void LUTDetectionPass::do_procedure_definition(ProcedureDefinition* p)
{
procDef = p ;
assert(procDef != NULL) ;
OutputInformation("LUT Detection Pass begins") ;
// LUTs can only exist in New Style Systems or Modules
if (isLegacy(procDef))
{
OutputInformation("Legacy code - No LUTs supported") ;
return ;
}
// LUTs are defined to be arrays that are not parameter symbols
SymbolTable* symTab = procDef->get_symbol_table() ;
for (int i = 0 ; i < symTab->get_symbol_table_object_count() ; ++i)
{
SymbolTableObject* currentObject = symTab->get_symbol_table_object(i) ;
VariableSymbol* currentVar =
dynamic_cast<VariableSymbol*>(currentObject) ;
ParameterSymbol* currentParam =
dynamic_cast<ParameterSymbol*>(currentObject) ;
if (currentVar != NULL &&
dynamic_cast<ArrayType*>(currentVar->get_type()->get_base_type()) != NULL &&
currentParam == NULL &&
currentVar->lookup_annote_by_name("ConstPropArray") == NULL)
{
// Found one! Let's mark it!
currentObject->append_annote(create_brick_annote(theEnv, "LUT")) ;
}
}
OutputInformation("LUT Detection Pass ends") ;
}
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 SolveFeedbackVariablesPass3::do_procedure_definition(ProcedureDefinition* proc_def)
{
procDef = proc_def ;
assert(procDef != NULL) ;
OutputInformation("Solve feedback variables 2.0 pass begins") ;
// Feedback variables should only exist in loops, and I am currently
// assuming one loop nest. I need to find the innermost for loop
// and base all of my
innermost = InnermostLoop(procDef) ;
if (innermost == NULL)
{
OutputInformation("Solve feedback variables 2.0 pass ends") ;
return ;
}
DetermineNewFeedbacks() ;
SetupAnnotations() ;
OutputInformation("Solve feedback variables 2.0 pass ends") ;
}
void AvailableCodeEliminationPass::do_procedure_definition(ProcedureDefinition* p)
{
procDef = p ;
assert(procDef != NULL) ;
OutputInformation("Available Code Elimination 2.0 Pass Begins") ;
StatementList* innermost = NULL ;
CForStatement* innermostFor = InnermostLoop(procDef) ;
if (innermostFor != NULL)
{
innermost = dynamic_cast<StatementList*>(innermostFor->get_body()) ;
}
else
{
innermost = dynamic_cast<StatementList*>(procDef->get_body()) ;
}
assert(innermost != NULL) ;
bool change ;
do
{
change = false ;
change |= ProcessStatementList(innermost) ;
} while (change == true) ;
OutputInformation("Available Code Elimination 2.0 Pass Ends") ;
}
void IfConversionPass2::do_procedure_definition(ProcedureDefinition* proc_def)
{
procDef = proc_def ;
assert(procDef != NULL) ;
OutputInformation("If conversion pass 2.0 begins") ;
bool changed ;
do
{
changed = false ;
list<IfStatement*>* allIfs =
collect_objects<IfStatement>(procDef->get_body()) ;
list<IfStatement*>::iterator ifIter = allIfs->begin() ;
while (ifIter != allIfs->end())
{
changed |= ConvertIf(*ifIter) ;
++ifIter ;
}
delete allIfs ;
} while (changed == true) ;
OutputInformation("If conversion pass 2.0 ends") ;
}
void CleanupStoreStatementsPass::do_procedure_definition(ProcedureDefinition*
proc_def)
{
procDef = proc_def ;
assert(procDef != NULL) ;
OutputInformation("Cleanup store statements pass begins") ;
list<StoreStatement*>* allStores =
collect_objects<StoreStatement>(procDef->get_body()) ;
list<StoreStatement*>::iterator storeIter = allStores->begin() ;
while (storeIter != allStores->end())
{
Expression* destAddress = (*storeIter)->get_destination_address() ;
LoadVariableExpression* convertExp =
dynamic_cast<LoadVariableExpression*>(destAddress) ;
if (convertExp != NULL)
{
// This store statement must be replaced with a store variable statement
VariableSymbol* sym = convertExp->get_source() ;
convertExp->set_source(NULL) ;
Expression* value = (*storeIter)->get_value() ;
(*storeIter)->set_value(NULL) ;
StoreVariableStatement* replacement =
create_store_variable_statement(theEnv,
sym,
value) ;
(*storeIter)->get_parent()->replace((*storeIter), replacement) ;
}
else if (dynamic_cast<SymbolAddressExpression*>(destAddress) != NULL)
{
SymbolAddressExpression* symAddr =
dynamic_cast<SymbolAddressExpression*>(destAddress) ;
VariableSymbol* sym =
dynamic_cast<VariableSymbol*>(symAddr->get_addressed_symbol()) ;
assert(sym != NULL) ;
Expression* value = (*storeIter)->get_value() ;
(*storeIter)->set_value(NULL) ;
StoreVariableStatement* replacement =
create_store_variable_statement(theEnv,
sym,
value) ;
(*storeIter)->get_parent()->replace((*storeIter), replacement) ;
}
++storeIter ;
}
delete allStores ;
OutputInformation("Cleanup store statements pass ends") ;
}
void DoWhileToWhileTransformPass::do_procedure_definition(ProcedureDefinition* proc_def)
{
OutputInformation("Do...while to while loop transformation begins") ;
if (proc_def)
{
dw2wtp_do_while_statement_walker walker(get_suif_env());
proc_def->walk(walker);
}
OutputInformation("Do...while to while loop transformation ends") ;
}
void CodeHoistingPass::do_procedure_definition(ProcedureDefinition* proc_def)
{
OutputInformation("Code hoisting pass begins") ;
if (proc_def)
{
worklist = new list<IfStatement*>;
form_worklist(to<Statement>(proc_def->get_body()));
process_worklist();
}
OutputInformation("Code hoisting pass ends") ;
}
void ReferenceCleanupPass::do_procedure_definition(ProcedureDefinition* p)
{
procDef = p ;
assert(procDef != NULL) ;
OutputInformation("Reference Cleanup pass begins") ;
CleanupCalls() ;
// CleanupArrayStores() ;
OutputInformation("Reference Cleanup pass ends") ;
}
void RemoveModulePass::execute()
{
OutputInformation("Remove module pass begins") ;
InitializeRepository() ;
RemoveProcedure(FindProcedure(moduleName)) ;
DumpRepository() ;
OutputInformation("Remove module pass ends") ;
}
void RemoveUnsupportedStatements::do_procedure_definition(ProcedureDefinition* p)
{
procDef = p ;
assert(procDef != NULL) ;
OutputInformation("Remove Unsupported statements begins") ;
CForStatement* innermost = InnermostLoop(procDef) ;
if (innermost == NULL)
{
OutputInformation("Remove Unsupported statements ends") ;
return ;
}
StatementList* parentList =
dynamic_cast<StatementList*>(innermost->get_parent()) ;
CForStatement* outerLoops =
dynamic_cast<CForStatement*>(innermost->get_parent()) ;
CForStatement* outermostLoop = innermost ;
while (parentList == NULL && outerLoops != NULL)
{
parentList = dynamic_cast<StatementList*>(outerLoops->get_parent()) ;
outermostLoop = outerLoops ;
outerLoops = dynamic_cast<CForStatement*>(outerLoops->get_parent()) ;
}
assert(parentList != NULL) ;
assert(outermostLoop != NULL) ;
int position = DeterminePosition(parentList, outermostLoop) ;
assert(position >= 0) ;
for (int i = 0 ; i < position ; ++i)
{
StatementList* blankList = create_statement_list(theEnv) ;
Statement* toReplace = parentList->get_statement(i) ;
parentList->replace(toReplace, blankList) ;
// Will this delete kill me?
//delete toReplace ;
}
for (int i = position + 1 ; i < parentList->get_statement_count() ; ++i)
{
StatementList* blankList = create_statement_list(theEnv) ;
Statement* toReplace = parentList->get_statement(i) ;
parentList->replace(toReplace, blankList) ;
// Will this delete kill me?... yep! or not...
//delete toReplace ;
}
OutputInformation("Remove Unsupported statments ends") ;
}
void ExportPass::execute()
{
assert(theEnv != NULL) ;
OutputInformation("Export pass begins") ;
// Get the information regarding the current procedure by looking at
// the first procedure from the first file in the file set block.
Iter<FileBlock*> temp =
theEnv->get_file_set_block()->get_file_block_iterator() ;
Iter<ProcedureDefinition*> temp2 = (temp.current())->get_definition_block()->get_procedure_definition_iterator() ;
originalProcedure = temp2.current() ;
assert(originalProcedure != NULL) ;
// Modules have been transformed into structs so all the previous
// passes work, and here we have to do a little bit of backtracking
// and convert them to the straight model.
BrickAnnote* rocccType =
dynamic_cast<BrickAnnote*>(originalProcedure->lookup_annote_by_name("FunctionType")) ;
assert(rocccType != NULL) ;
IntegerBrick* valueBrick =
dynamic_cast<IntegerBrick*>(rocccType->get_brick(0)) ;
assert(valueBrick != NULL) ;
int functionType = valueBrick->get_value().c_int() ;
delete rocccType->remove_brick(0) ;
delete originalProcedure->remove_annote_by_name("FunctionType") ;
if (functionType == 1) // Module
{
// De-modulize it
ConstructModuleSymbols() ;
}
else if (functionType == 2 || functionType == 3) // Systems
{
// Just create clones
ConstructSystemSymbols() ;
}
else
{
assert(0 && "Trying to export something unknown") ;
}
ReadRepository() ;
AddSymbols() ;
DumpRepository() ;
OutputInformation("Export pass ends") ;
}
void TransformSystemsToModules::do_procedure_definition(ProcedureDefinition* proc_def)
{
procDef = proc_def ;
assert(procDef != NULL) ;
OutputInformation("Transform Systems To Modules Pass Begins") ;
if (!HasLoop() && !PassedStruct() && !ComposedSystem())
{
HandleFeedback() ;
Transform() ;
procDef->append_annote(create_brick_annote(theEnv, "TransformedModule")) ;
}
OutputInformation("Transform Systems To Modules Pass Ends") ;
}
void ConstantArrayPropagationPass::do_procedure_definition(ProcedureDefinition* proc_def)
{
procDef = proc_def ;
assert(procDef != NULL) ;
OutputInformation("Constant Array Propagation Pass begins") ;
// Step one: Find all of definition blocks for constant arrays
CollectInitializations() ;
// Step two: Go through load expressions and replace them with
// any appropriate initialization.
ReplaceLoads() ;
OutputInformation("Constant Array Propagation Pass ends") ;
}
bool TestEvolution(void)
{
// Test the temp fitness against the current fitness. If it is greater or equal, replace
// all pixels in Best with pixels from Evolve and update the current fitness.
Attempts++;
TempFitness = CalculateFitness();
if (TempFitness > Fitness)
{
Mutations++;
if (TempFitness != Fitness) GoodMutations++;
// Copy over all pixels to the Best surface and write in the new fitness
memcpy((void*)((Uint32*)Best->pixels), (void*)((Uint32*)Evolve->pixels), Evolve->pitch * Evolve->h);
Fitness = TempFitness;
// Output information to console
OutputInformation(Fitness, GoodMutations, Mutations, Attempts, (SDL_GetTicks() - OpeningTick) / 1000.0);
// Return an indication that the triangle list mutation was successful
return true;
}
else PolygonList[ListIterator] = TempPolygon;
// Return an indication that the triangle list mutation was not successful
return false;
}
void ImportBinary(void)
{
// Import the Polygon list from a binary file
std::fstream Input("SaveFile.tie", std::ios_base::binary | std::ios_base::in);
if (Input.bad()) return;
if (!Input.good()) return;
for (unsigned int i = 0; i < POLYGON_COUNT; i++) Input.read((char*)&PolygonList[i], sizeof(Poly));
Input.close();
// Clear the Evolve surface and allow a new fitness to be calculated
ClearSurface(Evolve);
Fitness = 0.0;
printf("\n\n\nTriangle List Imported!");
// Normally after this occurs, a single mutation would be set and the resulting fitness would be higher than
// what is was before importing. To prevent this, calculate the fitness before returning to the loop
// Draw the Evolve Image
ClearSurface(Evolve);
for (unsigned int i = 0; i < POLYGON_COUNT; i++)
if (PolygonList[i].BitFlag & DEFINED_BIT)
filledPolygonRGBA(Evolve, PolygonList[i].X, PolygonList[i].Y, VERTEX_COUNT, PolygonList[i].Color[0], PolygonList[i].Color[1], PolygonList[i].Color[2], PolygonList[i].Color[3]);
Fitness = CalculateFitness();
memcpy((void*)((Uint32*)Best->pixels), (void*)((Uint32*)Evolve->pixels), Evolve->pitch * Evolve->h);
GoodMutations = 0;
Mutations = 0;
Attempts = 0;
OpeningTick = SDL_GetTicks();
OutputInformation(Fitness, GoodMutations, Mutations, Attempts, 0.0);
}
void ScalarReplacementPass2::do_procedure_definition(ProcedureDefinition* p)
{
procDef = p ;
assert(procDef != NULL) ;
OutputInformation("Scalar replacement pass 2.0 begins") ;
VerifyArrayReferences() ;
CollectArrayReferences() ;
ProcessLoads() ;
ProcessStores() ;
PrependLoads() ;
AppendStores() ;
OutputInformation("Scalar replacement pass 2.0 ends") ;
}
void CleanupRedundantVotes::do_procedure_definition(ProcedureDefinition* proc_def)
{
procDef = proc_def ;
assert(procDef != NULL) ;
OutputInformation("Cleanup Redundant Votes Begins") ;
list<CallStatement*>* allCalls =
collect_objects<CallStatement>(procDef->get_body()) ;
list<CallStatement*>::iterator callIter = allCalls->begin() ;
while (callIter != allCalls->end())
{
ProcessCall(*callIter) ;
++callIter ;
}
delete allCalls ;
OutputInformation("Cleanup Redundant Votes Ends") ;
}
void TransformUnrolledArraysPass::do_procedure_definition(ProcedureDefinition* proc_def)
{
procDef = proc_def ;
assert(procDef != NULL) ;
OutputInformation("Transforming Unrolled Arrays Pass Begins") ;
innermost = InnermostList(procDef) ;
assert(innermost != NULL) ;
int maxD = MaxDimension() ;
for (int i = maxD ; i > 0 ; --i)
{
TransformNDIntoNMinusOneD(i) ;
}
OutputInformation("Transforming Unrolled Arrays Pass Ends") ;
}
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") ;
}
void ConstQualedVarPropagationPass::do_procedure_definition(ProcedureDefinition* proc_def)
{
OutputInformation("Constant qualified variable propagation pass begins");
suif_map<VariableSymbol*, ValueBlock*> temp_const_defs;
if (proc_def){
DefinitionBlock *proc_def_block = proc_def->get_definition_block();
for(Iter<VariableDefinition*> iter = proc_def_block->get_variable_definition_iterator();
iter.is_valid(); iter.next()){
VariableDefinition *var_def = iter.current();
VariableSymbol *var_sym = var_def->get_variable_symbol();
QualifiedType *qualed_var_type = var_sym->get_type();
if(is_a<IntegerType>(qualed_var_type->get_base_type())){
bool found = 0;
for(Iter<LString> iter2 = qualed_var_type->get_qualification_iterator();
iter2.is_valid(); iter2.next())
if(iter2.current() == LString("const"))
found = 1;
if(found){
temp_const_defs.enter_value(var_sym, var_def->get_initialization());
}
}
}
for(Iter<StoreVariableStatement> iter = object_iterator<StoreVariableStatement>(proc_def->get_body());
iter.is_valid(); iter.next()){
StoreVariableStatement *store_var_stmt = &iter.current();
Expression *store_var_value = store_var_stmt->get_value();
if(!is_a<IntConstant>(store_var_value))
continue;
VariableSymbol *store_var_destination = store_var_stmt->get_destination();
if(!is_a<IntegerType>(store_var_destination->get_type()->get_base_type()))
continue;
suif_map<VariableSymbol*,ValueBlock*>::iterator iter2 =
temp_const_defs.find(to<LoadVariableExpression>(store_var_value)->get_source());
if(iter2 != temp_const_defs.end())
const_qualified_scalars.enter_value(store_var_destination, (*iter2).second);
}
cqvp_load_variable_expression_walker walker(get_suif_env());
proc_def->walk(walker);
}
OutputInformation("Constant qualified variable propagation pass ends");
}
void HW_SW_BoundaryMarkPass::do_procedure_definition(ProcedureDefinition* proc_def)
{
OutputInformation("Determination of Hardware/Software boundary pass begins");
if (proc_def){
SuifEnv *env = get_suif_env();
if(proc_def->lookup_annote_by_name("begin_hw"))
delete (to<BrickAnnote>(proc_def->remove_annote_by_name("begin_hw")));
if(proc_def->lookup_annote_by_name("end_hw"))
delete (to<BrickAnnote>(proc_def->remove_annote_by_name("end_hw")));
BrickAnnote *ba = create_brick_annote(env, "begin_hw");
proc_def->append_annote(ba);
ba = create_brick_annote(env, "end_hw");
proc_def->append_annote(ba);
hsbm_call_statement_walker walker(get_suif_env());
proc_def->walk(walker);
}
OutputInformation("Determination of Hardware/Software boundary pass ends");
}
void CleanupLoadPass::do_procedure_definition(ProcedureDefinition* p)
{
procDef = p ;
assert(procDef != NULL) ;
OutputInformation("Cleanup load pass begins") ;
list<LoadExpression*>* allLoads =
collect_objects<LoadExpression>(procDef->get_body()) ;
list<LoadExpression*>::iterator loadIter = allLoads->begin() ;
while (loadIter != allLoads->end())
{
Expression* internal = (*loadIter)->get_source_address() ;
if (dynamic_cast<LoadVariableExpression*>(internal) != NULL)
{
(*loadIter)->set_source_address(NULL) ;
(*loadIter)->get_parent()->replace((*loadIter), internal) ;
delete (*loadIter) ;
}
++loadIter ;
}
delete allLoads ;
OutputInformation("Cleanup load pass ends") ;
}
void CopyPropagationPass2::do_procedure_definition(ProcedureDefinition* proc_def)
{
procDef = proc_def ;
assert(procDef != NULL) ;
OutputInformation("Copy propagation pass 2.0 begins") ;
totalDefinitions = 0 ;
Initialize() ;
if (Special())
{
ProcessSpecialIfs() ;
}
else
{
// First, find all the possible copy instructions. These
// can only be store variable statements
list<StoreVariableStatement*>* allStoreVars =
collect_objects<StoreVariableStatement>(procDef->get_body()) ;
assert(allStoreVars != NULL) ;
list<StoreVariableStatement*>::iterator storeVarIter =
allStoreVars->begin();
while(storeVarIter != allStoreVars->end())
{
ProcessPossibleCopy(*storeVarIter) ;
++storeVarIter ;
}
delete allStoreVars ;
}
CleanUp() ;
OutputInformation("Copy propagation pass 2.0 ends") ;
}
void MiniConstantPropagationPass::do_procedure_definition(ProcedureDefinition* p)
{
procDef = p ;
assert(procDef != NULL) ;
OutputInformation("Mini Constant Propagation Pass begins") ;
StatementList* innermostList = InnermostList(procDef) ;
assert(innermostList != NULL) ;
list<StatementList*>* allStatementLists =
collect_objects<StatementList>(innermostList) ;
list<StatementList*>::iterator listIter = allStatementLists->begin() ;
while (listIter != allStatementLists->end())
{
ProcessList(*listIter) ;
++listIter ;
}
delete allStatementLists ;
OutputInformation("Mini Constant Propagation Pass ends") ;
}
void CombineSummationPass::do_procedure_definition(ProcedureDefinition* p)
{
procDef = p ;
assert(procDef != NULL) ;
OutputInformation("Combine summation pass begins") ;
StatementList* innermost = InnermostList(procDef) ;
assert(innermost != NULL) ;
bool change = false ;
do
{
// Find the first summation
StoreVariableStatement* firstStatement = NULL ;
StoreVariableStatement* secondStatement = NULL ;
change = false ;
int i ;
int firstStatementPosition = -1 ;
i = 0 ;
while (i < innermost->get_statement_count())
{
StoreVariableStatement* currentStoreVariable =
dynamic_cast<StoreVariableStatement*>(innermost->get_statement(i)) ;
if (currentStoreVariable != NULL && IsSummation(currentStoreVariable))
{
firstStatement = currentStoreVariable ;
firstStatementPosition = i ;
break ;
}
++i ;
}
if (firstStatement != NULL)
{
VariableSymbol* firstDest = firstStatement->get_destination() ;
for (int j = i+1 ; j < innermost->get_statement_count() ; ++j)
{
StoreVariableStatement* nextStoreVar =
dynamic_cast<StoreVariableStatement*>(innermost->get_statement(j));
if (nextStoreVar != NULL && IsSummation(nextStoreVar, firstDest))
{
secondStatement = nextStoreVar ;
break ;
}
if (IsDefinition(innermost->get_statement(j), firstDest) ||
HasUses(innermost->get_statement(j), firstDest))
{
break ;
}
}
}
if (secondStatement != NULL)
{
// Go through each of the variables used in the first statement and
// make sure there are no definitions to any of them.
// I only have to worry about variables and not array accesses because
// we don't allow them to read and write to array values.
int originalPosition = DeterminePosition(innermost, firstStatement) ;
assert(originalPosition >= 0) ;
list<VariableSymbol*> usedVars =
AllUsedVariablesBut(firstStatement, firstStatement->get_destination());
bool goodPath = true ;
for (int j = originalPosition ;
j < innermost->get_statement_count() &&
innermost->get_statement(j) != secondStatement ;
++j)
{
list<VariableSymbol*>::iterator usedIter = usedVars.begin() ;
while (usedIter != usedVars.end())
{
if (IsOutputVariable((*usedIter), innermost->get_statement(j)))
{
goodPath = false ;
break ;
}
++usedIter ;
}
if (!goodPath)
{
break ;
}
}
if (!goodPath)
{
continue ;
}
// Actually do the combining here
change = true ;
Expression* remains = RemoveValue(firstStatement) ;
Expression* secondRemains = RemoveValue(secondStatement) ;
// Create two binary expressions
BinaryExpression* remainsSum =
create_binary_expression(theEnv,
remains->get_result_type(),
LString("add"),
remains,
secondRemains) ;
LoadVariableExpression* loadDest =
create_load_variable_expression(theEnv,
secondStatement->get_destination()->get_type()->get_base_type(),
secondStatement->get_destination()) ;
BinaryExpression* finalSum =
create_binary_expression(theEnv,
remainsSum->get_result_type(),
LString("add"),
remainsSum,
loadDest) ;
secondStatement->set_value(finalSum) ;
// Delete?
innermost->remove_statement(firstStatementPosition) ;
}
} while (change == true) ;
OutputInformation("Combine summation pass ends") ;
}
