@Override
public void init(EList<FragmentSubstitution> fragmentSubstitutions) {
fsMap = new HashMap<FragmentSubstitution, FragmentSubstitutionHolder>();
try {
for (FragmentSubstitution fragment : fragmentSubstitutions)
fsMap.put(fragment, new FragmentSubstitutionHolder(fragment));
// NOTE: the call of computeCopyBaseModel should be exactly here,
// since FragmentSubstitutionHolder actually loads all resources as
// a side effect
// which we lately use to define 'base model'
// computeCopyBaseModel();
if (detectIntersection) {
placementCrossingFinder = new PlacementCrossingFinder(fsMap.values());
} else {
context.getLogger().warn("IntersectionDetection mode is not set!");
}
adjacentFinder =
new AdjacentFinderImpl(new BasicEList<FragmentSubstitutionHolder>(fsMap.values()));
adjacentResolver = new AdjacentResolverImpl(adjacentFinder);
placementInReplacementFinder = new ReplacPlacCotainmentFinder(fsMap.values());
placementInReplacementResolver =
new ReplacPlacCotainmentResolver(placementInReplacementFinder);
} catch (BasicBVREngineException e) {
throw new UnsupportedOperationException(e);
}
}
/**
* Handle incoming message for this device by forwarding it to all features that this device
* supports
*
* @param fromPort port from which the message come in
* @param msg the incoming message
*/
public void handleMessage(String fromPort, Msg msg) {
synchronized (m_lastMsgReceived) {
m_lastMsgReceived = System.currentTimeMillis();
}
synchronized (m_features) {
// first update all features that are
// not status features
for (DeviceFeature f : m_features.values()) {
if (!f.isStatusFeature()) {
if (f.handleMessage(msg, fromPort)) {
// handled a reply to a query,
// mark it as processed
logger.trace("handled reply of direct: {}", f);
setFeatureQueried(null);
break;
}
}
}
// then update all the status features,
// e.g. when the device was last updated
for (DeviceFeature f : m_features.values()) {
if (f.isStatusFeature()) {
f.handleMessage(msg, fromPort);
}
}
}
}
/*
* public HashMap getLeafElements() { HashMap map = new HashMap(); Object[]
* elts = dataElements.values().toArray(); for (int j=0; j<elts.length; j++)
* { PDMDataElement data = (PDMDataElement) elts[j];
* map.put(data.getID(),data); } Object[] ops =
* operations.values().toArray(); for (int i=0; i<ops.length; i++){
* PDMOperation op = (PDMOperation) ops[i]; if
* (!(op.getInputElements().isEmpty())){ HashMap outs =
* op.getOutputElements(); Object[] outArray = outs.values().toArray(); for
* (int j=0; j<outArray.length; j++) { PDMDataElement d = (PDMDataElement)
* outArray[j]; map.remove(d.getID()); } } } return map; }
*/
public HashMap getLeafElements() {
HashMap result = new HashMap();
HashSet leafOps = getLeafOperations();
if (!(leafOps.isEmpty())) {
Iterator it = leafOps.iterator();
while (it.hasNext()) {
PDMOperation op = (PDMOperation) it.next();
PDMDataElement data = op.getOutputElement();
result.put(data.getID(), data);
}
} else {
Object[] elts = dataElements.values().toArray();
for (int j = 0; j < elts.length; j++) {
PDMDataElement data = (PDMDataElement) elts[j];
result.put(data.getID(), data);
}
Object[] ops = operations.values().toArray();
for (int i = 0; i < ops.length; i++) {
PDMOperation op = (PDMOperation) ops[i];
HashMap outs = op.getOutputElements();
Object[] outArray = outs.values().toArray();
for (int j = 0; j < outArray.length; j++) {
PDMDataElement d = (PDMDataElement) outArray[j];
result.remove(d.getID());
}
}
}
return result;
}
// recursive iterate hierarchical level of Sam to get all connectors from sub level.
private void subCompositionConnectorsToCompositionModel(Component component) {
HashMap<String, Connector> subConnectors = component.subCompositionModel.getConnectors();
for (Connector subConnector : subConnectors.values()) {
convertSamConnectorToTransition(subConnector);
}
HashMap<String, Component> subComponents = component.subCompositionModel.getComponents();
for (Component subComponent : subComponents.values()) {
if (subComponent.isSetSubComposition) {
subCompositionConnectorsToCompositionModel(subComponent);
// HashMap<String, Component> subsubComponents =
// subComponent.subCompositionModel.getComponents();
// for(Component subsubComponent : subsubComponents.values()){
// subCompositionConnectorsToCompositionModel(subsubComponent); //resursive call it self
// }
}
// else{
// HashMap<String, Connector> subConnectors =
// subComponent.subCompositionModel.getConnectors();
// for(Connector subConnector : subConnectors.values()){
// convertSamConnectorToTransition(subConnector);
// }
// }
}
}
protected void killConnections(ibis.ipl.IbisIdentifier corpse) {
SendPort[] sps;
ReceivePort[] rps;
synchronized (this) {
sps = sendPorts.values().toArray(new SendPort[sendPorts.size()]);
rps = receivePorts.values().toArray(new ReceivePort[receivePorts.size()]);
}
for (SendPort s : sps) {
try {
s.killConnectionsWith(corpse);
} catch (Throwable e) {
if (logger.isDebugEnabled()) {
logger.debug("Got exception from killConnectionsWith", e);
}
}
}
for (ReceivePort p : rps) {
try {
p.killConnectionsWith(corpse);
} catch (Throwable e) {
if (logger.isDebugEnabled()) {
logger.debug("Got exception from killConnectionsWith", e);
}
}
}
}
public static HashMap<String, JSONObject> getGates(JSONObject model) {
HashMap<String, JSONObject> resultHash = new HashMap<String, JSONObject>();
HashMap<String, JSONObject> worldJSONs = getWorlds(model);
for (JSONObject worldJSON : worldJSONs.values()) {
JSONObject gateJSON = worldJSON.optJSONObject("gate");
if (gateJSON != null) {
String objectId = gateJSON.optString("itemId");
if (!TextUtils.isEmpty(objectId)) {
resultHash.put(objectId, gateJSON);
}
}
}
HashMap<String, JSONObject> missionJSONs = getMissions(model);
for (JSONObject missionJSON : missionJSONs.values()) {
JSONObject gateJSON = missionJSON.optJSONObject("gate");
if (gateJSON != null) {
String objectId = gateJSON.optString("itemId");
if (!TextUtils.isEmpty(objectId)) {
resultHash.put(objectId, gateJSON);
}
}
}
findInternalLists(resultHash, new String[] {"GatesListAND", "GatesListOR"}, "gates");
return resultHash;
}
private ArrayList<StudentPersonalType> fetchStudents(
HashMap<String, StudentPersonalType> studentMap, PagingInfo pagingInfo) {
ArrayList<StudentPersonalType> studentList = new ArrayList<StudentPersonalType>();
if (pagingInfo == null) // return all
{
studentList.addAll(studentMap.values());
} else {
pagingInfo.setTotalObjects(studentMap.size());
if ((pagingInfo.getPageSize() * (pagingInfo.getCurrentPageNo())) > studentMap.size()) {
return null; // Requested page outside of limits.
}
// retrieve applicable students
Collection<StudentPersonalType> allStudent = studentMap.values();
int i = 0;
int startPos = pagingInfo.getPageSize() * pagingInfo.getCurrentPageNo();
int endPos = startPos + pagingInfo.getPageSize();
for (Iterator<StudentPersonalType> iter = allStudent.iterator(); iter.hasNext(); ) {
StudentPersonalType student = iter.next();
if ((i >= startPos) && (i < endPos)) {
studentList.add(student);
}
i++;
}
// Set the number of object that are returned in the paging info. Will ensure HTTP headers are
// set correctly.
pagingInfo.setPageSize(studentList.size());
}
return studentList;
}
/**
* deletes all items translations for a given parent
*
* @param parentId
* @param parentType
*/
public void deleteTranslationsForParent(Long parentId, Translation.ParentType parentType) {
HashMap<String, Translation> trans = findTranslations(parentType, parentId);
Collection<Translation> values = trans.values();
if (values != null && values.size() > 0) {
delete(trans.values());
}
}
/** Test that each element can have its own format */
public void testValidateElement() {
recreateViewModel();
String preferenceFormat = IFormattedValues.NATURAL_FORMAT;
setInput(preferenceFormat);
// set each element to the same element format different than the preference format, and verify
HashMap<String, ElementFormatSetting> map = new HashMap<String, ElementFormatSetting>();
String[] format = {IFormattedValues.HEX_FORMAT};
makeElementFormatSetting(fViewer, TreePath.EMPTY, format, -1, 0, map);
ArrayList<ElementFormatSetting> elementFormats =
new ArrayList<ElementFormatSetting>(map.values());
setFormatAndValidate(preferenceFormat, elementFormats, elementFormats, true, false, false);
// element of same level use the same format and different levels have different formats, and
// verify
map.clear();
format =
new String[] {
IFormattedValues.HEX_FORMAT,
IFormattedValues.DECIMAL_FORMAT,
IFormattedValues.OCTAL_FORMAT,
IFormattedValues.BINARY_FORMAT,
IFormattedValues.NATURAL_FORMAT
};
makeElementFormatSetting(fViewer, TreePath.EMPTY, format, -1, 0, map);
elementFormats = new ArrayList<ElementFormatSetting>(map.values());
setFormatAndValidate(preferenceFormat, elementFormats, elementFormats, false, false, false);
}
public void createProteinList() {
minProteins = new HashMap<String, Protein>();
for (Peptide pg : minPeptides.values()) {
String pepName = pg.getSequence();
for (String protName : pg.getProteins()) {
if (minProteins.containsKey(protName)) {
Protein prot = minProteins.get(protName);
prot.addPeptide(pepName);
} else {
Protein prot = new Protein();
prot.setName(protName);
prot.addPeptide(pepName);
prot.setCluster(cluster_num);
minProteins.put(protName, prot);
}
}
}
for (Protein p : minProteins.values()) {
ProteinInfo pInfo = new ProteinInfo();
pInfo.setName(p.getName());
pInfo.setDescription(p.getDescription());
pInfo.setLength(p.getLength());
MassSieveFrame.addProtein(pInfo);
}
}
public void save() {
// Sort list, add country to top, save types, put ids into type map
List<RegionType> regionTypeList = new ArrayList(typeHashMap.values());
Collections.sort(
regionTypeList,
(object1, object2) -> object1.getShortName().compareTo(object2.getShortName()));
regionTypeList.add(0, new RegionType(COUNTRY_ID, COUNTRY_TYPE));
// Add country to list after sort.
typeHashMap.put(COUNTRY_TYPE, new RegionType(COUNTRY_ID, COUNTRY_TYPE));
// Save
for (RegionType regionType : regionTypeList) {
regionType.identity = insertRegionType(regionType);
}
// Save countries put ids into country map
List<Country> countryList = new ArrayList(countryHashMap.values());
Collections.sort(
countryList,
(object1, object2) -> object1.getShortName().compareTo(object2.getShortName()));
for (Country country : countryList) {
country.identity = insertCountry(country);
}
// Save parent regions put ids into region map
List<Region> regionList = new ArrayList(regionHashMap.values());
Collections.sort(
regionList, (object1, object2) -> object1.getShortName().compareTo(object2.getShortName()));
for (Region region : regionList) {
if (region.parentCode == null || region.parentCode.isEmpty()) {
region.identity = insertRegion(region);
}
}
// Save child regions
for (Region region : regionList) {
if (region.parentCode != null && !region.parentCode.isEmpty()) {
region.identity = insertRegion(region);
}
}
// Save Region path to root, TODO really brute force, this could be SO better.
regionList = new ArrayList(regionHashMap.values());
Collections.sort(
regionList, (object1, object2) -> object1.getShortName().compareTo(object2.getShortName()));
for (Region region : regionList) {
if (!region.categoryName.equals(COUNTRY_TYPE)) {
// region is not a country and so has a parent list. Country is the current top of the list.
if (region.parentCode == null || region.parentCode.isEmpty()) {
// if region has no parent, record country as parent node @ level 1 and leaf region as 2
insertNodePath(region.identity, countryHashMap.get(region.countryCode).identity, 1);
insertNodePath(region.identity, region.identity, 2);
} else {
// if region has a parent, record country as parent node @ level 1, parent region as 2 and
// leaf region as 3
insertNodePath(region.identity, countryHashMap.get(region.countryCode).identity, 1);
insertNodePath(region.identity, regionHashMap.get(region.parentCode).identity, 2);
insertNodePath(region.identity, region.identity, 3);
}
}
}
}
/**
* If empty, will return false.
*
* @return true if at least one value and all values are the same.
*/
public boolean allValuesAreSame() {
if (m_values.isEmpty()) return false;
final int first = m_values.values().iterator().next();
for (final int value : m_values.values()) {
if (first != value) return false;
}
return true;
}
/**
* @return f[] where f[i]==c indicates there were c splits which were present in exactly i trees.
*/
public int[] countByFrequency() {
int max = 0;
if (splitsAddedOnlyViaTrees) max = nTrees;
else for (int n : counts.values()) max = Math.max(max, n);
int[] freq = new int[max];
for (int i : counts.values()) freq[i - 1]++;
return freq;
}
private String toStringSingle() {
String indent = " ";
if (sf == null && children.size() > 0)
return children.values().iterator().next().toStringSingle();
if (children.size() == 0) return indent + sf;
return children.values().iterator().next().toStringSingle() + "\n" + indent + sf;
}
void searchAccountByBalance() {
System.out.println(
"\nEnter your Choice\n1.Exact Balance\n2.More than Balance\n3.Less than Balance\n4.Balance Range");
Scanner in = new Scanner(System.in);
int amount;
int choice = in.nextInt();
boolean flag = true;
switch (choice) {
case 1:
System.out.println("Enter the Amount to be search");
amount = in.nextInt();
for (Accounts a : accounts.values()) {
if (a.balance == amount) {
a.dispaly();
flag = false;
}
}
if (flag) System.out.println("No Data Found");
break;
case 2:
System.out.println("Enter the Amount to be search for equal and more");
amount = in.nextInt();
for (Accounts a : accounts.values()) {
if (a.balance >= amount) {
a.dispaly();
flag = false;
}
}
if (flag) System.out.println("No Data Found");
break;
case 3:
System.out.println("Enter the Amount to be search for equal and less");
amount = in.nextInt();
for (Accounts a : accounts.values()) {
if (a.balance <= amount) {
a.dispaly();
flag = false;
}
}
if (flag) System.out.println("No Data Found");
break;
case 4:
System.out.println("Enter the Amount range\nMinimum:");
amount = in.nextInt();
System.out.println("Maximum:");
int max = in.nextInt();
for (Accounts a : accounts.values()) {
if (a.balance >= amount && a.balance <= max) {
a.dispaly();
flag = false;
}
}
if (flag) System.out.println("No Data Found");
break;
default:
System.out.println("Worn Input");
}
}
// Adding switches and hosts to the network
public void AddSwitchesAndHostsToGraph() {
for (Switch switch_ : switches.values()) {
AddNodeToGraph(switch_.getInetAddress(), true);
}
for (Host host_ : hosts.values()) {
AddNodeToGraph(host_.getIpv4().toString(), false);
}
}
/** Gets all Genomic Data. */
private ProfileDataSummary getGenomicData(
String cancerStudyId,
HashMap<String, GeneticProfile> defaultGeneticProfileSet,
SampleList defaultSampleSet,
String geneListStr,
ArrayList<SampleList> sampleList,
HttpServletRequest request,
HttpServletResponse response)
throws IOException, ServletException, DaoException {
// parse geneList, written in the OncoPrintSpec language (except for changes by XSS clean)
double zScore =
ZScoreUtil.getZScore(
new HashSet<String>(defaultGeneticProfileSet.keySet()),
new ArrayList<GeneticProfile>(defaultGeneticProfileSet.values()),
request);
double rppaScore = ZScoreUtil.getRPPAScore(request);
ParserOutput theOncoPrintSpecParserOutput =
OncoPrintSpecificationDriver.callOncoPrintSpecParserDriver(
geneListStr,
new HashSet<String>(defaultGeneticProfileSet.keySet()),
new ArrayList<GeneticProfile>(defaultGeneticProfileSet.values()),
zScore,
rppaScore);
ArrayList<String> geneList = new ArrayList<String>();
geneList.addAll(theOncoPrintSpecParserOutput.getTheOncoPrintSpecification().listOfGenes());
ArrayList<ProfileData> profileDataList = new ArrayList<ProfileData>();
Set<String> warningUnion = new HashSet<String>();
for (GeneticProfile profile : defaultGeneticProfileSet.values()) {
try {
GetProfileData remoteCall =
new GetProfileData(
profile, geneList, StringUtils.join(defaultSampleSet.getSampleList(), " "));
ProfileData pData = remoteCall.getProfileData();
warningUnion.addAll(remoteCall.getWarnings());
profileDataList.add(pData);
} catch (IllegalArgumentException e) {
e.getStackTrace();
}
}
ProfileMerger merger = new ProfileMerger(profileDataList);
ProfileData mergedProfile = merger.getMergedProfile();
ProfileDataSummary dataSummary =
new ProfileDataSummary(
mergedProfile,
theOncoPrintSpecParserOutput.getTheOncoPrintSpecification(),
zScore,
rppaScore);
return dataSummary;
}
/** Lift of isValueValid to FiltersPanel */
public boolean isValueValid() {
for (KeywordsPanel fp : filter2keywords.values()) {
if (!fp.isValueValid()) return false;
}
for (TypesPanel tp : filter2types.values()) {
if (!tp.isValueValid()) return false;
}
if (txtFilterName.getText().length() == 0) return false;
return true;
}
protected void updateHiScore() {
// used to calculate winner
hiScore = Double.MIN_VALUE;
for (Double d : playerScore.values()) {
if (d > hiScore) hiScore = d;
}
for (Double d : teamScore.values()) {
if (d > hiScore) hiScore = d;
}
}
public Set<String> getSources() {
HashSet<String> set = new HashSet<String>();
for (ExecutableNode exNode : executableNodes.values()) {
set.add(exNode.getJobPropsSource());
}
for (FlowProps props : flowProps.values()) {
set.add(props.getSource());
}
return set;
}
public final int[] getGenes() {
HashMap<Integer, Neuron> mappedNeurons =
new HashMap<Integer, Neuron>(inputs.size() + outputs.size() + neurons.size());
// input IDs start from 0 and increase
for (int i = 0; i < inputs.size(); i++) {
inputs.get(i).ID = i;
mappedNeurons.put(i, inputs.get(i));
}
// output IDs start from -1 and decrease
for (int i = 0; i < outputs.size(); i++) {
outputs.get(i).ID = -i - 1;
mappedNeurons.put(-i - 1, outputs.get(i));
}
// neuron IDs start after input IDs and increase
for (int i = 0; i < neurons.size(); i++) {
neurons.get(i).ID = i + inputs.size();
mappedNeurons.put(i + inputs.size(), neurons.get(i));
}
// Calculate the number of connections
int numConnections = 0;
for (Neuron n : mappedNeurons.values()) numConnections += n.outgoingConnections.size();
// initiate the genes array to the exact length
int[] genes = new int[3 + (mappedNeurons.size() * 4) + (numConnections * 3)];
genes[0] = inputs.size();
genes[1] = outputs.size();
genes[2] = neurons.size();
int geneIndex = 3;
for (Neuron n : mappedNeurons.values()) {
genes[geneIndex] = n.ID;
genes[geneIndex + 1] = n.cluster.clusterNum;
genes[geneIndex + 2] = n.threshold;
genes[geneIndex + 3] = n.startingLevel;
geneIndex += 4;
}
for (Neuron n : mappedNeurons.values())
for (Connection c : n.outgoingConnections) {
genes[geneIndex] = c.source.ID;
genes[geneIndex + 1] = c.destination.ID;
genes[geneIndex + 2] = c.strength;
geneIndex += 3;
}
return genes;
}
public void createWorkFlow() {
for (BasicGeneratorGetter getter : generatorGetterGroup.values()) {
log.info("Start the generator : " + getter.getName());
getter.generator.start();
}
for (BasicExecutorGetter getter : executorGetterGroup.values()) {
log.info("Start the executor : " + getter.getName());
getter.executor.start();
}
}
@Override
public void run() {
try {
while (true) {
Log.d("graph", "foi");
if (wifi.isWifiEnabled()) {
WifiInfo wifiINFO = wifi.getConnectionInfo();
Log.d("MyDebug", "" + wifiINFO.getIpAddress());
wifi.startScan();
List<ScanResult> sr = wifi.getScanResults();
for (WifiStrengthXYSeries s : hash.values()) {
plot.removeSeries(s);
}
plot.removeMarkers();
for (ScanResult r : sr) {
WifiStrengthXYSeries series = hash.get(r.SSID);
if (series == null) {
series =
new WifiStrengthXYSeries(
r.SSID,
(r.frequency - 2407) / 5,
r.level,
ColorPool.getColor(hash.size()),
ColorPool.getTransparentColor(hash.size()));
hash.put(r.SSID, series);
} else {
series.setChannel((r.frequency - 2407) / 5);
series.setStrength(r.level);
series.update();
}
plot.addSeries(series, series.getFormatter());
plot.addMarker(
series.getMarker(activity.getResources().getConfiguration().orientation));
}
plot.redraw();
}
Thread.sleep(1000);
}
} catch (InterruptedException e) {
for (WifiStrengthXYSeries s : hash.values()) {
plot.removeSeries(s);
}
}
}
public boolean drainOutput(float amount) {
if (metals != null && metals.values().size() > 0) {
int numMetals = metals.values().size();
amount /= numMetals;
for (Object am : metals.values()) {
((MetalPair) am).amount -= amount;
}
updateCurrentAlloy();
}
return true;
}
/**
* HACK, accessed from inner class, overriden from derived class
*
* <p>sum all originators' usage arrays
*
* @param originator2usage
* @param dummySubscription
* @param bundle
* @return
*/
public double[] adjustForecastPerTariff(
HashMap<CapacityOriginator, double[]> originator2usage,
TariffSubscription dummySubscription,
CapacityBundle bundle) {
// sum all originators' usage arrays
double[] result = new double[originator2usage.values().iterator().next().length];
for (double[] usage : originator2usage.values()) {
for (int i = 0; i < result.length; ++i) {
result[i] += usage[i] / bundle.getPopulation();
}
}
return result;
}
// recursive iterate hierarchical level of Sam to get all arcs from sub level.
private void subCompositionArcsToCompositionModel(Component component) {
HashMap<String, sam_model.Arc> subArcs = component.subCompositionModel.getArcs();
for (sam_model.Arc subArc : subArcs.values()) {
convertSamArcToPNArc(subArc);
}
HashMap<String, Component> subComponents = component.subCompositionModel.getComponents();
for (Component subComponent : subComponents.values()) {
if (subComponent.isSetSubComposition) {
subCompositionArcsToCompositionModel(subComponent); // resursive call it self
}
}
}
/*
* (non-Javadoc)
*
* @see org.eclipse.jface.viewers.Viewer#inputChanged(java.lang.Object,
* java.lang.Object)
*/
protected void inputChanged(Object input, Object oldInput) {
IStylingGraphModelFactory factory = getFactory();
factory.setConnectionStyle(getConnectionStyle());
factory.setNodeStyle(getNodeStyle());
// Save the old map so we can set the size and position of any nodes
// that are the same
Map oldNodesMap = nodesMap;
Graph graph = (Graph) getControl();
graph.setSelection(new GraphNode[0]);
Iterator iterator = nodesMap.values().iterator();
while (iterator.hasNext()) {
GraphNode node = (GraphNode) iterator.next();
if (!node.isDisposed()) {
node.dispose();
}
}
iterator = connectionsMap.values().iterator();
while (iterator.hasNext()) {
GraphConnection connection = (GraphConnection) iterator.next();
if (!connection.isDisposed()) {
connection.dispose();
}
}
nodesMap = new HashMap();
connectionsMap = new HashMap();
graph = factory.createGraphModel(graph);
((Graph) getControl()).setNodeStyle(getNodeStyle());
((Graph) getControl()).setConnectionStyle(getConnectionStyle());
// check if any of the pre-existing nodes are still present
// in this case we want them to keep the same location & size
for (Iterator iter = oldNodesMap.keySet().iterator(); iter.hasNext(); ) {
Object data = iter.next();
GraphNode newNode = (GraphNode) nodesMap.get(data);
if (newNode != null) {
GraphNode oldNode = (GraphNode) oldNodesMap.get(data);
newNode.setLocation(oldNode.getLocation().x, oldNode.getLocation().y);
if (oldNode.isSizeFixed()) {
newNode.setSize(oldNode.getSize().width, oldNode.getSize().height);
}
}
}
applyLayout();
}
public void updateParsimony() {
for (Protein prot : minProteins.values()) {
for (String pepName : prot.getPeptides()) {
Peptide pep = minPeptides.get(pepName);
prot.addAssociatedProteins(pep.getProteins());
}
}
for (Protein prot : minProteins.values()) {
prot.updateParsimony(minProteins);
}
for (Protein prot : minProteins.values()) {
prot.computeParsimonyType();
}
}
private void samConnectorToCompositionModel() {
HashMap<String, Connector> samConnectors = this.samModel.getConnectors();
for (Connector connector : samConnectors.values()) {
convertSamConnectorToTransition(connector);
}
// subCompositions also has connectors
HashMap<String, Component> samComponents = this.samModel.getComponents();
for (Component component : samComponents.values()) {
if (component.isSetSubComposition) {
subCompositionConnectorsToCompositionModel(component);
}
}
}
private void samArcToCompositionModel() {
HashMap<String, sam_model.Arc> samArcs = this.samModel.getArcs();
for (sam_model.Arc arc : samArcs.values()) {
convertSamArcToPNArc(arc);
}
// subCompositions also has arcs
HashMap<String, Component> samComponents = this.samModel.getComponents();
for (Component component : samComponents.values()) {
if (component.isSetSubComposition) {
subCompositionArcsToCompositionModel(component);
}
}
}
