use of org.osate.xtext.aadl2.errormodel.errorModel.ErrorPath in project osate2 by osate.
the class EMV2Util method getAllErrorPaths.
/**
* return list of error paths including those inherited from classifiers being extended
* @param cl Classifier
* @return Collection<ErrorSource> list of error paths declared in the flow section
*/
public static Collection<ErrorPath> getAllErrorPaths(Classifier cl) {
HashMap<String, ErrorPath> result = new LinkedHashMap<>();
EList<ErrorModelSubclause> emslist = getAllContainingClassifierEMV2Subclauses(cl);
for (ErrorModelSubclause errorModelSubclause : emslist) {
EList<ErrorFlow> eflist = errorModelSubclause.getFlows();
for (ErrorFlow errorFlow : eflist) {
if (errorFlow instanceof ErrorPath) {
if (!result.containsKey(errorFlow.getName())) {
result.put(errorFlow.getName(), (ErrorPath) errorFlow);
}
}
}
}
return result.values();
}
use of org.osate.xtext.aadl2.errormodel.errorModel.ErrorPath in project osate2 by osate.
the class PropagateErrorSources method traceErrorFlows.
/**
* traverse through the destination of the connection instance
* @param conni
*/
protected void traceErrorFlows(ComponentInstance ci, ErrorPropagation ep, TypeToken tt, int depth, String entryText) {
if (ci == null) {
return;
}
/**
* With alreadyTreated, we have a cache that keep track of existing report
* text for each component. For each component, we maintain a list of existing
* entryText already reported. So, we do not duplicate the error report for each component
* and make sure to report each entry only once.
*/
if (!alreadyTreated.containsKey(ci)) {
alreadyTreated.put(ci, new ArrayList<String>());
}
if (alreadyTreated.get(ci).contains(entryText)) {
return;
}
alreadyTreated.get(ci).add(entryText);
boolean handled = false;
Collection<ErrorFlow> outefs = EMV2Util.findErrorFlowFromComponentInstance(ci, ep);
for (ErrorFlow ef : outefs) {
if (ef instanceof ErrorSink && Util.conditionHolds(ef, ci)) {
/**
* We try to find additional error propagation for this error sink.
* For example, if the error sink triggers to switch to
* another behavior state and that states is used to propagate
* an error through an error source. Then, we do not consider
* it as an error sink but as an error path and continue
* to trace the flow using this additional error propagation.
*/
if (EMV2TypeSetUtil.contains(ef.getTypeTokenConstraint(), tt)) {
String maskText = ", " + generateFailureModeText(ci, ep, tt) + " [Masked],";
reportEntry(entryText + maskText, depth);
handled = true;
} else {
Collection<TypeToken> intersection = EMV2TypeSetUtil.getConstrainedTypeTokens(ef.getTypeTokenConstraint(), tt);
for (TypeToken typeToken : intersection) {
String maskText = ", " + generateFailureModeText(ci, ep, typeToken) + " [Masked],";
reportEntry(entryText + maskText, depth);
handled = true;
}
}
} else if (ef instanceof ErrorPath) {
// error path
Collection<ErrorPropagation> eplist = EMV2Util.getOutgoingPropagationOrAll((ErrorPath) ef);
ErrorPropagation inep = ((ErrorPath) ef).getIncoming();
if (ef.getTypeTokenConstraint() != null ? EMV2TypeSetUtil.contains(ef.getTypeTokenConstraint(), tt) : (inep != null ? EMV2TypeSetUtil.contains(inep.getTypeSet(), tt) : ((ErrorPath) ef).isAllIncoming())) {
TypeToken newtt = EMV2Util.mapToken(tt, ef);
for (ErrorPropagation outp : eplist) {
traceErrorPaths(ci, outp, newtt, depth + 1, entryText + ", " + generateFailureModeText(ci, ep, tt));
handled = true;
}
} else {
Collection<TypeToken> intersection = Collections.emptyList();
TypeSet ts = null;
if (ef.getTypeTokenConstraint() != null) {
ts = ef.getTypeTokenConstraint();
} else if (inep != null) {
ts = inep.getTypeSet();
}
if (ts != null) {
intersection = EMV2TypeSetUtil.getConstrainedTypeTokens(ts, tt);
}
for (TypeToken typeToken : intersection) {
TypeToken newtt = EMV2Util.mapToken(typeToken, ef);
for (ErrorPropagation outp : eplist) {
traceErrorPaths(ci, outp, newtt, depth + 1, entryText + ",\"" + generateFailureModeText(ci, ep, typeToken) + " [Subtype]\"");
handled = true;
}
}
}
}
}
if (!handled) {
// no error flows:. and no flows condition
// try flows or propagate to all outgoing error propagations
EList<FlowSpecificationInstance> flowlist = ci.getFlowSpecifications();
if (!flowlist.isEmpty()) {
for (FlowSpecificationInstance flowSpecificationInstance : flowlist) {
if (flowSpecificationInstance.getSource() != null && flowSpecificationInstance.getSource().getFeature() == EMV2Util.getErrorPropagationFeature(ep, ci)) {
FeatureInstance outfi = flowSpecificationInstance.getDestination();
if (outfi != null) {
ErrorPropagation outp = EMV2Util.getOutgoingErrorPropagation(outfi);
if (outp != null) {
TypeToken newtt = EMV2Util.mapToken(tt, flowSpecificationInstance);
if (EMV2TypeSetUtil.contains(outp.getTypeSet(), newtt)) {
traceErrorPaths(ci, outp, newtt, depth + 1, entryText + ", " + generateFailureModeText(ci, ep, tt) + " [FlowPath]");
handled = true;
} else {
Collection<TypeToken> intersection = EMV2TypeSetUtil.getConstrainedTypeTokens(outp.getTypeSet(), newtt);
for (TypeToken typeToken : intersection) {
traceErrorPaths(ci, outp, typeToken, depth + 1, entryText + ", " + generateFailureModeText(ci, ep, tt) + " [FlowPath TypeSubset]");
handled = true;
}
}
}
} else {
// do all since we have a flow sink
EList<FeatureInstance> filist = ci.getFeatureInstances();
boolean res = doAllOutPropagationsOrFeatures(ci, filist, ep, tt, depth, entryText);
if (res) {
handled = true;
}
}
}
}
} else {
// now all outgoing propagations or features since we did not find flows
EList<FeatureInstance> filist = ci.getFeatureInstances();
boolean res = doAllOutPropagationsOrFeatures(ci, filist, ep, tt, depth, entryText);
if (res) {
handled = true;
}
}
}
if (!handled) {
String errorText = "," + generateFailureModeText(ci, ep, tt) + " [Unhandled Failure Effect]";
reportEntry(entryText + errorText, depth);
}
}
use of org.osate.xtext.aadl2.errormodel.errorModel.ErrorPath in project osate2 by osate.
the class PropagationGraphBackwardTraversal method traverseOutgoingErrorPropagation.
/**
* process an Outgoing Error Propagation by going backwards in the propagation graph
* if preProcessOutgoingerrorPropagation returns non-null return its value as traverse result.
* First we attempt to go backwards according to the component error behavior, i.e., the OutgoingPropagationCondition.
* If subresults is non-null then return value of postProcessingErrorPropagationCOndition.
* If not present we do it according to error flow specifications.
*
* @param component ComponentInstance
* @param errorPropagation outgoing ErrorPropagation
* @param type ErrorTypes
* @return EObject (can be null)
*/
public EObject traverseOutgoingErrorPropagation(final ComponentInstance component, final ErrorPropagation errorPropagation, TypeToken proptype, BigDecimal scale) {
List<EObject> subResults = new LinkedList<EObject>();
Collection<TypeToken> filteredTypes = filterTokenThroughConstraint(errorPropagation.getTypeSet(), proptype);
if (filteredTypes.isEmpty()) {
return null;
}
HashMultimap<ErrorPropagation, String> handledEOPs = HashMultimap.create();
boolean traverse = false;
boolean hasCycle = false;
for (TypeToken type : filteredTypes) {
// we did follow an OPC.
boolean didProp = false;
EObject found = preProcessOutgoingErrorPropagation(component, errorPropagation, type, scale);
if (found != null) {
addSubresult(subResults, found);
// found common event
continue;
}
// we want to track cycles.
// we do that by tagging the feature instance of the error propagation with the error type (as token)
ErrorModelState st = null;
FeatureInstance fi = EMV2Util.findFeatureInstance(errorPropagation, component);
if (fi != null) {
st = (ErrorModelState) ErrorModelStateAdapterFactory.INSTANCE.adapt(fi, ErrorModelState.class);
} else {
st = (ErrorModelState) ErrorModelStateAdapterFactory.INSTANCE.adapt(component, ErrorModelState.class);
}
if (st.visited(errorPropagation, type)) {
// we were there before.
hasCycle = true;
continue;
} else {
st.setVisitToken(errorPropagation, type);
}
// processing call has to be after the preproccessing call so it is not found and we proceed in processing.
// On the other hand it needs to be called here so the event exists in ftamodel and is found the next time around.
// Originally we were creating the events bottom up thus the loop did not find the event.
// EObject myEvent = processOutgoingErrorPropagation(component, errorPropagation, type, scale);
Collection<ErrorFlow> errorFlows = EMV2Util.getAllErrorFlows(component);
Collection<OutgoingPropagationCondition> opcs = EMV2Util.getAllOutgoingPropagationConditions(component);
for (OutgoingPropagationCondition opc : opcs) {
if ((opc.getTypeToken() != null && !isNoError(opc.getTypeToken())) || opc.getTypeToken() == null) {
if (opc.isAllPropagations() || (EMV2Util.isSame(opc.getOutgoing(), errorPropagation))) {
// opc token if OPC token is subtype or same type
Collection<TypeToken> opcFilteredTypes = filterTokenThroughConstraint(opc.getTypeToken(), type);
for (TypeToken opctype : opcFilteredTypes) {
if (contains(opc.getTypeToken(), opctype)) {
EObject res = handleOutgoingErrorPropagationCondition(component, opc, opctype, handledEOPs, scale);
addSubresult(subResults, res);
didProp = true;
}
}
}
}
}
// try to find a path from an outer to an inner out error propagation
EList<PropagationPathEnd> propagationSources = Util.getAllPropagationSourceEnds(currentAnalysisModel, component, errorPropagation);
for (PropagationPathEnd ppe : propagationSources) {
ComponentInstance componentSource = ppe.getComponentInstance();
ErrorPropagation propagationSource = ppe.getErrorPropagation();
if (propagationSource.getDirection() == DirectionType.OUT) {
Set<ErrorPropagation> eops = handledEOPs.keySet();
if (!containsEOP(eops, propagationSource)) {
// if not already handled by a opc
EObject res = traverseOutgoingErrorPropagation(componentSource, propagationSource, type, scale);
addSubresult(subResults, res);
didProp = true;
}
}
}
for (ErrorFlow ef : errorFlows) {
if (ef instanceof ErrorPath) {
ErrorPath ep = (ErrorPath) ef;
if (handledEOPs.containsEntry(ep.getIncoming(), EMV2Util.getPrintName(type))) {
// already handled by a opc
continue;
}
if (Util.conditionHolds(ef, component)) {
/**
* Make sure that the error type we are looking for is contained
* in the error types for the out propagation.
* This is a fix for the JMR/SAVI WBS model.
*/
if (ep.isAllOutgoing() || EMV2Util.isSame(ep.getOutgoing(), errorPropagation)) {
BigDecimal newscale = scale;
double pathprobability = EMV2Properties.getProbability(component, ep, type);
if (pathprobability > 0) {
newscale = scale.multiply(BigDecimal.valueOf((pathprobability)));
}
if (ep.getTargetToken() != null) {
Collection<TypeToken> mappedTypes = filterTokenThroughConstraint(ep.getTargetToken(), type);
for (TypeToken mappedtype : mappedTypes) {
// we have a type mapping
EList<TypeToken> result;
if (ep.getTypeTokenConstraint() != null) {
// get type from path constraint
result = mapTokenThroughConstraint(ep.getTypeTokenConstraint(), mappedtype);
} else {
// get incoming type from propagation
result = mapTokenThroughConstraint(ep.getIncoming().getTypeSet(), mappedtype);
}
for (TypeToken newToken : result) {
if (ep.isAllIncoming()) {
Collection<ErrorPropagation> inprops = EMV2Util.getAllIncomingErrorPropagations(component);
for (ErrorPropagation eprop : inprops) {
handledEOPs.put(eprop, EMV2Util.getPrintName(newToken));
EObject newEvent = traverseIncomingErrorPropagation(component, eprop, newToken, newscale);
addSubresult(subResults, newEvent);
didProp = true;
}
} else {
handledEOPs.put(ep.getIncoming(), EMV2Util.getPrintName(newToken));
EObject newEvent = traverseIncomingErrorPropagation(component, ep.getIncoming(), newToken, newscale);
addSubresult(subResults, newEvent);
didProp = true;
}
}
}
} else {
// no type mapping
if (ep.isAllIncoming()) {
Collection<ErrorPropagation> inprops = EMV2Util.getAllIncomingErrorPropagations(component);
for (ErrorPropagation eprop : inprops) {
TypeSet matchtype = ep.getTypeTokenConstraint();
if (matchtype == null) {
matchtype = eprop.getTypeSet();
}
EList<TypeToken> filteredtypes = filterTokenThroughConstraint(matchtype, type);
for (TypeToken subtype : filteredtypes) {
handledEOPs.put(eprop, EMV2Util.getPrintName(subtype));
EObject newEvent = traverseIncomingErrorPropagation(component, eprop, subtype, newscale);
addSubresult(subResults, newEvent);
didProp = true;
}
}
} else {
ErrorPropagation inep = ep.getIncoming();
TypeSet matchtype = ep.getTypeTokenConstraint();
if (matchtype == null) {
matchtype = inep.getTypeSet();
}
Collection<TypeToken> mappedtypes = filterTokenThroughConstraint(matchtype, type);
for (TypeToken subtype : mappedtypes) {
handledEOPs.put(inep, EMV2Util.getPrintName(subtype));
EObject newEvent = traverseIncomingErrorPropagation(component, inep, subtype, newscale);
addSubresult(subResults, newEvent);
didProp = true;
}
}
}
}
}
} else if (ef instanceof ErrorSource) {
ErrorSource errorSource = (ErrorSource) ef;
NamedElement src = errorSource.getSourceModelElement();
if (src instanceof ErrorPropagation) {
// check if error source was already handled by opc
ErrorPropagation srcep = (ErrorPropagation) src;
if (targetsEOP(opcs, srcep, type)) {
// already handled by a opc with the same target
continue;
}
}
if (Util.conditionHolds(ef, component)) {
if (errorSource.isAll() || EMV2Util.isSame(errorSource.getSourceModelElement(), errorPropagation)) {
Collection<TypeToken> mappedTypes = filterTokenThroughConstraint(errorSource.getTypeTokenConstraint(), type);
for (TypeToken mappedType : mappedTypes) {
if (src instanceof ErrorPropagation) {
handledEOPs.put((ErrorPropagation) src, EMV2Util.getPrintName(mappedType));
}
if (errorSource.getFailureModeReference() != null) {
List<EObject> stResults = new LinkedList<EObject>();
ErrorBehaviorState ebs = errorSource.getFailureModeReference();
EObject sEvent = traverseErrorBehaviorState(component, ebs, mappedType, scale);
addSubresult(stResults, sEvent);
EObject newEvent = postProcessErrorSource(component, errorSource, proptype, stResults, scale);
addSubresult(subResults, newEvent);
didProp = true;
} else {
EObject newEvent = processErrorSource(component, errorSource, mappedType, scale);
addSubresult(subResults, newEvent);
didProp = true;
}
}
}
}
}
}
st.removeVisitedToken(errorPropagation, type);
if (didProp) {
traverse = true;
}
}
if (!subResults.isEmpty()) {
// out propagation with sub elements
return postProcessOutgoingErrorPropagation(component, errorPropagation, proptype, subResults, scale);
}
if (hasCycle) {
return null;
}
if (traverse && !handledEOPs.isEmpty()) {
// we handled error out propagations
return null;
}
// out propagation as end point
return processOutgoingErrorPropagation(component, errorPropagation, proptype, scale);
}
use of org.osate.xtext.aadl2.errormodel.errorModel.ErrorPath in project osate2 by osate.
the class CreateErrorPathPaletteCommand method getOperation.
@Override
public Optional<Operation> getOperation(final GetCreateConnectionOperationContext ctx) {
// Check if the destination is a potential end
if (!ErrorFlowPaletteCommandUtil.isPotentialEnd(ctx.getDestination())) {
return Optional.empty();
}
// Find the common ancestor which is a source for the classifier to update
final BusinessObjectContext classifierSourceBoc = BusinessObjectContext.getFirstCommonAncestor(ctx.getSource().getParent(), ctx.getDestination().getParent()).flatMap(ancestor -> ErrorModelGeUtil.getClassifierSourceBoc(ancestor)).orElse(null);
if (classifierSourceBoc == null) {
return Optional.empty();
}
return ErrorModelGeUtil.createErrorModelSubclausePromptAndModifyOperation(classifierSourceBoc, () -> {
final CombinedErrorModelSubclause combined = CombinedErrorModelSubclause.create(ErrorModelGeUtil.getClassifier(classifierSourceBoc).get());
// Validate both the source and the destination
return (ErrorFlowPaletteCommandUtil.validateAndShowError(combined, ctx.getSource(), DirectionType.IN) && ErrorFlowPaletteCommandUtil.validateAndShowError(combined, ctx.getDestination(), DirectionType.OUT)) ? Optional.of(true) : Optional.empty();
}, (subclause, unused) -> {
final ErrorPath newFlow = ErrorModelFactory.eINSTANCE.createErrorPath();
// Set name
final String newName = ErrorModelNamingUtil.buildUniqueIdentifier(subclause.getContainingClassifier(), "new_error_flow");
newFlow.setName(newName);
// Set the incoming and outgoing fields of the flow
final CombinedErrorModelSubclause combined = CombinedErrorModelSubclause.create(subclause.getContainingClassifier());
final boolean allSrc = ErrorFlowPaletteCommandUtil.isAll(ctx.getSource());
if (allSrc) {
newFlow.setAllIncoming(allSrc);
} else {
newFlow.setIncoming(ErrorFlowPaletteCommandUtil.findErrorPropagationOrThrow(combined, ctx.getSource(), DirectionType.IN));
}
final boolean allDst = ErrorFlowPaletteCommandUtil.isAll(ctx.getDestination());
if (allDst) {
newFlow.setAllOutgoing(allDst);
} else {
newFlow.setOutgoing(ErrorFlowPaletteCommandUtil.findErrorPropagationOrThrow(combined, ctx.getDestination(), DirectionType.OUT));
}
// Add the flow to the subclause
subclause.getFlows().add(newFlow);
return StepResultBuilder.create().showNewBusinessObject(classifierSourceBoc, newFlow).build();
});
}
use of org.osate.xtext.aadl2.errormodel.errorModel.ErrorPath in project osate2 by osate.
the class AbstractErrorModelSemanticSequencer method sequence.
@Override
public void sequence(ISerializationContext context, EObject semanticObject) {
EPackage epackage = semanticObject.eClass().getEPackage();
ParserRule rule = context.getParserRule();
Action action = context.getAssignedAction();
Set<Parameter> parameters = context.getEnabledBooleanParameters();
if (epackage == Aadl2Package.eINSTANCE)
switch(semanticObject.eClass().getClassifierID()) {
case Aadl2Package.ARRAY_RANGE:
sequence_ArrayRange(context, (ArrayRange) semanticObject);
return;
case Aadl2Package.BASIC_PROPERTY_ASSOCIATION:
sequence_FieldPropertyAssociation(context, (BasicPropertyAssociation) semanticObject);
return;
case Aadl2Package.BOOLEAN_LITERAL:
sequence_BooleanLiteral(context, (BooleanLiteral) semanticObject);
return;
case Aadl2Package.CLASSIFIER_VALUE:
sequence_ComponentClassifierTerm(context, (ClassifierValue) semanticObject);
return;
case Aadl2Package.COMPUTED_VALUE:
sequence_ComputedTerm(context, (ComputedValue) semanticObject);
return;
case Aadl2Package.CONTAINED_NAMED_ELEMENT:
sequence_ContainmentPath(context, (ContainedNamedElement) semanticObject);
return;
case Aadl2Package.CONTAINMENT_PATH_ELEMENT:
sequence_ContainmentPathElement(context, (ContainmentPathElement) semanticObject);
return;
case Aadl2Package.INTEGER_LITERAL:
sequence_IntegerTerm(context, (IntegerLiteral) semanticObject);
return;
case Aadl2Package.LIST_VALUE:
sequence_ListTerm(context, (ListValue) semanticObject);
return;
case Aadl2Package.MODAL_PROPERTY_VALUE:
if (rule == grammarAccess.getModalPropertyValueRule()) {
sequence_ModalPropertyValue(context, (ModalPropertyValue) semanticObject);
return;
} else if (rule == grammarAccess.getOptionalModalPropertyValueRule()) {
sequence_OptionalModalPropertyValue(context, (ModalPropertyValue) semanticObject);
return;
} else if (rule == grammarAccess.getPropertyValueRule()) {
sequence_PropertyValue(context, (ModalPropertyValue) semanticObject);
return;
} else
break;
case Aadl2Package.NAMED_VALUE:
if (rule == grammarAccess.getConstantValueRule() || rule == grammarAccess.getNumAltRule()) {
sequence_ConstantValue(context, (NamedValue) semanticObject);
return;
} else if (rule == grammarAccess.getPropertyExpressionRule() || rule == grammarAccess.getLiteralorReferenceTermRule()) {
sequence_LiteralorReferenceTerm(context, (NamedValue) semanticObject);
return;
} else
break;
case Aadl2Package.OPERATION:
sequence_SignedConstant(context, (Operation) semanticObject);
return;
case Aadl2Package.PROPERTY_ASSOCIATION:
if (rule == grammarAccess.getBasicPropertyAssociationRule()) {
sequence_BasicPropertyAssociation(context, (PropertyAssociation) semanticObject);
return;
} else if (rule == grammarAccess.getPModelRule() || rule == grammarAccess.getContainedPropertyAssociationRule()) {
sequence_ContainedPropertyAssociation(context, (PropertyAssociation) semanticObject);
return;
} else if (rule == grammarAccess.getPropertyAssociationRule()) {
sequence_PropertyAssociation(context, (PropertyAssociation) semanticObject);
return;
} else
break;
case Aadl2Package.RANGE_VALUE:
sequence_NumericRangeTerm(context, (RangeValue) semanticObject);
return;
case Aadl2Package.REAL_LITERAL:
sequence_RealTerm(context, (RealLiteral) semanticObject);
return;
case Aadl2Package.RECORD_VALUE:
if (rule == grammarAccess.getOldRecordTermRule()) {
sequence_OldRecordTerm(context, (RecordValue) semanticObject);
return;
} else if (rule == grammarAccess.getPropertyExpressionRule() || rule == grammarAccess.getRecordTermRule()) {
sequence_RecordTerm(context, (RecordValue) semanticObject);
return;
} else
break;
case Aadl2Package.REFERENCE_VALUE:
sequence_ReferenceTerm(context, (ReferenceValue) semanticObject);
return;
case Aadl2Package.STRING_LITERAL:
sequence_StringTerm(context, (StringLiteral) semanticObject);
return;
}
else if (epackage == ErrorModelPackage.eINSTANCE)
switch(semanticObject.eClass().getClassifierID()) {
case ErrorModelPackage.ALL_EXPRESSION:
if (rule == grammarAccess.getElementRule() || rule == grammarAccess.getConditionExpressionRule() || action == grammarAccess.getConditionExpressionAccess().getOrExpressionOperandsAction_1_0() || rule == grammarAccess.getAndExpressionRule() || action == grammarAccess.getAndExpressionAccess().getAndExpressionOperandsAction_1_0() || rule == grammarAccess.getAllExpressionRule() || rule == grammarAccess.getConditionTermRule()) {
sequence_AllExpression(context, (AllExpression) semanticObject);
return;
} else if (rule == grammarAccess.getSConditionExpressionRule() || action == grammarAccess.getSConditionExpressionAccess().getOrExpressionOperandsAction_1_0() || rule == grammarAccess.getSAndExpressionRule() || action == grammarAccess.getSAndExpressionAccess().getAndExpressionOperandsAction_1_0() || rule == grammarAccess.getSAllExpressionRule() || rule == grammarAccess.getSConditionTermRule()) {
sequence_SAllExpression(context, (AllExpression) semanticObject);
return;
} else
break;
case ErrorModelPackage.AND_EXPRESSION:
if (rule == grammarAccess.getElementRule() || rule == grammarAccess.getConditionExpressionRule() || action == grammarAccess.getConditionExpressionAccess().getOrExpressionOperandsAction_1_0() || rule == grammarAccess.getAndExpressionRule() || action == grammarAccess.getAndExpressionAccess().getAndExpressionOperandsAction_1_0() || rule == grammarAccess.getConditionTermRule()) {
sequence_AndExpression(context, (AndExpression) semanticObject);
return;
} else if (rule == grammarAccess.getSConditionExpressionRule() || action == grammarAccess.getSConditionExpressionAccess().getOrExpressionOperandsAction_1_0() || rule == grammarAccess.getSAndExpressionRule() || action == grammarAccess.getSAndExpressionAccess().getAndExpressionOperandsAction_1_0() || rule == grammarAccess.getSConditionTermRule()) {
sequence_SAndExpression(context, (AndExpression) semanticObject);
return;
} else
break;
case ErrorModelPackage.BRANCH_VALUE:
sequence_BranchValue(context, (BranchValue) semanticObject);
return;
case ErrorModelPackage.COMPOSITE_STATE:
sequence_CompositeState(context, (CompositeState) semanticObject);
return;
case ErrorModelPackage.CONDITION_ELEMENT:
sequence_ConditionElement(context, (ConditionElement) semanticObject);
return;
case ErrorModelPackage.EMV2_PATH:
if (rule == grammarAccess.getBasicEMV2PathRule()) {
sequence_BasicEMV2Path(context, (EMV2Path) semanticObject);
return;
} else if (rule == grammarAccess.getElementRule() || rule == grammarAccess.getEMV2PathRule()) {
sequence_EMV2Path(context, (EMV2Path) semanticObject);
return;
} else
break;
case ErrorModelPackage.EMV2_PATH_ELEMENT:
if (rule == grammarAccess.getEMV2ErrorPropagationPathRule()) {
sequence_EMV2ErrorPropagationPath(context, (EMV2PathElement) semanticObject);
return;
} else if (rule == grammarAccess.getEMV2PathElementOrKindRule()) {
sequence_EMV2PathElementOrKind(context, (EMV2PathElement) semanticObject);
return;
} else if (rule == grammarAccess.getElementRule() || rule == grammarAccess.getEMV2PathElementRule()) {
sequence_EMV2PathElement(context, (EMV2PathElement) semanticObject);
return;
} else
break;
case ErrorModelPackage.EMV2_PROPERTY_ASSOCIATION:
if (rule == grammarAccess.getBasicEMV2PropertyAssociationRule()) {
sequence_BasicEMV2PropertyAssociation(context, (EMV2PropertyAssociation) semanticObject);
return;
} else if (rule == grammarAccess.getElementRule() || rule == grammarAccess.getEMV2PropertyAssociationRule()) {
sequence_EMV2PropertyAssociation(context, (EMV2PropertyAssociation) semanticObject);
return;
} else
break;
case ErrorModelPackage.EMV2_ROOT:
sequence_EMV2Root(context, (EMV2Root) semanticObject);
return;
case ErrorModelPackage.ERROR_BEHAVIOR_STATE:
sequence_ErrorBehaviorState(context, (ErrorBehaviorState) semanticObject);
return;
case ErrorModelPackage.ERROR_BEHAVIOR_STATE_MACHINE:
sequence_ErrorBehaviorStateMachine(context, (ErrorBehaviorStateMachine) semanticObject);
return;
case ErrorModelPackage.ERROR_BEHAVIOR_TRANSITION:
sequence_ErrorBehaviorTransition(context, (ErrorBehaviorTransition) semanticObject);
return;
case ErrorModelPackage.ERROR_CODE_VALUE:
sequence_ErrorCodeValue(context, (ErrorCodeValue) semanticObject);
return;
case ErrorModelPackage.ERROR_DETECTION:
sequence_ErrorDetection(context, (ErrorDetection) semanticObject);
return;
case ErrorModelPackage.ERROR_EVENT:
sequence_ErrorEvent(context, (ErrorEvent) semanticObject);
return;
case ErrorModelPackage.ERROR_MODEL_LIBRARY:
if (rule == grammarAccess.getEMV2LibraryRule()) {
sequence_EMV2Library(context, (ErrorModelLibrary) semanticObject);
return;
} else if (rule == grammarAccess.getAnnexLibraryRule() || rule == grammarAccess.getNamedElementRule() || rule == grammarAccess.getErrorModelLibraryRule()) {
sequence_ErrorModelLibrary(context, (ErrorModelLibrary) semanticObject);
return;
} else
break;
case ErrorModelPackage.ERROR_MODEL_SUBCLAUSE:
if (rule == grammarAccess.getEMV2SubclauseRule()) {
sequence_EMV2Subclause(context, (ErrorModelSubclause) semanticObject);
return;
} else if (rule == grammarAccess.getAnnexSubclauseRule() || rule == grammarAccess.getModalElementRule() || rule == grammarAccess.getErrorModelSubclauseRule()) {
sequence_ErrorModelSubclause(context, (ErrorModelSubclause) semanticObject);
return;
} else
break;
case ErrorModelPackage.ERROR_PATH:
sequence_ErrorPath(context, (ErrorPath) semanticObject);
return;
case ErrorModelPackage.ERROR_PROPAGATION:
sequence_ErrorPropagation(context, (ErrorPropagation) semanticObject);
return;
case ErrorModelPackage.ERROR_SINK:
sequence_ErrorSink(context, (ErrorSink) semanticObject);
return;
case ErrorModelPackage.ERROR_SOURCE:
sequence_ErrorSource(context, (ErrorSource) semanticObject);
return;
case ErrorModelPackage.ERROR_STATE_TO_MODE_MAPPING:
sequence_ErrorStateToModeMapping(context, (ErrorStateToModeMapping) semanticObject);
return;
case ErrorModelPackage.ERROR_TYPE:
sequence_TypeDefinition(context, (ErrorType) semanticObject);
return;
case ErrorModelPackage.FEATUREOR_PP_REFERENCE:
sequence_FeatureorPPReference(context, (FeatureorPPReference) semanticObject);
return;
case ErrorModelPackage.IF_CONDITION:
sequence_IfCondition(context, (IfCondition) semanticObject);
return;
case ErrorModelPackage.OR_EXPRESSION:
if (rule == grammarAccess.getElementRule() || rule == grammarAccess.getConditionExpressionRule() || action == grammarAccess.getConditionExpressionAccess().getOrExpressionOperandsAction_1_0() || rule == grammarAccess.getAndExpressionRule() || action == grammarAccess.getAndExpressionAccess().getAndExpressionOperandsAction_1_0() || rule == grammarAccess.getConditionTermRule()) {
sequence_ConditionExpression(context, (OrExpression) semanticObject);
return;
} else if (rule == grammarAccess.getSConditionExpressionRule() || action == grammarAccess.getSConditionExpressionAccess().getOrExpressionOperandsAction_1_0() || rule == grammarAccess.getSAndExpressionRule() || action == grammarAccess.getSAndExpressionAccess().getAndExpressionOperandsAction_1_0() || rule == grammarAccess.getSConditionTermRule()) {
sequence_SConditionExpression(context, (OrExpression) semanticObject);
return;
} else
break;
case ErrorModelPackage.ORLESS_EXPRESSION:
if (rule == grammarAccess.getElementRule() || rule == grammarAccess.getConditionExpressionRule() || action == grammarAccess.getConditionExpressionAccess().getOrExpressionOperandsAction_1_0() || rule == grammarAccess.getAndExpressionRule() || action == grammarAccess.getAndExpressionAccess().getAndExpressionOperandsAction_1_0() || rule == grammarAccess.getOrlessExpressionRule() || rule == grammarAccess.getConditionTermRule()) {
sequence_OrlessExpression(context, (OrlessExpression) semanticObject);
return;
} else if (rule == grammarAccess.getSConditionExpressionRule() || action == grammarAccess.getSConditionExpressionAccess().getOrExpressionOperandsAction_1_0() || rule == grammarAccess.getSAndExpressionRule() || action == grammarAccess.getSAndExpressionAccess().getAndExpressionOperandsAction_1_0() || rule == grammarAccess.getSOrlessExpressionRule() || rule == grammarAccess.getSConditionTermRule()) {
sequence_SOrlessExpression(context, (OrlessExpression) semanticObject);
return;
} else
break;
case ErrorModelPackage.ORMORE_EXPRESSION:
if (rule == grammarAccess.getElementRule() || rule == grammarAccess.getConditionExpressionRule() || action == grammarAccess.getConditionExpressionAccess().getOrExpressionOperandsAction_1_0() || rule == grammarAccess.getAndExpressionRule() || action == grammarAccess.getAndExpressionAccess().getAndExpressionOperandsAction_1_0() || rule == grammarAccess.getOrmoreExpressionRule() || rule == grammarAccess.getConditionTermRule()) {
sequence_OrmoreExpression(context, (OrmoreExpression) semanticObject);
return;
} else if (rule == grammarAccess.getSConditionExpressionRule() || action == grammarAccess.getSConditionExpressionAccess().getOrExpressionOperandsAction_1_0() || rule == grammarAccess.getSAndExpressionRule() || action == grammarAccess.getSAndExpressionAccess().getAndExpressionOperandsAction_1_0() || rule == grammarAccess.getSOrmoreExpressionRule() || rule == grammarAccess.getSConditionTermRule()) {
sequence_SOrmoreExpression(context, (OrmoreExpression) semanticObject);
return;
} else
break;
case ErrorModelPackage.OUTGOING_PROPAGATION_CONDITION:
sequence_OutgoingPropagationCondition(context, (OutgoingPropagationCondition) semanticObject);
return;
case ErrorModelPackage.PROPAGATION_PATH:
sequence_PropagationPath(context, (PropagationPath) semanticObject);
return;
case ErrorModelPackage.PROPAGATION_POINT:
sequence_PropagationPoint(context, (PropagationPoint) semanticObject);
return;
case ErrorModelPackage.QUALIFIED_ERROR_BEHAVIOR_STATE:
sequence_QualifiedErrorBehaviorState(context, (QualifiedErrorBehaviorState) semanticObject);
return;
case ErrorModelPackage.QUALIFIED_ERROR_EVENT_OR_PROPAGATION:
sequence_QualifiedErrorEventOrPropagation(context, (QualifiedErrorEventOrPropagation) semanticObject);
return;
case ErrorModelPackage.QUALIFIED_ERROR_PROPAGATION:
sequence_QualifiedErrorPropagation(context, (QualifiedErrorPropagation) semanticObject);
return;
case ErrorModelPackage.QUALIFIED_PROPAGATION_POINT:
sequence_QualifiedPropagationPoint(context, (QualifiedPropagationPoint) semanticObject);
return;
case ErrorModelPackage.RECOVER_EVENT:
sequence_RecoverEvent(context, (RecoverEvent) semanticObject);
return;
case ErrorModelPackage.REPAIR_EVENT:
sequence_RepairEvent(context, (RepairEvent) semanticObject);
return;
case ErrorModelPackage.REPORTING_PORT_REFERENCE:
sequence_ReportingPortReference(context, (ReportingPortReference) semanticObject);
return;
case ErrorModelPackage.SCONDITION_ELEMENT:
sequence_SConditionElement(context, (SConditionElement) semanticObject);
return;
case ErrorModelPackage.SUBCOMPONENT_ELEMENT:
sequence_SubcomponentElement(context, (SubcomponentElement) semanticObject);
return;
case ErrorModelPackage.TRANSITION_BRANCH:
sequence_TransitionBranch(context, (TransitionBranch) semanticObject);
return;
case ErrorModelPackage.TYPE_MAPPING:
sequence_TypeMapping(context, (TypeMapping) semanticObject);
return;
case ErrorModelPackage.TYPE_MAPPING_SET:
sequence_TypeMappingSet(context, (TypeMappingSet) semanticObject);
return;
case ErrorModelPackage.TYPE_SET:
if (rule == grammarAccess.getNoErrorTypeSetRule()) {
sequence_NoErrorTypeSet(context, (TypeSet) semanticObject);
return;
} else if (rule == grammarAccess.getTypeTokenOrNoErrorRule() || rule == grammarAccess.getTypeTokenConstraintNoErrorRule()) {
sequence_NoErrorTypeSet_TypeSetConstructor(context, (TypeSet) semanticObject);
return;
} else if (rule == grammarAccess.getTypeSetConstructorRule() || rule == grammarAccess.getTypeSetReferenceRule() || rule == grammarAccess.getTypeTokenRule() || rule == grammarAccess.getTypeTokenConstraintRule()) {
sequence_TypeSetConstructor(context, (TypeSet) semanticObject);
return;
} else if (rule == grammarAccess.getNamedElementRule() || rule == grammarAccess.getErrorTypesRule() || rule == grammarAccess.getTypeSetDefinitionRule()) {
sequence_TypeSetDefinition(context, (TypeSet) semanticObject);
return;
} else
break;
case ErrorModelPackage.TYPE_TOKEN:
if (rule == grammarAccess.getNoErrorTypeTokenRule()) {
sequence_NoErrorTypeToken(context, (TypeToken) semanticObject);
return;
} else if (rule == grammarAccess.getElementRule() || rule == grammarAccess.getTypeSetElementRule()) {
sequence_TypeSetElement(context, (TypeToken) semanticObject);
return;
} else
break;
case ErrorModelPackage.TYPE_TRANSFORMATION:
sequence_TypeTransformation(context, (TypeTransformation) semanticObject);
return;
case ErrorModelPackage.TYPE_TRANSFORMATION_SET:
sequence_TypeTransformationSet(context, (TypeTransformationSet) semanticObject);
return;
}
if (errorAcceptor != null)
errorAcceptor.accept(diagnosticProvider.createInvalidContextOrTypeDiagnostic(semanticObject, context));
}
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