sp
/
tempest
1
0
Fork 0
Code Issues Pull Requests Projects Releases Wiki Activity
Browse Source

restructured the ltl-scheduler

tempestpy_adaptions
hannah 3 years ago
committed by Stefan Pranger
parent
dd8d410748
commit
d7b696a753
5 changed files with 134 additions and 105 deletions
Whitespace
Show all changes Ignore whitespace when comparing lines Ignore changes in amount of whitespace Ignore changes in whitespace at EOL
Split View
Diff Options
Show Stats Download Patch File Download Diff File
  1. 225
      src/storm/modelchecker/helper/ltl/SparseLTLHelper.cpp
  2. 9
      src/storm/modelchecker/helper/ltl/SparseLTLHelper.h
  3. 2
      src/storm/storage/memorystructure/MemoryStructureBuilder.cpp
  4. 1
      src/storm/utility/graph.cpp
  5. 2
      src/test/storm/modelchecker/prctl/mdp/SchedulerGenerationMdpPrctlModelCheckerTest.cpp

225
src/storm/modelchecker/helper/ltl/SparseLTLHelper.cpp
View File

@ -50,7 +50,7 @@ namespace storm {
}
// initialMemoryStates: Assign an initial memory state to each initial state of the model.
for (uint_fast64_t s0 : model.getInitialStates()) { // TODO should be relevantStates?
for (uint_fast64_t s0 : model.getInitialStates()) { // TODO set all from _memoryInitialStates, not only mdoelInitial
memoryBuilder.setInitialMemoryState(s0, this->_memoryInitialStates.get()[s0]);
}
@ -62,15 +62,12 @@ namespace storm {
// Use choices in the product model to create a choice based on model state and memory state
for (const auto &choice : this->_productChoices.get()) {
// <s, q, MEC, InfSet> -> choice
// <s, q, InfSet> -> choice
storm::storage::sparse::state_type modelState = std::get<0>(choice.first);
storm::storage::sparse::state_type automatonState = std::get<1>(choice.first);
uint_fast64_t mec = std::get<2>(choice.first);
uint_fast64_t infSet = std::get<3>(choice.first);
uint_fast64_t infSet = std::get<2>(choice.first);
// Encode as memory state
uint_fast64_t memoryState = (((infSet * _mecStatesInfSets.get().size()) + mec) * _numberOfDaStates.get()) + automatonState;
scheduler.setChoice(choice.second, modelState, memoryState);
scheduler.setChoice(choice.second, modelState, automatonState*(_infSets.get().size()+1)+ infSet);
}
// TODO
// set non-reachable (modelState,memoryState)-Pairs (i.e. those that are not contained in _productChoices) to "unreachable", (extend Scheduler by something like std::vector<std::Bitvector>> reachableSchedulerChoices; und isChoiceReachable(..))
@ -119,11 +116,10 @@ namespace storm {
std::size_t i = 0;
if (this->isProduceSchedulerSet()) {
_mecStatesInfSets.emplace();
_infSets.emplace();
_accInfSets.emplace(product->getProductModel().getNumberOfStates(), boost::none);
_productChoices.emplace();
}
// Save the states that are already assigned a scheduler (MEC), a state is assigned to the first MEC we find.
storm::storage::BitVector finishedStates(transitionMatrix.getRowGroupCount(), false);
for (auto const& conjunction : dnf) {
// determine the set of states of the subMDP that can satisfy the condition
@ -166,9 +162,6 @@ namespace storm {
storm::storage::MaximalEndComponentDecomposition<ValueType> mecs(transitionMatrix, backwardTransitions, allowed);
allMECs += mecs.size();
for (const auto& mec : mecs) {
// Save the accSets that need to be visited inf often to satisfy a specific accepting MEC.
std::vector<storm::storage::BitVector> infSets = std::vector<storm::storage::BitVector>();
STORM_LOG_DEBUG("Inspect MEC: " << mec);
bool accepting = true;
@ -191,10 +184,6 @@ namespace storm {
break;
}
if (this->isProduceSchedulerSet()) {
infSets.emplace_back(~accSet);
}
} else {
STORM_LOG_DEBUG("Checking against " << accSet);
if (!mec.containsAnyState(accSet)) {
@ -202,9 +191,7 @@ namespace storm {
accepting = false;
break;
}
if (this->isProduceSchedulerSet()) {
infSets.emplace_back(accSet);
}
}
} else if (atom.getType() == cpphoafparser::AtomAcceptance::TEMPORAL_FIN) {
@ -224,33 +211,87 @@ namespace storm {
if (this->isProduceSchedulerSet()) {
storm::storage::BitVector mecStates(transitionMatrix.getRowGroupCount(), false);
// Save all states contained in this MEC
storm::storage::BitVector mecStates(product->getProductModel().getNumberOfStates(), false);
for (auto const &stateChoicePair : mec) {
mecStates.set(stateChoicePair.first);
}
// If there are no InfSets (either all TRUE or only FIN in conjunction)
if (infSets.empty()) {
// We want to visit some states of this MEC inf. often
infSets.emplace_back(mecStates);
// We know the MEC satisfied the conjunction: Save InfSets
std::set<uint_fast64_t> infSetIds;
for (auto const& literal : conjunction) {
storm::storage::BitVector infSet;
if (literal->isTRUE()) {
// All states
infSet = storm::storage::BitVector(product->getProductModel().getNumberOfStates(), true);
} else if (literal->isAtom()) {
const cpphoafparser::AtomAcceptance &atom = literal->getAtom();
if (atom.getType() == cpphoafparser::AtomAcceptance::TEMPORAL_INF) {
if (atom.isNegated()) {
infSet = ~acceptance.getAcceptanceSet(atom.getAcceptanceSet());
} else {
infSet = acceptance.getAcceptanceSet(atom.getAcceptanceSet());
}
}
else if (atom.getType() == cpphoafparser::AtomAcceptance::TEMPORAL_FIN) {
// If there are FinSets in the conjunction we use the InfSet containing all states in this MEC
infSet = mecStates;
}
}
// Save new InfSets
if (infSet.size() > 0) {
auto it = std::find(_infSets.get().begin(), _infSets.get().end(), infSet);
if (it == _infSets.get().end()) {
_infSets.get().emplace_back(infSet);
infSetIds.insert(_infSets.get().size() - 1);
} else {
// save ID for accCond of the MEC states
infSetIds.insert(distance(_infSets.get().begin(), it)); //TODO test
}
}
}
// Save the states of this MEC (that are not contained in any other MEC yet) and the InfSets need to be visited inf. often to sat. the acc. cond.
_mecStatesInfSets.get().insert({accMECs, std::make_pair(mecStates & ~finishedStates, infSets)});
/* should not occur
if (infSetIds.empty()) {
// Define scheduler choices for the states in this MEC (that are not in any other MEC)
for (uint_fast64_t infSet = 0; infSet < infSets.size(); ++infSet) {
// Scheduler that satisfies the MEC acceptance condition (visit each InfSet inf often, or switch to scheduler of another MEC)
storm::storage::Scheduler<ValueType> mecScheduler(
transitionMatrix.getRowGroupCount());
auto it = std::find(_infSets.get().begin(), _infSets.get().end(), mecStates);
if(it == _infSets.get().end()) {
_infSets.get().emplace_back(mecStates);
infSetIds.insert(_infSets.get().size()-1);
} else {
// save ID for accCond of the MEC states
infSetIds.insert(distance(_infSets.get().begin(), it)); //TODO test
}
}
*/
// Save the InfSets into the _accInfSets for states in this MEC, but only if there weren't assigned to any other MEC yet.
storm::storage::BitVector newMecStates(product->getProductModel().getNumberOfStates(), false);
for (auto const &stateChoicePair : mec) {
if (_accInfSets.get()[stateChoicePair.first] == boost::none) {
// state wasn't assigned to any other MEC yet.
_accInfSets.get()[stateChoicePair.first] = infSetIds;
newMecStates.set(stateChoicePair.first);
}
}
// Compute a scheduler that, with prob=1, reaches the infSet via mecStates starting from states that are not yet in other MEC
storm::utility::graph::computeSchedulerProb1E<ValueType>(_mecStatesInfSets.get()[accMECs].first, transitionMatrix, backwardTransitions, mecStates, _mecStatesInfSets.get()[accMECs].second[infSet], mecScheduler);
// Prob1E sets an arbitrary choice for the psi states, but we want to stay in this accepting mec.
for (auto pState : (_mecStatesInfSets.get()[accMECs].first & _mecStatesInfSets.get()[accMECs].second[infSet])) {
// Define scheduler choices for the states in this MEC (that are not in any other MEC)
for (uint_fast64_t id : infSetIds) {
// Scheduler that satisfies the MEC acceptance condition (visit each InfSet inf often, or switch to scheduler of another MEC)
storm::storage::Scheduler<ValueType> mecScheduler(transitionMatrix.getRowGroupCount());
// States not in InfSet: Compute a scheduler that, with prob=1, reaches the infSet via mecStates starting from states that are not yet in other MEC
storm::utility::graph::computeSchedulerProb1E<ValueType>(newMecStates, transitionMatrix, backwardTransitions, mecStates, _infSets.get()[id], mecScheduler);
// States that already reached the InfSet: Prob1E sets an arbitrary choice for the psi states, but we want to stay in this accepting mec.
for (auto pState : (newMecStates & _infSets.get()[id])) {
// If we are in the InfSet, we stay in mec-states
// TODO is this correct:
// (*std::next(mec.getChoicesForState(pState).begin(), 0))
@ -258,29 +299,19 @@ namespace storm {
}
// Extract scheduler choices (only for states that are already assigned a scheduler, i.e are in another MEC)
for (auto pState : _mecStatesInfSets.get()[accMECs].first) {
//if (!_mecStatesInfSets.get()[accMECs].second[infSet].get(pState)) {
// We want to reach the InfSet, save choice: <s, q, MEC, InfSet> ---> choice
// TODO find test that fails, when ignoring these:
this->_productChoices.get().insert({std::make_tuple(product->getModelState(pState),product->getAutomatonState(pState), accMECs, infSet), mecScheduler.getChoice(pState)});
for (auto pState : newMecStates) {
// We want to reach the InfSet, save choice: <s, q, InfSetID> ---> choice
this->_productChoices.get().insert({std::make_tuple(product->getModelState(pState),product->getAutomatonState(pState), id), mecScheduler.getChoice(pState)});
}
}
// The states in this MEC will not be reassigned
finishedStates = finishedStates | mecStates;
}
}
}
}
if (this->isProduceSchedulerSet()) {
// Remaining states belong to no mec (REACH scheduler is computed later)
_mecStatesInfSets.get()[0] = std::make_pair(~finishedStates,std::vector<storm::storage::BitVector>(1,~finishedStates));
}
STORM_LOG_DEBUG("Accepting states: " << acceptingStates);
STORM_LOG_INFO("Found " << acceptingStates.getNumberOfSetBits() << " states in " << accMECs << " accepting MECs (considered " << allMECs << " MECs).");
@ -399,29 +430,27 @@ namespace storm {
prodNumericResult = std::move(prodCheckResult.values);
if (this->isProduceSchedulerSet()) { // TODO create fct for this
_numberOfDaStates = da.getNumberOfStates();
// TODO asserts _mecStatesInfSets initialized etc.
// Extract the choices of the REACH-scheduler (choices to reach an acc. MEC) for the MDP-DA product: <s,q> -> choice
for (storm::storage::sparse::state_type pState = 0;
pState < product->getProductModel().getNumberOfStates(); ++pState) {
// <s,q, NoMec, 0> ---> choice
// for state <s,q> not in any accEC <s,q, REACH> ---> choice
if(! acceptingStates.get(pState)){
// Do not overwrite choices of states in an accepting MEC
this->_productChoices.get().insert({std::make_tuple(product->getModelState(pState), product->getAutomatonState(pState), 0, 0), prodCheckResult.scheduler->getChoice(pState)});
this->_productChoices.get().insert({std::make_tuple(product->getModelState(pState), product->getAutomatonState(pState), _infSets.get().size()), prodCheckResult.scheduler->getChoice(pState)});
// For non-accepting states that are not in any accepting EC we use the 'last' copy of the DA
this->_accInfSets.get()[pState] = {this->_infSets.get().size()};
}
}
// Prepare the memory structure. For that, we need: transitions, initialMemoryStates (and memoryStateLabeling)
// Compute size of the resulting memory structure: a state corresponds to <q <mec, infSet>> encoded as (((infSet * |mecs|) + mec) * |DAStates|) +q
uint64 numCopies =0;
for (auto const& mec: _mecStatesInfSets.get()) {
numCopies += mec.second.second.size();
}
uint64 numMemoryStates = numCopies * _mecStatesInfSets.get().size() * da.getNumberOfStates() + da.getNumberOfStates(); //TODO is this correct
// Compute size of the resulting memory structure: a state corresponds to <q, infSet>> encoded as (q* (|infSets|+1))+infSet
uint64 numMemoryStates = (da.getNumberOfStates() * (_infSets.get().size()+1)) + _infSets.get().size()+1; //+1 for states outside accECs
// The next move function of the memory, will be build based on the transitions of the DA.
// The next move function of the memory, will be build based on the transitions of the DA and jumps between InfSets.
this->_memoryTransitions.emplace(numMemoryStates, std::vector<storm::storage::BitVector>(numMemoryStates, storm::storage::BitVector(this->_transitionMatrix.getRowGroupCount(), false)));
@ -431,43 +460,42 @@ namespace storm {
for (storm::storage::sparse::state_type modelState = 0; modelState < this->_transitionMatrix.getRowGroupCount(); ++modelState) {
if(!product->isValidProductState(modelState, automatonTo)) {
// Memory state successor of the modelState-transition emanating <automatonFrom, ?, ? > not defined/reachable.
// Memory state successor of the modelState-transition emanating <automatonFrom, * > not defined/reachable.
// TODO save as unreachable in scheduler
// STORM_PRINT("set to unreachable : (" << modelState <<" , " << automatonTo <<")");
} else if (automatonTo == productBuilder.getSuccessor(modelState, automatonFrom, modelState)) { //TODO remove first parameter of getSuccessor
// Add the modelState to one outgoing transition of all states of the form <automatonFrom <mec, InfSet>> (mec=0 equals NoMec)
for (uint_fast64_t mec = 0; mec < _mecStatesInfSets.get().size(); ++mec) {
for (uint_fast64_t infSet = 0; infSet < _mecStatesInfSets.get()[mec].second.size(); ++infSet) {
// Find the goalState <automatonTo <mec', InfSet'>>, where <modelState, automatonTo> is in mec'.
if (_mecStatesInfSets.get()[mec].first.get(product->getProductStateIndex(modelState, automatonTo))) {
// <modelState, automatonTo> in contained in this MEC. Now check if we have reached the current InfSet.
if(_mecStatesInfSets.get()[mec].second[infSet].get(product->getProductStateIndex(modelState, automatonTo))){
// InfSet satisfied: Add modelState to the transition from <automatonFrom <mec, InfSet>> to <automatonTo, <mec, NextInfSet>>.
uint64 from = (((infSet * _mecStatesInfSets.get().size()) + mec) * da.getNumberOfStates()) + automatonFrom;
uint64 to = ((((infSet+1 < _mecStatesInfSets.get()[mec].second.size() ? infSet+1 : 0) * _mecStatesInfSets.get().size()) + mec) * da.getNumberOfStates()) + automatonTo;
_memoryTransitions.get()[from][to].set(modelState);
} else {
// InfSet not satisfied: Add modelState to the transition from <automatonFrom <mec, InfSet>> to <automatonTo, <mec, InfSet>>.
uint64 from = (((infSet * _mecStatesInfSets.get().size()) + mec) * da.getNumberOfStates()) + automatonFrom;
uint64 to = (((infSet * _mecStatesInfSets.get().size()) + mec) * da.getNumberOfStates()) + automatonTo;
_memoryTransitions.get()[from][to].set(modelState);
}
// Add the modelState to one outgoing transition of all states of the form <automatonFrom, InfSet> (Inf=lenInfSet equals not in MEC)
// For the accepting states we jump through copies of the DA wrt. the infinity sets.
for (uint_fast64_t infSet = 0; infSet < _infSets.get().size()+1; ++infSet) {
// Check if we need to switch the acceptance condition
if (_accInfSets.get()[product->getProductStateIndex(modelState, automatonTo)].get().count(infSet) == 0) {
// the state is is in a different accepting MEC with a different accepting conjunction of InfSets.
auto newInfSet = _accInfSets.get()[product->getProductStateIndex(modelState, automatonTo)].get().begin();
// Add modelState to the transition from <automatonFrom, InfSet>> to <automatonTo, firstInfSet>.
_memoryTransitions.get()[(automatonFrom * (_infSets.get().size()+1)) + infSet][(automatonTo * (_infSets.get().size()+1)) + *newInfSet].set(modelState);
} else {
// The state is either not in an accepting EC or in an accepting EC that needs to satisfy the infSet.
if (infSet == _infSets.get().size() || _infSets.get()[infSet].get(product->getProductStateIndex(modelState, automatonTo))) {
// <modelState, automatonTo> is not in any accepting EC or does not satisfy the InfSet, we stay there.
// Add modelState to the transition from <automatonFrom, InfSet> to <automatonTo, InfSet>
_memoryTransitions.get()[(automatonFrom * (_infSets.get().size()+1)) + infSet][(automatonTo * (_infSets.get().size()+1)) + infSet].set(modelState);
} else {
// We need to find the unique MEC containing <modelState, automatonTo> and start in InfSet 0.
for (uint_fast64_t nextMec = 0; nextMec < _mecStatesInfSets.get().size(); ++nextMec) {
if (_mecStatesInfSets.get()[nextMec].first.get(product->getProductStateIndex(modelState, automatonTo))) {
// Add modelState to the transition from <automatonFrom <mec, InfSet>> to <automatonTo, nextMec, InfSet>>
uint64 from = (((infSet * _mecStatesInfSets.get().size()) + mec) * da.getNumberOfStates()) + automatonFrom;
uint64 to = (((0 * _mecStatesInfSets.get().size()) + nextMec) * da.getNumberOfStates()) + automatonTo;
_memoryTransitions.get()[from][to].set(modelState);
break; // Can stop, because the state is only contained in one MEC.
}
STORM_LOG_ASSERT(_accInfSets.get()[product->getProductStateIndex(modelState, automatonTo)] != boost::none, "The list of InfSets for the product state <" <<modelState<< ", " << automatonTo<<"> is undefined.");
// <modelState, automatonTo> satisfies the InfSet, find the next one
auto it = std::find(_accInfSets.get()[product->getProductStateIndex(modelState, automatonTo)].get().begin(), _accInfSets.get()[product->getProductStateIndex(modelState, automatonTo)].get().end(), infSet);
STORM_LOG_ASSERT(it != _accInfSets.get()[product->getProductStateIndex(modelState, automatonTo)].get().end(), "The list of InfSets for the product state <" <<modelState<< ", " << automatonTo<<"> does not contain the infSet " << infSet);
it++;
if (it == _accInfSets.get()[product->getProductStateIndex(modelState, automatonTo)].get().end()) {
// Start again.
it = _accInfSets.get()[product->getProductStateIndex(modelState, automatonTo)].get().begin();
}
// Add modelState to the transition from <automatonFrom <mec, InfSet>> to <automatonTo, <mec, NextInfSet>>.
_memoryTransitions.get()[(automatonFrom * (_infSets.get().size()+1)) + infSet][(automatonTo * (_infSets.get().size()+1)) + *it].set(modelState);
}
}
}
}
}
@ -478,17 +506,18 @@ namespace storm {
// Find initial memory states
this->_memoryInitialStates.emplace();
this->_memoryInitialStates->resize(this->_transitionMatrix.getRowGroupCount());
// Save for each relevant model state its initial memory state (get the s-successor of q0)
// Save for each relevant model state its initial memory state (get the s-successor q of q0)
for (storm::storage::sparse::state_type modelState : statesOfInterest) {
storm::storage::sparse::state_type automatonInit = productBuilder.getInitialState(modelState);
STORM_LOG_ASSERT(product->isValidProductState(modelState, automatonInit), "The memory successor state for the model state "<< modelState << "does not exist in the DA-Model Product.");
// Search mec which contains <automatonInit, modelState>
for (uint_fast64_t mec = 0; mec < _mecStatesInfSets.get().size(); ++mec) {
if (_mecStatesInfSets.get()[mec].first.get(product->getProductStateIndex(modelState, automatonInit))) {
this->_memoryInitialStates.get().at(modelState) = (((0 * _mecStatesInfSets.get().size()) + mec) * da.getNumberOfStates()) + automatonInit;
break;
}
storm::storage::sparse::state_type automatonState = productBuilder.getInitialState(modelState);
STORM_LOG_ASSERT(product->isValidProductState(modelState, automatonState), "The memory successor state for the model state "<< modelState << "does not exist in the DA-Model Product.");
if (acceptingStates[product->getProductStateIndex(modelState, automatonState)]) {
STORM_LOG_ASSERT(_accInfSets.get()[product->getProductStateIndex(modelState, automatonState)] != boost::none, "The list of InfSets for the product state <" <<modelState<< ", " << automatonState<<"> is undefined.");
// If <s, q> is an accepting state start in the first InfSet of <s, q>.
auto infSet = _accInfSets.get()[product->getProductStateIndex(modelState, automatonState)].get().begin();
_memoryInitialStates.get()[modelState] = (automatonState * (_infSets.get().size()+1)) + *infSet;
} else {
_memoryInitialStates.get()[modelState] = (automatonState * (_infSets.get().size()+1)) + _infSets.get().size();
}
}

9
src/storm/modelchecker/helper/ltl/SparseLTLHelper.h
View File

@ -97,12 +97,13 @@ namespace storm {
std::size_t _numberOfStates; //TODO just use _transitionMatrix.getRowGroupCount instead?
// REACH scheduler and MEC scheduler
boost::optional<std::map <std::tuple<uint_fast64_t, uint_fast64_t, uint_fast64_t, uint_fast64_t>, storm::storage::SchedulerChoice<ValueType>>> _productChoices; // <s, q, MEC, InfSet> ---> ReachChoice and <s, q, MEC, InfSet> ---> MecChoice
boost::optional<std::map <uint_fast64_t, std::pair<storm::storage::BitVector, std::vector<storm::storage::BitVector>>>> _mecStatesInfSets; // Save for each accepting mec, its states <s, q> and the infinity sets that need to be visited inf. often (mec 0 corresponds to NoMec)
boost::optional<std::map <std::tuple<uint_fast64_t, uint_fast64_t, uint_fast64_t>, storm::storage::SchedulerChoice<ValueType>>> _productChoices; // <s, q, len(_infSets)> ---> ReachChoice and <s, q, InfSet> ---> MecChoice
boost::optional<std::vector<storm::storage::BitVector>> _infSets; // Save the InfSets of the Acceptance condition.
boost::optional<std::vector<boost::optional<std::set<uint_fast64_t>>>> _accInfSets; // Save for each product state (which is assigned to an acceptingMEC), the infSets that need to be visited inf often to satisfy the acceptance condition. Remaining states belonging to no accepting EC, are assigned len(_infSets) (REACH scheduler)
// Memory structure
boost::optional<std::vector<std::vector<storm::storage::BitVector>>> _memoryTransitions; // The BitVector contains the model states that lead from startState <q, mec, infSet> to <q', mec', infSet'>. This is deterministic, because each state <s, q> is assigned to a unique MEC (scheduler).
boost::optional<std::vector<uint_fast64_t>> _memoryInitialStates; // Save for each stateOfInterest s its initial memory state (which memory state is reached from the initial state after reading s)
boost::optional<std::size_t> _numberOfDaStates;
boost::optional<std::vector<uint_fast64_t>> _memoryInitialStates; // Save for each relevant state (initial or all) s its unique initial memory state (which memory state is reached from the initial state after reading s)
};
}

2
src/storm/storage/memorystructure/MemoryStructureBuilder.cpp
View File

@ -24,7 +24,7 @@ namespace storm {
STORM_LOG_THROW(model.getInitialStates().get(initialModelState), storm::exceptions::InvalidOperationException, "Invalid index of initial model state: " << initialMemoryState << ". This is not an initial state of the model.");
STORM_LOG_THROW(initialMemoryState < transitions.size(), storm::exceptions::InvalidOperationException, "Invalid index of initial memory state: " << initialMemoryState << ". There are only " << transitions.size() << " states in this memory structure.");
auto initMemStateIt = initialMemoryStates.begin();
auto initMemStateIt = initialMemoryStates.begin(); // TODO allow all
for (auto initState : model.getInitialStates()) {
if (initState == initialModelState) {
*initMemStateIt = initialMemoryState;

1
src/storm/utility/graph.cpp
View File

@ -1893,7 +1893,6 @@ namespace storm {
template std::pair<storm::storage::BitVector, storm::storage::BitVector> performProb01(storm::storage::SparseMatrix<storm::RationalFunction> const& backwardTransitions, storm::storage::BitVector const& phiStates, storm::storage::BitVector const& psiStates);
// TODO remove?
template void computeSchedulerProb1E(storm::storage::BitVector const& prob1EStates, storm::storage::SparseMatrix<storm::RationalFunction> const& transitionMatrix, storm::storage::SparseMatrix<storm::RationalFunction> const& backwardTransitions, storm::storage::BitVector const& phiStates, storm::storage::BitVector const& psiStates, storm::storage::Scheduler<storm::RationalFunction>& scheduler, boost::optional<storm::storage::BitVector> const& rowFilter = boost::none);
template storm::storage::BitVector performProbGreater0E(storm::storage::SparseMatrix<storm::RationalFunction> const& backwardTransitions, storm::storage::BitVector const& phiStates, storm::storage::BitVector const& psiStates, bool useStepBound = false, uint_fast64_t maximalSteps = 0) ;

2
src/test/storm/modelchecker/prctl/mdp/SchedulerGenerationMdpPrctlModelCheckerTest.cpp
View File

@ -232,7 +232,7 @@ namespace {
auto inducedModel = mdp->applyScheduler(scheduler);
ASSERT_EQ(inducedModel->getType(), storm::models::ModelType::Mdp);
auto const &inducedMdp = inducedModel->template as<storm::models::sparse::Mdp<ValueType>>(); // TODO DTMC!
auto const &inducedMdp = inducedModel->template as<storm::models::sparse::Mdp<ValueType>>();
EXPECT_EQ(inducedMdp->getNumberOfChoices(), inducedMdp->getNumberOfStates());
storm::modelchecker::SparseMdpPrctlModelChecker<storm::models::sparse::Mdp<ValueType>> inducedChecker(*inducedMdp);

Write Preview
Loading…
Cancel
Save