// If bound_below (bound_above) is not indeterminate it is a value which the condition value
// is known top be greater than (less than or equal)
void MultiWayGroupList::generate_code(StatementList *x) {
// start by trying to merge blocks
bool closed = false;
while (!closed) {
closed = true;
size_t i = 0;
while (i + 1 < _list.length()) {
MultiWayGroup *low = _list[i];
MultiWayGroup *high = _list[i + 1];
double density = (double)(low->get_label_count() + high->get_label_count())
/(high->get_high_bound() - low->get_low_bound() + 1).c_double();
if (density >= required_density) {
low->merge(*high);
delete high->get_statement();
delete high;
_list.erase(i + 1);
closed = false;
i++; // skip over element we just removed
}
i ++;
}
}
generate_code_subgroup(x,IInteger(),IInteger(),0,_list.length() - 1);
}
CForStatement* make_strip(SuifEnv *env, VariableSymbol* loop_counter, int upper_bound, int step_size, Statement* body) {
TypeBuilder *type_builder = get_type_builder(env);
Statement *before_stmt = create_store_variable_statement(env, loop_counter, create_int_constant(env, IInteger(0)));
Expression *test_expr = create_binary_expression(env, type_builder->get_boolean_type(), "is_less_than", create_var_use(loop_counter),
create_int_constant(env, IInteger(upper_bound)));
Expression *step_expr = create_binary_expression(env, loop_counter->get_type()->get_base_type(), "add",
create_var_use(loop_counter), create_int_constant(env, IInteger(step_size)));
Statement *step_stmt = create_store_variable_statement(env, loop_counter, step_expr);
return create_c_for_statement(env, before_stmt, test_expr, step_stmt, body);
}
void MarkRedundantPass::do_procedure_definition(ProcedureDefinition* proc_def)
{
procDef = proc_def ;
assert(procDef != NULL) ;
OutputInformation("Marking a redundant label") ;
list<LabelLocationStatement*>* allLabels =
collect_objects<LabelLocationStatement>(procDef->get_body()) ;
list<LabelLocationStatement*>::iterator labelIter = allLabels->begin() ;
while (labelIter != allLabels->end())
{
if ((*labelIter)->get_defined_label()->get_name() == redundantLabel)
{
BrickAnnote* labelBrick = create_brick_annote(theEnv, "Redundant") ;
IntegerBrick* doubleBrick =
create_integer_brick(theEnv, IInteger(doubleOrTriple)) ;
labelBrick->append_brick(doubleBrick) ;
(*labelIter)->append_annote(labelBrick) ;
}
++labelIter ;
}
delete allLabels ;
OutputInformation("Done marking a redundant label") ;
}
void SingleInheritanceVtbls::
attach_vtbl_slot_number_annotes( SingleInheritanceClassType* ctype ) {
vtbl_t* vtbl = build_vtbls( ctype );
unsigned vtbl_size = vtbl->size();
for ( unsigned i = 0 ; i < vtbl_size ; i++ ) {
InstanceMethodSymbol* msym = (*vtbl)[i];
::attach_vtbl_slot_number_annote( _env, msym, IInteger(i) );
}
}
DataType* ExportPass::CloneDataType(DataType* t)
{
assert(t != NULL) ;
PointerType* pointerClone = dynamic_cast<PointerType*>(t) ;
ReferenceType* referenceClone = dynamic_cast<ReferenceType*>(t) ;
ArrayType* arrayClone = dynamic_cast<ArrayType*>(t) ;
if (pointerClone != NULL)
{
QualifiedType* refType =
dynamic_cast<QualifiedType*>(pointerClone->get_reference_type()) ;
assert(refType != NULL) ;
DataType* cloneType = CloneDataType(refType->get_base_type()) ;
assert(cloneType != NULL) ;
return create_pointer_type(theEnv,
IInteger(32),
0,
create_qualified_type(theEnv, cloneType)) ;
}
if (referenceClone != NULL)
{
QualifiedType* refType =
dynamic_cast<QualifiedType*>(referenceClone->get_reference_type()) ;
assert(refType != NULL) ;
DataType* clonedType = CloneDataType(refType->get_base_type()) ;
return create_reference_type(theEnv,
IInteger(32),
0,
create_qualified_type(theEnv, clonedType)) ;
}
if (arrayClone != NULL)
{
QualifiedType* elementType = arrayClone->get_element_type() ;
DataType* internalType = CloneDataType(elementType->get_base_type()) ;
QualifiedType* finalQual = create_qualified_type(theEnv, internalType) ;
return create_pointer_type(theEnv,
IInteger(32),
0,
finalQual) ;
}
return dynamic_cast<DataType*>(t->deep_clone()) ;
}
MultiValueBlock* NodeBuilder::new_cstr_value_block(String s)
{
ArrayType* type =
_type_builder->get_array_type(get_qualified_type(get_char_type()),
IInteger(0),
IInteger(s.length()+1));
MultiValueBlock* mb = create_multi_value_block(_suif_env, type);
IInteger charlen = get_char_type()->get_bit_size();
IInteger offset(0);
for (int i =0; i<s.length(); i++) {
mb->add_sub_block(offset,
create_expression_value_block(_suif_env,
char_const(s[i])));
offset += charlen;
}
mb->add_sub_block(offset,
create_expression_value_block(_suif_env,
char_const('\0')));
return mb;
}
static Expression *build_empty_expression(DataType *t) {
SuifEnv *s = t->get_suif_env();
suif_assert_message(!is_kind_of<GroupType>(t),
("build_empty_expression:: can not handle GroupType"));
if (is_kind_of<VoidType>(t))
return(NULL);
if (is_kind_of<IntegerType>(t)) {
IntConstant *c = create_int_constant(s, t, IInteger(0));
return c;
}
// This works for Int, Float, Enum, pointers
TypeBuilder *tb = get_type_builder(s);
IntegerType *it = tb->get_integer_type();
IntConstant *c = create_int_constant(s, it, IInteger(0));
Expression *cvt = create_unary_expression(s, t, k_convert, c);
return(cvt);
}
/** Create an expression for byte offset of a group field.
*
*/
Expression* NodeBuilder::get_field_offset_exp(FieldSymbol* fsym)
{
Expression *boffset = fsym->get_bit_offset();
if (!is_kind_of<IntConstant>(boffset)) {
trash(fsym);
SUIF_THROW(SuifException(String("Field offset not in IntConstant ") +
to_id_string(fsym)));
}
IInteger v = to<IntConstant>(boffset)->get_value();
return int_const(v.div(IInteger(BITSPERBYTE)));
}
IntConstant* build_vtbl_slot_count_int_constant( SuifEnv* env,
ClassType* owning_class )
{
TypeBuilder* tb = get_type_builder( env );
IntConstant* icnst =
::create_int_constant( env,
tb->get_integer_type( true ), // result_type
IInteger() // value: inserted later
);
attach_vtbl_slot_count_annote( env, icnst, owning_class );
return icnst;
}
IntConstant* build_vtbl_slot_int_constant( SuifEnv* env,
InstanceMethodSymbol* msym )
{
TypeBuilder* tb = get_type_builder( env );
IntConstant* icnst =
::create_int_constant( env,
tb->get_integer_type( true ), // result_type
IInteger() // value: inserted later
);
attach_vtbl_slot_annote( env, icnst, msym );
return icnst;
}
/*
* The default type of a vtbl slot is void* [ <vtbl-size> ].
*/
DataType*
SingleInheritanceVtbls::get_vtbl_type( SingleInheritanceClassType* ctype,
IInteger vtbl_size )
{
DataType* slot_type = vtbl_slot_type( ctype );
QualifiedType* q_slot_type = _tb->get_qualified_type( slot_type );
ArrayType* vtbl_type =
_tb->get_array_type( q_slot_type,
IInteger(0),
(vtbl_size - 1) );
return vtbl_type;
}
void ExportPass::ConstructModuleSymbols()
{
CProcedureType* originalType = dynamic_cast<CProcedureType*>(originalProcedure->get_procedure_symbol()->get_type()) ;
assert(originalType != NULL) ;
// The original type takes and returns a struct. We need to change this
// to a list of arguments.
VoidType* newReturnType = create_void_type(theEnv, IInteger(0), 0) ;
constructedType = create_c_procedure_type(theEnv,
newReturnType,
false, // has varargs
true, // arguments_known
0, // bit alignment
LString("ConstructedType")) ;
StructType* returnType =
dynamic_cast<StructType*>(originalType->get_result_type()) ;
assert(returnType != NULL) ;
SymbolTable* structSymTab = returnType->get_group_symbol_table() ;
assert(structSymTab != NULL) ;
for (int i = 0 ; i < structSymTab->get_symbol_table_object_count() ; ++i)
{
VariableSymbol* nextVariable =
dynamic_cast<VariableSymbol*>(structSymTab->get_symbol_table_object(i));
if (nextVariable != NULL)
{
// Check to see if this is an output or not
QualifiedType* cloneType ;
DataType* cloneBase =
dynamic_cast<DataType*>(nextVariable->get_type()->get_base_type()->deep_clone()) ;
assert(cloneBase != NULL) ;
cloneType = create_qualified_type(theEnv, cloneBase) ;
if (nextVariable->lookup_annote_by_name("Output") != NULL)
{
cloneType->append_annote(create_brick_annote(theEnv, "Output")) ;
// Why doesn't this stick around?
}
constructedType->append_argument(cloneType) ;
}
}
constructedSymbol = create_procedure_symbol(theEnv,
constructedType,
originalProcedure->get_procedure_symbol()->get_name()) ;
constructedSymbol->set_definition(NULL) ;
}
void solve_li_c_for_stmt(Statement *s){
SuifEnv *env = s->get_suif_env();
CForStatement *c_for_stmt = to<CForStatement>(s);
BrickAnnote *nest_level = to<BrickAnnote>(s->lookup_annote_by_name("c_for_info"));
if(nest_level->get_brick_count() == 0){
nest_level->insert_brick(0, create_integer_brick(env, IInteger(++loop_level)));
BrickAnnote *loop_label = to<BrickAnnote>(s->lookup_annote_by_name("c_for_label"));
if(loop_label->get_brick_count() == 0){
loop_label->insert_brick(0, create_string_brick(env, String(loop_level)));
}
}
Statement *body = c_for_stmt->get_body();
solve_li_statement(body);
--loop_level;
}
void CleanupBoolSelsPass::do_procedure_definition(ProcedureDefinition* p)
{
procDef = p ;
assert(procDef != NULL) ;
OutputInformation("Cleanup Boolean Select Pass Begins") ;
// Find all of the locations that have been marked as "UndefinedPath"
Annote* functionAnnote = procDef->lookup_annote_by_name("FunctionType") ;
BrickAnnote* functionBrickAnnote =
dynamic_cast<BrickAnnote*>(functionAnnote) ;
assert(functionBrickAnnote != NULL) ;
IntegerBrick* valueBrick =
dynamic_cast<IntegerBrick*>(functionBrickAnnote->get_brick(0)) ;
assert(valueBrick != NULL) ;
int myType = valueBrick->get_value().c_int() ;
if (myType == MODULE)
{
// Find all of the expressions marked "UndefinedPath" and replace with
// the integer constant zero.
list<Expression*>* allExpr =
collect_objects<Expression>(procDef->get_body()) ;
list<Expression*>::iterator exprIter = allExpr->begin() ;
while (exprIter != allExpr->end())
{
if ((*exprIter)->lookup_annote_by_name("UndefinedPath") != NULL)
{
Expression* zero =
create_int_constant(theEnv,
(*exprIter)->get_result_type(),
IInteger(0)) ;
(*exprIter)->get_parent()->replace((*exprIter), zero) ;
}
++exprIter ;
}
delete allExpr ;
}
OutputInformation("Cleanup Boolean Select Pass Ends") ;
}
/*
* Constructs the actual vtbl.
* A vtbl is implemented as an array of pointers that point to
* the addresses of the dispatched methods.
* A method address is kept in a ExpressionValueBlock.
*
* The VariableDefinition that holds the array is returned. It
* must be
* - inserted into a DefinitionBlock
* - attached to a VariableSymbol.
*/
VariableDefinition*
SingleInheritanceVtbls::get_vtbl( SingleInheritanceClassType* ctype ) {
vtbl_t* vtbl = build_vtbls( ctype );
unsigned vtbl_size = vtbl->size();
// DataType* slot_type = vtbl_slot_type( ctype );
// QualifiedType* q_slot_type = _tb->get_qualified_type( slot_type );
DataType* vtbl_type = get_vtbl_type( ctype, vtbl_size );
// _tb->get_array_type( q_slot_type,
// IInteger(0),
// IInteger(vtbl_size - 1) );
MultiValueBlock* mvb = ::create_multi_value_block( _env, vtbl_type );
for ( unsigned i = 0 ; i < vtbl_size ; i++ ) {
InstanceMethodSymbol* msym = (*vtbl)[i];
::attach_vtbl_slot_number_annote( _env, msym, IInteger(i) );
ProcedureType* mtype = msym->get_type();
PointerType* ptr_to_mtype = get_pointer_type( _env, mtype );
SymbolAddressExpression* sa_expr =
::create_symbol_address_expression( _env, ptr_to_mtype, msym );
msym->set_is_address_taken( true );
ExpressionValueBlock* evb =
::create_expression_value_block( _env, sa_expr );
append_to_multi_value_block( mvb, evb );
}
return ::create_variable_definition( _env,
NULL, // variable_symbol
0, // @@@ bit_alignment
mvb,
true // is_static
);
}
Constant* MiniConstantPropagationPass::Merge(Constant* x, Constant* y,
LString opcode)
{
assert(theEnv != NULL) ;
if (x == NULL || y == NULL)
{
return NULL ;
}
IntConstant* xInt = dynamic_cast<IntConstant*>(x) ;
IntConstant* yInt = dynamic_cast<IntConstant*>(y) ;
FloatConstant* xFloat = dynamic_cast<FloatConstant*>(x) ;
FloatConstant* yFloat = dynamic_cast<FloatConstant*>(y) ;
// This mini propagation only cares for addition and subtraction. Other
// propagations will be handled in a later pass.
if (opcode == LString("add"))
{
if (xInt != NULL && yInt != NULL)
{
int mergedValue = xInt->get_value().c_int() + yInt->get_value().c_int() ;
return create_int_constant(theEnv, xInt->get_result_type(),
IInteger(mergedValue)) ;
}
if (xFloat != NULL && yFloat != NULL)
{
float mergedValue = StringToFloat(xFloat->get_value()) +
StringToFloat(yFloat->get_value()) ;
return create_float_constant(theEnv, xFloat->get_result_type(),
FloatToString(mergedValue)) ;
}
if (xInt != NULL && yFloat != NULL)
{
float mergedValue = xInt->get_value().c_int() +
StringToFloat(yFloat->get_value()) ;
return create_float_constant(theEnv, yFloat->get_result_type(),
FloatToString(mergedValue)) ;
}
if (xFloat != NULL && yInt != NULL)
{
float mergedValue = StringToFloat(xFloat->get_value()) +
yInt->get_value().c_int() ;
return create_float_constant(theEnv, xFloat->get_result_type(),
FloatToString(mergedValue)) ;
}
}
if (opcode == LString("subtract"))
{
if (xInt != NULL && yInt != NULL)
{
int mergedValue = xInt->get_value().c_int() - yInt->get_value().c_int() ;
return create_int_constant(theEnv, xInt->get_result_type(),
IInteger(mergedValue)) ;
}
if (xFloat != NULL && yFloat != NULL)
{
float mergedValue = StringToFloat(xFloat->get_value()) -
StringToFloat(yFloat->get_value()) ;
return create_float_constant(theEnv, xFloat->get_result_type(),
FloatToString(mergedValue)) ;
}
if (xInt != NULL && yFloat != NULL)
{
float mergedValue = xInt->get_value().c_int() -
StringToFloat(yFloat->get_value()) ;
return create_float_constant(theEnv, yFloat->get_result_type(),
FloatToString(mergedValue)) ;
}
if (xFloat != NULL && yInt != NULL)
{
float mergedValue = StringToFloat(xFloat->get_value()) -
yInt->get_value().c_int() ;
return create_float_constant(theEnv, xFloat->get_result_type(),
FloatToString(mergedValue)) ;
}
}
return NULL ;
}
void TransformSystemsToModules::Transform()
{
assert(procDef != NULL) ;
// Collect all the input scalars and output scalars
list<VariableSymbol*> ports ;
SymbolTable* procSymTab = procDef->get_symbol_table() ;
bool foundInputs = false ;
bool foundOutputs = false ;
for (int i = 0 ; i < procSymTab->get_symbol_table_object_count() ; ++i)
{
SymbolTableObject* nextObject = procSymTab->get_symbol_table_object(i) ;
if (nextObject->lookup_annote_by_name("InputScalar") != NULL)
{
VariableSymbol* toConvert =
dynamic_cast<VariableSymbol*>(nextObject) ;
assert(toConvert != NULL) ;
LString inputName = toConvert->get_name() ;
inputName = inputName + "_in" ;
toConvert->set_name(inputName) ;
ports.push_back(toConvert) ;
foundInputs = true ;
}
if (nextObject->lookup_annote_by_name("OutputVariable") != NULL)
{
VariableSymbol* toConvert =
dynamic_cast<VariableSymbol*>(nextObject) ;
assert(toConvert != NULL) ;
LString outputName = toConvert->get_name() ;
outputName = outputName + "_out" ;
toConvert->set_name(outputName) ;
ports.push_back(toConvert) ;
foundOutputs = true ;
}
}
assert(foundInputs &&
"Could not identify inputs. Were they removed via optimizations?") ;
assert(foundOutputs &&
"Could not identify outputs. Were they removed via optimizations?") ;
// Determine the bit size and add everything to a new symbol table
int bitSize = 0 ;
GroupSymbolTable* structTable =
create_group_symbol_table(theEnv,
procDef->get_symbol_table()) ;
std::map<VariableSymbol*, FieldSymbol*> replacementFields ;
bool portsRemoved = false ;
// If this was actually a new style module, we should make sure to
// put these in the correct order.
if (isModule(procDef))
{
// Go through the original symbol table and remove any parameter
// symbols that originally existed
SymbolTable* originalSymTab = procDef->get_symbol_table() ;
Iter<SymbolTableObject*> originalIter =
originalSymTab->get_symbol_table_object_iterator() ;
while (originalIter.is_valid())
{
SymbolTableObject* currentObj = originalIter.current() ;
originalIter.next() ;
if (dynamic_cast<ParameterSymbol*>(currentObj) != NULL)
{
originalSymTab->remove_symbol_table_object(currentObj) ;
}
}
portsRemoved = true ;
// Sort the variable symbols in parameter order. This is just an
// insertion sort, so it could be done faster.
list<VariableSymbol*> sortedPorts ;
for (int i = 0 ; i < ports.size() ; ++i)
{
list<VariableSymbol*>::iterator portIter = ports.begin() ;
while (portIter != ports.end())
{
BrickAnnote* orderAnnote =
dynamic_cast<BrickAnnote*>((*portIter)->
lookup_annote_by_name("ParameterOrder")) ;
if (orderAnnote == NULL)
{
++portIter ;
continue ;
}
IntegerBrick* orderBrick =
dynamic_cast<IntegerBrick*>(orderAnnote->get_brick(0)) ;
assert(orderBrick != NULL) ;
if (orderBrick->get_value().c_int() == i)
{
sortedPorts.push_back(*portIter) ;
break ;
}
++portIter ;
}
}
if (sortedPorts.size() != ports.size())
{
OutputWarning("Warning! Analysis detected some input scalars not in"
" the parameter list") ;
}
// Replace ports with sortedPorts
ports = sortedPorts ;
}
list<VariableSymbol*>::iterator portIter = ports.begin() ;
while (portIter != ports.end())
{
bitSize +=
(*portIter)->get_type()->get_base_type()->get_bit_size().c_int() ;
LString dupeName = (*portIter)->get_name() ;
// Create offset expression:
IntConstant* offset =
create_int_constant(theEnv,
create_data_type(theEnv,
IInteger(32),
0),
IInteger(bitSize)) ;
QualifiedType* dupeType = (*portIter)->get_type() ;
// Deal with the case where reference types were passed in
ReferenceType* refType =
dynamic_cast<ReferenceType*>(dupeType->get_base_type()) ;
while (refType != NULL)
{
dupeType = dynamic_cast<QualifiedType*>(refType->get_reference_type()) ;
assert(dupeType != NULL) ;
refType = dynamic_cast<ReferenceType*>(dupeType->get_base_type()) ;
}
// Create a new variable symbol clone
FieldSymbol* dupe =
create_field_symbol(theEnv,
dupeType,
offset,
dupeName) ;
structTable->append_symbol_table_object(dupe) ;
// Make the connection with the duplicated symbol
replacementFields[(*portIter)] = dupe ;
// Remove the original variable symbol from the procedure definition
// symbol table.
if (!portsRemoved)
{
procDef->get_symbol_table()->remove_symbol_table_object(*portIter) ;
}
++portIter ;
}
assert(bitSize != 0);
StructType* moduleStruct =
create_struct_type(theEnv,
IInteger(bitSize),
0, // bit_alignment
TempName(procDef->get_procedure_symbol()->get_name()),
0, // is_complete
structTable) ;
Iter<FileBlock*> fBlocks =
theEnv->get_file_set_block()->get_file_block_iterator() ;
assert(fBlocks.is_valid()) ;
(fBlocks.current())->get_symbol_table()->append_symbol_table_object(moduleStruct) ;
// This is commented out because it is in the file state block
//procDef->get_symbol_table()->append_symbol_table_object(moduleStruct) ;
QualifiedType* qualifiedModuleStruct =
create_qualified_type(theEnv,
moduleStruct,
TempName(LString("qualifiedModuleStruct"))) ;
procDef->get_symbol_table()->append_symbol_table_object(qualifiedModuleStruct) ;
// Create an instance of this type and add it to the symbol table.
ParameterSymbol* structInstance =
create_parameter_symbol(theEnv,
qualifiedModuleStruct,
TempName(LString("structInstance"))) ;
procDef->get_symbol_table()->append_symbol_table_object(structInstance) ;
// Now, set up the procedure symbol to take the struct and return the
// struct.
assert(procDef != NULL) ;
ProcedureSymbol* procSym = procDef->get_procedure_symbol() ;
assert(procSym != NULL) ;
ProcedureType* procType = procSym->get_type() ;
assert(procType != NULL) ;
CProcedureType* cProcType = dynamic_cast<CProcedureType*>(procType) ;
assert(cProcType != NULL) ;
// Instead of appending the struct argument, we need to replace all of the
// arguments with the struct.
while (cProcType->get_argument_count() > 0)
{
cProcType->remove_argument(0) ;
}
cProcType->set_result_type(moduleStruct) ;
cProcType->append_argument(qualifiedModuleStruct) ;
// Now go through all load variable expressions and replace them all with
// field symbol values if appropriate
list<LoadVariableExpression*>* allLoads =
collect_objects<LoadVariableExpression>(procDef->get_body()) ;
list<LoadVariableExpression*>::iterator loadIter = allLoads->begin() ;
while (loadIter != allLoads->end())
{
VariableSymbol* currentVariable = (*loadIter)->get_source() ;
if (replacementFields.find(currentVariable) != replacementFields.end())
{
(*loadIter)->set_source(replacementFields[currentVariable]) ;
}
++loadIter ;
}
delete allLoads ;
// Also replace all of the definitions with the field symbol
list<StoreVariableStatement*>* allStoreVars =
collect_objects<StoreVariableStatement>(procDef->get_body()) ;
list<StoreVariableStatement*>::iterator storeVarIter = allStoreVars->begin();
while (storeVarIter != allStoreVars->end())
{
VariableSymbol* currentDest = (*storeVarIter)->get_destination() ;
if (replacementFields.find(currentDest) != replacementFields.end())
{
(*storeVarIter)->set_destination(replacementFields[currentDest]) ;
}
++storeVarIter ;
}
delete allStoreVars ;
list<SymbolAddressExpression*>* allSymAddr =
collect_objects<SymbolAddressExpression>(procDef->get_body()) ;
list<SymbolAddressExpression*>::iterator symAddrIter = allSymAddr->begin() ;
while (symAddrIter != allSymAddr->end())
{
VariableSymbol* currentVar =
dynamic_cast<VariableSymbol*>((*symAddrIter)->get_addressed_symbol()) ;
if (currentVar != NULL &&
replacementFields.find(currentVar) != replacementFields.end())
{
(*symAddrIter)->set_addressed_symbol(replacementFields[currentVar]) ;
}
++symAddrIter ;
}
delete allSymAddr ;
// One final for bool selects
list<CallStatement*>* allCalls =
collect_objects<CallStatement>(procDef->get_body()) ;
list<CallStatement*>::iterator callIter = allCalls->begin() ;
while(callIter != allCalls->end())
{
VariableSymbol* currentVar = (*callIter)->get_destination() ;
if (currentVar != NULL &&
replacementFields.find(currentVar) != replacementFields.end())
{
(*callIter)->set_destination(replacementFields[currentVar]) ;
}
++callIter ;
}
delete allCalls ;
}
IntConstant* NodeBuilder::bool_const(bool v)
{
return int_const(IInteger(v ? 1 : 0));
}
IntConstant* NodeBuilder::int_const(int i)
{
return int_const(IInteger(i));
}
