use of de.hpi.bpt.scylla.model.process.node.EventDefinitionType in project scylla by bptlab.
the class ProcessModelParser method parseProcess.
private ProcessModel parseProcess(Element process, Namespace bpmnNamespace, boolean hasParentModel, CommonProcessElements commonProcessElements) throws ScyllaValidationException {
if (!hasParentModel && process.getChildren("startEvent", bpmnNamespace).size() == 0) {
throw new ScyllaValidationException("No start event in the top process.");
}
String processId = process.getAttributeValue("id");
String processName = process.getAttributeValue("name");
Graph<Integer> graph = new Graph<Integer>();
Map<Integer, String> identifiers = new HashMap<Integer, String>();
Map<String, Integer> identifiersToNodeIds = new HashMap<String, Integer>();
Map<Integer, String> displayNames = new HashMap<Integer, String>();
// node id must be key of any of the following
Map<Integer, ProcessModel> subProcesses = new HashMap<Integer, ProcessModel>();
Map<Integer, String> calledElementsOfCallActivities = new HashMap<Integer, String>();
Map<Integer, TaskType> tasks = new HashMap<Integer, TaskType>();
Map<Integer, GatewayType> gateways = new HashMap<Integer, GatewayType>();
Map<Integer, EventType> eventTypes = new HashMap<Integer, EventType>();
// optional
Map<Integer, Map<String, String>> nodeAttributes = new HashMap<Integer, Map<String, String>>();
Map<Integer, String> conditionExpressions = new HashMap<Integer, String>();
Map<Integer, Set<String>> resourceReferences = new HashMap<Integer, Set<String>>();
Map<Integer, Map<EventDefinitionType, Map<String, String>>> eventDefinitions = new HashMap<Integer, Map<EventDefinitionType, Map<String, String>>>();
Map<Integer, Boolean> cancelActivities = new HashMap<Integer, Boolean>();
Map<Integer, List<Integer>> referencesToBoundaryEvents = new HashMap<Integer, List<Integer>>();
Map<Integer, BatchActivity> batchActivities = new HashMap<Integer, BatchActivity>();
// TODO support more than standard data objects (i.e. support input, output)
Graph<Integer> dataObjectsGraph = new Graph<Integer>();
Map<Integer, String> dataObjectReferences = new HashMap<Integer, String>();
Map<Integer, DataObjectType> dataObjectTypes = new HashMap<Integer, DataObjectType>();
// TODO parse loop / multi instance elements
Map<Integer, Element> boundaryEvents = new HashMap<Integer, Element>();
Map<Integer, Element> sequenceFlows = new HashMap<Integer, Element>();
// not only tasks anymore, also events
Map<Integer, List<Element>> tasksWithDataInputAssociations = new HashMap<Integer, List<Element>>();
// not only tasks anymore, also events
Map<Integer, List<Element>> tasksWithDataOutputAssociations = new HashMap<Integer, List<Element>>();
int nodeId = 1;
for (Element el : process.getChildren()) {
String elementName = el.getName();
if (isKnownElement(elementName)) {
String identifier = el.getAttributeValue("id");
identifiers.put(nodeId, identifier);
identifiersToNodeIds.put(identifier, nodeId);
String displayName = el.getAttributeValue("name");
if (displayName != null && !displayName.isEmpty()) {
displayNames.put(nodeId, displayName);
}
if (elementName.equals("sequenceFlow")) {
// just store them for now, use later to build graph
sequenceFlows.put(nodeId, el);
// store expressions after gateway conditions
Element conditionExpression = el.getChild("conditionExpression", bpmnNamespace);
if (conditionExpression != null) {
conditionExpressions.put(nodeId, conditionExpression.getText());
}
} else if (elementName.equals("subProcess")) {
batchActivities = parseExtensions(el, bpmnNamespace, nodeId, batchActivities);
ProcessModel subProcessModel = parseProcess(el, bpmnNamespace, true, commonProcessElements);
subProcesses.put(nodeId, subProcessModel);
} else if (elementName.equals("callActivity")) {
String calledElement = el.getAttributeValue("calledElement");
if (calledElement != null) {
calledElementsOfCallActivities.put(nodeId, calledElement);
}
} else if (elementName.equals("task") || elementName.endsWith("Task")) {
batchActivities = parseExtensions(el, bpmnNamespace, nodeId, batchActivities);
tasks.put(nodeId, TaskType.getEnum(el.getName()));
if (elementName.equals("userTask") || elementName.equals("manualTask")) {
String[] resourceElementNames = new String[] { "resourceRole", "performer", "humanPerformer", "potentialOwner" };
for (String ren : resourceElementNames) {
Element elem = el.getChild(ren, bpmnNamespace);
if (elem != null) {
String resourceRefOrAssignmentExpression = null;
Element resourceRefElement = elem.getChild("resourceRef", bpmnNamespace);
if (resourceRefElement != null) {
resourceRefOrAssignmentExpression = resourceRefElement.getText();
}
Element resourceAssignmentExpressionElement = elem.getChild("resourceAssignmentExpression", bpmnNamespace);
if (resourceAssignmentExpressionElement != null) {
resourceRefOrAssignmentExpression = resourceAssignmentExpressionElement.getText();
}
if (resourceRefOrAssignmentExpression != null) {
if (!resourceReferences.containsKey(nodeId)) {
resourceReferences.put(nodeId, new TreeSet<String>());
}
resourceReferences.get(nodeId).add(resourceRefOrAssignmentExpression);
break;
}
}
}
}
List<Element> dataInElements = el.getChildren("dataInputAssociation", bpmnNamespace);
if (!dataInElements.isEmpty()) {
tasksWithDataInputAssociations.put(nodeId, dataInElements);
}
List<Element> dataOutElements = el.getChildren("dataOutputAssociation", bpmnNamespace);
if (!dataOutElements.isEmpty()) {
tasksWithDataOutputAssociations.put(nodeId, dataOutElements);
}
} else if (elementName.endsWith("Gateway") || elementName.equals("gateway")) {
gateways.put(nodeId, GatewayType.getEnum(el.getName()));
Map<String, String> gatewayAttributes = new HashMap<String, String>();
String defaultFlow = el.getAttributeValue("default");
if (defaultFlow != null) {
gatewayAttributes.put("default", defaultFlow);
}
String gatewayDirection = el.getAttributeValue("gatewayDirection");
if (gatewayDirection != null) {
gatewayAttributes.put("gatewayDirection", gatewayDirection);
}
nodeAttributes.put(nodeId, gatewayAttributes);
} else if (elementName.endsWith("Event") || elementName.equals("event")) {
eventTypes.put(nodeId, EventType.getEnum(el.getName()));
Map<EventDefinitionType, Map<String, String>> eventDefinitionsOfElement = new HashMap<EventDefinitionType, Map<String, String>>();
for (EventDefinitionType edt : EventDefinitionType.values()) {
Element edElem = el.getChild(edt.toString(), bpmnNamespace);
if (edElem != null) {
Map<String, String> eventAttributes = new HashMap<String, String>();
if (edt == EventDefinitionType.CANCEL) {
// TODO transaction subprocesses only
} else if (edt == EventDefinitionType.COMPENSATION) {
String activityRef = edElem.getAttributeValue("activityRef");
if (activityRef != null) {
eventAttributes.put("activityRef", activityRef);
}
String waitForCompletion = edElem.getAttributeValue("waitForCompletion");
if (waitForCompletion != null) {
eventAttributes.put("waitForCompletion", waitForCompletion);
}
} else if (edt == EventDefinitionType.CONDITIONAL) {
Element conditionElement = edElem.getChild("condition", bpmnNamespace);
if (conditionElement != null) {
eventAttributes.put("condition", conditionElement.getText());
}
} else if (edt == EventDefinitionType.ERROR) {
String errorRef = edElem.getAttributeValue("errorRef");
if (errorRef != null) {
if (!commonProcessElements.getErrors().containsKey(errorRef)) {
throw new ScyllaValidationException("Referenced object of error event " + identifier + " is unknown: " + errorRef);
}
eventAttributes.put("errorRef", errorRef);
} else {
throw new ScyllaValidationException("Error event " + identifier + " has no reference to an error.");
}
} else if (edt == EventDefinitionType.ESCALATION) {
String escalationRef = edElem.getAttributeValue("escalationRef");
if (escalationRef != null) {
if (!commonProcessElements.getEscalations().containsKey(escalationRef)) {
throw new ScyllaValidationException("Referenced object of escalation event " + identifier + " is unknown: " + escalationRef);
}
eventAttributes.put("escalationRef", escalationRef);
} else {
throw new ScyllaValidationException("Escalation event " + identifier + " has no reference to an escalation.");
}
} else if (edt == EventDefinitionType.LINK) {
String name = edElem.getAttributeValue("name");
if (name != null) {
eventAttributes.put("name", name);
}
List<Element> sourceElements = edElem.getChildren("source", bpmnNamespace);
int i = 0;
for (Element sourceElement : sourceElements) {
eventAttributes.put("source" + ++i, sourceElement.getText());
}
Element targetElement = edElem.getChild("target", bpmnNamespace);
if (targetElement != null) {
eventAttributes.put("target", targetElement.getText());
}
} else if (edt == EventDefinitionType.MESSAGE) {
String messageRef = edElem.getAttributeValue("messageRef");
if (messageRef != null) {
if (!commonProcessElements.getMessages().containsKey(messageRef)) {
throw new ScyllaValidationException("Referenced object of message event " + identifier + " is unknown: " + messageRef);
}
eventAttributes.put("messageRef", messageRef);
}
Element operationElement = edElem.getChild("operationRef", bpmnNamespace);
if (operationElement != null) {
eventAttributes.put("operationRef", operationElement.getText());
}
} else if (edt == EventDefinitionType.SIGNAL) {
String signalRef = edElem.getAttributeValue("signalRef");
if (signalRef != null) {
eventAttributes.put("signalRef", signalRef);
}
} else if (edt == EventDefinitionType.TIMER) {
Element timeDateElement = edElem.getChild("timeDate", bpmnNamespace);
// this is the reponsibility of the plug-ins
if (timeDateElement != null) {
eventAttributes.put("timeDate", timeDateElement.getText());
}
Element timeCycleElement = edElem.getChild("timeCycle", bpmnNamespace);
if (timeCycleElement != null) {
eventAttributes.put("timeCycle", timeCycleElement.getText());
}
Element timeDurationElement = edElem.getChild("timeDuration", bpmnNamespace);
if (timeDurationElement != null) {
eventAttributes.put("timeDuration", timeDurationElement.getText());
}
// time attributes are mutually exclusive
if (eventAttributes.size() > 1) {
throw new ScyllaValidationException("Timer event " + identifier + " is invalid. Time definitions are mutually exclusive.");
}
}
eventDefinitionsOfElement.put(edt, eventAttributes);
}
eventDefinitions.put(nodeId, eventDefinitionsOfElement);
if (elementName.equals("boundaryEvent")) {
// just store them for now, use later to create references to boundary events
boundaryEvents.put(nodeId, el);
}
}
List<Element> dataInElements = el.getChildren("dataInputAssociation", bpmnNamespace);
if (!dataInElements.isEmpty()) {
tasksWithDataInputAssociations.put(nodeId, dataInElements);
}
List<Element> dataOutElements = el.getChildren("dataOutputAssociation", bpmnNamespace);
if (!dataOutElements.isEmpty()) {
tasksWithDataOutputAssociations.put(nodeId, dataOutElements);
}
} else if (elementName.equals("dataObjectReference")) {
String dataObjectRef = el.getAttributeValue("dataObjectRef");
dataObjectReferences.put(nodeId, dataObjectRef);
} else if (elementName.equals("ioSpecification")) {
Element input = el.getChild("dataInput", bpmnNamespace);
if (input != null) {
// remove the ioSpecification element
identifiersToNodeIds.remove(identifier);
// override the values with the inner input element
identifier = input.getAttributeValue("id");
identifiers.put(nodeId, identifier);
identifiersToNodeIds.put(identifier, nodeId);
displayName = input.getAttributeValue("name");
if (displayName != null && !displayName.isEmpty()) {
displayNames.put(nodeId, displayName);
}
dataObjectTypes.put(nodeId, DataObjectType.INPUT);
}
} else if (elementName.equals("dataObject")) {
dataObjectTypes.put(nodeId, DataObjectType.DEFAULT);
} else {
DebugLogger.log("Element " + el.getName() + " of process model is expected to be known, but not supported.");
}
nodeId++;
} else {
DebugLogger.log("Element " + el.getName() + " of process model not supported.");
}
}
// create resource references
for (Element laneSet : process.getChildren("laneSet", bpmnNamespace)) {
for (Element lane : laneSet.getChildren("lane", bpmnNamespace)) {
String resourceName = lane.getAttributeValue("name");
for (Element flowNodeRef : lane.getChildren("flowNodeRef", bpmnNamespace)) {
String elementId = flowNodeRef.getText();
Integer nId = identifiersToNodeIds.get(elementId);
if (!resourceReferences.containsKey(nId)) {
resourceReferences.put(nId, new TreeSet<String>());
}
resourceReferences.get(nId).add(resourceName);
}
}
}
for (Integer nId : boundaryEvents.keySet()) {
Element boundaryEvent = boundaryEvents.get(nId);
// interrupting or not?
// initially true, because at least "Camunda Modeler" does not set the cancelActivity value if it is an interrupting activity
boolean cancelActivity;
if (boundaryEvent.getAttributeValue("cancelActivity") != null) {
cancelActivity = Boolean.valueOf(boundaryEvent.getAttributeValue("cancelActivity"));
} else {
cancelActivity = true;
}
cancelActivities.put(nId, cancelActivity);
// attached to?
String attachedTo = boundaryEvent.getAttributeValue("attachedToRef");
int nodeIdOfAttachedTo = identifiersToNodeIds.get(attachedTo);
if (!referencesToBoundaryEvents.containsKey(nodeIdOfAttachedTo)) {
referencesToBoundaryEvents.put(nodeIdOfAttachedTo, new ArrayList<Integer>());
}
referencesToBoundaryEvents.get(nodeIdOfAttachedTo).add(nId);
}
// System.out.println("-----------NORMALFLOW-------------");
for (Integer nId : sequenceFlows.keySet()) {
Element sequenceFlow = sequenceFlows.get(nId);
String sourceRef = sequenceFlow.getAttributeValue("sourceRef");
String targetRef = sequenceFlow.getAttributeValue("targetRef");
int sourceId = identifiersToNodeIds.get(sourceRef);
int targetId = identifiersToNodeIds.get(targetRef);
graph.addEdge(sourceId, nId);
// System.out.println(identifiers.get(sourceId)+" -> "+identifiers.get(nId)+" -> "+identifiers.get(targetId));
graph.addEdge(nId, targetId);
}
// System.out.println("-----------DATAFLOWOUT-------------");
for (Integer nId : tasksWithDataInputAssociations.keySet()) {
List<Element> dataInputAssociations = tasksWithDataInputAssociations.get(nId);
for (Element elem : dataInputAssociations) {
String sourceRef = elem.getChild("sourceRef", bpmnNamespace).getText();
if (identifiersToNodeIds.containsKey(sourceRef)) {
int dataObjectNodeId = identifiersToNodeIds.get(sourceRef);
// System.out.println(identifiers.get(dataObjectNodeId)+" -> "+identifiers.get(nId));
dataObjectsGraph.addEdge(dataObjectNodeId, nId);
/*Map<Integer, Node<Integer>> nodes = dataObjectsGraph.getNodes();
Node<Integer> currentNode = nodes.get(nId);
currentNode.setId(identifiers.get(nId));
currentNode = nodes.get(dataObjectNodeId);
currentNode.setId(identifiers.get(dataObjectNodeId));*/
}
// String targetRef = elem.getChild("targetRef", bpmnNamespace).getText();
}
}
// System.out.println("-----------DATAFLOWIN-------------");
for (Integer nId : tasksWithDataOutputAssociations.keySet()) {
List<Element> dataOutputAssociations = tasksWithDataOutputAssociations.get(nId);
for (Element elem : dataOutputAssociations) {
// String sourceRef = elem.getChild("sourceRef", bpmnNamespace).getText();
String targetRef = elem.getChild("targetRef", bpmnNamespace).getText();
if (identifiersToNodeIds.containsKey(targetRef)) {
int dataObjectNodeId = identifiersToNodeIds.get(targetRef);
// System.out.println(identifiers.get(nId)+" -> "+identifiers.get(dataObjectNodeId));
dataObjectsGraph.addEdge(nId, dataObjectNodeId);
/*Map<Integer, Node<Integer>> nodes = dataObjectsGraph.getNodes();
Node<Integer> currentNode = nodes.get(nId);
currentNode.setId(identifiers.get(nId));
currentNode = nodes.get(dataObjectNodeId);
currentNode.setId(identifiers.get(dataObjectNodeId));*/
}
}
}
ProcessModel processModel = new ProcessModel(processId, process, graph, identifiers, identifiersToNodeIds, displayNames, subProcesses, calledElementsOfCallActivities, tasks, gateways, eventTypes);
processModel.setName(processName);
processModel.setNodeAttributes(nodeAttributes);
processModel.setConditionExpressions(conditionExpressions);
processModel.setResourceReferences(resourceReferences);
processModel.setEventDefinitions(eventDefinitions);
processModel.setCancelActivities(cancelActivities);
processModel.setReferencesToBoundaryEvents(referencesToBoundaryEvents);
processModel.setDataObjectsGraph(dataObjectsGraph);
processModel.setDataObjectTypes(dataObjectTypes);
processModel.setDataObjectReferences(dataObjectReferences);
processModel.setBatchActivities(batchActivities);
batchActivities.forEach((key, value) -> value.setProcessModel(processModel));
for (Integer subProcessId : subProcesses.keySet()) {
ProcessModel subProcessModel = subProcesses.get(subProcessId);
subProcessModel.setNodeIdInParent(subProcessId);
subProcessModel.setParent(processModel);
}
// System.out.println(dataObjectsGraph);
return processModel;
}
use of de.hpi.bpt.scylla.model.process.node.EventDefinitionType in project scylla by bptlab.
the class BoundaryEventPluginUtils method createTimerBoundaryEvents.
// I did not touch this for now. Hopefully could be deleted in future.
private void createTimerBoundaryEvents(SimulationModel model, BoundaryObject bo, double startOfInterval, double endOfInterval) throws ScyllaRuntimeException {
double beginTimeOfTask = bo.getBeginTimeOfTask();
ProcessSimulationComponents desmojObjects = bo.getDesmojObjects();
ProcessModel processModel = desmojObjects.getProcessModel();
Map<Integer, EventType> eventTypes = processModel.getEventTypes();
Map<Integer, Boolean> cancelActivities = processModel.getCancelActivities();
List<Integer> referenceToBoundaryEvents = bo.getReferenceToBoundaryEvents();
for (Integer nId : referenceToBoundaryEvents) {
boolean timerEventIsInterrupting = false;
EventType eventType = eventTypes.get(nId);
if (eventType == EventType.BOUNDARY) {
Map<EventDefinitionType, Map<String, String>> eventDefinitions = processModel.getEventDefinitions().get(nId);
Map<String, String> definitionAttributes = eventDefinitions.get(EventDefinitionType.TIMER);
if (definitionAttributes != null) {
// if boundary event is timer event
double timeUntilWhenTimerEventsAreCreated = bo.getTimeUntilWhenTimerEventsAreCreated();
if (definitionAttributes.get("timeDuration") != null) {
// ISO 8601 duration
String timeDuration = definitionAttributes.get("timeDuration");
if (beginTimeOfTask != timeUntilWhenTimerEventsAreCreated) {
// timer event has already been created once, skip
continue;
}
Duration javaDuration = Duration.parse(timeDuration);
double duration = javaDuration.get(ChronoUnit.SECONDS);
if (duration == 0) {
continue;
}
double timeToSchedule = beginTimeOfTask + duration;
if (timeToSchedule < endOfInterval) {
String displayName = processModel.getDisplayNames().get(nId);
if (displayName == null) {
displayName = processModel.getIdentifiers().get(nId);
}
String source = bo.getSource();
ProcessInstance processInstance = bo.getProcessInstance();
TimeInstant timeInstant = new TimeInstant(startOfInterval, TimeUnit.SECONDS);
BPMNIntermediateEvent event = new BPMNIntermediateEvent(model, source, timeInstant, desmojObjects, processInstance, nId);
bo.getBoundaryEventsToSchedule().computeIfAbsent(timeToSchedule, k -> new ArrayList<BPMNIntermediateEvent>());
bo.getBoundaryEventsToSchedule().get(timeToSchedule).add(event);
String message = "Schedule boundary timer event: " + displayName;
bo.getMessagesOfBoundaryEventsToSchedule().computeIfAbsent(timeToSchedule, k -> new ArrayList<String>());
bo.getMessagesOfBoundaryEventsToSchedule().get(timeToSchedule).add(message);
// timeUntilWhenTimerEventsAreCreated = timeToSchedule;
}
// TODO fix boundary
timeUntilWhenTimerEventsAreCreated = timeToSchedule;
} else if (definitionAttributes.get("timeCycle") != null) {
// ISO 8601 repeating time interval:
String timeCycle = definitionAttributes.get("timeCycle");
// Rn/[ISO 8601 duration] where n
// (optional) for number of
// recurrences
// ["Rn"], "[ISO 8601 duration]"]
String[] recurrencesAndDuration = timeCycle.split("/");
String recurrencesString = recurrencesAndDuration[0];
String timeDurationString = recurrencesAndDuration[1];
Integer recurrencesMax = null;
if (recurrencesString.length() > 1) {
recurrencesMax = Integer.parseInt(recurrencesString.substring(1, recurrencesString.length()));
timerEventIsInterrupting = cancelActivities.get(nId);
if (timerEventIsInterrupting) {
recurrencesMax = 1;
}
}
Duration javaDuration = Duration.parse(timeDurationString);
double duration = javaDuration.get(ChronoUnit.SECONDS);
if (duration == 0 || recurrencesMax != null && recurrencesMax == 0) {
continue;
}
double timeToSchedule = beginTimeOfTask;
int actualNumberOfOccurrences = 0;
boolean recurrencesMaxExceeded = false;
while (timeToSchedule <= timeUntilWhenTimerEventsAreCreated) {
timeToSchedule += duration;
actualNumberOfOccurrences++;
if (recurrencesMax != null && actualNumberOfOccurrences > recurrencesMax) {
recurrencesMaxExceeded = true;
break;
}
}
if (recurrencesMaxExceeded) {
continue;
}
while (timeToSchedule <= endOfInterval) {
// add as many timer events for scheduling as possible (lots of them if timer event is
// non-interrupting,
// only one if it is interrupting
String displayName = processModel.getDisplayNames().get(nId);
if (displayName == null) {
displayName = processModel.getIdentifiers().get(nId);
}
String source = bo.getSource();
ProcessInstance processInstance = bo.getProcessInstance();
TimeInstant timeInstant = new TimeInstant(startOfInterval, TimeUnit.SECONDS);
BPMNIntermediateEvent event = new BPMNIntermediateEvent(model, source, timeInstant, desmojObjects, processInstance, nId);
bo.getBoundaryEventsToSchedule().computeIfAbsent(timeToSchedule, k -> new ArrayList<BPMNIntermediateEvent>());
bo.getBoundaryEventsToSchedule().get(timeToSchedule).add(event);
String message = "Schedule boundary timer event: " + displayName;
bo.getMessagesOfBoundaryEventsToSchedule().computeIfAbsent(timeToSchedule, k -> new ArrayList<String>());
bo.getMessagesOfBoundaryEventsToSchedule().get(timeToSchedule).add(message);
actualNumberOfOccurrences++;
if (recurrencesMax != null && actualNumberOfOccurrences == recurrencesMax) {
// recurrencesMaxExceeded = true;
break;
}
timeToSchedule += duration;
}
timeUntilWhenTimerEventsAreCreated = timeToSchedule;
} else {
// TODO support timeDate attributes?
String identifier = processModel.getIdentifiers().get(nId);
DebugLogger.log("Timer event " + identifier + " has no timer definition, skip.");
continue;
}
bo.setTimeUntilWhenTimerEventsAreCreated(timeUntilWhenTimerEventsAreCreated);
}
}
}
}
use of de.hpi.bpt.scylla.model.process.node.EventDefinitionType in project scylla by bptlab.
the class BPMNTimerPluginUtils method getTimeSpanUntilNextEvent.
/**
* Returns TimeSpan object (duration and timeUnit) representing time until next event. Available for timer events.
*
* @param processModel
* @param nodeId
* @return
* @return
*/
static TimeSpan getTimeSpanUntilNextEvent(ProcessModel processModel, int nodeId) {
TimeSpan timeSpan = null;
Map<EventDefinitionType, Map<String, String>> definitions = processModel.getEventDefinitions().get(nodeId);
if (definitions != null) {
if (definitions.get(EventDefinitionType.TIMER) != null) {
Map<String, String> eventAttributes = definitions.get(EventDefinitionType.TIMER);
// String timeDate = eventAttributes.get("timeDate");
// if (timeDate != null) {
// SimpleDateFormat formatter = new SimpleDateFormat("yyyy-MM-dd'T'HH:mm:ssZ");
// Date date = formatter.parse(timeDate);
// }
// String timeCycle = eventAttributes.get("timeCycle");
String timeDuration = eventAttributes.get("timeDuration");
Duration jtDuration = Duration.parse(timeDuration);
long duration = jtDuration.getSeconds();
TimeUnit timeUnit = TimeUnit.SECONDS;
timeSpan = new TimeSpan(duration, timeUnit);
}
}
return timeSpan;
}
use of de.hpi.bpt.scylla.model.process.node.EventDefinitionType in project scylla by bptlab.
the class BPMNEscalationBPMNEEPlugin method eventRoutine.
@Override
public void eventRoutine(BPMNEndEvent desmojEvent, ProcessInstance processInstance) throws ScyllaRuntimeException {
SimulationModel model = (SimulationModel) desmojEvent.getModel();
ProcessModel processModel = processInstance.getProcessModel();
int nodeId = desmojEvent.getNodeId();
Map<EventDefinitionType, Map<String, String>> definitions = processModel.getEventDefinitions().get(nodeId);
ProcessSimulationComponents desmojObjects = desmojEvent.getDesmojObjects();
boolean showInTrace = model.traceIsOn();
try {
for (EventDefinitionType definition : definitions.keySet()) {
if (definition == EventDefinitionType.ESCALATION) {
if (processModel.getParent() != null) {
Map<String, String> eventAttributes = processModel.getEventDefinitions().get(nodeId).get(definition);
String escalationRef = eventAttributes.get("escalationRef");
// Map<String, Map<String, String>> escalations =
// model.getCommonProcessElements().getEscalations();
// Map<String, String> escalation = escalations.get("escalationRef");
ProcessSimulationComponents parentDesmojObjects = desmojObjects.getParent();
ProcessModel parentModel = processModel.getParent();
int nodeIdInParent = processModel.getNodeIdInParent();
Integer nextNodeId = null;
// find boundary event of parentModel which has the same escalationRef
List<Integer> referencesToBoundaryEvents = parentModel.getReferencesToBoundaryEvents().get(nodeIdInParent);
for (int nId : referencesToBoundaryEvents) {
Map<EventDefinitionType, Map<String, String>> boundaryEventDefinitions = parentModel.getEventDefinitions().get(nId);
Map<String, String> boundaryEscalationEventDefinition = boundaryEventDefinitions.get(EventDefinitionType.ESCALATION);
if (boundaryEscalationEventDefinition != null) {
if (escalationRef.equals(boundaryEscalationEventDefinition.get("escalationRef"))) {
nextNodeId = nId;
break;
}
}
}
if (nextNodeId == null) {
DebugLogger.error("Could not find referenced escalation " + escalationRef + ".");
SimulationUtils.abort(model, processInstance, nodeId, showInTrace);
return;
}
ProcessInstance parentProcessInstance = processInstance.getParent();
List<ScyllaEvent> events = SimulationUtils.createEventsForNextNode(desmojEvent, parentDesmojObjects, parentProcessInstance, nextNodeId);
TimeSpan timeSpan = new TimeSpan(0);
/**
* first event in the map is the node that comes after the subprocess when normal behavior
* applies, so remove it;
*/
int indexOfTaskTerminateEvent = 0;
desmojEvent.getNextEventMap().remove(indexOfTaskTerminateEvent);
desmojEvent.getTimeSpanToNextEventMap().remove(indexOfTaskTerminateEvent);
for (ScyllaEvent event : events) {
int index = desmojEvent.getNewEventIndex();
desmojEvent.getNextEventMap().put(index, event);
desmojEvent.getTimeSpanToNextEventMap().put(index, timeSpan);
}
processInstance.cancel();
}
}
}
} catch (NodeNotFoundException | ScyllaValidationException e) {
DebugLogger.error(e.getMessage());
e.printStackTrace();
SimulationUtils.abort(model, processInstance, nodeId, showInTrace);
}
}
use of de.hpi.bpt.scylla.model.process.node.EventDefinitionType in project scylla by bptlab.
the class BPMNTimerPIGEPlugin method eventRoutine.
@Override
public void eventRoutine(ProcessInstanceGenerationEvent desmojEvent, ProcessInstance processInstance) throws ScyllaRuntimeException {
SimulationModel model = (SimulationModel) desmojEvent.getModel();
String processId = desmojEvent.getProcessId();
ProcessSimulationComponents desmojObjects = model.getDesmojObjectsMap().get(processId);
ProcessModel processModel = desmojObjects.getProcessModel();
Integer startNodeId;
try {
startNodeId = processModel.getStartNode();
if (desmojObjects.getDistributions().get(startNodeId) == null) {
// no arrival rate defined, check if start event is timer event and use value from there
Map<EventDefinitionType, Map<String, String>> eventDefinitions = processModel.getEventDefinitions().get(startNodeId);
Map<String, String> definitionAttributes = eventDefinitions.get(EventDefinitionType.TIMER);
if (definitionAttributes != null) {
// if start event is timer event
// ISO 8601 duration
String timeDuration = definitionAttributes.get("timeCycle");
if (timeDuration == null) {
String identifier = processModel.getIdentifiers().get(startNodeId);
DebugLogger.log("Timer event " + identifier + " has no timer definition, skip.");
} else // TODO support timeDate and timeDuration attributes?
{
Duration javaDuration = Duration.parse(timeDuration);
long duration = javaDuration.get(ChronoUnit.SECONDS);
TimeUnit unit = TimeUnit.SECONDS;
TimeSpan timeSpan = new TimeSpan(duration, unit);
desmojEvent.setTimeSpanToNextProcessInstance(timeSpan);
}
}
}
} catch (NodeNotFoundException | MultipleStartNodesException | NoStartNodeException e) {
DebugLogger.error(e.getMessage());
DebugLogger.log("Error during instantiation of process model " + processModel.getId() + ".");
}
}
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