int main (int argc, char* argv[]) {
// Main Function for default example ROSE Preprocessor
// This is an example of a preprocessor that can be built with ROSE
// Build the project object (AST) which we will fill up with multiple files and use as a
// handle for all processing of the AST(s) associated with one or more source files.
SgProject* sageProject = frontend(argc,argv);
simpleIndexFiniteDifferencing(sageProject);
FixSgProject(*sageProject);
// partialRedundancyElimination(sageProject);
// AstPDFGeneration().generateInputFiles(sageProject);
// Generate the final C++ source code from the potentially modified SAGE AST
sageProject->unparse();
// What remains is to run the specified compiler (typically the C++ compiler) using
// the generated output file (unparsed and transformed application code) to generate
// an object file.
// int finalCombinedExitStatus = sageProject->compileOutput();
// return exit code from complilation of generated (unparsed) code
return 0;
}
int
main ( int argc, char * argv[] )
{
// Main Function for default example ROSE Preprocessor
// This is an example of a preprocessor that can be built with ROSE
// This example tests the ROSE infrastructure
ios::sync_with_stdio(); // Syncs C++ and C I/O subsystems!
// Declare usage (if incorrect number of inputs):
if (argc == 1)
{
// Print usage and exit with exit status == 1
Rose::usage (1);
}
// Build the project object which we will fill up with multiple files and use as a
// handle for all processing of the AST(s) associated with one or more source files.
SgProject sageProject (argc,argv);
// Warnings from EDG processing are OK but not errors
// ROSE_ASSERT (EDG_FrontEndErrorCode <= 3);
// cout << "EDG/SAGE Processing DONE! (manipulate AST with ROSE ...) " << endl;
// DQ (10/17/2004): Added internal testing of AST
AstTests::runAllTests(&sageProject);
SIDL_TreeTraversal treeTraversal(chooseConstructor(&sageProject));
MethodSearchVisitor treeVisitor(&sageProject);
treeVisitor.traverseInputFiles(&sageProject, preorder);
// Ignore the return value since we don't need it
treeTraversal.traverseInputFiles(&sageProject);
AstDOTGeneration dotgen;
dotgen.generateInputFiles(&sageProject, AstDOTGeneration::PREORDER);
cout << "ROSE Processing DONE! (no need to call unparse or backend C++ compiler ...) " << endl;
#if 0
// DQ (10/17/2004): This seems to be a problem, some sort of infinit loop is generated in the unparser!
// the test code has been transfrered to another location for internal testing. for now this should
// be commented out. It is not required for Babel Processing. This is now fixed!
// Generate the final C++ source code from the potentially modified SAGE AST
// sageProject.set_verbose(true);
sageProject.unparse();
#endif
// Later we want to call babel to process the generated SIDL file and generate the imple files which
// we will process as part of the next phase of work to completely automate the process.
int finalCombinedExitStatus = 0;
printf ("Program Compiled Normally (exit status = %d)! \n\n\n\n",finalCombinedExitStatus);
// either of these will work similarly
// exit (finalCombinedExitStatus);
return finalCombinedExitStatus;
}
int main (int argc, char* argv[])
{
// Main Function for default example ROSE Preprocessor
// This is an example of a preprocessor that can be built with ROSE
// Build the project object (AST) which we will fill up with multiple files and use as a
// handle for all processing of the AST(s) associated with one or more source files.
vector<string> argvList(argv, argv + argc);
VectorCmdOptions::GetInstance()->SetOptions(argvList);
SgProject* sageProject = frontend(argvList);
// FixSgProject(sageProject);
// AstTests::runAllTests(const_cast<SgProject*>(project));
AstTests::runAllTests(sageProject);
PRE::partialRedundancyElimination(sageProject);
// AstPDFGeneration().generateInputFiles(sageProject);
AstTests::runAllTests(sageProject);
// AstPDFGeneration().generateInputFiles(sageProject);
// Generate the final C++ source code from the potentially modified SAGE AST
sageProject->unparse();
// What remains is to run the specified compiler (typically the C++ compiler) using
// the generated output file (unparsed and transformed application code) to generate
// an object file.
// int finalCombinedExitStatus = sageProject.compileOutput();
// return exit code from complilation of generated (unparsed) code
return 0;
}
int main(int argc, char ** argv) {
std::vector<std::string> args(argv, argv + argc);
#if defined(TILEK_ACCELERATOR)
# if defined(TILEK_TARGET_OPENCL)
args.push_back("-DSKIP_OPENCL_SPECIFIC_DEFINITION");
# endif
#endif
SgProject * project = new SgProject(args);
assert(project->numberOfFiles() == 1);
SgSourceFile * source_file = isSgSourceFile(project->get_fileList()[0]);
assert(source_file != NULL);
std::string filename = source_file->get_sourceFileNameWithoutPath();
std::string basename = filename.substr(0, filename.find_last_of('.'));
KLT::DLX::Compiler< ::DLX::TileK::language_t, ::KLT::TileK::Generator> compiler(project, KLT_PATH, TILEK_PATH, basename);
// MFB::api_t * api = compiler.getDriver().getAPI();
// dump_api(api);
compiler.compile(project);
project->unparse();
return 0;
}
int main ( int argc, char* argv[] ) {
SgProject * project = frontend ( argc , argv ) ;
Rose_STL_Container<SgNode*> pragma_decls = NodeQuery::querySubTree(project, V_SgPragmaDeclaration);
Rose_STL_Container<SgNode*>::iterator it;
for (it = pragma_decls.begin(); it != pragma_decls.end(); it++) {
SgPragmaDeclaration * pragma_decl = isSgPragmaDeclaration(*it);
try {
PolyhedricAnnotation::parse(pragma_decl);
}
catch (Exception::ExceptionBase & e) {
e.print(std::cerr);
continue;
}
PolyhedricAnnotation::PragmaPolyhedralProgram & polyhedral_program =
PolyhedricAnnotation::getPolyhedralProgram<SgPragmaDeclaration, SgExprStatement, RoseVariable>(pragma_decl);
Scheduling::PragmaSchedule schedule(polyhedral_program, 0);
CodeGeneration::generateAndReplace(schedule);
}
project->unparse();
return 0;
}
int
main( int argc, char * argv[] )
{
// This test code demonstrates the differences between an ordinary
// SgTopDownBottomUpProcessing traversal and a traversal using the
// AST Rewrite Mechanism.
// DQ (4/6/2017): This will not fail if we skip calling ROSE_INITIALIZE (but
// any warning message using the message looging feature in ROSE will fail).
ROSE_INITIALIZE;
ios::sync_with_stdio(); // Syncs C++ and C I/O subsystems!
if (argc == 1)
{
// Print usage and exit with exit status == 1
rose::usage (1);
}
// Build the project object which we will fill up with multiple files and use as a
// handle for all processing of the AST(s) associated with one or more source files.
int EDG_FrontEndErrorCode = 0;
SgProject* sageProject = new SgProject(argc,argv,EDG_FrontEndErrorCode);
// Warnings from EDG processing are OK but not errors
ROSE_ASSERT (EDG_FrontEndErrorCode <= 3);
cout << "EDG/SAGE Processing DONE! (manipulate with ROSE ...) " << endl;
// Output the source code file (as represented by the SAGE AST) as a PDF file (with bookmarks)
AstPDFGeneration pdftest;
pdftest.generateInputFiles(sageProject);
// Build the inherited attribute
MyInheritedAttribute inheritedAttribute;
// The traversal uses the AST rewrite mechanism which requires the SgProject object to retrive the
// command line for compilation of the intermeditate files (from strings to AST fragments) before
// patching them into the application's AST.
MyTraversal myTraversal(*sageProject);
// Call the traversal starting at the sageProject node of the AST
myTraversal.traverseInputFiles(sageProject,inheritedAttribute);
// Generate the final C++ source code from the potentially modified SAGE AST
sageProject->unparse();
cout << "Generation of final source code (unparsing) DONE! (compile ...) " << endl;
// What remains is to run the specified compiler (typically the C++ compiler) using
// the generated output file (unparsed and transformed application code) to generate
// an object file.
int finalCombinedExitStatus = sageProject->compileOutput();
printf ("Program Compiled Normally (exit status = %d)! \n\n\n\n",finalCombinedExitStatus);
return finalCombinedExitStatus;
}
int main(int argc, char *argv[]){
SgProject* sgproject = frontend(argc, argv);
// SgProject *sgproject_copy = static_cast<SgProject*>(sgproject->copy(SgTREE_COPY));
// This copy of the sgproject fails due to the copy function of the SgFile fails (aborts)
SgFile &file = sgproject->get_file(0);
// SgFile *file_copy = static_cast<SgFile*>(file.copy(SgTREE_COPY));
// Calling the copy function of SgFile fails:
// Before aborting the execution, the following error message is displayed:
// "This is the default constructor, use SgFile (argc,argv) instead"
SgGlobal *root = file.get_root();
SgGlobal *root_copy = static_cast<SgGlobal*>(root->copy(SgTREE_COPY));
// Copying the SgGlobal object is OK
// removing the return statement...from the copy!
list<SgNode*> returnstmt_list = NodeQuery::querySubTree(root_copy, V_SgReturnStmt);
SgStatement* stmt = isSgStatement(*returnstmt_list.begin());
LowLevelRewrite::remove(stmt);
sgproject->unparse(); // should output unmodified sgproject and it does. The deep copy
// mechanism works for the SgGlobal object.
// moving the output file to a new file, so that we can unparse the sgproject again without
// overwriting the results
char *outputfile = file.get_unparse_output_filename();
string move = "mv " + string(outputfile) + " orig_" + string(outputfile);
system(move.c_str());
// want to output modified sgproject
file.set_root(root_copy);
//sgproject->set_file(file);
sgproject->unparse(); // or use: file.unparse();?
// Unparsing the sgproject after adding the root_copy to the file-object (I want
// to unparse the modified copy...), gives me an error message:
// /home/hauge2/ROSE/src/backend/unparser/unparse_stmt.C:1047: void Unparser::unparseFuncDefnStmt(SgStatement*, SgUnparse_Info&): Assertion `funcdefn_stmt->get_declaration() != __null' failed.
return 0;
}
int main(int argc, char *argv[])
{
SgProject *project = frontend(argc, argv);
SlicingInfo si=SlicingInfo();
si.traverse(project, preorder);
SystemDependenceGraph * sdg=new SystemDependenceGraph();
sdg->parseProject(project);
CreateSliceSet sliceSet(sdg,si.getSlicingTargets());
CreateSlice cs(sliceSet.computeSliceSet());
cs.traverse(project);
project->unparse();
}
int main( int argc, char * argv[] )
{
CommandlineProcessing::addCppSourceFileSuffix("docs")
CommandlineProcessing::addCppSourceFileSuffix("h");
// Build the AST used by ROSE
SgProject* sageProject = frontend(argc,argv);
Doxygen::annotate(sageProject);
OrganizeAllComments oac;
oac.traverse(sageProject, preorder);
// Generate source code from AST and call the vendor's compiler
sageProject->unparse();
}
int main(int argc, char* argv[])
{
/* Processing cmd line args */
vector<string> argvList(argv, argv+argc);
UpcLibrary::processOptions(argvList);
/* Parse the input file */
SgProject* proj = frontend(argc, argv);
/* collect all upc_forall stmts */
vector<SgUpcForAllStatement*> forall_stmts =
SageInterface::querySubTree<SgUpcForAllStatement>(proj);
/* translate upc_forall stmts to normal c */
foreach (SgUpcForAllStatement* forall_stmt, forall_stmts)
SageInterface::replaceStatement(forall_stmt, translate_from_upc(forall_stmt));
/* collect all for_stmts */
vector<SgForStatement*> for_stmts =
SageInterface::querySubTree<SgForStatement>(proj);
/* Normalize C99-style for (int i=x, ...) to C89-style: int i; for(i=x, ...) */
foreach (SgForStatement* for_stmt, for_stmts)
SageInterface::normalizeForLoopInitDeclaration(for_stmt);
/* Filter out the inner loops in each nest */
vector<SgForStatement*> nests;
foreach (SgForStatement* for_stmt, for_stmts)
if (isOuterLoop(for_stmt))
nests.push_back(for_stmt);
/* optimize each nest */
foreach (SgForStatement* nest, nests)
optimize(nest);
/* replace upc affinity expressions */
foreach (SgForStatement* for_stmt, for_stmts)
SageInterface::replaceStatement(for_stmt, translate_to_upc(for_stmt));
proj->unparse();
return 0;
}
int main(int argc, char * argv[])
{
//this adds -rose:openmp:ast_only -linearize args
MintOptions::setInternalCommandLineArgs(argc, argv);
vector<string> argvList(argv, argv + argc);
MintOptions::GetInstance()->SetMintOptions(argvList);
//isCFileNameSuffix ();
//call the front end with -rose:openmp:ast_only and
//then call the lowering explicitly
SgProject *project = frontend (argc, argv);
//currently we only handle single input file
SgSourceFile* file = isSgSourceFile(project->get_fileList()[0]);
MintTools::setOutputFileName(isSgFile(file));
//insert cuda header files. is there any?
MintCudaMidend::insertHeaders(project);
//Now we have the AST and search for Mint pragmas
MintCudaMidend::lowerMinttoCuda(file);
if(MintOptions::GetInstance()->linearize()){
cout << " INFO:Mint: flattening the array accesses" << endl;
MintArrayInterface::linearizeArrays(file);
}
cout << " INFO:Mint: calling ROSE backend" << endl;
project->unparse();
//return backend(project);
cout << endl <<" INFO:Mint: Good Job. Translation is done!" << endl << endl;
return 0;
}
int main( int argc, char * argv[] )
{
vector<string> argvList(argv, argv + argc);
CommandlineProcessing::addCppSourceFileSuffix("docs");
CommandlineProcessing::addCppSourceFileSuffix("h");
Doxygen::parseCommandLine(argvList);
// Build the AST used by ROSE
SgProject* sageProject = frontend(argvList);
Doxygen::annotate(sageProject);
Doxygen::correctAllComments(sageProject);
// Generate source code from AST
Doxygen::unparse(sageProject);
sageProject->unparse();
}
int main (int argc, char* argv[])
{
// Main Function for default example ROSE Preprocessor
// This is an example of a preprocessor that can be built with ROSE
// Build the project object (AST) which we will fill up with multiple files and use as a
// handle for all processing of the AST(s) associated with one or more source files.
SgProject* sageProject = frontend(argc,argv);
// DQ (7/20/2004): Added internal consistancy tests on AST
AstTests::runAllTests(sageProject);
// This is not needed here
// FixSgProject(sageProject);
bool changed = true;
int count = 0;
/* Inline one call at a time until all have been inlined. Loops on recursive code. */
while (changed)
{
changed = false;
calls_to_inline.clear();
FindCallsVisitor().traverseInputFiles(sageProject, preorder);
for (std::vector<SgFunctionCallExp*>::iterator i = calls_to_inline.begin(); i != calls_to_inline.end(); ++i)
{
// cout << (*i)->unparseToString() << endl;
// generateAstGraph(sageProject, 400000);
if (doInline(*i))
{
changed = true;
// AstTests::runAllTests(sageProject);
break;
}
}
++count;
#if 0
sageProject.unparse();
#endif
// To prevent infinite loops
if (count == 10)
{
break;
}
}
#if 1
// Rename each variable declaration
renameVariables(sageProject);
#if 1
// Fold up blocks
flattenBlocks(sageProject);
// Clean up inliner-generated code
cleanupInlinedCode(sageProject);
#endif
// Change members to public
changeAllMembersToPublic(sageProject);
// AstPDFGeneration().generateInputFiles(sageProject);
// AstDOTGeneration().generateInputFiles(sageProject);
#endif
AstTests::runAllTests(sageProject);
#if 0
// Output an optional graph of the AST (just the tree, when active)
printf ("Generating a dot file... (ROSE Release Note: turn off output of dot files before committing code) \n");
generateDOT (*sageProject );
// generateAstGraph(project, 2000);
#endif
#if 1
// Output an optional graph of the AST (the whole graph, of bounded complexity, when active)
const int MAX_NUMBER_OF_IR_NODES_TO_GRAPH_FOR_WHOLE_GRAPH = 8000;
generateAstGraph(sageProject,MAX_NUMBER_OF_IR_NODES_TO_GRAPH_FOR_WHOLE_GRAPH);
#endif
return backend(sageProject);
}
int main(int argc, char* argv[]) {
try {
if(argc==1) {
cout << "Error: wrong command line options."<<endl;
exit(1);
}
// Command line option handling.
namespace po = boost::program_options;
po::options_description desc
("analyterix V0.2\n"
"Written by Markus Schordan\n"
"Supported options");
desc.add_options()
("help,h", "produce this help message.")
("rose-help", "show help for compiler frontend options.")
("version,v", "display the version.")
("stats", "display code statistics.")
("fi-constanalysis", "perform flow-insensitive constant analysis.")
("csv-fi-constanalysis",po::value< string >(), "generate csv-file [arg] with const-analysis data.")
("rd-analysis", "perform reaching definitions analysis.")
("rose-rd-analysis", "perform rose reaching definitions analysis.")
("lv-analysis", "perform live variables analysis.")
("ud-analysis", "use-def analysis.")
("at-analysis", "address-taken analysis.")
("icfg-dot", "generates the ICFG as dot file.")
("interval-analysis", "perform interval analysis.")
("trace", "show operations as performed by selected solver.")
("print-varidmapping", "prints variableIdMapping")
("print-varidmapping-array", "prints variableIdMapping with array element varids.")
("prefix",po::value< string >(), "set prefix for all generated files.")
;
// ("int-option",po::value< int >(),"option info")
po::store(po::command_line_parser(argc, argv).options(desc).allow_unregistered().run(), args);
po::notify(args);
if (args.count("help")) {
cout << "analyterix <filename> [OPTIONS]"<<endl;
cout << desc << "\n";
return 0;
}
if (args.count("version")) {
cout << "analyterix version 0.1\n";
cout << "Written by Markus Schordan 2014\n";
return 0;
}
if (args.count("rose-help")) {
argv[1] = strdup("--help");
}
if (args.count("prefix")) {
option_prefix=args["prefix"].as<string>().c_str();
}
if (args.count("trace")) {
option_trace=true;
}
if(args.count("stats")) {
option_stats=true;
}
if(args.count("rd-analysis")) {
option_rd_analysis=true;
}
if(args.count("lv-analysis")) {
option_lv_analysis=true;
}
if(args.count("interval-analysis")) {
option_interval_analysis=true;
}
if(args.count("ud-analysis")) {
option_rd_analysis=true; // required
option_ud_analysis=true;
}
if(args.count("rose-rd-analysis")) {
option_rose_rd_analysis=true;
}
if(args.count("fi-constanalysis")) {
option_fi_constanalysis=true;
}
if (args.count("csv-fi-constanalysis")) {
csvConstResultFileName=args["csv-fi-constanalysis"].as<string>().c_str();
option_fi_constanalysis=true;
}
if(args.count("at-analysis")) {
option_at_analysis=true;
}
// clean up string-options in argv
for (int i=1; i<argc; ++i) {
if (string(argv[i]) == "--prefix"
|| string(argv[i]) == "--csv-const-result"
) {
// do not confuse ROSE frontend
argv[i] = strdup("");
assert(i+1<argc);
argv[i+1] = strdup("");
}
}
cout << "INIT: Parsing and creating AST."<<endl;
boolOptions.registerOption("semantic-fold",false); // temporary
boolOptions.registerOption("post-semantic-fold",false); // temporary
SgProject* root = frontend(argc,argv);
// AstTests::runAllTests(root);
if(option_stats) {
SPRAY::ProgramStatistics::printBasicCodeInfo(root);
}
cout<<"STATUS: computing variableid mapping"<<endl;
VariableIdMapping variableIdMapping;
if (args.count("print-varidmapping-array")) {
variableIdMapping.setModeVariableIdForEachArrayElement(true);
}
variableIdMapping.computeVariableSymbolMapping(root);
cout<<"VariableIdMapping size: "<<variableIdMapping.getVariableIdSet().size()<<endl;
Labeler* labeler=new Labeler(root);
//cout<<"Labelling:\n"<<labeler->toString()<<endl;
#if 0
IOLabeler* iolabeler=new IOLabeler(root,&variableIdMapping);
//cout<<"IOLabelling:\n"<<iolabeler->toString()<<endl;
#endif
if (args.count("print-varidmapping")||args.count("print-varidmapping-array")) {
variableIdMapping.toStream(cout);
}
runAnalyses(root, labeler, &variableIdMapping);
cout << "INFO: generating annotated source code."<<endl;
root->unparse(0,0);
if(option_rose_rd_analysis) {
Experimental::RoseRDAnalysis::generateRoseRDDotFiles(labeler,root);
}
cout<< "STATUS: finished."<<endl;
// main function try-catch
} catch(char* str) {
cerr << "*Exception raised: " << str << endl;
return 1;
} catch(const char* str) {
cerr << "Exception raised: " << str << endl;
return 1;
} catch(string str) {
cerr << "Exception raised: " << str << endl;
return 1;
}
return 0;
}
int main(int argc,char ** argv)
{
SgProject *project = frontend(argc, argv);
VisPromelaAST * debugPromelaAst=new VisPromelaAST(project);
cout <<"reverting mpi"<<endl;
revertMPIDefinitions(project);
announceStep(1,0,"Identify modelchecking targets");
//! step1: Identify modelchecking targets
PromelaMarker initialMarker;
initialMarker.traverse(project, preorder);
debugPromelaAst->generate(string((*(project->get_fileList ()->begin()))->getFileName())+".SPIN.inital_marking.dot");
// since the next step is creating a slice, we must identify all statements which are modelchekcing targets so that we have a valid slice
SlicingInfo si=SlicingInfo();
// it might be better to use the AST-Attributes as a method for containing this information, but right now the pragma is sufficient
si.setSliceTargetString(string("SPIN_TARGET"));
si.traverse(project, preorder);
announceStep(2,0,"Create abstractions using sdg and other means");
// create the sdg
SystemDependenceGraph * sdg=new SystemDependenceGraph();
sdg->parseProject(project);
//TODO: at this point one would implement abstractions, because they alter the code in such a way, that slicing might be able to remove additional statements, which otherwihse would not be removed
announceStep(3,0,"Slice program to reduce state-space and\n\t eliminate dead code from abstractions");
//! Step2: Slice program to reduce towards abstraction and goal
// create the set of nodes, that are in the slice, in terms of the sdg
CreateSliceSet sliceSet(sdg,si.getSlicingTargets());
// using the set of statements that are within the slice construct an unnamed CreateSlice-class and slice the project
CreateSlice(sliceSet.computeSliceSet()).traverse(project);
// since now the ast is substantially different from the previouse version the sdg is not valid anymore
delete(sdg);
//DEVEL: output the sliced statement-graph
debugPromelaAst->generate(string((*(project->get_fileList ()->begin()))->getFileName())+".SPIN.sliced.dot");
//DEVEL: run-ast-consistancy-test to enshure a valid ast
AstTests::runAllTests(project);
announceStep(4,1,"Perform sanity-check for non-transformable code like scanf and parameterinput argc and argv");
//TODO: implement the sanitiy-checks
announceStep(4,2,"Identify Process and Thread functions and mark them as PROMELA-Procs");
// find process functions,like main and thread-functions.
// For this version of the transformation only main is valid,
// but later on threadfunctions might also work. Therefore the
// a vector is used to store the main function
vector<SgFunctionDefinition*> procFuncVec=findProcessFunctions(project);
// mark those function declarations,definitions and main-basic block to enshure proper promela-output
for (int i=0;i<procFuncVec.size();i++)
{
cout <<"\t*marking function for promela-output: "<<procFuncVec[i]->get_declaration()->get_name().getString()<<endl;
// mark the function body for transformation
markForPromelaTransformation(procFuncVec[i]);
// force the first SgBasicBlock to be converted to promela!!!!!
markForPromelaTransformation(procFuncVec[i]->get_body () );
//CI (04/16/2007): This is currently not necessary
if (isSgFile(procFuncVec[i]->get_parent()->get_parent()->get_parent()))
{
cout <<"marking file"<<endl;
markForPromelaTransformation(procFuncVec[i]->get_parent()->get_parent()->get_parent());
}
}
announceStep(4,3,"Identify functions using global variables and add them to the inlining list");
vector<SgVariableDeclaration *> globalVarDeclVec;
vector<SgFunctionDefinition *> functionsToInline;
std::map<SgNode*,bool> functionToInlineMap;
//TODO: search in each functions for uses of a global variable, if the function contains a use, mark it and continue with the next function
list<SgNode*> sgGlobalList=NodeQuery::querySubTree(project,V_SgGlobal);
for (list<SgNode*>::iterator sgGlobalIt=sgGlobalList.begin();sgGlobalIt!=sgGlobalList.end();sgGlobalIt++)
{
// iterate over this scope without recursing and find all variabledeclarations ...
SgDeclarationStatementPtrList globalDeclList=isSgGlobal(*sgGlobalIt)->get_declarations ();
for (SgDeclarationStatementPtrList::iterator it=globalDeclList.begin();it!=globalDeclList.end();it++)
{
if (isSgVariableDeclaration(*it))
{
cout <<"\t\t*found VarDecl:"<<(*it)->unparseToString()<<endl;
//TODO: check if its from a header and if it is used..
globalVarDeclVec.push_back(isSgVariableDeclaration(*it));
}
}
}
// remove MPI-Symbols form the globals
vector<SgVariableDeclaration *> globalVarDeclVecTmp;
for (int i=0;i<globalVarDeclVec.size();i++)
{
// if the current declaration is an mpi declaration, remove it from the global list (it is from a header, and will be directly supported in spin
if (isNodeMPI(globalVarDeclVec[i]))
{
cout<<"\t\t* found an MPI-Var-Decl, ignoring"<<endl;
}
else
{
globalVarDeclVecTmp.push_back(globalVarDeclVec[i]);
}
}
globalVarDeclVec=globalVarDeclVecTmp;
// now that we have a list of all global declarations, find their uses
list<SgNode*> functionList=NodeQuery::querySubTree(project,V_SgFunctionDefinition);
for (list<SgNode*>::iterator fIt=functionList.begin();fIt!=functionList.end();fIt++)
{
//check if the function is main, .. kind of silly to inline main...
if (isSgFunctionDefinition(*fIt)->get_declaration()->get_name().getString()=="main") continue;
// search the function for globals
list<SgNode*> sgVarRefList=NodeQuery::querySubTree(*fIt,V_SgVarRefExp);
for (list<SgNode*>::iterator it=sgVarRefList.begin();sgVarRefList.end()!=it;it++)
{
//
// get the declaration and then if the declaration is of global scope -> it is a global
if (isSgFunctionParameterList(isSgVarRefExp(*it)->get_symbol () ->get_declaration ()->get_declaration())) continue;
if (isSgVarRefExp(*it)->get_symbol () ->get_declaration ()->get_declaration()==NULL) // is an initialized name form the function.parameter.list
continue;
SgNode * tmp=(*it);
while(!isSgStatement(tmp) && !isSgGlobal(tmp)) tmp=tmp->get_parent();
// cout <<"\t\tParentStmt: "<<tmp->unparseToString()<<endl;
// cout <<"\t\tdebug:"<<(*it)->unparseToString()<<endl;
// cout <<"\t\tclass:"<<isSgVarRefExp(*it)->get_symbol () ->get_declaration ()->get_declaration()->class_name()<<endl;
SgVariableDeclaration *decl=isSgVariableDeclaration(isSgVarRefExp(*it)->get_symbol () ->get_declaration ()->get_declaration());
assert(decl!=NULL);
// cout <<"\t\t*decl: "<<decl->unparseToString()<<endl;
if (isSgGlobal(decl->get_parent())) // is a global scope -> global
{
// we have a global, add the function to the list and break
functionsToInline.push_back(isSgFunctionDefinition(*fIt));
functionToInlineMap[isSgFunctionDefinition(*fIt)]=true;
cout <<"\t\t*Found use of Global <"<<decl->get_definition()->get_vardefn ()->get_name ().getString()<<"> in "<<isSgFunctionDefinition(*fIt)->get_declaration()->get_name().getString()<<", -> added to inline list"<<endl;
break;
}
}
}
debugPromelaAst->generate(string((*(project->get_fileList ()->begin()))->getFileName())+".SPIN.Step4_3.dot");
announceStep(4,4,"Identify function called by proc-functions that contain modelchecking critical code");
// a function that contains modelchecking code is marked as a promela-target after PropagatePromelaTargetTraversal -> propagate promela-targets
PropagatePromelaTargetTraversal().traverse(project);
for (list<SgNode*>::iterator fIt=functionList.begin();fIt!=functionList.end();fIt++)
{
// if the definition has a promela and is not main
//check if the function is main, .. kind of silly to inline main...
if (isSgFunctionDefinition(*fIt)->get_declaration()->get_name().getString()=="main") continue;
// add it to the list of inline targets..
if (!functionToInlineMap.count(isSgFunctionDefinition(*fIt)) || !functionToInlineMap[isSgFunctionDefinition(*fIt)])
{
functionsToInline.push_back(isSgFunctionDefinition(*fIt));
functionToInlineMap[isSgFunctionDefinition(*fIt)]=true;
cout <<"\t\t*"<<isSgFunctionDefinition(*fIt)->get_declaration()->get_name().getString()<<" contains a modelchecking target, -> added to inline list"<<endl;
}
else
{
cout <<"\t\t*"<<isSgFunctionDefinition(*fIt)->get_declaration()->get_name().getString()<<" contains a modelchecking target, but is already marked for inlining"<<endl;
}
}
debugPromelaAst->generate(string((*(project->get_fileList ()->begin()))->getFileName())+".SPIN.Step4_4.dot");
announceStep(4,5,"Inlining identifyed functions");
bool doneSomeInlineing=false;
if (functionsToInline.size())
{
// for all thread functions
for (int procNr=0;procNr<procFuncVec.size();procNr++)
{
list<SgNode*> callSiteList=NodeQuery::querySubTree(procFuncVec[procNr],V_SgFunctionCallExp);
for (list<SgNode*>::iterator callSite=callSiteList.begin();callSite!=callSiteList.end();callSite++)
{
SgFunctionDefinition * def;
// get the definition for that function
if (isSgFunctionRefExp(isSgFunctionCallExp((*callSite))->get_function()))
{
// straight function call
def=isSgFunctionRefExp(isSgFunctionCallExp((*callSite))->get_function())->get_symbol()->get_declaration()->get_definition();
}
else
{
cerr <<"ERROR: could not identify function-definition"<<endl;
assert(false);
}
if (functionToInlineMap[def])
{
cout <<"\t\t*need to inline function >"<<def->get_declaration()->get_name().getString()<<"<"<<endl;
bool inliningOK=false;
inliningOK=doInline(isSgFunctionCallExp(*callSite));
assert(inliningOK==true);
doneSomeInlineing|=true;
}
}
}
if (doneSomeInlineing)
{
cout <<"\t\t*Inlineing done->performing ast-consistancy-check"<<endl;
// now we can remove the definion and declaration of the iline functions
for (int fNr=0;fNr<functionsToInline.size();fNr++)
{
cout <<"\t\t* removing function declaration and definition of "<<functionsToInline[fNr]->get_declaration()->get_name().getString()<<endl;
LowLevelRewrite::remove(isSgStatement(functionsToInline[fNr]));
LowLevelRewrite::remove(isSgStatement(functionsToInline[fNr]->get_declaration()));
}
// AstTests::runAllTests(project);
}
}
debugPromelaAst->generate(string((*(project->get_fileList ()->begin()))->getFileName())+".SPIN.Step4_5.dot");
//this one failes.. AstTests::runAllTests(project);
announceStep(4,6,"transform for loops to whjile loops");
for (int procNr=0;procNr<procFuncVec.size();procNr++)
{
changeForLoops(procFuncVec[procNr]);
}
announceStep(4,6,"MPI-Specific: Moving globals into main");
for(int i=0;i<globalVarDeclVec.size();i++)
{
bool used=false;
// do a nast search if or not the globals are used (->rules aout includesd stuff)
SgInitializedName * gIniName=globalVarDeclVec[globalVarDeclVec.size()-1-i]->get_definition()->get_vardefn ();
list<SgNode*> varRefExpList=NodeQuery::querySubTree(procFuncVec[0],V_SgVarRefExp);
for (list<SgNode*>::iterator it=varRefExpList.begin();it!=varRefExpList.end();it++)
{
// check if the initialized name is in the list...
SgVarRefExp * exp=isSgVarRefExp(*it);
SgInitializedName * iniName=exp->get_symbol ()->get_declaration () ;
if (gIniName==iniName)
{
used=true;
break;
}
}
// and if not used->skip
if (!used) continue;
LowLevelRewrite::remove(isSgStatement(globalVarDeclVec[globalVarDeclVec.size()-1-i]));
// is allwayzs main
// add them in reverse order in case they depend on each other
assert(procFuncVec.size()>0);
assert(procFuncVec[0]->get_body ());
procFuncVec[0]->get_body ()->prepend_statement (globalVarDeclVec[globalVarDeclVec.size()-1-i]);
// and remove it from the old localtion
}
announceStep(4,7,"Replacing do-while and for-loops which contain model-targets with while-loops");
//CI (4/19/2007): TODO
for (int procNr=0;procNr<procFuncVec.size();procNr++)
{
list<SgNode*> loopsToReplace;
list<SgNode*> tmpList;
tmpList=NodeQuery::querySubTree(procFuncVec[procNr],V_SgForStatement);
loopsToReplace.insert(loopsToReplace.end(),tmpList.begin(),tmpList.end());
tmpList=NodeQuery::querySubTree(procFuncVec[procNr],V_SgDoWhileStmt);
loopsToReplace.insert(loopsToReplace.end(),tmpList.begin(),tmpList.end());
for (list<SgNode*>::iterator it=loopsToReplace.begin();it!=loopsToReplace.end();it++)
{
if (!toConvert(*it)) continue;
//else
if (isSgForStatement(*it)) forToWhileTransformation(isSgForStatement(*it));
if (isSgDoWhileStmt(*it)) doWhileToWhileTransformation(isSgDoWhileStmt(*it));
}
}
// since the inline does not preserve ast-attributes, we need to regenerate them prom the "copied" pragmas
announceStep(4,8,"Re-Identify modelchecking targets");
PromelaMarker().traverse(project, preorder);
debugPromelaAst->generate(string((*(project->get_fileList ()->begin()))->getFileName())+".SPIN.Step4_8.dot");
// from this point on, only work on the function of procFuncVec is necessary,since all necessary data has been inlined
announceStep(4,9,"Identify sideffecting-conditionals and move them out of the control-statement, if the statement is transformed to promela");
// first update the modelchecking information
PropagatePromelaTargetTraversal().traverse(project);
list<SgNode*> conditinalControlStmts;
for (int procNr=0;procNr<procFuncVec.size();procNr++)
{
list<SgNode*> tmpList;
// IF
tmpList=NodeQuery::querySubTree(procFuncVec[procNr],V_SgIfStmt);
conditinalControlStmts.insert(conditinalControlStmts.end(),tmpList.begin(),tmpList.end());
// WHILE
tmpList=NodeQuery::querySubTree(procFuncVec[procNr],V_SgWhileStmt);
conditinalControlStmts.insert(conditinalControlStmts.end(),tmpList.begin(),tmpList.end());
// SWITCH
tmpList=NodeQuery::querySubTree(procFuncVec[procNr],V_SgSwitchStatement);
conditinalControlStmts.insert(conditinalControlStmts.end(),tmpList.begin(),tmpList.end());
//make loop userfriendly:
for (list<SgNode*>::iterator it=conditinalControlStmts.begin();it!=conditinalControlStmts.end();it++)
{
bool isWhile=false;
// if the statement is not suppoesed to be unparsed to promela -> skip
if (!toConvert(*it)) continue;
SgStatement * conditional=NULL;
if (isSgIfStmt(*it))
{
conditional=isSgIfStmt(*it)->get_conditional ();
}
else if (isSgWhileStmt(*it))
{
conditional=isSgWhileStmt(*it)->get_condition ();
isWhile=true;
}
else if (isSgSwitchStatement(*it))
{
conditional=isSgSwitchStatement(*it)->get_item_selector ();
}
// now that we have the SgStatement
if (isSideEffektingStmt(conditional))
{
cout <<"\t\t*need to move >"<<conditional->unparseToString()<<"< outside the control-structure"<<endl;
if (isWhile)
{
// if the loop contains a continue, substitute those with the end-labl and a goto there,
list<SgNode*> continueStmtList= NodeQuery::querySubTree(*it,V_SgContinueStmt);
for (list<SgNode*>::iterator continueIt=continueStmtList.begin();
continueIt!=continueStmtList.end();
continueIt++)
{
// traverse from this one up to the next loop-parent
SgNode * tmp=*continueIt;
while(!isSgWhileStmt(tmp) &&
!isSgDoWhileStmt(tmp)&&
!isSgForStatement(tmp)) tmp=tmp->get_parent();
// if the continue belongs to this while-loop
if (tmp==*it)
removeContinues(isSgWhileStmt(*it));
}
}
// generate a VariableDeclaration
SgVariableDeclaration * tempVarDecl=new SgVariableDeclaration(
Sg_File_Info::generateDefaultFileInfoForTransformationNode(),
SgName("spinBoolTmp"), new SgTypeBool());
// get the expression form the statement
assert(isSgExprStatement(conditional)!=NULL);
SgExpression * condExpr=isSgExprStatement(conditional)->get_expression ();
// generate a initial assignment using the existing stmt
SgInitializer * initializer=new SgAssignInitializer(
Sg_File_Info::generateDefaultFileInfoForTransformationNode(),condExpr);
// attach initializer
tempVarDecl->get_definition()->get_vardefn()->set_initializer (initializer);
// create a sgvarRefExpr
SgVarRefExp * ref=new SgVarRefExp (Sg_File_Info::generateDefaultFileInfoForTransformationNode(),
new SgVariableSymbol (tempVarDecl->get_definition()->get_vardefn ()));
// replace the original statement with a SgVarRefExpr
isSgExprStatement(conditional)->set_expression(ref);
ref->set_parent(conditional);
// get the parent scope and set it for the variable
SgNode * tmp=*it;
while(!isSgScopeStatement(tmp)) tmp=tmp->get_parent();
tempVarDecl->get_definition()->get_vardefn()->set_scope(isSgScopeStatement(tmp)->get_scope());
// and prepend the declaration before the conditional
LowLevelRewrite::insert(isSgStatement(*it),tempVarDecl,true);
// and append it to the while-body, which will work together with the inliner..
if (isWhile)
{
ref=new SgVarRefExp (Sg_File_Info::generateDefaultFileInfoForTransformationNode(),
new SgVariableSymbol (tempVarDecl->get_definition()->get_vardefn ()));
// copy the other expression
SgExpression *rhs=isSgExpression(SgTreeCopy().copyAst(condExpr));
SgAssignOp * assgnExpr=new SgAssignOp(Sg_File_Info::generateDefaultFileInfoForTransformationNode(),ref,rhs);
//append at the end of the loop, too
isSgWhileStmt(*it)->get_body ()->append_statement (
new SgExprStatement (Sg_File_Info::generateDefaultFileInfoForTransformationNode(),assgnExpr)
);
// assgnExpr->set_parent(isSgWhileStmt(*it)->get_body ());
}
}
// else do nothing
}
}
// * 3.3: find all variables in the function,give them a unique name and move them to the bgeinning of the function, this is allowed because this is for C only!!!. This would not work for classes which must be constructed
announceStep(4,8,"find all variables assign unique name and transform them to \n\tmatch promelas 2-scope-convention");
string procName;
vector<SgClassType *>classTypeList;
// first rename all variables to have unique names...
for (int procNr=0;procNr<procFuncVec.size();procNr++)
{
flattenScopes(isSgFunctionDefinition(procFuncVec[procNr]));
}
// output a marked ast
debugPromelaAst->generate(string((*(project->get_fileList ()->begin()))->getFileName())+".SPIN.reduced.dot");
announceStep(4,9,"final propagation of promela-targets");
project->unparse();
PropagatePromelaTargetTraversal().traverse(project);
debugPromelaAst->generate(string((*(project->get_fileList ()->begin()))->getFileName())+".SPIN.transformations.dot");
cout <<"-------------------------------------------------------------------------------"<<endl
<<"\tFrom here on the C-Ast will be modified into a Promela/C-AST"<<endl
<<"-------------------------------------------------------------------------------"<<endl;
announceStep(6,1,"using the initial promela targets mark the ast");
// using the sdg traverse the project to unparse to promela
// the important step is to identify staements which can not be transformed to
// promela because of PROMELA restrictions and therfore must be kept in C
// since we have done slicing this is only done for functioncalls and such stuff
// find the model-intersting nodes`
sdg=new SystemDependenceGraph();
sdg->parseProject(project);
vector<SpinPStructContainer*> pStructContainerArray;
for (int procNr=0;procNr<procFuncVec.size();procNr++)
{
// list<SgNode*> stmtList=NodeQuery::querySubTree(project,V_SgStatement);
list<SgNode*> stmtList=NodeQuery::querySubTree(procFuncVec[procNr],V_SgStatement);
list<SgNode*> markedNodes;
// find all nodes which have beem tagged for promela-transformation
for (list<SgNode*>::iterator stmtIt=stmtList.begin();stmtIt!=stmtList.end();stmtIt++)
{
if (toConvert(*stmtIt))
{
markedNodes.push_back(*stmtIt);
}
}
// once these statements have been identified, track their dependencys
cout <<"processing stmt's"<<endl;
for (list<SgNode*>::iterator it=markedNodes.begin();it!=markedNodes.end();it++)
{
cout <<"*stmt marked: "<<(*it)->unparseToString()<<endl;
if (isSgFunctionDefinition(*it)) continue;
cout <<" control dependencys:"<<endl;
DependenceNode* currDepNode=sdg->getNode(*it);
set <SimpleDirectedGraphNode *> preds=currDepNode->getPredecessors();
//
cout <<(*it)->unparseToString()<<" has "<<preds.size()<<" predecessors"<<endl;
// process all predecessors...
for (set < SimpleDirectedGraphNode * >::iterator i = preds.begin();i != preds.end(); i++)
{
DependenceNode *pred = dynamic_cast < DependenceNode * >(*i);
// ok this node is what dependency?
set < DependenceGraph::EdgeType > connectingSet=sdg->edgeType(pred,currDepNode);
SgNode * predNode=getStatement(pred->getSgNode());
SgNode * parentPredNode=NULL;
// since controlstatements like if and while have a statement as an expression in rose and since the expression has all the control dependencys track those, but mark the parent statement,too
if (isSgWhileStmt(predNode->get_parent())) parentPredNode=predNode->get_parent();
else if (isSgIfStmt(predNode->get_parent())) parentPredNode=predNode->get_parent();
// if control, add to the transformation set
if (connectingSet.count(DependenceGraph::CONTROL))
{
cout <<"\tcontrol dependency"<<endl;
if (toConvert(predNode))
{
cout <<"\t>"<<predNode->unparseToString()<<"<already marked for conversion"<<endl;
}
else
{
markedNodes.push_back(pred->getSgNode());
cout <<"\tmark >"<<predNode->unparseToString()<<"< for conversion"<<endl;
markForPromelaTransformation(predNode);
if (parentPredNode!=NULL)
markForPromelaTransformation(parentPredNode);
}
}
else if (connectingSet.count(DependenceGraph::DATA))
{
cout <<"data dependency presen, but not resolved!"<<endl;
// this will be done by checkin all controll dependeny nodes and adding those to the promela state vector...
}
else
{
cout <<"ILLIGAL DEPENDENCY FOUND. Previouse transformations should have removed those!!!"<<endl;
}
}
}
}
// now the ast is in its final marked for
debugPromelaAst->generate(string((*(project->get_fileList ()->begin()))->getFileName())+".SPIN.Step6_1.dot");
announceStep(6,2,"Creating PStruct");
for (int procNr=0;procNr<procFuncVec.size();procNr++)
{
/* create astruct that contains the data that is stored in the state vector...*/
SpinPStructContainer * pStruct=
new SpinPStructContainer(
procFuncVec[procNr]->get_declaration()->get_name().getString()
);
// add the struct to the AST-for fun->it will be hidden in the promela output pass
LowLevelRewrite::insert(
isSgStatement(procFuncVec[procNr]->get_parent()),
pStruct->getStructSubTree(),
true
);
// put the struct in the vector for later use
pStructContainerArray.push_back(pStruct);
// register class type
classTypeList.push_back(new SgClassType(pStruct->getStructSubTree()));
}
debugPromelaAst->generate(string((*(project->get_fileList ()->begin()))->getFileName())+".SPIN.Step6_2.dot");
announceStep(5,0,"transform MPI-calls to SPIN-M-calls");
MPISpinReplacement MPIreplacer;
for (int i=0;i<procFuncVec.size();i++)
{
//old: MPIreplacer.replaceIn(procFuncVec[i],pStructContainerArray[i]->getPStructVarDeclaration());
MPIreplacer.replaceIn(procFuncVec[i],pStructContainerArray[i]);
}
project->unparse();
debugPromelaAst->generate(string((*(project->get_fileList ()->begin()))->getFileName())+".SPIN.Step5.dot");
announceStep(6,3,"Identifying variables and putting them in the state-vector");
for (int procNr=0;procNr<procFuncVec.size();procNr++)
{
// traverse over each promela-procedure and track wich variables are use.
//later add those to the state vector. the variables that need to be in
// the state vector will be stored in an ast attribute attached to the
// function-definition...
// Create the container that will contain the variables for the "promela-export"
CStateASTAttrib * c_stateAttr=new CStateASTAttrib();
// find all VariableDeclarations
list<SgNode*> variableDeclarationList=NodeQuery::querySubTree(procFuncVec[procNr],V_SgVariableDeclaration);
// this set will contain a variable declarations
set<SgNode*> iniNameList;
set<SgInitializedName *>cStateVariables;
// the list in markedNodes contains all control nodes,
// now traverse again and check variables
for (list<SgNode*>::iterator it=
variableDeclarationList.begin();
it!=variableDeclarationList.end();
it++)
{
// get the paren scope...
SgNode * parentScopeTmp=*it;
// get parents until we find the first scope
while(!isSgScopeStatement(parentScopeTmp))
{
parentScopeTmp=parentScopeTmp->get_parent();
}
// tmp is now the next scope
if (toConvert(parentScopeTmp))
{
// parent scope will be transforemd to promela -> block might be split up
// in mutliple c_blocks, and since varDecls don't carry accross c-blocks->statevec
SgVariableDeclaration * decl=isSgVariableDeclaration(*it);
// if the variable is promela-compatible and the parent scope is the scope form the procFuncVec -> no explicit state vector needed, can be keept in promela...
// if (isPromelaCompatibleVariableType(decl))
// {
// ok, mark the variable as unparsable to promela...
// }
// else
// {
// add it the the state=ast-trribute
cStateVariables.insert(decl->get_definition()->get_vardefn ());
cout <<"converting "<<decl->get_definition()->get_vardefn ()->get_name ().getString()<<endl;
markAsPromelaStateVar(decl);
c_stateAttr->add(decl->get_definition()->get_vardefn () );
cout <<"\t\t*added "<< decl->get_definition()->get_vardefn ()->get_name ().getString()<<" to the state-vector"<<endl;
// remove the old variable-declaration
LowLevelRewrite::remove(isSgStatement(decl));
pStructContainerArray[procNr]->addVariable(decl);
// }
}
else
{
// the block is PURE c-> no promelastate will pass across its borders
// therefore all variable-declaration within can be keept as is...
}
/*CI (4/19/2007) not all variable-uses need to be inc-block style, determine that later
c_stateAttr->add(isSgInitializedName(*setIt));
setStateVecVarAttrib(*setIt,new StateVecVarASTAttrib(true));*/
// now force all nodes that contain a variable that is declared using the c_state stmt to be converted to c!!!!
markStatementsWithCStateVariables(procFuncVec[procNr],cStateVariables);
}
// attach the c-state-attribute to the function-defintion
setCStateAttrib(procFuncVec[procNr],c_stateAttr);
}
debugPromelaAst->generate(string((*(project->get_fileList ()->begin()))->getFileName())+".SPIN.Step6_3.dot");
announceStep(6,4,"inserting promela proctype variable to the proc-functions");
// * 3.4: insert the promela proctype variable to the proc-functions
for (int i=0;i<procFuncVec.size();i++)
{
/*
// create instance
SgType * instanceType=classTypeList[i];
Sg_File_Info * instanceFI=Sg_File_Info::generateDefaultFileInfoForTransformationNode();
SgName instanceName=string("P")+(procFuncVec[i])->get_declaration()->get_name().getString()+"Instance";
SgStatement * instanceVarDecl=new SgVariableDeclaration(instanceFI,instanceName,instanceType);
procFuncVec[i]->get_body()->prepend_statement (instanceVarDecl);
*/
procFuncVec[i]->get_body()->prepend_statement (
pStructContainerArray[i]->getPStructVarDeclaration()
);
// fix scope
pStructContainerArray[i]->getPStructVarDeclaration()->get_definition()->get_vardefn ()->set_scope(procFuncVec[i]->get_body()->get_scope());
procFuncVec[i]->get_body()->prepend_statement (
pStructContainerArray[i]->getPStructVarInstanziationDeclaration()
);
pStructContainerArray[i]->getPStructVarInstanziationDeclaration()->get_definition()->get_vardefn ()->set_scope(procFuncVec[i]->get_body()->get_scope());
/*
// creat ptr variable
Sg_File_Info * initializerFI=Sg_File_Info::generateDefaultFileInfoForTransformationNode();
SgVarRefExp * varRef=new SgVarRefExp (
Sg_File_Info::generateDefaultFileInfoForTransformationNode(),new SgVariableSymbol (isSgVariableDeclaration(instanceVarDecl)->get_definition()->get_vardefn ()));
SgAddressOfOp *aof=new SgAddressOfOp (Sg_File_Info::generateDefaultFileInfoForTransformationNode(),isSgExpression(varRef),instanceType);
SgInitializer * ptrInitializer= new SgAssignInitializer(initializerFI,aof);
*/
/*
Sg_File_Info * ptrFI=Sg_File_Info::generateDefaultFileInfoForTransformationNode();
// ptrFI->setCompilerGenerated();
// ptrFI->unsetOutputInCodeGeneration ();
SgType * pointerType=new SgPointerType (instanceType);
SgName ptrName=string("P")+(procFuncVec[i])->get_declaration()->get_name().getString();
SgStatement * ptrVarDecl=new SgVariableDeclaration(ptrFI,ptrName,pointerType);
//SgStatement * ptrVarDecl=new SgVariableDeclaration(ptrFI,ptrName,pointerType,ptrInitializer);
procFuncVec[i]->get_body()->prepend_statement (ptrVarDecl);
procVariableList.push_back(isSgVariableDeclaration(ptrVarDecl));*/
// procVariableList.push_back(pStructContainerArray[i]->getPStructVarDeclaration());
}
announceStep(6,5,"transform the use of variables in c_code-blocks to PROEMALs-callingconvetion");
for (int i=0;i<procFuncVec.size();i++)
{
refactorSgVarRefExpInCBlocks(procFuncVec[i],pStructContainerArray[i]->getPStructVarDeclaration());
}
// since mpi-commands within promela will be transformned in by the promela-mpi-iunclude-> keep the in spin for the moment..., but a direct approach is also thinkable...
{
list<SgNode*> stmtList=NodeQuery::querySubTree(procFuncVec[0],V_SgStatement);
// find all nodes which have beem tagged for promela-transformation
for (list<SgNode*>::iterator stmtIt=stmtList.begin();stmtIt!=stmtList.end();stmtIt++)
{
if (isNodeMPI(*stmtIt) && !toConvert(*stmtIt))
{
markForPromelaTransformation(*stmtIt);
}
}
}
debugPromelaAst->generate(string((*(project->get_fileList ()->begin()))->getFileName())+".SPIN.Step6_5.dot");
// *3.x finally remove return statements in all promela functions and replace them with a goto to the end of that function body
announceStep(6,6,"remove all return-statements and replace with goto-statenents");
for (int i=0;i<procFuncVec.size();i++)
{
removeReturnStmts(procFuncVec[i]);
}
// 4.x mark AST for unparse, adding astattributes
announceStep(6,7,"final PROMELA-attribute propagation");
MarkAST4Unparse finalMarker;
finalMarker.traverse(project);
// add mpi include and pp-directives
if (MPIreplacer.getNrOfMPICalls()>0)
{
announceStep(6,8,"MPI-touchup. Add the SPIN-M #include mpi-spin.prom directive adn the active MPI_PROC");
cout <<"\t\t*found "<<MPIreplacer.getNrOfMPICalls()<<" MPI-calls"<<endl;
SgGlobal * globalNode=NULL;
SgNode * tmp=procFuncVec[0];
while(!isSgGlobal(tmp)) tmp=tmp->get_parent();
globalNode=isSgGlobal(tmp);
if (globalNode->get_attachedPreprocessingInfoPtr ()==NULL)
globalNode->set_attachedPreprocessingInfoPtr(new AttachedPreprocessingInfoType());
PreprocessingInfo * spinInclude=new PreprocessingInfo(PreprocessingInfo::CpreprocessorIncludeDeclaration,string("#include \"mpi-spin.prom\""),"user-generated",0,0,0,PreprocessingInfo::before,false,false);
globalNode->addToAttachedPreprocessingInfo(spinInclude);
PreprocessingInfo * activeMPI_PROC=new PreprocessingInfo(PreprocessingInfo::CpreprocessorIncludeDeclaration,string("active MPI_PROC"),"user-generated",0,0,0,PreprocessingInfo::after,false,false);
globalNode->addToAttachedPreprocessingInfo(activeMPI_PROC);
}
cout <<"*--------------------------------*\n\tstep 7->unparse\n*--------------------------------*"<<endl;
announceStep(7,0,"unparsing mixed ast");
// output the dot-grpah
AstDOTGeneration dotgen;
dotgen.generateInputFiles(project,AstDOTGeneration::PREORDER);
// set4: assert that the promela-part is valid
// Step4: unparse project to C/Promela
// Unparser_Opt options;
// ofstream * out=new ofstream("main.pml");
// CToProMeLaUnparser unparser(out,string("main.pml"),options,0);
// SgUnparse_Info info;
// cout <<" Test of unparser. Filename is "<<unparser.getFileName()<<endl;
debugPromelaAst->generate(string((*(project->get_fileList ()->begin()))->getFileName())+".SPIN.1.dot");
cout <<"unparing to C"<<endl;
project->unparse();
for (int i=0;i<procFuncVec.size();i++)
pStructContainerArray[i]->hideShugar();
cout << "unparsing to Promela"<<endl;
unparsePromelaProject(project,NULL,NULL);
//unnparser.
// unparser.run_unparser();
// unparseProject(project);
// unparser.unparseProject(project,info);
return 0;
}
int main(int argc, char* argv[]) {
try {
if(argc==1) {
cout << "Error: wrong command line options."<<endl;
exit(1);
}
#if 0
if(argc==3) {
csvAssertFileName=argv[2];
argc=2; // don't confuse ROSE command line
cout<< "INIT: CSV-output file: "<<csvAssertFileName<<endl;
}
#endif
// Command line option handling.
namespace po = boost::program_options;
po::options_description desc
("Woodpecker V0.1\n"
"Written by Markus Schordan\n"
"Supported options");
desc.add_options()
("help,h", "produce this help message.")
("rose-help", "show help for compiler frontend options.")
("version,v", "display the version.")
("stats", "display code statistics.")
("normalize", po::value< string >(), "normalize code (eliminate compound assignment operators).")
("inline",po::value< string >(), "perform inlining ([yes]|no).")
("eliminate-empty-if",po::value< string >(), "eliminate if-statements with empty branches in main function ([yes]/no).")
("eliminate-dead-code",po::value< string >(), "eliminate dead code (variables and expressions) ([yes]|no).")
("csv-const-result",po::value< string >(), "generate csv-file [arg] with const-analysis data.")
("generate-transformed-code",po::value< string >(), "generate transformed code with prefix rose_ ([yes]|no).")
("verbose",po::value< string >(), "print detailed output during analysis and transformation (yes|[no]).")
("generate-conversion-functions","generate code for conversion functions between variable names and variable addresses.")
("csv-assert",po::value< string >(), "name of csv file with reachability assert results'")
("enable-multi-const-analysis",po::value< string >(), "enable multi-const analysis.")
("transform-thread-variable", "transform code to use additional thread variable.")
;
// ("int-option",po::value< int >(),"option info")
po::store(po::command_line_parser(argc, argv).
options(desc).allow_unregistered().run(), args);
po::notify(args);
if (args.count("help")) {
cout << "woodpecker <filename> [OPTIONS]"<<endl;
cout << desc << "\n";
return 0;
}
if (args.count("rose-help")) {
argv[1] = strdup("--help");
}
if (args.count("version")) {
cout << "Woodpecker version 0.1\n";
cout << "Written by Markus Schordan 2013\n";
return 0;
}
if (args.count("csv-assert")) {
csvAssertFileName=args["csv-assert"].as<string>().c_str();
}
if (args.count("csv-const-result")) {
csvConstResultFileName=args["csv-const-result"].as<string>().c_str();
}
boolOptions.init(argc,argv);
// temporary fake optinos
boolOptions.registerOption("arith-top",false); // temporary
boolOptions.registerOption("semantic-fold",false); // temporary
boolOptions.registerOption("post-semantic-fold",false); // temporary
// regular options
boolOptions.registerOption("normalize",false);
boolOptions.registerOption("inline",true);
boolOptions.registerOption("eliminate-empty-if",true);
boolOptions.registerOption("eliminate-dead-code",true);
boolOptions.registerOption("generate-transformed-code",true);
boolOptions.registerOption("enable-multi-const-analysis",false);
boolOptions.registerOption("verbose",false);
boolOptions.processOptions();
if(boolOptions["verbose"])
detailedOutput=1;
// clean up string-options in argv
for (int i=1; i<argc; ++i) {
if (string(argv[i]) == "--csv-assert"
|| string(argv[i]) == "--csv-const-result"
) {
// do not confuse ROSE frontend
argv[i] = strdup("");
assert(i+1<argc);
argv[i+1] = strdup("");
}
}
global_option_multiconstanalysis=boolOptions["enable-multi-const-analysis"];
#if 0
if(global_option_multiconstanalysis) {
cout<<"INFO: Using flow-insensitive multi-const-analysis."<<endl;
} else {
cout<<"INFO: Using flow-insensitive unique-const-analysis."<<endl;
}
#endif
cout << "INIT: Parsing and creating AST started."<<endl;
SgProject* root = frontend(argc,argv);
// AstTests::runAllTests(root);
// inline all functions
cout << "INIT: Parsing and creating AST finished."<<endl;
if(args.count("stats")) {
printCodeStatistics(root);
exit(0);
}
VariableIdMapping variableIdMapping;
variableIdMapping.computeVariableSymbolMapping(root);
if(args.count("transform-thread-variable")) {
Threadification* threadTransformation=new Threadification(&variableIdMapping);
threadTransformation->transform(root);
root->unparse(0,0);
delete threadTransformation;
cout<<"STATUS: generated program with introduced thread-variable."<<endl;
exit(0);
}
SgFunctionDefinition* mainFunctionRoot=0;
if(boolOptions["inline"]) {
cout<<"STATUS: eliminating non-called trivial functions."<<endl;
// inline functions
TrivialInlining tin;
tin.setDetailedOutput(detailedOutput);
tin.inlineFunctions(root);
DeadCodeElimination dce;
// eliminate non called functions
int numEliminatedFunctions=dce.eliminateNonCalledTrivialFunctions(root);
cout<<"STATUS: eliminated "<<numEliminatedFunctions<<" functions."<<endl;
} else {
cout<<"INFO: Inlining: turned off."<<endl;
}
if(boolOptions["eliminate-empty-if"]) {
DeadCodeElimination dce;
cout<<"STATUS: Eliminating empty if-statements."<<endl;
size_t num=0;
size_t numTotal=num;
do {
num=dce.eliminateEmptyIfStmts(root);
cout<<"INFO: Number of if-statements eliminated: "<<num<<endl;
numTotal+=num;
} while(num>0);
cout<<"STATUS: Total number of empty if-statements eliminated: "<<numTotal<<endl;
}
if(boolOptions["normalize"]) {
cout <<"STATUS: Normalization started."<<endl;
RewriteSystem rewriteSystem;
rewriteSystem.resetStatistics();
rewriteSystem.rewriteCompoundAssignmentsInAst(root,&variableIdMapping);
cout <<"STATUS: Normalization finished."<<endl;
}
cout<<"STATUS: performing flow-insensitive const analysis."<<endl;
VarConstSetMap varConstSetMap;
VariableIdSet variablesOfInterest;
FIConstAnalysis fiConstAnalysis(&variableIdMapping);
fiConstAnalysis.setOptionMultiConstAnalysis(global_option_multiconstanalysis);
fiConstAnalysis.setDetailedOutput(detailedOutput);
fiConstAnalysis.runAnalysis(root, mainFunctionRoot);
variablesOfInterest=fiConstAnalysis.determinedConstantVariables();
cout<<"INFO: variables of interest: "<<variablesOfInterest.size()<<endl;
if(detailedOutput)
printResult(variableIdMapping,varConstSetMap);
if(csvConstResultFileName) {
VariableIdSet setOfUsedVarsInFunctions=AnalysisAbstractionLayer::usedVariablesInsideFunctions(root,&variableIdMapping);
VariableIdSet setOfUsedVarsGlobalInit=AnalysisAbstractionLayer::usedVariablesInGlobalVariableInitializers(root,&variableIdMapping);
VariableIdSet setOfAllUsedVars = setOfUsedVarsInFunctions;
setOfAllUsedVars.insert(setOfUsedVarsGlobalInit.begin(), setOfUsedVarsGlobalInit.end());
cout<<"INFO: number of used vars inside functions: "<<setOfUsedVarsInFunctions.size()<<endl;
cout<<"INFO: number of used vars in global initializations: "<<setOfUsedVarsGlobalInit.size()<<endl;
cout<<"INFO: number of vars inside functions or in global inititializations: "<<setOfAllUsedVars.size()<<endl;
fiConstAnalysis.filterVariables(setOfAllUsedVars);
fiConstAnalysis.writeCvsConstResult(variableIdMapping, string(csvConstResultFileName));
}
if(args.count("generate-conversion-functions")) {
string conversionFunctionsFileName="conversionFunctions.C";
ConversionFunctionsGenerator gen;
set<string> varNameSet;
std::list<SgVariableDeclaration*> globalVarDeclList=SgNodeHelper::listOfGlobalVars(root);
for(std::list<SgVariableDeclaration*>::iterator i=globalVarDeclList.begin();i!=globalVarDeclList.end();++i) {
SgInitializedNamePtrList& initNamePtrList=(*i)->get_variables();
for(SgInitializedNamePtrList::iterator j=initNamePtrList.begin();j!=initNamePtrList.end();++j) {
SgInitializedName* initName=*j;
if ( true || isSgArrayType(initName->get_type()) ) { // optional filter (array variables only)
SgName varName=initName->get_name();
string varNameString=varName; // implicit conversion
varNameSet.insert(varNameString);
}
}
}
string code=gen.generateCodeForGlobalVarAdressMaps(varNameSet);
ofstream myfile;
myfile.open(conversionFunctionsFileName.c_str());
myfile<<code;
myfile.close();
}
VariableConstInfo vci=*(fiConstAnalysis.getVariableConstInfo());
DeadCodeElimination dce;
if(boolOptions["eliminate-dead-code"]) {
cout<<"STATUS: performing dead code elimination."<<endl;
dce.setDetailedOutput(detailedOutput);
dce.setVariablesOfInterest(variablesOfInterest);
dce.eliminateDeadCodePhase1(root,&variableIdMapping,vci);
cout<<"STATUS: Eliminated "<<dce.numElimVars()<<" variable declarations."<<endl;
cout<<"STATUS: Eliminated "<<dce.numElimAssignments()<<" variable assignments."<<endl;
cout<<"STATUS: Replaced "<<dce.numElimVarUses()<<" uses of variables with constant."<<endl;
cout<<"STATUS: Eliminated "<<dce.numElimVars()<<" dead variables."<<endl;
cout<<"STATUS: Dead code elimination phase 1: finished."<<endl;
cout<<"STATUS: Performing condition const analysis."<<endl;
} else {
cout<<"STATUS: Dead code elimination: turned off."<<endl;
}
if(csvAssertFileName) {
cout<<"STATUS: performing flow-insensensitive condition-const analysis."<<endl;
Labeler labeler(root);
fiConstAnalysis.performConditionConstAnalysis(&labeler);
cout<<"INFO: Number of true-conditions : "<<fiConstAnalysis.getTrueConditions().size()<<endl;
cout<<"INFO: Number of false-conditions : "<<fiConstAnalysis.getFalseConditions().size()<<endl;
cout<<"INFO: Number of non-const-conditions: "<<fiConstAnalysis.getNonConstConditions().size()<<endl;
cout<<"STATUS: performing flow-insensensitive reachability analysis."<<endl;
ReachabilityAnalysis ra;
PropertyValueTable reachabilityResults=ra.fiReachabilityAnalysis(labeler, fiConstAnalysis);
cout<<"STATUS: generating file "<<csvAssertFileName<<endl;
reachabilityResults.writeFile(csvAssertFileName,true);
}
#if 0
rdAnalyzer->determineExtremalLabels(startFunRoot);
rdAnalyzer->run();
#endif
cout << "INFO: Remaining functions in program: "<<numberOfFunctions(root)<<endl;
if(boolOptions["generate-transformed-code"]) {
cout << "STATUS: generating transformed source code."<<endl;
root->unparse(0,0);
}
std::list<int> fakelist;
fakelist.push_back(1);
std::list<int>::iterator myit=fakelist.begin();
fakelist.erase(myit);
cout<< "STATUS: finished."<<endl;
// main function try-catch
} catch(char* str) {
cerr << "*Exception raised: " << str << endl;
return 1;
} catch(const char* str) {
cerr << "Exception raised: " << str << endl;
return 1;
} catch(string str) {
cerr << "Exception raised: " << str << endl;
return 1;
}
return 0;
}
void example( char** argv, vector<string> domains, vector<string> maps ){
// Produce ISL AST
isl_ast_node* isl_ast;
{
isl_ctx* ctx = isl_ctx_alloc();
isl_union_set* domain = domain_from_domains(ctx, domains );
isl_union_map* schedule = map_from_maps(ctx, maps );
isl_ast_build* build;
isl_printer* p;
schedule = isl_union_map_intersect_domain(schedule, domain);
build = isl_ast_build_alloc(ctx);
isl_ast = isl_ast_build_node_from_schedule_map(build, schedule);
isl_ast_build_free(build);
cout << "Their Printer:" << endl;
p = isl_printer_to_file(ctx, stdout);
p = isl_printer_set_output_format(p, ISL_FORMAT_C);
p = isl_printer_print_ast_node(p, isl_ast);
cout << endl;
isl_printer_free(p);
// isl_ast_node_free(tree);
// isl_ctx_free(ctx);
}
{
PrintNodeWalker walker;
cout << "PrintNodeWalker:" << endl;
cout << walker.visit( isl_ast ) << endl;
}
{
cout << "SageTransformationWalker:" << endl;
bool verbose = false;
// Template file source
//string template_code( "#include <iostream>\nusing namespace std;\nint main(){\n int A,B,C,D,E,F,G,H,I,J,K,L,M,N,O,P,Q,R,S,T,U,V,W,X,Y,Z,a,b,c,d,e,f,g,h,i,j,k,l,m,n,o,p,q,r,s,t,u,v,w,x,y,z;\nA = (B = (C = (D = (E = (F = (G = (H = (I = (J = (K = (L = (M = (N = (O = (P = (Q = (R = (S = (T = (U = (V = (W = (X = (Y = (Z = (a = (b = (c = (d = (e = (f = (g = (h = (i = (j = (k = (l = (m = (n = (o = (p = (q = (r = (s = (t = (u = (v = (w = (x = (y = (z = 1234)))))))))))))))))))))))))))))))))))))))))))))))))));\n }");
string template_code( "#include <iostream>\nusing namespace std;\nint main(){ }");
std::string template_file_name( "__template_file__.cpp" );
// Write out template file.
ofstream template_file;
template_file.open( template_file_name.c_str(), ios::trunc | ios::out );
assert( template_file.is_open() );
template_file << template_code << endl;
template_file.close();
// Create arguments to frontend to parse template file
vector<string> project_argv;
// Apparently it is necessary to have the executable name in the arguments.
project_argv.push_back( string(argv[0]) );
project_argv.push_back( template_file_name );
if( verbose ) cout << "Calling Frontend" << endl;
SgProject* project = frontend( project_argv );
// Find the existing main() definition node in the tree.
if( verbose ) cout << "Finding target function definition" << endl;
SgFunctionDefinition* target_defn = findFunctionDeclaration( project, "main", NULL, true)->get_definition();
// Run ISL -> Sage walker over ISL tree, rendering it into Sage,
if( verbose ) cout << "Calling SageTransformationWalker" << endl;
SageTransformationWalker walker( isl_ast, verbose );
SgStatement* body_stmt = isSgStatement( walker.getSageRoot() );
if( body_stmt == NULL ){
cerr << "Could not convert ISL AST into SgStatement" << endl;
abort();
}
// Append rendered ast to the main() body
if( verbose ) cout << "Inserting into main()" << endl;
target_defn->append_statement( body_stmt );
// Write AST to dot file
if( verbose ) cout << "Writing to dot file" << endl;
generateDOT( *project );
if( verbose ) cout << "Unparsing" << endl;
project->unparse();
// Print generated code
cout << "Generated Code:" << endl;
string line;
ifstream rose_output( (string("rose_") + template_file_name).c_str() );
if( rose_output.is_open() ){
while( getline( rose_output, line ) != NULL ){
cout << line << endl;
}
rose_output.close();
}
}
}
int main(int argc, char **argv){
string msg;
if(SgProject::get_verbose() > 0)
printf("In Main() \n");
//Initialize the project
SgProject* project = frontend(argc,argv);
ROSE_ASSERT(project);
MigrationOutliner MO(project);
project->unparse();
return 0;
/*
//find for loops and pragmas
Rose_STL_Container<SgNode*> pragmas = querySubTree(project, V_SgPragmaDeclaration);
Rose_STL_Container<SgNode*> fors = querySubTree(project, V_SgForStatement);
Rose_STL_Container<SgNode*>::const_iterator forIt;
Rose_STL_Container<SgNode*>::const_iterator pragmaIt;
SgForStatement* forloop;
SgPragmaDeclaration* pragma;
SgFunctionDeclaration* funcDecl;
SgStatement* stmt;
SgClassDeclaration* st;
for(forIt = fors.begin(); forIt != fors.end(); forIt++){
forloop = isSgForStatement(*forIt);
ROSE_ASSERT(forloop);
// printf("statement %s",MO.getForloopTest(forloop));
MO.outline_ForToFunction(forloop);
}//end for
for(pragmaIt = pragmas.begin(); pragmaIt != pragmas.end(); pragmaIt++){
pragma = isSgPragmaDeclaration(*pragmaIt);
ROSE_ASSERT(pragma);
// PragmaParser pp(pragma);
{
printf("\n\n-------------------------Next Pragma------------------------------------------------");
//Get pragmas for function declaration
// stmt = getNextStatement(pragma);
// while(!isSgFunctionDeclaration(stmt) && isSgPragmaDeclaration(stmt))
// stmt = getNextStatement(stmt);
// fu/ncDecl = isSgFunctionDeclaration(stmt);
// MM.setPopcornScope(funcDecl);
if(!funcDecl)
{
msg = "Statement following popcorn pragmas is not a function declaration!";
DEBUG(TOOL, msg);
continue;
}//end if
// SgClassDeclaration* st = MM.makeStruct4Func(funcDecl);
//make popcorn equivalent of func
// MM.makePopcornFunc(funcDecl, st);
//remove old funct
// MM.removeOrigFunc(funcDecl);
// MM.mainMigrateTransform(project);
//insert dependencies
// MM.insertStrucs4File(st,funcDecl,uniqueness);
//remove pragma
//removeStatement(pragma);
// msg = "Annotating function: " + MM.getFunctionName(funcDecl) + " done."; DEBUG(TOOL, msg);
// st = NULL;
}//end if
}//end for
msg = "finished LOOP"; DEBUG(TOOL,msg);
MM.rollCall_Popcorn();
////////////////END POPCORN TRANSFORMER- SRC BEGIN SEPERATOR ////////////////////////////////////
msg = "OUTLINE READY!"; DEBUG(TOOL,msg);
project->unparse();
return 0;
*/
//return backend(project);
}//end main
int main(int argc, char* argv[]) {
try {
if(argc==1) {
cout << "Error: wrong command line options."<<endl;
exit(1);
}
// Command line option handling.
#ifdef USE_SAWYER_COMMANDLINE
namespace po = Sawyer::CommandLine::Boost;
#else
namespace po = boost::program_options;
#endif
po::options_description desc
("analyterix V0.2\n"
"Written by Markus Schordan\n"
"Supported options");
desc.add_options()
("help,h", "produce this help message.")
("rose-help", "show help for compiler frontend options.")
("version,v", "display the version.")
("stats", "display code statistics.")
("fi-constanalysis", "perform flow-insensitive constant analysis.")
("csv-fi-constanalysis",po::value< string >(), "generate csv-file [arg] with const-analysis data.")
("rd-analysis", "perform reaching definitions analysis.")
("rose-rd-analysis", "perform rose reaching definitions analysis.")
("lv-analysis", "perform live variables analysis.")
("ud-analysis", "use-def analysis.")
("at-analysis", "address-taken analysis.")
("csv-at-analysis",po::value< string >(), "generate csv-file [arg] with address-taken analysis data.")
("no-topological-sort", "do not initialize the worklist with topological sorted CFG.")
("icfg-dot", "generates the ICFG as dot file.")
("optimize-icfg", "prunes conditions with empty blocks, block begin, and block end icfg nodes.")
("no-optmize-icfg", "does not optimize icfg.")
("interval-analysis", "perform interval analysis.")
("csv-deadcode-unreachable", po::value< string >(), "perform interval analysis and generate csv-file [arg] with unreachable code.")
("csv-deadcode-deadstore", po::value< string >(), "perform liveness analysis and generate csv-file [arg] with stores to dead variables.")
("trace", "show operations as performed by selected solver.")
("check-static-array-bounds", "check static array bounds (uses interval analysis).")
("print-varid-mapping", "prints variableIdMapping")
("print-varid-mapping-array", "prints variableIdMapping with array element varids.")
("print-label-mapping", "prints mapping of labels to statements")
("prefix",po::value< string >(), "set prefix for all generated files.")
("csv-stable", "do not output csv data that is not stable/portable across environments.")
;
// ("int-option",po::value< int >(),"option info")
po::store(po::command_line_parser(argc, argv).options(desc).allow_unregistered().run(), args);
po::notify(args);
if (args.count("help")) {
cout << "analyterix <filename> [OPTIONS]"<<endl;
cout << desc << "\n";
return 0;
}
if (args.count("version")) {
cout << "analyterix version 0.1\n";
cout << "Written by Markus Schordan 2014\n";
return 0;
}
if (args.count("rose-help")) {
argv[1] = strdup("--help");
}
if (args.count("prefix")) {
option_prefix=args["prefix"].as<string>().c_str();
}
if (args.count("optimize-icfg")) {
option_optimize_icfg=true;
}
if (args.count("no-optimize-icfg")) {
option_optimize_icfg=false;
}
if (args.count("trace")) {
option_trace=true;
}
if(args.count("stats")) {
option_stats=true;
}
if(args.count("rd-analysis")) {
option_rd_analysis=true;
}
if(args.count("lv-analysis")) {
option_lv_analysis=true;
}
if(args.count("interval-analysis")) {
option_interval_analysis=true;
}
if(args.count("csv-deadcode-unreachable")) {
option_interval_analysis = true;
csvDeadCodeUnreachableFileName = args["csv-deadcode-unreachable"].as<string>().c_str();
}
if(args.count("csv-deadcode-deadstore")) {
option_lv_analysis = true;
csvDeadCodeDeadStoreFileName = args["csv-deadcode-deadstore"].as<string>().c_str();
}
if(args.count("check-static-array-bounds")) {
option_interval_analysis=true;
option_check_static_array_bounds=true;
}
if(args.count("ud-analysis")) {
option_rd_analysis=true; // required
option_ud_analysis=true;
}
if(args.count("rose-rd-analysis")) {
option_rose_rd_analysis=true;
}
if(args.count("fi-constanalysis")) {
option_fi_constanalysis=true;
}
if (args.count("csv-fi-constanalysis")) {
csvConstResultFileName=args["csv-fi-constanalysis"].as<string>().c_str();
option_fi_constanalysis=true;
}
if(args.count("at-analysis")) {
option_at_analysis=true;
}
if (args.count("csv-at-analysis")) {
csvAddressTakenResultFileName=args["csv-at-analysis"].as<string>().c_str();
option_at_analysis=true;
}
if (args.count("csv-stable")) {
option_csv_stable=true;
}
if (args.count("no-topological-sort")) {
option_no_topological_sort=true;
}
// clean up string-options in argv
for (int i=1; i<argc; ++i) {
if (string(argv[i]) == "--prefix"
|| string(argv[i]) == "--csv-fi-constanalysis"
|| string(argv[i]) == "--csv-at-analysis"
|| string(argv[i]) == "--csv-deadcode-unreachable"
|| string(argv[i]) == "--csv-deadcode-deadstore"
) {
// do not confuse ROSE frontend
argv[i] = strdup("");
assert(i+1<argc);
argv[i+1] = strdup("");
}
}
cout << "INIT: Parsing and creating AST."<<endl;
boolOptions.registerOption("semantic-fold",false); // temporary
boolOptions.registerOption("post-semantic-fold",false); // temporary
SgProject* root = frontend(argc,argv);
if(option_trace) {
cout << "TRACE: AST node count: " << root->numberOfNodesInSubtree() << endl;
}
// AstTests::runAllTests(root);
if(option_stats) {
SPRAY::ProgramStatistics::printBasicCodeInfo(root);
}
cout<<"STATUS: computing variableid mapping"<<endl;
ProgramAbstractionLayer* programAbstractionLayer=new ProgramAbstractionLayer();
programAbstractionLayer->initialize(root);
if (args.count("print-varid-mapping-array")) {
programAbstractionLayer->getVariableIdMapping()->setModeVariableIdForEachArrayElement(true);
}
#if 0
IOLabeler* iolabeler=new IOLabeler(root,&variableIdMapping);
//cout<<"IOLabelling:\n"<<iolabeler->toString()<<endl;
#endif
if (args.count("print-varid-mapping")||args.count("print-varid-mapping-array")) {
programAbstractionLayer->getVariableIdMapping()->toStream(cout);
return 0;
}
if(args.count("print-label-mapping")) {
cout<<(programAbstractionLayer->getLabeler()->toString());
return 0;
}
if(args.count("icfg-dot")) {
CFAnalysis* cfAnalysis=new CFAnalysis(programAbstractionLayer->getLabeler());
Flow flow=cfAnalysis->flow(root);
if(option_optimize_icfg) {
cfAnalysis->optimizeFlow(flow);
}
InterFlow interFlow=cfAnalysis->interFlow(flow);
cfAnalysis->intraInterFlow(flow,interFlow);
string dotString=flow.toDot(programAbstractionLayer->getLabeler());
writeFile("icfg.dot",dotString);
cout << "generating icfg-clustered.dot."<<endl;
DataDependenceVisualizer ddvis(programAbstractionLayer->getLabeler(),programAbstractionLayer->getVariableIdMapping(),"none");
ddvis.generateDotFunctionClusters(root,cfAnalysis,"icfg-clustered.dot",false);
delete cfAnalysis;
exit(0);
}
runAnalyses(root, programAbstractionLayer->getLabeler(), programAbstractionLayer->getVariableIdMapping());
cout << "INFO: generating annotated source code."<<endl;
root->unparse(0,0);
if(option_rose_rd_analysis) {
Experimental::RoseRDAnalysis::generateRoseRDDotFiles(programAbstractionLayer->getLabeler(),root);
}
cout<< "STATUS: finished."<<endl;
// main function try-catch
} catch(CodeThorn::Exception& e) {
cerr << "CodeThorn::Exception raised: " << e.what() << endl;
return 1;
} catch(SPRAY::Exception& e) {
cerr << "Spray::Exception raised: " << e.what() << endl;
return 1;
} catch(std::exception& e) {
cerr << "std::exception raised: " << e.what() << endl;
return 1;
} catch(char* str) {
cerr << "*Exception raised: " << str << endl;
return 1;
} catch(const char* str) {
cerr << "Exception raised: " << str << endl;
return 1;
} catch(string str) {
cerr << "Exception raised: " << str << endl;
return 1;
}
return 0;
}
