/** Procedure for testing PeTe without Qt dependencies */
int test(int argc, char* argv[]){
bool genRandState = false;
bool listformulas = false;
string queryname,
strategy,
filename,
queryString;
for(int i = 1; i < argc; i++){
if(strcmp(argv[i], "--query") == 0){
queryname = argv[++i];
}else if(strcmp(argv[i], "--strategies") == 0){
std::vector<std::string> strats = ReachabilitySearchStrategy::listStrategies();
for(size_t i = 0; i < strats.size(); i++)
printf("%s\n",strats[i].c_str());
}else if(strcmp(argv[i], "--literal-query") == 0){
queryString = argv[++i];
}else if(strcmp(argv[i],"--strategy") == 0){
strategy = argv[++i];
}else if(strcmp(argv[i], "--list-queries") == 0){
listformulas = true;
} else if(strcmp(argv[i],"--gen-query") == 0){
genRandState = true;
} else if(strcmp(argv[i],"--help") == 0){
printf("Usage: pete [net] [--query <query>] [--query-sumo <query>] [--help] [--strategies] [--strategy <strategy>]\n");
} else
filename = argv[i];
}
PetriNet* net = NULL;
MarkVal* m0 = NULL;
VarVal* v0 = NULL;
std::vector<PNMLParser::Query> queries;
{
//Load the model
ifstream modelfile(filename, ifstream::in);
if(!modelfile){
fprintf(stderr, "Argument Error: Model file \"%s\" couldn't be opened\n", filename.c_str());
return ErrorCode;
}
//Read everything
stringstream buffer;
buffer << modelfile.rdbuf();
//Parse and build the petri net
PetriNetBuilder builder(false);
PNMLParser parser;
parser.parse(buffer.str(), &builder);
parser.makePetriNet();
//Build the petri net
net = builder.makePetriNet();
m0 = builder.makeInitialMarking();
v0 = builder.makeInitialAssignment();
queries = parser.getQueries();
// Close the file
modelfile.close();
}
// List queries in file
if(listformulas){
for(std::vector<PNMLParser::Query>::iterator it = queries.begin(); it != queries.end(); it++)
printf("%s\n",(*it).name.c_str());
return 0;
}
// If generate random state
if(genRandState){
//RandomDFS dfs;
//dfs.reachable(*net, m0, v0, NULL);
RandomQueryGenerator rng;
cout<<rng.gen(*net, m0, v0)<<"\n";
return 0;
}
// Find the query
if(queryString.empty()){
for(std::vector<PNMLParser::Query>::iterator it = queries.begin(); it != queries.end(); it++){
if((*it).name == queryname){
queryString = (*it).text;
break;
}
}
}
// Parse query and analyze
PQL::Condition* query = PQL::ParseQuery(queryString);
AnalysisContext context(*net);
query->analyze(context);
//Load up reachability engine
ReachabilitySearchStrategy* strat;
strat = ReachabilitySearchStrategy::createStrategy(strategy);
ReachabilityResult result;
clock_t startClock = clock();
result = strat->reachable(*net, m0, v0, query);
float finishTime = ((float)(clock() - startClock)) / (float)CLOCKS_PER_SEC;
delete query;
query = NULL;
delete strat;
strat = NULL;
// Trim file name incase of alternate folder
string name;
bool chop = false;
int index = 0;
for(int i = 0; i < filename.size(); i++){
if(filename.at(i) == '/'){
chop = true;
index = i;
}
}
if(chop)
name = filename.substr(index+1,filename.length()-1);
delete query;
query = NULL;
delete strat;
strat = NULL;
//Print result
std::string r;
if(result.result() == ReachabilityResult::Satisfied)
r = "Satisfied";
else if(result.result() == ReachabilityResult::NotSatisfied)
r = "Not satisfiable";
else{
r = "Unknown";
}
std::cout<<name
<<",\t"<<queryname
<<",\t"<<strategy
<<",\t"<<r
<<",\t"<<finishTime
<<",\t"<<result.expandedStates()
<<",\t"<<result.exploredStates()
<<",\t"<<result.pathLength()
<<std::endl;
return result.result() == ReachabilityResult::Satisfied ? 0 : 1;
}
bool ValidationBuilder::validate(){
//Check for duplicate identifiers
set<string> reportedDuplicates; //Use a set to avoid reporting them more than once
//Check variable names
for(size_t i = 0; i < _varNames.size(); i++){
const string& id = _varNames[i];
int count = countMatchingIds(id);
assert(count >= 1);
if(count > 1 && reportedDuplicates.count(id) == 0){
reportedDuplicates.insert(id);
_errors.push_back(ValidationError(id,
"The identifiers must be unique, \""
+ id + "\" is shared by "
+ int2string(count) + " entities"));
}
}
//Check bool variable names
for(size_t i = 0; i < _boolVarNames.size(); i++){
const string& id = _boolVarNames[i];
int count = countMatchingIds(id);
assert(count >= 1);
if(count > 1 && reportedDuplicates.count(id) == 0){
reportedDuplicates.insert(id);
_errors.push_back(ValidationError(id,
"The identifiers must be unique, \""
+ id + "\" is shared by "
+ int2string(count) + " entities"));
}
}
//Check place names
for(size_t i = 0; i < _placeNames.size(); i++){
const string& id = _placeNames[i];
int count = countMatchingIds(id);
assert(count >= 1);
if(count > 1 && reportedDuplicates.count(id) == 0){
reportedDuplicates.insert(id);
_errors.push_back(ValidationError(id,
"The identifiers must be unique, \""
+ id + "\" is shared by "
+ int2string(count) + " entities"));
}
}
//Check transition names
for(size_t i = 0; i < _transitionNames.size(); i++){
const string& id = _transitionNames[i];
int count = countMatchingIds(id);
assert(count >= 1);
if(count > 1 && reportedDuplicates.count(id) == 0){
reportedDuplicates.insert(id);
_errors.push_back(ValidationError(id,
"The identifiers must be unique, \""
+ id + "\" is shared by "
+ int2string(count) + " entities"));
}
}
//Check all input arcs
for(size_t i = 0; i < _inputArcs.size(); i++){
const Arc& arc = _inputArcs[i];
bool foundPlace = false;
bool foundTransition = false;
//Look for place
for(size_t j = 0; j < _placeNames.size(); j++){
foundPlace |= _placeNames[j] == arc.start;
if(foundPlace) break;
}
//Look for transition
for(size_t j = 0; j < _transitionNames.size(); j++){
foundTransition |= _transitionNames[j] == arc.end;
if(foundTransition) break;
}
//Report error
if(!foundPlace || !foundTransition){
string msg;
if(!foundPlace && !foundTransition)
msg = "Neigther end-points found";
else if(!foundPlace)
msg = "Start-place \"" + arc.start + "\" not found";
else
msg = "End-transition \"" + arc.end + "\" not found";
_errors.push_back(ValidationError(arc.start,
arc.end,
msg));
}
}
//Check all output arcs
for(size_t i = 0; i < _outputArcs.size(); i++){
const Arc& arc = _outputArcs[i];
bool foundPlace = false;
bool foundTransition = false;
//Look for transition
for(size_t j = 0; j < _transitionNames.size(); j++){
foundTransition |= _transitionNames[j] == arc.start;
if(foundTransition) break;
}
//Look for place
for(size_t j = 0; j < _placeNames.size(); j++){
foundPlace |= _placeNames[j] == arc.end;
if(foundPlace) break;
}
//Report error
if(!foundPlace || !foundTransition){
string msg;
if(!foundPlace && !foundTransition)
msg = "Neither end-points found";
else if(!foundPlace)
msg = "End-place \"" + arc.end + "\" not found";
else
msg = "Start-transition \"" + arc.start + "\" not found";
_errors.push_back(ValidationError(arc.start,
arc.end,
msg));
}
}
//Attempt to parse all non-empty conditions
for(size_t i = 0; i < _conditions.size(); i++){
if(_conditions[i].empty()) continue;
//PQL::Condition* cond = PQL::ParseQuery(_conditions[i]);
PQL::Condition* cond = PQL::ParseCondition(_conditions[i]);
if(cond){
PQL::AnalysisContext context(_placeNames, _varNames, _boolVarNames);
cond->analyze(context);
for(size_t j = 0; j < context.errors().size(); j++){
_errors.push_back(ValidationError(_transitionNames[i],
context.errors()[j],
true));
}
delete cond;
cond = NULL;
}else
_errors.push_back(ValidationError(_transitionNames[i],
"Unable to parse non-empty condition"));
}
//Attempt to parse all non-empty assignments
for(size_t i = 0; i < _assignments.size(); i++){
if(_assignments[i].empty()) continue;
//PQL::AssignmentExpression* a = PQL::ParseAssignment(_assignments[i]);
PQL::AssignmentExpression* a = PQL::ParseConditionAssignment(_assignments[i]);
if(a){
PQL::AnalysisContext context(_placeNames, _varNames, _boolVarNames);
a->analyze(context);
for(size_t j = 0; j < context.errors().size(); j++){
_errors.push_back(ValidationError(_transitionNames[i],
context.errors()[j],
false));
}
delete a;
a = NULL;
}else
_errors.push_back(ValidationError(_transitionNames[i],
"Unable to parse non-empty assignment"));
}
return _errors.empty();
}
