION_BATCH == 0)
localCache.insert(std::pair<PbMessagePtr, PbMessagePtr>(outKey, outValue));
static idgs::pb::ClusterConfig* clusterConfig = ::idgs::util::singleton<idgs::cluster::ClusterFramework>::getInstance().getClusterConfig();
if(localCache.size() > clusterConfig->repartition_batch()) {
this->putData(output, localCache);
}
#endif // (REPARTITION_BATCH == 0)
});
#if (REPARTITION_BATCH > 1)
putData(output, localCache);
#endif
return code;
}
//
// Info::putChunkSPTR
//
void Info::putChunkSPTR()
{
if(!numChunkSPTR) return;
putData("SPTR", 4);
putWord(numChunkSPTR * (UseFakeACS0 ? 8 : 12));
for(auto const &itr : prog->rangeFunction())
{
if(itr.ctype != IR::CallType::Script &&
itr.ctype != IR::CallType::ScriptI &&
itr.ctype != IR::CallType::ScriptS)
continue;
if(!itr.defin) continue;
Core::FastU stype, value;
// Convert script type.
switch(itr.stype)
{
case IR::ScriptType::None: stype = 0; break;
case IR::ScriptType::Death: stype = 3; break;
case IR::ScriptType::Disconnect: stype = 14; break;
case IR::ScriptType::Enter: stype = 4; break;
case IR::ScriptType::Lightning: stype = 12; break;
case IR::ScriptType::Open: stype = 1; break;
case IR::ScriptType::Respawn: stype = 2; break;
case IR::ScriptType::Return: stype = 15; break;
case IR::ScriptType::Unloading: stype = 13; break;
}
// Convert script index.
if(itr.ctype == IR::CallType::ScriptS)
value = -static_cast<Core::FastI>(itr.valueInt) - 1;
else
value = itr.valueInt;
// Write entry.
if(UseFakeACS0)
{
putHWord(value);
putByte(stype);
putByte(itr.param);
putExpWord(resolveGlyph(itr.label));
}
else
{
putHWord(value);
putHWord(stype);
putExpWord(resolveGlyph(itr.label));
putWord(itr.param);
}
}
}
void ODBCStatementImpl::bindImpl()
{
doBind();
SQLRETURN rc = SQLExecute(_stmt);
if (SQL_NEED_DATA == rc) putData();
else checkError(rc, "SQLExecute()");
_pBinder->synchronize();
}
void Engine::setError(QString s, bool resetStack) {
if (s.isEmpty())
s = qApp->translate("Engine","Error");
if (!resetStack) {
recoveredDStack = getData();
putData(recoveredDStack);
}
changeState(sError);
errorString = s;
emit(stackChanged());
}
//
// Info::putChunkMSTR
//
void Info::putChunkMSTR()
{
if(!numChunkMSTR) return;
putData("MSTR", 4);
putWord(numChunkMSTR * 4);
auto const &ini = init[&prog->getSpaceMapReg()];
for(std::size_t i = 0, e = ini.vals.size(); i != e; ++i)
if(ini.vals[i].tag == InitTag::StrEn) putWord(i);
}
//
// Info::putChunkMINI
//
void Info::putChunkMINI()
{
if(!numChunkMINI) return;
auto const &ini = init[&prog->getSpaceMapReg()];
for(std::size_t i = 0, e = ini.vals.size(); i != e; ++i) if(ini.vals[i].val)
{
putData("MINI", 4);
putWord(8);
putWord(i);
putWord(ini.vals[i].val);
}
}
int main(int argc, char **argv)
{ struct soap soap;
// use HTTP 1.1 chunking
// HTTP chunking allows streaming of DIME content without requiring DIME attachment size to be set
// DIME attachments can be streamed without chunking ONLY if the attachment size is set
soap_init1(&soap, SOAP_IO_CHUNK);
// set DIME callbacks
soap.fdimereadopen = dime_read_open;
soap.fdimereadclose = dime_read_close;
soap.fdimeread = dime_read;
soap.fdimewriteopen = dime_write_open;
soap.fdimewriteclose = dime_write_close;
soap.fdimewrite = dime_write;
// connect timeout value (not supported by Linux)
soap.connect_timeout = 10;
// IO timeouts
soap.send_timeout = 30;
soap.recv_timeout = 30;
// Unix/Linux SIGPIPE, this is OS dependent:
// soap.accept_flags = SO_NOSIGPIPE; // some systems like this
// soap.socket_flags = MSG_NOSIGNAL; // others need this
// signal(SIGPIPE, sigpipe_handle); // or a sigpipe handler (portable)
if (argc < 3)
{ char *name;
if (argc < 2)
name = "image.jpg";
else
name = argv[1];
getImage(&soap, name);
}
else
{ switch (argv[1][1])
{ case 'p':
endpoint = localhost;
putData(&soap, argc, argv);
break;
case 'g':
endpoint = localhost;
getData(&soap, argc, argv);
break;
default:
fprintf(stderr, "Usage: [-p] [-g] name ...\n");
exit(0);
}
}
soap_destroy(&soap);
soap_end(&soap);
soap_done(&soap);
return SOAP_OK;
}
//
// Info::putChunkASTR
//
void Info::putChunkASTR()
{
if(!numChunkASTR) return;
putData("ASTR", 4);
putWord(numChunkASTR * 4);
for(auto const &itr : init)
if(itr.first->space.base == IR::AddrBase::MapArr)
{
if(itr.second.needTag && itr.second.onlyStr)
putWord(itr.first->value);
}
}
//
// Info::putChunkFUNC
//
void Info::putChunkFUNC()
{
if(!numChunkFUNC) return;
Core::Array<IR::Function const *> funcs{numChunkFUNC};
for(auto &f : funcs) f = nullptr;
for(auto const &itr : prog->rangeFunction())
{
if(itr.ctype != IR::CallType::LangACS)
continue;
funcs[itr.valueInt] = &itr;
}
putData("FUNC", 4);
putWord(numChunkFUNC * 8);
for(auto f : funcs)
{
if(f)
{
putByte(f->param);
putByte(std::max(f->localReg, f->param));
putByte(!!f->retrn);
putByte(0);
if(f->defin)
putExpWord(resolveGlyph(f->label));
else
putWord(0);
}
else
putData("\0\0\0\0\0\0\0\0", 8);
}
}
// 재귀호출
void putData(char *pszParam) {
if (*pszParam == '\0') {
return;
}
// 다음 두 구문의 순서를 바꾸면 문자열이 뒤집어져 출력됨
putchar(*pszParam);
//Sleep(500); // 한글자씩 표기되는거 보기 위해 슬립 걸어준다.
// 다음 글자를 가리키는 주소를 매개변수로 재귀호출한다.
putData(pszParam + 1); // 메모리 주소 이동..
}
//
// Info::putChunkAINI
//
void Info::putChunkAINI()
{
if(!numChunkAINI) return;
for(auto const &itr : init)
if(itr.first->space.base == IR::AddrBase::MapArr)
{
putData("AINI", 4);
putWord(itr.second.vals.size() * 4 + 4);
putWord(itr.first->value);
for(auto const &i : itr.second.vals)
putWord(i.val);
}
}
//
// Info::putChunkARAY
//
void Info::putChunkARAY()
{
if(!numChunkARAY) return;
putData("ARAY", 4);
putWord(numChunkARAY * 8);
for(auto const &itr : prog->rangeSpaceMapArs())
{
if(!itr.defin) continue;
putWord(itr.value);
putWord(itr.words);
}
}
//
// Info::putChunkLOAD
//
void Info::putChunkLOAD()
{
numChunkLOAD = prog->sizeImport();
if(!numChunkLOAD) return;
Core::FastU size = 0;
for(auto const &itr : prog->rangeImport())
size += lenString(itr.glyph);
putData("LOAD", 4);
putWord(size);
for(auto const &itr : prog->rangeImport())
putString(itr.glyph);
}
//
// Info::putChunk
//
void Info::putChunk(char const *name, Core::Array<Core::String> const &strs, bool junk)
{
std::size_t base;
std::size_t off;
// Calculate base offset.
base = strs.size() * 4 + 4;
if(junk) base += 8;
// Calculate size of chunk.
off = base;
for(auto const &s : strs)
off += lenString(s);
// Write chunk header.
putData(name, 4);
putWord(off);
// Write string count.
if(junk) putWord(0);
putWord(strs.size());
if(junk) putWord(0);
// Write string offsets.
off = base;
for(auto const &s : strs)
{
putWord(off);
off += lenString(s);
}
// Write strings.
if(junk && UseChunkSTRE)
{
off = base;
for(auto const &s : strs)
{
putString(s, off * 157135);
off += lenString(s);
}
}
else for(auto const &s : strs)
putString(s);
}
//
// Info::putChunkSVCT
//
void Info::putChunkSVCT()
{
if(!numChunkSVCT) return;
putData("SVCT", 4);
putWord(numChunkSFLG * 4);
for(auto const &itr : prog->rangeFunction())
{
if(itr.ctype != IR::CallType::Script &&
itr.ctype != IR::CallType::ScriptI &&
itr.ctype != IR::CallType::ScriptS)
continue;
if(!itr.defin) continue;
if(itr.localReg <= 20) continue;
putHWord(itr.valueInt);
putHWord(itr.localReg);
}
}
void KConfigBase::deleteEntry(const char *pKey, bool bNLS, bool bGlobal)
{
// the KConfig object is dirty now
// set this before any IO takes place so that if any derivative
// classes do caching, they won't try and flush the cache out
// from under us before we read. A race condition is still
// possible but minimized.
setDirty(true);
if(!bLocaleInitialized && KGlobal::locale())
setLocale();
KEntryKey entryKey(mGroup, pKey);
KEntry aEntryData;
aEntryData.bGlobal = bGlobal;
aEntryData.bNLS = bNLS;
aEntryData.bDirty = true;
aEntryData.bDeleted = true;
// rewrite the new value
putData(entryKey, aEntryData, true);
}
void
SystemControl::insert(char* buf, uval len)
{
uval x;
for (uval i=0; i<len; ++i) {
if (buf[i]=='|') {
buf[i]='\n';
}
}
while (len) {
lock.acquire();
x = spaceAvail();
if (x<len) {
len = x;
}
if (len>0) {
x = putData(buf, len);
buf += x;
sem.V(x);
len -= x;
}
lock.release();
}
}
//
// Info::putChunkAIMP
//
void Info::putChunkAIMP()
{
if(!numChunkAIMP) return;
Core::Array<IR::Space const *> imps{numChunkAIMP};
auto itr = imps.begin();
for(auto const &sp : prog->rangeSpaceMapArs())
if(!sp.defin) *itr++ = &sp;
Core::FastU size = numChunkAIMP * 8;
for(auto const &imp : imps)
size += lenString(imp->glyph);
putData("AIMP", 4);
putWord(size);
for(auto const &imp : imps)
{
putWord(imp->value);
putWord(imp->words);
putString(imp->glyph);
}
}