public override void SyncInput(ConfigurationWithChannelData eStep, List <Configuration> list)
{
//List<Configuration> returnList = new List<Configuration>();
for (int i = 0; i < Processes.Count; i++)
{
Process process = Processes[i];
List <Configuration> list1 = new List <Configuration>();
process.SyncInput(eStep, list1);
if (list1.Count > 0)
{
List <Dictionary <string, int> > nextProcessCounters =
Common.Classes.Ultility.Ultility.ProcessCounterDecrement(Common.Classes.Ultility.Ultility.CutNumber, ProcessesCounter, process.ProcessID, 1);
for (int j = 0; j < list1.Count; j++)
{
Configuration step = list1[j];
foreach (Dictionary <string, int> ints in nextProcessCounters)
{
List <Process> newProcess = new List <Process>(Processes);
Dictionary <string, int> listInstance = new Dictionary <string, int>(ints);
AddOneProcess(newProcess, step.Process, listInstance);
IndexInterleaveAbstract interleave = new IndexInterleaveAbstract(newProcess, listInstance);
step.Process = interleave;
list.Add(step);
}
}
}
}
//return returnList;
}
private static void AddOneProcess(List <Process> processes, Process newProcess, Dictionary <string, int> counter)
{
if (newProcess is IndexInterleave)
{
IndexInterleave index = newProcess as IndexInterleave;
foreach (Process processe in index.Processes)
{
string tmp = processe.ProcessID;
if (!counter.ContainsKey(tmp))
{
counter.Add(tmp, 1);
processes.Add(processe);
}
else
{
counter[tmp] = Common.Classes.Ultility.Ultility.ProcessCounterIncrement(Common.Classes.Ultility.Ultility.CutNumber, counter[tmp], 1);
}
}
}
else if (newProcess is IndexInterleaveAbstract)
{
IndexInterleaveAbstract index = newProcess as IndexInterleaveAbstract;
foreach (Process processe in index.Processes)
{
string tmp = processe.ProcessID;
if (!counter.ContainsKey(tmp))
{
counter.Add(tmp, index.ProcessesCounter[tmp]);
processes.Add(processe);
}
else
{
counter[tmp] = Common.Classes.Ultility.Ultility.ProcessCounterIncrement(Common.Classes.Ultility.Ultility.CutNumber, counter[tmp], index.ProcessesCounter[tmp]);
}
}
}
else
{
string tmp = newProcess.ProcessID;
if (!counter.ContainsKey(tmp))
{
counter.Add(tmp, 1);
processes.Add(newProcess);
}
else
{
counter[tmp] = Common.Classes.Ultility.Ultility.ProcessCounterIncrement(Common.Classes.Ultility.Ultility.CutNumber, counter[tmp], 1);
}
}
}
public override void SyncOutput(Valuation GlobalEnv, List <ConfigurationWithChannelData> list)
{
//List<ConfigurationWithChannelData> returnList = new List<ConfigurationWithChannelData>();
for (int i = 0; i < Processes.Count; i++)
{
Process process = Processes[i];
List <ConfigurationWithChannelData> list1 = new List <ConfigurationWithChannelData>();
process.SyncOutput(GlobalEnv, list1);
if (list1.Count > 0)
{
List <Dictionary <string, int> > nextProcessCounters =
Common.Classes.Ultility.Ultility.ProcessCounterDecrement(Common.Classes.Ultility.Ultility.CutNumber, ProcessesCounter, process.ProcessID, 1);
for (int j = 0; j < list1.Count; j++)
{
Configuration step = list1[j];
foreach (Dictionary <string, int> ints in nextProcessCounters)
{
List <Process> newProcess = new List <Process>(Processes);
Dictionary <string, int> listInstance = new Dictionary <string, int>(ints);
AddOneProcess(newProcess, step.Process, listInstance);
IndexInterleaveAbstract interleave = new IndexInterleaveAbstract(newProcess, listInstance);
ConfigurationWithChannelData newStep = new ConfigurationWithChannelData(interleave, step.Event, step.DisplayName, step.GlobalEnv, step.IsDataOperation, list1[j].ChannelName, list1[j].Expressions);
newStep.IsAtomic = step.IsAtomic;
list.Add(newStep);
}
}
}
}
//return returnList;
}
public override Process ClearConstant(Dictionary<string, Expression> constMapping)
{
List<Process> newProceses = new List<Process>();
if (Specification.IsParsing)
{
if (Processes == null)
{
return new IndexInterleave(IndexedProcessDefinition.ClearConstant(constMapping));
}
foreach (Process procese in Processes)
{
newProceses.Add(procese.ClearConstant(constMapping));
}
return new IndexInterleave(newProceses);
}
List<Process> newnewProcesses = Processes;
if(Processes == null)
{
//return new IndexInterleave(IndexedProcessDefinition.GetIndexedProcesses(constMapping));
newnewProcesses = IndexedProcessDefinition.GetIndexedProcesses(constMapping);
}
int size = newnewProcesses.Count;
Dictionary<string, int> processCounters = new Dictionary<string, int>(size);
for (int i = 0; i < size; i++)
{
Process newProc = newnewProcesses[i].ClearConstant(constMapping);
if (newProc is IndexInterleave)
{
List<Process> processes = (newProc as IndexInterleave).Processes;
foreach (var processe in processes)
{
string tmp = processe.ProcessID;
if (!processCounters.ContainsKey(tmp))
{
newProceses.Add(processe);
processCounters.Add(tmp, 1);
}
else
{
processCounters[tmp] = processCounters[tmp] + 1;
}
}
}
else if (newProc is IndexInterleaveAbstract)
{
IndexInterleaveAbstract intAbs = newProc as IndexInterleaveAbstract;
foreach (var processe in intAbs.Processes)
{
string tmp = processe.ProcessID;
if (!processCounters.ContainsKey(tmp))
{
newProceses.Add(processe);
processCounters.Add(tmp, intAbs.ProcessesActualSize[tmp]);
}
else
{
processCounters[tmp] = processCounters[tmp] + intAbs.ProcessesCounter[tmp];
}
}
}
else
{
if (!processCounters.ContainsKey(newProc.ProcessID))
{
newProceses.Add(newProc);
processCounters.Add(newProc.ProcessID, 1);
}
else
{
processCounters[newProc.ProcessID] = processCounters[newProc.ProcessID] + 1;
}
}
}
foreach (KeyValuePair<string, int> pair in processCounters)
{
if (pair.Value > 1 || pair.Value == -1)
{
IndexInterleaveAbstract toReturn = new IndexInterleaveAbstract(newProceses, processCounters);
toReturn.ProcessesActualSize = new Dictionary<string, int>(processCounters);
return toReturn;
}
}
return new IndexInterleave(newProceses);
}
public override Process ClearConstant(Dictionary <string, Expression> constMapping)
{
List <Process> newProceses = new List <Process>();
if (Specification.IsParsing)
{
if (Processes == null)
{
return(new IndexInterleave(IndexedProcessDefinition.ClearConstant(constMapping)));
}
foreach (Process procese in Processes)
{
newProceses.Add(procese.ClearConstant(constMapping));
}
return(new IndexInterleave(newProceses));
}
List <Process> newnewProcesses = Processes;
if (Processes == null)
{
//return new IndexInterleave(IndexedProcessDefinition.GetIndexedProcesses(constMapping));
newnewProcesses = IndexedProcessDefinition.GetIndexedProcesses(constMapping);
}
int size = newnewProcesses.Count;
Dictionary <string, int> processCounters = new Dictionary <string, int>(size);
for (int i = 0; i < size; i++)
{
Process newProc = newnewProcesses[i].ClearConstant(constMapping);
if (newProc is IndexInterleave)
{
List <Process> processes = (newProc as IndexInterleave).Processes;
foreach (var processe in processes)
{
string tmp = processe.ProcessID;
if (!processCounters.ContainsKey(tmp))
{
newProceses.Add(processe);
processCounters.Add(tmp, 1);
}
else
{
processCounters[tmp] = processCounters[tmp] + 1;
}
}
}
else if (newProc is IndexInterleaveAbstract)
{
IndexInterleaveAbstract intAbs = newProc as IndexInterleaveAbstract;
foreach (var processe in intAbs.Processes)
{
string tmp = processe.ProcessID;
if (!processCounters.ContainsKey(tmp))
{
newProceses.Add(processe);
processCounters.Add(tmp, intAbs.ProcessesActualSize[tmp]);
}
else
{
processCounters[tmp] = processCounters[tmp] + intAbs.ProcessesCounter[tmp];
}
}
}
else
{
if (!processCounters.ContainsKey(newProc.ProcessID))
{
newProceses.Add(newProc);
processCounters.Add(newProc.ProcessID, 1);
}
else
{
processCounters[newProc.ProcessID] = processCounters[newProc.ProcessID] + 1;
}
}
}
foreach (KeyValuePair <string, int> pair in processCounters)
{
if (pair.Value > 1 || pair.Value == -1)
{
IndexInterleaveAbstract toReturn = new IndexInterleaveAbstract(newProceses, processCounters);
toReturn.ProcessesActualSize = new Dictionary <string, int>(processCounters);
return(toReturn);
}
}
return(new IndexInterleave(newProceses));
}
public override Process ClearConstant(Dictionary<string, Expression> constMapping)
{
int size = Processes.Count;
List<Process> newProceses = new List<Process>(size);
Dictionary<string, int> processCounters = new Dictionary<string, int>(size);
IndexInterleaveAbstract interleaveAbstract = null;
if (Specification.IsParsing)
{
if (ProcessesCounter == null)
{
return new IndexInterleaveAbstract(Processes[0].ClearConstant(constMapping), RangeExpression.ClearConstant(constMapping));
}
for (int i = 0; i < Processes.Count; i++)
{
int outer = ProcessesCounter[Processes[i].ProcessID];
Process newProc = Processes[i].ClearConstant(constMapping);
string temp = newProc.ProcessID;
if (!processCounters.ContainsKey(temp))
{
newProceses.Add(newProc);
processCounters.Add(temp, outer);
}
else
{
if (processCounters[temp] != -1)
{
processCounters[temp] = processCounters[temp] + outer;
}
}
}
interleaveAbstract = new IndexInterleaveAbstract(newProceses, processCounters);
interleaveAbstract.ProcessesActualSize = new Dictionary<string, int>(processCounters);
return interleaveAbstract;
}
//clear constant must be side effect free
Dictionary<string, int> newProcessesCounter = ProcessesCounter;
// Dictionary<string, int> newProcessesActualSize = ProcessesActualSize;
if (ProcessesCounter == null)
{
Expression val = RangeExpression.ClearConstant(constMapping);
size = (EvaluatorDenotational.Evaluate(val, null) as IntConstant).Value;
if (size == 0)
{
return new Skip();
}
else if (size < 0)
{
throw new ParsingException("Negative range " + size + " for parameterized interleave: " + RangeExpression, 0, 0, RangeExpression.ToString());
}
newProcessesCounter = new Dictionary<string, int>();
newProcessesCounter.Add(Processes[0].ProcessID, size);
}
for (int i = 0; i < Processes.Count; i++)
{
int outer = newProcessesCounter[Processes[i].ProcessID];
Process newProc = Processes[i].ClearConstant(constMapping);
if (newProc is IndexInterleave)
{
List<Process> processes = (newProc as IndexInterleave).Processes;
for (int j = 0; j < processes.Count; j++)
{
string temp = processes[j].ProcessID;
if (!processCounters.ContainsKey(temp))
{
processCounters.Add(temp, outer);
newProceses.Add(processes[j]);
}
else
{
if (processCounters[temp] != -1)
{
processCounters[temp] = processCounters[temp] + outer;
}
}
}
}
else if (newProc is IndexInterleaveAbstract)
{
IndexInterleaveAbstract intAbs = newProc as IndexInterleaveAbstract;
for (int j = 0; j < intAbs.Processes.Count; j++)
{
string temp = intAbs.Processes[j].ProcessID;
int inner = intAbs.ProcessesCounter[temp];
if (!processCounters.ContainsKey(temp))
{
newProceses.Add(intAbs.Processes[j]);
if (outer != -1 && inner != -1)
{
processCounters.Add(temp, inner * outer);
}
else
{
processCounters.Add(temp, -1);
}
}
else
{
if (processCounters[temp] != -1)
{
if (inner == -1 || outer == -1)
{
processCounters.Add(temp,-1);
}
else
{
processCounters[temp] = processCounters[temp] + outer*inner;
}
}
}
}
}
else
{
string temp = newProc.ProcessID;
if (!processCounters.ContainsKey(temp))
{
newProceses.Add(newProc);
processCounters.Add(temp, outer);
}
else
{
if (processCounters[temp] != -1)
{
processCounters[temp] = processCounters[temp] + outer;
}
}
}
}
interleaveAbstract = new IndexInterleaveAbstract(newProceses, processCounters);
interleaveAbstract.ProcessesActualSize = new Dictionary<string, int>(processCounters);
return interleaveAbstract;
}
public override void SyncOutput(Valuation GlobalEnv, List<ConfigurationWithChannelData> list)
{
//List<ConfigurationWithChannelData> returnList = new List<ConfigurationWithChannelData>();
for (int i = 0; i < Processes.Count; i++)
{
Process process = Processes[i];
List<ConfigurationWithChannelData> list1 = new List<ConfigurationWithChannelData>();
process.SyncOutput(GlobalEnv, list1);
if (list1.Count > 0)
{
List<Dictionary<string, int>> nextProcessCounters =
Common.Classes.Ultility.Ultility.ProcessCounterDecrement(Common.Classes.Ultility.Ultility.CutNumber, ProcessesCounter, process.ProcessID, 1);
for (int j = 0; j < list1.Count; j++)
{
Configuration step = list1[j];
foreach (Dictionary<string, int> ints in nextProcessCounters)
{
List<Process> newProcess = new List<Process>(Processes);
Dictionary<string, int> listInstance = new Dictionary<string, int>(ints);
AddOneProcess(newProcess, step.Process, listInstance);
IndexInterleaveAbstract interleave = new IndexInterleaveAbstract(newProcess, listInstance);
ConfigurationWithChannelData newStep = new ConfigurationWithChannelData(interleave, step.Event, step.DisplayName, step.GlobalEnv, step.IsDataOperation, list1[j].ChannelName, list1[j].Expressions);
newStep.IsAtomic = step.IsAtomic;
list.Add(newStep);
}
}
}
}
//return returnList;
}
public override void SyncInput(ConfigurationWithChannelData eStep, List<Configuration> list)
{
//List<Configuration> returnList = new List<Configuration>();
for (int i = 0; i < Processes.Count; i++)
{
Process process = Processes[i];
List<Configuration> list1 = new List<Configuration>();
process.SyncInput(eStep, list1);
if (list1.Count > 0)
{
List<Dictionary<string, int>> nextProcessCounters =
Common.Classes.Ultility.Ultility.ProcessCounterDecrement(Common.Classes.Ultility.Ultility.CutNumber, ProcessesCounter, process.ProcessID, 1);
for (int j = 0; j < list1.Count; j++)
{
Configuration step = list1[j];
foreach (Dictionary<string, int> ints in nextProcessCounters)
{
List<Process> newProcess = new List<Process>(Processes);
Dictionary<string, int> listInstance = new Dictionary<string, int>(ints);
AddOneProcess(newProcess, step.Process, listInstance);
IndexInterleaveAbstract interleave = new IndexInterleaveAbstract(newProcess, listInstance);
step.Process = interleave;
list.Add(step);
}
}
}
}
//return returnList;
}
public override void MoveOneStep(Valuation GlobalEnv, List<Configuration> list)
{
System.Diagnostics.Debug.Assert(list.Count == 0);
int TerminationCount = 0;
bool hasAtomicTermination = false;
List<Dictionary<string, int>> nextProcessCounters = null;
for (int i = 0; i < Processes.Count; i++)
{
Process process = Processes[i];
List<Configuration> list1 = new List<Configuration>();
process.MoveOneStep(GlobalEnv, list1);
bool hasTermination = false;
if (list1.Count> 0)
{
nextProcessCounters = Common.Classes.Ultility.Ultility.ProcessCounterDecrement(Common.Classes.Ultility.Ultility.CutNumber, ProcessesCounter, process.ProcessID, 1);
}
for (int j = 0; j < list1.Count; j++)
{
Configuration step = list1[j];
if (step.Event == Constants.TERMINATION)
{
hasTermination = true;
if (step.IsAtomic)
{
hasAtomicTermination = true;
}
}
else
{
foreach (Dictionary<string, int> ints in nextProcessCounters)
{
Dictionary<string, int> listInstance = new Dictionary<string, int>(ints);
List<Process> newProcess = new List<Process>(Processes);
AddOneProcess(newProcess, step.Process, listInstance);
IndexInterleaveAbstract interleave = new IndexInterleaveAbstract(newProcess, listInstance);
Configuration newStep = new Configuration(interleave, step.Event, step.DisplayName, step.GlobalEnv, step.IsDataOperation);
newStep.IsAtomic = step.IsAtomic;
if (AssertionBase.CalculateParticipatingProcess)
{
newStep.ParticipatingProcesses = new string[] { process.ProcessID };
}
list.Add(newStep);
}
}
}
if (hasTermination)
{
TerminationCount++;
}
//to check whether there are synchoronous channel input/output
if (Specification.HasSyncrhonousChannel)
{
SynchronousChannelInputOutput(list, i, GlobalEnv, null);
}
}
if (TerminationCount == Processes.Count)
{
Configuration temp = new Configuration(new Stop(), Constants.TERMINATION, null, GlobalEnv, false);
if(hasAtomicTermination)
{
temp.IsAtomic = true;
}
if (AssertionBase.CalculateParticipatingProcess)
{
temp.ParticipatingProcesses = new string[Processes.Count];
for (int i = 0; i < Processes.Count; i++)
{
temp.ParticipatingProcesses[i] = i.ToString();
}
}
list.Add(temp);
}
//return returnList;
}
public override void MoveOneStep(Valuation GlobalEnv, List <Configuration> list)
{
System.Diagnostics.Debug.Assert(list.Count == 0);
int TerminationCount = 0;
bool hasAtomicTermination = false;
List <Dictionary <string, int> > nextProcessCounters = null;
for (int i = 0; i < Processes.Count; i++)
{
Process process = Processes[i];
List <Configuration> list1 = new List <Configuration>();
process.MoveOneStep(GlobalEnv, list1);
bool hasTermination = false;
if (list1.Count > 0)
{
nextProcessCounters = Common.Classes.Ultility.Ultility.ProcessCounterDecrement(Common.Classes.Ultility.Ultility.CutNumber, ProcessesCounter, process.ProcessID, 1);
}
for (int j = 0; j < list1.Count; j++)
{
Configuration step = list1[j];
if (step.Event == Constants.TERMINATION)
{
hasTermination = true;
if (step.IsAtomic)
{
hasAtomicTermination = true;
}
}
else
{
foreach (Dictionary <string, int> ints in nextProcessCounters)
{
Dictionary <string, int> listInstance = new Dictionary <string, int>(ints);
List <Process> newProcess = new List <Process>(Processes);
AddOneProcess(newProcess, step.Process, listInstance);
IndexInterleaveAbstract interleave = new IndexInterleaveAbstract(newProcess, listInstance);
Configuration newStep = new Configuration(interleave, step.Event, step.DisplayName, step.GlobalEnv, step.IsDataOperation);
newStep.IsAtomic = step.IsAtomic;
if (AssertionBase.CalculateParticipatingProcess)
{
newStep.ParticipatingProcesses = new string[] { process.ProcessID };
}
list.Add(newStep);
}
}
}
if (hasTermination)
{
TerminationCount++;
}
//to check whether there are synchoronous channel input/output
if (Specification.HasSyncrhonousChannel)
{
SynchronousChannelInputOutput(list, i, GlobalEnv, null);
}
}
if (TerminationCount == Processes.Count)
{
Configuration temp = new Configuration(new Stop(), Constants.TERMINATION, null, GlobalEnv, false);
if (hasAtomicTermination)
{
temp.IsAtomic = true;
}
if (AssertionBase.CalculateParticipatingProcess)
{
temp.ParticipatingProcesses = new string[Processes.Count];
for (int i = 0; i < Processes.Count; i++)
{
temp.ParticipatingProcesses[i] = i.ToString();
}
}
list.Add(temp);
}
//return returnList;
}
public override Process ClearConstant(Dictionary <string, Expression> constMapping)
{
int size = Processes.Count;
List <Process> newProceses = new List <Process>(size);
Dictionary <string, int> processCounters = new Dictionary <string, int>(size);
IndexInterleaveAbstract interleaveAbstract = null;
if (Specification.IsParsing)
{
if (ProcessesCounter == null)
{
return(new IndexInterleaveAbstract(Processes[0].ClearConstant(constMapping), RangeExpression.ClearConstant(constMapping)));
}
for (int i = 0; i < Processes.Count; i++)
{
int outer = ProcessesCounter[Processes[i].ProcessID];
Process newProc = Processes[i].ClearConstant(constMapping);
string temp = newProc.ProcessID;
if (!processCounters.ContainsKey(temp))
{
newProceses.Add(newProc);
processCounters.Add(temp, outer);
}
else
{
if (processCounters[temp] != -1)
{
processCounters[temp] = processCounters[temp] + outer;
}
}
}
interleaveAbstract = new IndexInterleaveAbstract(newProceses, processCounters);
interleaveAbstract.ProcessesActualSize = new Dictionary <string, int>(processCounters);
return(interleaveAbstract);
}
//clear constant must be side effect free
Dictionary <string, int> newProcessesCounter = ProcessesCounter;
// Dictionary<string, int> newProcessesActualSize = ProcessesActualSize;
if (ProcessesCounter == null)
{
Expression val = RangeExpression.ClearConstant(constMapping);
size = (EvaluatorDenotational.Evaluate(val, null) as IntConstant).Value;
if (size == 0)
{
return(new Skip());
}
else if (size < 0)
{
throw new ParsingException("Negative range " + size + " for parameterized interleave: " + RangeExpression, 0, 0, RangeExpression.ToString());
}
newProcessesCounter = new Dictionary <string, int>();
newProcessesCounter.Add(Processes[0].ProcessID, size);
}
for (int i = 0; i < Processes.Count; i++)
{
int outer = newProcessesCounter[Processes[i].ProcessID];
Process newProc = Processes[i].ClearConstant(constMapping);
if (newProc is IndexInterleave)
{
List <Process> processes = (newProc as IndexInterleave).Processes;
for (int j = 0; j < processes.Count; j++)
{
string temp = processes[j].ProcessID;
if (!processCounters.ContainsKey(temp))
{
processCounters.Add(temp, outer);
newProceses.Add(processes[j]);
}
else
{
if (processCounters[temp] != -1)
{
processCounters[temp] = processCounters[temp] + outer;
}
}
}
}
else if (newProc is IndexInterleaveAbstract)
{
IndexInterleaveAbstract intAbs = newProc as IndexInterleaveAbstract;
for (int j = 0; j < intAbs.Processes.Count; j++)
{
string temp = intAbs.Processes[j].ProcessID;
int inner = intAbs.ProcessesCounter[temp];
if (!processCounters.ContainsKey(temp))
{
newProceses.Add(intAbs.Processes[j]);
if (outer != -1 && inner != -1)
{
processCounters.Add(temp, inner * outer);
}
else
{
processCounters.Add(temp, -1);
}
}
else
{
if (processCounters[temp] != -1)
{
if (inner == -1 || outer == -1)
{
processCounters.Add(temp, -1);
}
else
{
processCounters[temp] = processCounters[temp] + outer * inner;
}
}
}
}
}
else
{
string temp = newProc.ProcessID;
if (!processCounters.ContainsKey(temp))
{
newProceses.Add(newProc);
processCounters.Add(temp, outer);
}
else
{
if (processCounters[temp] != -1)
{
processCounters[temp] = processCounters[temp] + outer;
}
}
}
}
interleaveAbstract = new IndexInterleaveAbstract(newProceses, processCounters);
interleaveAbstract.ProcessesActualSize = new Dictionary <string, int>(processCounters);
return(interleaveAbstract);
}
