static VALUE ReadT_START (int argc, VALUE *argv, VALUE self) {
MQ_BUF MqBufferS_object = NULL;
SETUP_mqctx
if (argc < 0 || argc > 1)
rb_raise(rb_eArgError,"usage: ReadT_START ?MqBufferS-Type-Arg?");
if (argc == 1) {
CheckType(argv[0],cMqBufferS,"usage: ReadT_START ?MqBufferS-Type-Arg?")
MqBufferS_object = VAL2MqBufferS(argv[0]);
}
ErrorMqToRubyWithCheck(MqReadT_START(mqctx, MqBufferS_object));
return Qnil;
}
Port::Status
InputPort::GetStatus() const
{
// Get the output port connected to this port.
OutputPort *output = GetSource();
// Check it the port is disconnected...
if (output == NULL)
{
return m_is_required ? Required : Disconnected;
}
// Check if the type of this port is ok.
return CheckType() ? Ok : TypeMismatch;
}
Type ReadFPValueFromLua( lua_State *L, int Index )
{
CheckType( L, Index, LUA_TNUMBER );
int isnum;
auto Val = lua_tonumberx( L, Index, &isnum );
if( !isnum )
{
auto Str = lua_tostring( L, Index );
SCRIPT_PARSING_ERROR( L, "Failed to convert parameter ", Str, " to floating point" );
}
return static_cast<Type>(Val);
}
void PyTuple_AddItem(PyObject* object, PyObject* item)
{
if(!CheckType("PyTuple_AddItem", object, &PyTuple_Type))
return;
PyTupleObject* tupleObject = (PyTupleObject*)object;
if((tupleObject->tuple).size() >= tupleObject->size)
{
cout << "[Error]PyTuple_AddItem : size over flow" << endl;
return;
}
(tupleObject->tuple).push_back(item);
}
void Core::CheckDataTypeSizes()
{
CheckType(int8(), 8, "int8");
CheckType(uint8(), 8, "uint8");
CheckType(int16(), 16, "int16");
CheckType(uint16(), 16, "uint16");
CheckType(int32(), 32, "int32");
CheckType(uint32(), 32, "uint32");
}
IDeviceContext* EngineObjectParserBase::LoadDeviceContextFromRegistry( lua_State *L )
{
INIT_LUA_STACK_TRACKING( L );
lua_pushstring( L, ScriptParser::DeviceContextRegistryKey ); // -0 | +1 -> +1
lua_gettable(L, LUA_REGISTRYINDEX ); // -1 | +1 -> +0
CheckType( L, -1, LUA_TLIGHTUSERDATA );
IDeviceContext* pContext = reinterpret_cast<IDeviceContext*>( lua_touserdata(L, -1) );
lua_pop( L, 1 ); // -1 | +0 -> -1
VERIFY( pContext != nullptr, "Device context is null" );
CHECK_LUA_STACK_HEIGHT();
return pContext;
}
bool cFileList::CheckExcludes(char *dir, char *file)
{
if(!Excludes)
return false;
cFileOptListItem *eItem = Excludes->First();
while(eItem)
{
if(RegIMatch(file, eItem->Regex()) && CheckType(dir, file, eItem->FileType()))
return true;
eItem = Excludes->Next(eItem);
}
return false;
}
bool cFileList::CheckIncludes(char *dir, char *file)
{
if(!Includes)
return true;
cFileOptListItem *iItem = Includes->First();
while(iItem)
{
if(RegIMatch(file, iItem->Regex()) && CheckType(dir, file, iItem->FileType()))
return true;
iItem = Includes->Next(iItem);
}
return false;
}
Type ReadIntValueFromLua( lua_State *L, int Index )
{
CheckType( L, Index, LUA_TNUMBER );
int isnum;
auto Val = lua_tonumberx( L, Index, &isnum );
if( !isnum )
{
auto Str = lua_tostring( L, Index );
SCRIPT_PARSING_ERROR( L, "Failed to convert parameter ", Str, " to int" );
}
if( static_cast<Type>(Val) != Val )
{
SCRIPT_PARSING_ERROR( L, "Parameter value (", Val, ") is not integer. Truncating to int" );
}
return static_cast<Type>(Val);
}
CValueConvert<SRunTimeSqlCP, CDB_Object>::operator const CTime&(void) const
{
CheckNULL(m_Value);
CheckType(m_Value, eDB_SmallDateTime, eDB_DateTime);
EDB_Type cur_type = m_Value.GetType();
if (cur_type == eDB_SmallDateTime) {
return static_cast<const CDB_SmallDateTime&>(m_Value).Value();
} else if (cur_type == eDB_DateTime) {
return static_cast<const CDB_DateTime&>(m_Value).Value();
} else {
ReportTypeConvError(cur_type, "CTime");
}
static CSafeStaticPtr<CTime> value;
return value.Get();
}
void Type3Machine::EnterChar(char ch, int pos, int line)
{
if (_currentLexemePosition == -100)
{
_currentLexemePosition = pos;
_curlexline = line;
}
if (!_start)
{
CheckStart(ch);
if (!_start) _isError = true;
return;
}
if (((_step - 1) > 0) && (_step - 1 != 0) && (_buffer[_step - 1] == _buffer[0]) && ch != '\\')
{
_isFinished = true;
CheckType();
return;
}
int listcount = _words->count();
_isFinished = true;
for (int i = 0; i < listcount; i++)
{
if (strchr((char*)_words->get(i), ch) != nullptr)
{
_isFinished = false;
_buffer[_step++] = ch;
_buffer[_step] = '\0';
break;
}
}
if (_isFinished)
{
if (_buffer[strlen(_buffer) - 1] != _buffer[0])
{
_isFinished = false;
_isError = true;
}
}
}
void ParseNumericArray( lua_State *L, int StackIndex, std::vector< Uint8 >& RawData )
{
typedef typename VALUE_TYPE2CType<VTType>::CType ElemType;
CheckType( L, StackIndex, LUA_TTABLE );
auto ArraySize = lua_rawlen( L, StackIndex );
auto ElemSize = sizeof( ElemType );
RawData.reserve( ArraySize * ElemSize );
ParseLuaArray( L, StackIndex, &RawData, [ &]( void* pBasePointer, int StackIndex, int NewArrayIndex )
{
VERIFY( pBasePointer == &RawData, "Sanity check failed" );
auto CurrIndex = RawData.size() / ElemSize;
if(static_cast<int>(CurrIndex) != NewArrayIndex - 1 )
SCRIPT_PARSING_ERROR( L, "Explicit array indices are not allowed in array initialization. Provided index ", NewArrayIndex - 1, " conflicts with actual index ", CurrIndex, "." );
RawData.resize( (CurrIndex + 1) * ElemSize );
auto CurrValue = ReadValueFromLua<double>( L, StackIndex );
reinterpret_cast<ElemType&>(RawData[CurrIndex * ElemSize]) = static_cast<ElemType>(CurrValue);
} );
}
//---------------------------------------------------------------------------
const matrix_type& Value::GetArray() const
{
CheckType('m');
assert(m_pvVal!=nullptr);
return *m_pvVal;
}
//---------------------------------------------------------------------------
bool Value::GetBool() const
{
CheckType('b');
return m_val.real()==1;
}
//---------------------------------------------------------------------------
const string_type& Value::GetString() const
{
CheckType('s');
assert(m_psVal!=nullptr);
return *m_psVal;
}
Bool ReadValueFromLua<Bool>( lua_State *L, int Index )
{
CheckType( L, Index, LUA_TBOOLEAN );
auto Val = lua_toboolean( L, Index );
return Val ? True : False;
}
void VM::ExecuteFrame()
{
CallInfo *call = &state_->calls_.back();
Closure *cl = call->func_->closure_;
Function *proto = cl->GetPrototype();
Value *a = nullptr;
Value *b = nullptr;
Value *c = nullptr;
while (call->instruction_ < call->end_)
{
state_->CheckRunGC();
Instruction i = *call->instruction_++;
switch (Instruction::GetOpCode(i)) {
case OpType_LoadNil:
a = GET_REGISTER_A(i);
GET_REAL_VALUE(a)->SetNil();
break;
case OpType_LoadBool:
a = GET_REGISTER_A(i);
GET_REAL_VALUE(a)->SetBool(Instruction::GetParamB(i) ? true : false);
break;
case OpType_LoadInt:
a = GET_REGISTER_A(i);
assert(call->instruction_ < call->end_);
a->num_ = (*call->instruction_++).opcode_;
a->type_ = ValueT_Number;
break;
case OpType_LoadConst:
a = GET_REGISTER_A(i);
b = GET_CONST_VALUE(i);
*GET_REAL_VALUE(a) = *b;
break;
case OpType_Move:
a = GET_REGISTER_A(i);
b = GET_REGISTER_B(i);
*GET_REAL_VALUE(a) = *GET_REAL_VALUE(b);
break;
case OpType_Call:
a = GET_REGISTER_A(i);
if (Call(a, i)) return ;
break;
case OpType_GetUpvalue:
a = GET_REGISTER_A(i);
b = GET_UPVALUE_B(i)->GetValue();
*GET_REAL_VALUE(a) = *b;
break;
case OpType_SetUpvalue:
a = GET_REGISTER_A(i);
b = GET_UPVALUE_B(i)->GetValue();
*b = *a;
break;
case OpType_GetGlobal:
a = GET_REGISTER_A(i);
b = GET_CONST_VALUE(i);
*GET_REAL_VALUE(a) = state_->global_.table_->GetValue(*b);
break;
case OpType_SetGlobal:
a = GET_REGISTER_A(i);
b = GET_CONST_VALUE(i);
state_->global_.table_->SetValue(*b, *a);
break;
case OpType_Closure:
a = GET_REGISTER_A(i);
GenerateClosure(a, i);
break;
case OpType_VarArg:
a = GET_REGISTER_A(i);
CopyVarArg(a, i);
break;
case OpType_Ret:
a = GET_REGISTER_A(i);
return Return(a, i);
case OpType_JmpFalse:
a = GET_REGISTER_A(i);
if (GET_REAL_VALUE(a)->IsFalse())
call->instruction_ += -1 + Instruction::GetParamsBx(i);
break;
case OpType_JmpTrue:
a = GET_REGISTER_A(i);
if (!GET_REAL_VALUE(a)->IsFalse())
call->instruction_ += -1 + Instruction::GetParamsBx(i);
break;
case OpType_JmpNil:
a = GET_REGISTER_A(i);
if (a->type_ == ValueT_Nil)
call->instruction_ += -1 + Instruction::GetParamsBx(i);
break;
case OpType_Jmp:
call->instruction_ += -1 + Instruction::GetParamsBx(i);
break;
case OpType_Neg:
a = GET_REGISTER_A(i);
CheckType(a, ValueT_Number, "neg");
a->num_ = -a->num_;
break;
case OpType_Not:
a = GET_REGISTER_A(i);
a->SetBool(a->IsFalse() ? true : false);
break;
case OpType_Len:
a = GET_REGISTER_A(i);
if (a->type_ == ValueT_Table)
a->num_ = a->table_->ArraySize();
else if (a->type_ == ValueT_String)
a->num_ = a->str_->GetLength();
else
ReportTypeError(a, "length of");
a->type_ = ValueT_Number;
break;
case OpType_Add:
GET_REGISTER_ABC(i);
CheckArithType(b, c, "add");
a->num_ = b->num_ + c->num_;
a->type_ = ValueT_Number;
break;
case OpType_Sub:
GET_REGISTER_ABC(i);
CheckArithType(b, c, "sub");
a->num_ = b->num_ - c->num_;
a->type_ = ValueT_Number;
break;
case OpType_Mul:
GET_REGISTER_ABC(i);
CheckArithType(b, c, "multiply");
a->num_ = b->num_ * c->num_;
a->type_ = ValueT_Number;
break;
case OpType_Div:
GET_REGISTER_ABC(i);
CheckArithType(b, c, "div");
a->num_ = b->num_ / c->num_;
a->type_ = ValueT_Number;
break;
case OpType_Pow:
GET_REGISTER_ABC(i);
CheckArithType(b, c, "power");
a->num_ = pow(b->num_, c->num_);
a->type_ = ValueT_Number;
break;
case OpType_Mod:
GET_REGISTER_ABC(i);
CheckArithType(b, c, "mod");
a->num_ = fmod(b->num_, c->num_);
a->type_ = ValueT_Number;
break;
case OpType_Concat:
GET_REGISTER_ABC(i);
Concat(a, b, c);
break;
case OpType_Less:
GET_REGISTER_ABC(i);
CheckInequalityType(b, c, "compare(<)");
if (b->type_ == ValueT_Number)
a->SetBool(b->num_ < c->num_);
else
a->SetBool(*b->str_ < *c->str_);
break;
case OpType_Greater:
GET_REGISTER_ABC(i);
CheckInequalityType(b, c, "compare(>)");
if (b->type_ == ValueT_Number)
a->SetBool(b->num_ > c->num_);
else
a->SetBool(*b->str_ > *c->str_);
break;
case OpType_Equal:
GET_REGISTER_ABC(i);
a->SetBool(*b == *c);
break;
case OpType_UnEqual:
GET_REGISTER_ABC(i);
a->SetBool(*b != *c);
break;
case OpType_LessEqual:
GET_REGISTER_ABC(i);
CheckInequalityType(b, c, "compare(<=)");
if (b->type_ == ValueT_Number)
a->SetBool(b->num_ <= c->num_);
else
a->SetBool(*b->str_ <= *c->str_);
break;
case OpType_GreaterEqual:
GET_REGISTER_ABC(i);
CheckInequalityType(b, c, "compare(>=)");
if (b->type_ == ValueT_Number)
a->SetBool(b->num_ >= c->num_);
else
a->SetBool(*b->str_ >= *c->str_);
break;
case OpType_NewTable:
a = GET_REGISTER_A(i);
a->table_ = state_->NewTable();
a->type_ = ValueT_Table;
break;
case OpType_SetTable:
GET_REGISTER_ABC(i);
CheckTableType(a, b, "set", "to");
if (a->type_ == ValueT_Table)
a->table_->SetValue(*b, *c);
else if (a->type_ == ValueT_UserData)
a->user_data_->GetMetatable()->SetValue(*b, *c);
else
assert(0);
break;
case OpType_GetTable:
GET_REGISTER_ABC(i);
CheckTableType(a, b, "get", "from");
if (a->type_ == ValueT_Table)
*c = a->table_->GetValue(*b);
else if (a->type_ == ValueT_UserData)
*c = a->user_data_->GetMetatable()->GetValue(*b);
else
assert(0);
break;
case OpType_ForInit:
GET_REGISTER_ABC(i);
ForInit(a, b, c);
break;
case OpType_ForStep:
GET_REGISTER_ABC(i);
i = *call->instruction_++;
if ((c->num_ > 0.0 && a->num_ > b->num_) ||
(c->num_ <= 0.0 && a->num_ < b->num_))
call->instruction_ += -1 + Instruction::GetParamsBx(i);
break;
default:
break;
}
}
Value *new_top = call->func_;
// Reset top value
state_->stack_.SetNewTop(new_top);
// Set expect results
if (call->expect_result_ != EXP_VALUE_COUNT_ANY)
state_->stack_.SetNewTop(new_top + call->expect_result_);
// Pop current CallInfo, and return to last CallInfo
state_->calls_.pop_back();
}
TEST(property_type, CheckType_size) {
EXPECT_TRUE(CheckType("size", ""));
EXPECT_FALSE(CheckType("size", "ab"));
EXPECT_FALSE(CheckType("size", "abcd"));
EXPECT_FALSE(CheckType("size", "0"));
EXPECT_TRUE(CheckType("size", "512g"));
EXPECT_TRUE(CheckType("size", "512k"));
EXPECT_TRUE(CheckType("size", "512m"));
EXPECT_FALSE(CheckType("size", "512gggg"));
EXPECT_FALSE(CheckType("size", "512mgk"));
EXPECT_FALSE(CheckType("size", "g"));
EXPECT_FALSE(CheckType("size", "m"));
}
static VALUE ReadProxy (VALUE self, VALUE mqs) {
SETUP_mqctx
CheckType(mqs, cMqS, "usage: ReadProxy MqS-Type-Arg");
ErrorMqToRubyWithCheck(MqReadProxy(mqctx, VAL2MqS(mqs)));
return Qnil;
}
void ParseUnary()
{
while(Token==TOK_SUB || Token==TOK_NOT || Token==TOK_NEG ||
Token==TOK_MUL || Token==TOK_AND ||
Token==TOK_INC || Token==TOK_DEC)
{
Match();
Out(" ");
}
if(IsScopedName())
ParseScopedName();
else
{
switch(Token)
{
case TOK_VALUE:
Match();
break;
case TOK_OPEN:
Match();
if(CheckType()) // cast
{
ParseFunctionPtrType();
//ParseType();
Match(TOK_CLOSE);
ParseExpr();
}
else // subexpression
{
ParseExpr();
Match(TOK_CLOSE);
}
break;
case TOK_SIZEOF:
Match();
if(Token==TOK_OPEN)
{
Match(TOK_OPEN);
ParseSizeofExpr();
Match(TOK_CLOSE);
}
else
{
Out("(");
ParseSizeofExpr();
Out(")");
}
break;
case TOK_NEW:
Match();
Out(" ");
ParseType();
break;
default:
Error("expression");
break;
}
}
/*
if(Token==TOK_LT)
{
ScanSafe();
Scan();
if(CheckType())
{
Out("<");
ParseType();
Match(TOK_GT);
}
else
{
ScanRestore();
}
}
*/
if(Token==TOK_LT && ACheckType())
{
Match(TOK_LT);
ParseType();
Match(TOK_GT);
}
while(Token==TOK_INC || Token==TOK_DEC || Token==TOK_DOT || Token==TOK_OPEN || Token==TOK_SOPEN || (Token==TOK_LT && Peek()==TOK_TYPE))
{
switch(Token)
{
case TOK_LT:
Match(TOK_LT);
Match(TOK_TYPE);
Match(TOK_GT);
break;
case TOK_INC:
case TOK_DEC:
Match();
Out(" ");
break;
case TOK_DOT:
Match(TOK_DOT);
Match(TOK_NAME);
break;
case TOK_OPEN:
Match();
if(Token!=TOK_CLOSE)
{
ParseExpr();
while(Token!=TOK_CLOSE)
{
Match(TOK_COMMA);
ParseExpr();
}
}
Match();
break;
case TOK_SOPEN:
Match(TOK_SOPEN);
ParseExpr();
Match(TOK_SCLOSE);
break;
}
}
}
void ParseStatement()
{
sInt elsemod;
if(CheckType())
{
NewLine();
ParseDecl();
return;
}
switch(Token)
{
case TOK_PRE:
Out("\n");
Match();
break;
case TOK_WHILE:
NewLine();
Match();
Match(TOK_OPEN);
ParseAssignExpr();
Match(TOK_CLOSE);
ParseCondBlock();
//ParseStatement();
break;
case TOK_SWITCH:
NewLine();
Match();
Match(TOK_OPEN);
ParseAssignExpr();
Match(TOK_CLOSE);
ParseSwitchBlock();
break;
/*
case TOK_CASE:
NewLine(-1);
Match();
Out(" ");
if(Token==TOK_VALUE)
{
Match();
Match(TOK_COLON);
}
else if(Token==TOK_LABEL)
{
Match();
}
else
{
Error("case label");
}
break;
*/
case TOK_BREAK:
NewLine();
Match();
Match(TOK_SEMI);
break;
case TOK_RETURN:
NewLine();
Match();
Out(" ");
if(Token!=TOK_SEMI)
ParseAssignExpr();
Match(TOK_SEMI);
break;
case TOK_IF:
NewLine();
Match(TOK_IF);
Match(TOK_OPEN);
ParseAssignExpr();
Match(TOK_CLOSE);
ParseCondBlock(&elsemod,sFALSE);
if(Token==TOK_ELSE)
{
NewLine();
Match(TOK_ELSE);
ParseCondBlock(&elsemod,sTRUE);
}
else
{
if(Mode == 1)
{
NewLine();
OutF("else");
OutBOpen();
NewLine();
OutF("sLekktor_%s.Set(%d);",LekktorName,elsemod);
OutBClose();
}
}
break;
case TOK_ASM:
NewLine();
Match(TOK_ASM);
InlineAssembly();
if(Token==TOK_SEMI)
Match();
break;
case TOK_FOR:
NewLine();
Match(TOK_FOR);
Match(TOK_OPEN);
if(Token!=TOK_SEMI)
{
if(CheckType())
{
ParseDecl();
}
else
{
ParseAssignExpr();
Match(TOK_SEMI);
}
}
else
Match();
if(Token!=TOK_SEMI)
ParseAssignExpr();
Match(TOK_SEMI);
if(Token!=TOK_CLOSE)
ParseAssignExpr();
Match(TOK_CLOSE);
ParseCondBlock();
break;
case TOK_DO:
NewLine();
Match(TOK_DO);
ParseCondBlock();
NewLine();
Match(TOK_WHILE);
Match(TOK_OPEN);
ParseAssignExpr();
Match(TOK_CLOSE);
Match(TOK_SEMI);
break;
case TOK_BOPEN:
ParseBlock();
break;
case TOK_DELETEA:
case TOK_DELETE:
NewLine();
Match();
Out(" ");
ParseExpr();
Match(TOK_SEMI);
break;
case TOK_GOTO:
NewLine();
Match(TOK_GOTO);
Out(" ");
Match(TOK_NAME);
Match(TOK_SEMI);
break;
case TOK_SEMI:
NewLine();
Match();
break;
case TOK_TYPEDEF:
NewLine();
Match();
Out(" ");
intypedef = sTRUE;
gottype = sFALSE;
ParseFunctionPtrType();
intypedef = sFALSE;
Out(" ");
if(Token == TOK_NAME)
{
AddType(Value);
Match();
}
else if(!gottype)
Error("typedef error");
Match(TOK_SEMI);
break;
case TOK_NAMESPACE:
NewLine();
Match();
Out(" ");
if(Token==TOK_NAME) // name may be omitted
Match(TOK_NAME);
ParseBlock();
break;
case TOK_USING:
NewLine();
Match();
Out(" ");
if(Token==TOK_NAMESPACE)
{
Match();
Out(" ");
}
ParseScopedName();
Match(TOK_SEMI);
break;
case TOK_VCTRY:
NewLine();
Match();
ParseStatement();
if(Token == TOK_VCEXCEPT)
{
NewLine();
Match();
Match(TOK_OPEN);
ParseExpr();
Match(TOK_CLOSE);
ParseStatement();
}
break;
case TOK_NAME:
if(Peek() == TOK_COLON)
{
NewLine();
Match();
Match();
break;
}
// fall-through
/*case TOK_LABEL:
NewLine();
Match();
break;*/
default:
NewLine();
ParseAssignExpr();
Match(TOK_SEMI);
break;
}
}
//============================================================================
//起動
//============================================================================
void CResourceManager::Run()
{
for(;;)
{
CFileData *pFile = NULL;
Sint32 ActivePage = -1;
/*終了チェック*/
if( m_Event.IsSignal() )
{
break;
}
/*今回取得するリストを取得*/
m_CS.Enter();
/*これから処理するページ*/
ActivePage = m_Page;
/*ページ切り替え*/
m_Page = 1 - m_Page;
/*先頭を取得*/
pFile = m_pQueTop[ActivePage];
m_CS.Leave();
if( pFile == NULL )
{
::Sleep( 250 );
continue;
}
while( pFile != NULL )
{
/*リソースタイプを判別*/
CheckType( pFile );
/*次を取得*/
CFileData *pNext = pFile->GetNext();
/*現在のものを削除*/
delete pFile;
pFile = pNext;
}
/*リスト初期化*/
m_pQueTop[ActivePage] = NULL;
}
//----------------------------------------------------------------------------
//キューの中身をクリア
//----------------------------------------------------------------------------
for( Sint32 i = 0;i < QUE_MAX;++i )
{
CFileData *pFile = m_pQueTop[i];
while( pFile != NULL )
{
CFileData *pNext = pFile->GetNext();
delete pFile ;
pFile = pNext;
}
m_pQueTop[i] = NULL;
}
}