public static int close() {
int count = 0;
Iterator iterator = m_notUsedConnection.iterator();
while (iterator.hasNext()) {
try {
((ConnectionWrapper) iterator.next()).close();
count++;
} catch (Exception e) {
}
}
m_notUsedConnection.clear();
iterator = m_usedUsedConnection.iterator();
while (iterator.hasNext()) {
try {
ConnectionWrapper wrapper = (ConnectionWrapper) iterator.next();
wrapper.close();
if (DEBUG) {
wrapper.debugInfo.printStackTrace();
}
count++;
} catch (Exception e) {
}
}
m_usedUsedConnection.clear();
return count;
}
public boolean testSizeAddAnother() {
description = "add increases size by 1 if already in";
Iterator it = c.iterator();
precondition = new Boolean(it.hasNext());
Object e = it.hasNext() ? it.next() : new Object();
int s = c.size();
c.add(e);
return c.size() == s + 1;
}
/**
* Returns whether the following token exists.
*
* @return result
*/
private boolean more() {
if (all) return tokens.hasNext();
while (tokens.hasNext()) {
currToken = tokens.next();
if (!currToken.isMark() && !currToken.isAttachedWord()) return true;
}
return false;
}
public <T extends Anim> void clearanims(Class<T> type) {
for (Iterator<Anim> i = nanims.iterator(); i.hasNext(); ) {
Anim a = i.next();
if (type.isInstance(a)) i.remove();
}
for (Iterator<Anim> i = anims.iterator(); i.hasNext(); ) {
Anim a = i.next();
if (type.isInstance(a)) i.remove();
}
}
/**
* Method for resolving member method information: aggregating all non-static methods and
* combining annotations (to implement method-annotation inheritance)
*
* @param collectIgnored Whether to collect list of ignored methods for later retrieval
*/
public void resolveMemberMethods(MethodFilter methodFilter, boolean collectIgnored) {
_memberMethods = new AnnotatedMethodMap();
AnnotatedMethodMap mixins = new AnnotatedMethodMap();
// first: methods from the class itself
_addMemberMethods(_class, methodFilter, _memberMethods, _primaryMixIn, mixins);
// and then augment these with annotations from super-types:
for (Class<?> cls : _superTypes) {
Class<?> mixin = (_mixInResolver == null) ? null : _mixInResolver.findMixInClassFor(cls);
_addMemberMethods(cls, methodFilter, _memberMethods, mixin, mixins);
}
// Special case: mix-ins for Object.class? (to apply to ALL classes)
if (_mixInResolver != null) {
Class<?> mixin = _mixInResolver.findMixInClassFor(Object.class);
if (mixin != null) {
_addMethodMixIns(methodFilter, _memberMethods, mixin, mixins);
}
}
/* Any unmatched mix-ins? Most likely error cases (not matching
* any method); but there is one possible real use case:
* exposing Object#hashCode (alas, Object#getClass can NOT be
* exposed, see [JACKSON-140])
*/
if (!mixins.isEmpty()) {
Iterator<AnnotatedMethod> it = mixins.iterator();
while (it.hasNext()) {
AnnotatedMethod mixIn = it.next();
try {
Method m = Object.class.getDeclaredMethod(mixIn.getName(), mixIn.getParameterClasses());
if (m != null) {
AnnotatedMethod am = _constructMethod(m);
_addMixOvers(mixIn.getAnnotated(), am, false);
_memberMethods.add(am);
}
} catch (Exception e) {
}
}
}
/* And last but not least: let's remove all methods that are
* deemed to be ignorable after all annotations have been
* properly collapsed.
*/
Iterator<AnnotatedMethod> it = _memberMethods.iterator();
while (it.hasNext()) {
AnnotatedMethod am = it.next();
if (_annotationIntrospector.isIgnorableMethod(am)) {
it.remove();
if (collectIgnored) {
_ignoredMethods = ArrayBuilders.addToList(_ignoredMethods, am);
}
}
}
}
public boolean testSizeRemove() {
description = "remove decreases size by 1";
Iterator it = c.iterator();
precondition = new Boolean(it.hasNext());
Object e = it.hasNext() ? it.next() : new Object();
// precondition = new Boolean(c.contains(e));
// precondition = Boolean.TRUE;
int s = c.size();
c.remove(e);
return c.size() == s - 1;
}
/**
* Returns an array containing all installed providers that satisfy the specified* selection
* criteria, or null if no such providers have been installed. The returned providers are ordered
* according to their <a href= "#insertProviderAt(java.security.Provider, int)">preference
* order</a>.
*
* <p>The selection criteria are represented by a map. Each map entry represents a selection
* criterion. A provider is selected iff it satisfies all selection criteria. The key for any
* entry in such a map must be in one of the following two formats:
*
* <ul>
* <li><i><crypto_service>.<algorithm_or_type></i>
* <p>The cryptographic service name must not contain any dots.
* <p>The value associated with the key must be an empty string.
* <p>A provider satisfies this selection criterion iff the provider implements the
* specified algorithm or type for the specified cryptographic service.
* <li><i><crypto_service>.<algorithm_or_type> <attribute_name></i>
* <p>The cryptographic service name must not contain any dots. There must be one or more
* space charaters between the <i><algorithm_or_type></i> and the
* <i><attribute_name></i>.
* <p>The value associated with the key must be a non-empty string. A provider satisfies
* this selection criterion iff the provider implements the specified algorithm or type for
* the specified cryptographic service and its implementation meets the constraint expressed
* by the specified attribute name/value pair.
* </ul>
*
* <p>See Appendix A in the <a href= "../../../guide/security/CryptoSpec.html#AppA"> Java
* Cryptogaphy Architecture API Specification & Reference </a> for information about standard
* cryptographic service names, standard algorithm names and standard attribute names.
*
* @param filter the criteria for selecting providers. The filter is case-insensitive.
* @return all the installed providers that satisfy the selection criteria, or null if no such
* providers have been installed.
* @throws InvalidParameterException if the filter is not in the required format
* @throws NullPointerException if filter is null
* @see #getProviders(java.lang.String)
*/
public static Provider[] getProviders(Map<String, String> filter) {
// Get all installed providers first.
// Then only return those providers who satisfy the selection criteria.
Provider[] allProviders = Security.getProviders();
Set keySet = filter.keySet();
LinkedHashSet candidates = new LinkedHashSet(5);
// Returns all installed providers
// if the selection criteria is null.
if ((keySet == null) || (allProviders == null)) {
return allProviders;
}
boolean firstSearch = true;
// For each selection criterion, remove providers
// which don't satisfy the criterion from the candidate set.
for (Iterator ite = keySet.iterator(); ite.hasNext(); ) {
String key = (String) ite.next();
String value = (String) filter.get(key);
LinkedHashSet newCandidates = getAllQualifyingCandidates(key, value, allProviders);
if (firstSearch) {
candidates = newCandidates;
firstSearch = false;
}
if ((newCandidates != null) && !newCandidates.isEmpty()) {
// For each provider in the candidates set, if it
// isn't in the newCandidate set, we should remove
// it from the candidate set.
for (Iterator cansIte = candidates.iterator(); cansIte.hasNext(); ) {
Provider prov = (Provider) cansIte.next();
if (!newCandidates.contains(prov)) {
cansIte.remove();
}
}
} else {
candidates = null;
break;
}
}
if ((candidates == null) || (candidates.isEmpty())) return null;
Object[] candidatesArray = candidates.toArray();
Provider[] result = new Provider[candidatesArray.length];
for (int i = 0; i < result.length; i++) {
result[i] = (Provider) candidatesArray[i];
}
return result;
}
public String getDocString() {
StringBuffer buf = new StringBuffer();
buf.append("Example data: ");
for (Iterator<String> it = sampleStrs.iterator(); it.hasNext(); ) {
String tokStr = it.next();
buf.append("'" + tokStr + "'");
if (it.hasNext()) {
buf.append(", ");
}
}
return buf.toString();
}
public static Class<?> commonSubType(Collection<?> objects) {
Iterator<?> iterator = objects.iterator();
if (!iterator.hasNext()) return null;
Class<?> result = null;
while (iterator.hasNext()) {
Object candidate = iterator.next();
if (candidate != null) {
Class<?> candidateClass = candidate.getClass();
if (result == null) result = candidateClass;
else if (candidateClass != result && result.isAssignableFrom(candidateClass))
result = candidateClass;
}
}
return result;
}
public synchronized Collection<GarbageCollectorMXBean> getGarbageCollectorMXBeans()
throws IOException {
// TODO: How to deal with changes to the list??
if (garbageCollectorMBeans == null) {
ObjectName gcName = null;
try {
gcName = new ObjectName(GARBAGE_COLLECTOR_MXBEAN_DOMAIN_TYPE + ",*");
} catch (MalformedObjectNameException e) {
// should not reach here
assert (false);
}
Set<ObjectName> mbeans = server.queryNames(gcName, null);
if (mbeans != null) {
garbageCollectorMBeans = new ArrayList<GarbageCollectorMXBean>();
Iterator<ObjectName> iterator = mbeans.iterator();
while (iterator.hasNext()) {
ObjectName on = (ObjectName) iterator.next();
String name = GARBAGE_COLLECTOR_MXBEAN_DOMAIN_TYPE + ",name=" + on.getKeyProperty("name");
GarbageCollectorMXBean mBean =
newPlatformMXBeanProxy(server, name, GarbageCollectorMXBean.class);
garbageCollectorMBeans.add(mBean);
}
}
}
return garbageCollectorMBeans;
}
/**
* Closes given {@link #transportManagers} of this <tt>Conference</tt> and removes corresponding
* channel bundle.
*/
void closeTransportManager(TransportManager transportManager) {
synchronized (transportManagers) {
for (Iterator<IceUdpTransportManager> i = transportManagers.values().iterator();
i.hasNext(); ) {
if (i.next() == transportManager) {
i.remove();
// Presumably, we have a single association for
// transportManager.
break;
}
}
// Close manager
try {
transportManager.close();
} catch (Throwable t) {
logger.warn(
"Failed to close an IceUdpTransportManager of" + " conference " + getID() + "!", t);
// The whole point of explicitly closing the
// transportManagers of this Conference is to prevent memory
// leaks. Hence, it does not make sense to possibly leave
// TransportManagers open because a TransportManager has
// failed to close.
if (t instanceof InterruptedException) Thread.currentThread().interrupt();
else if (t instanceof ThreadDeath) throw (ThreadDeath) t;
}
}
}
/**
* Set the object to be edited.
*
* @param value The object to be edited.
*/
public void setObject(Object value) {
if (!(_type.isInstance(value))) {
throw new IllegalArgumentException(value.getClass() + " is not of type " + _type);
}
_value = value;
// Disable event generation.
_squelchChangeEvents = true;
// Iterate over each property, doing a lookup on the associated editor
// and setting the editor's value to the value of the property.
Iterator it = _prop2Editor.keySet().iterator();
while (it.hasNext()) {
PropertyDescriptor desc = (PropertyDescriptor) it.next();
PropertyEditor editor = (PropertyEditor) _prop2Editor.get(desc);
Method reader = desc.getReadMethod();
if (reader != null) {
try {
Object val = reader.invoke(_value, null);
editor.setValue(val);
} catch (IllegalAccessException ex) {
ex.printStackTrace();
} catch (InvocationTargetException ex) {
ex.getTargetException().printStackTrace();
}
}
}
// Enable event generation.
_squelchChangeEvents = false;
}
/**
* This will invoke the <code>startElement</code> callback in the <code>ContentHandler</code>.
*
* @param element <code>Element</code> used in callbacks.
* @param nsAtts <code>List</code> of namespaces to declare with the element or <code>null</code>.
*/
private void startElement(Element element, Attributes nsAtts) throws JDOMException {
String namespaceURI = element.getNamespaceURI();
String localName = element.getName();
String rawName = element.getQualifiedName();
// Allocate attribute list.
AttributesImpl atts = (nsAtts != null) ? new AttributesImpl(nsAtts) : new AttributesImpl();
List attributes = element.getAttributes();
Iterator i = attributes.iterator();
while (i.hasNext()) {
Attribute a = (Attribute) i.next();
atts.addAttribute(
a.getNamespaceURI(),
a.getName(),
a.getQualifiedName(),
getAttributeTypeName(a.getAttributeType()),
a.getValue());
}
try {
contentHandler.startElement(namespaceURI, localName, rawName, atts);
} catch (SAXException se) {
throw new JDOMException("Exception in startElement", se);
}
}
public boolean hasNext() {
if (nextProc != null) return true;
else {
if (!names.hasNext()) return false;
else {
String processorName = names.next();
Processor processor;
try {
try {
processor = (Processor) (processorCL.loadClass(processorName).newInstance());
} catch (ClassNotFoundException cnfe) {
log.error("proc.processor.not.found", processorName);
return false;
} catch (ClassCastException cce) {
log.error("proc.processor.wrong.type", processorName);
return false;
} catch (Exception e) {
log.error("proc.processor.cant.instantiate", processorName);
return false;
}
} catch (ClientCodeException e) {
throw e;
} catch (Throwable t) {
throw new AnnotationProcessingError(t);
}
nextProc = processor;
return true;
}
}
}
/**
* Remove records telling what entity caps node a contact has.
*
* @param contact the contact
*/
public void removeContactCapsNode(Contact contact) {
Caps caps = null;
String lastRemovedJid = null;
Iterator<String> iter = userCaps.keySet().iterator();
while (iter.hasNext()) {
String jid = iter.next();
if (StringUtils.parseBareAddress(jid).equals(contact.getAddress())) {
caps = userCaps.get(jid);
lastRemovedJid = jid;
iter.remove();
}
}
// fire only for the last one, at the end the event out
// of the protocol will be one and for the contact
if (caps != null) {
UserCapsNodeListener[] listeners;
synchronized (userCapsNodeListeners) {
listeners = userCapsNodeListeners.toArray(NO_USER_CAPS_NODE_LISTENERS);
}
if (listeners.length != 0) {
String nodeVer = caps.getNodeVer();
for (UserCapsNodeListener listener : listeners)
listener.userCapsNodeRemoved(lastRemovedJid, nodeVer, false);
}
}
}
/**
* Converts the form field values in the <tt>ffValuesIter</tt> into a caps string.
*
* @param ffValuesIter the {@link Iterator} containing the form field values.
* @param capsBldr a <tt>StringBuilder</tt> to which the caps string representing the form field
* values is to be appended
*/
private static void formFieldValuesToCaps(Iterator<String> ffValuesIter, StringBuilder capsBldr) {
SortedSet<String> fvs = new TreeSet<String>();
while (ffValuesIter.hasNext()) fvs.add(ffValuesIter.next());
for (String fv : fvs) capsBldr.append(fv).append('<');
}
private void deleteJsonJobs(ApplicationInfo appInfo, List<CIJob> selectedJobs)
throws PhrescoException {
try {
if (CollectionUtils.isEmpty(selectedJobs)) {
return;
}
Gson gson = new Gson();
List<CIJob> jobs = getJobs(appInfo);
if (CollectionUtils.isEmpty(jobs)) {
return;
}
// all values
Iterator<CIJob> iterator = jobs.iterator();
// deletable values
for (CIJob selectedInfo : selectedJobs) {
while (iterator.hasNext()) {
CIJob itrCiJob = iterator.next();
if (itrCiJob.getName().equals(selectedInfo.getName())) {
iterator.remove();
break;
}
}
}
writeJsonJobs(appInfo, jobs, CI_CREATE_NEW_JOBS);
} catch (Exception e) {
throw new PhrescoException(e);
}
}
public ListIterator<ICFLibAnyObj> enumerateDetails(MssCFGenContext genContext) {
final String S_ProcName = "CFInternetMssCFIterateTSecGroupIncByGroup.enumerateDetails() ";
if (genContext == null) {
throw CFLib.getDefaultExceptionFactory()
.newNullArgumentException(getClass(), S_ProcName, 1, "genContext");
}
ICFLibAnyObj genDef = genContext.getGenDef();
if (genDef == null) {
throw CFLib.getDefaultExceptionFactory()
.newNullArgumentException(getClass(), S_ProcName, 1, "genContext.getGenDef()");
}
List<ICFLibAnyObj> list = new LinkedList<ICFLibAnyObj>();
if (genDef instanceof ICFInternetTSecGroupObj) {
Iterator<ICFSecurityTSecGroupIncludeObj> elements =
((ICFInternetTSecGroupObj) genDef).getRequiredChildrenIncByGroup().iterator();
while (elements.hasNext()) {
list.add(elements.next());
}
} else {
throw CFLib.getDefaultExceptionFactory()
.newUnsupportedClassException(
getClass(), S_ProcName, "genContext.getGenDef()", genDef, "ICFInternetTSecGroupObj");
}
return (list.listIterator());
}
/**
* Returns a map of MBeans with ObjectName as the key and MBeanInfo value of a given domain. If
* domain is <tt>null</tt>, all MBeans are returned. If no MBean found, an empty map is returned.
*/
public Map<ObjectName, MBeanInfo> getMBeans(String domain) throws IOException {
ObjectName name = null;
if (domain != null) {
try {
name = new ObjectName(domain + ":*");
} catch (MalformedObjectNameException e) {
// should not reach here
assert (false);
}
}
Set<ObjectName> mbeans = server.queryNames(name, null);
Map<ObjectName, MBeanInfo> result = new HashMap<ObjectName, MBeanInfo>(mbeans.size());
Iterator<ObjectName> iterator = mbeans.iterator();
while (iterator.hasNext()) {
Object object = iterator.next();
if (object instanceof ObjectName) {
ObjectName o = (ObjectName) object;
try {
MBeanInfo info = server.getMBeanInfo(o);
result.put(o, info);
} catch (IntrospectionException e) {
// TODO: should log the error
} catch (InstanceNotFoundException e) {
// TODO: should log the error
} catch (ReflectionException e) {
// TODO: should log the error
}
}
}
return result;
}
public ListIterator<ICFLibAnyObj> enumerateDetails(MssCFGenContext genContext) {
final String S_ProcName = "CFAsteriskMssCFIterateHostNodeConfFile.enumerateDetails() ";
if (genContext == null) {
throw CFLib.getDefaultExceptionFactory()
.newNullArgumentException(getClass(), S_ProcName, 1, "genContext");
}
ICFLibAnyObj genDef = genContext.getGenDef();
if (genDef == null) {
throw CFLib.getDefaultExceptionFactory()
.newNullArgumentException(getClass(), S_ProcName, 1, "genContext.getGenDef()");
}
List<ICFLibAnyObj> list = new LinkedList<ICFLibAnyObj>();
if (genDef instanceof ICFAsteriskHostNodeObj) {
Iterator<ICFAsteriskConfigurationFileObj> elements =
((ICFAsteriskHostNodeObj) genDef).getOptionalComponentsConfFile().iterator();
while (elements.hasNext()) {
list.add(elements.next());
}
} else {
throw CFLib.getDefaultExceptionFactory()
.newUnsupportedClassException(
getClass(), S_ProcName, "genContext.getGenDef()", genDef, "ICFAsteriskHostNodeObj");
}
return (list.listIterator());
}
public void generate(JNIField field) {
String name = field.getName();
Iterator<File> keys = files.keySet().iterator();
while (keys.hasNext()) {
File key = keys.next();
String str = files.get(key);
if (str.indexOf(name) != -1) {
int modifiers = field.getModifiers();
String modifiersStr = Modifier.toString(modifiers);
output("\t");
output(modifiersStr);
if (modifiersStr.length() > 0) output(" ");
output(field.getType().getTypeSignature3(false));
output(" ");
output(field.getName());
output(" = ");
output(getFieldValue(field));
outputln(";");
usedCount++;
return;
}
}
unusedCount++;
// output("NOT USED=" + field.toString() + " \n");
}
public ListIterator<ICFLibAnyObj> enumerateDetails(MssCFGenContext genContext) {
final String S_ProcName = "CFBamMssCFIterateNumberTypeRef.enumerateDetails() ";
if (genContext == null) {
throw CFLib.getDefaultExceptionFactory()
.newNullArgumentException(getClass(), S_ProcName, 1, "genContext");
}
ICFLibAnyObj genDef = genContext.getGenDef();
if (genDef == null) {
throw CFLib.getDefaultExceptionFactory()
.newNullArgumentException(getClass(), S_ProcName, 1, "genContext.getGenDef()");
}
List<ICFLibAnyObj> list = new LinkedList<ICFLibAnyObj>();
if (genDef instanceof ICFBamNumberTypeObj) {
Iterator<ICFBamTableColObj> elements =
((ICFBamNumberTypeObj) genDef).getOptionalChildrenRef().iterator();
while (elements.hasNext()) {
list.add(elements.next());
}
} else {
throw CFLib.getDefaultExceptionFactory()
.newUnsupportedClassException(
getClass(), S_ProcName, "genContext.getGenDef()", genDef, "ICFBamNumberTypeObj");
}
return (list.listIterator());
}
/**
* ** Prints all the default values from <code>RTKey</code> and {@link RTConfig} ** to the
* specified <code>PrintStream</code>. Used for debugging/testing ** @param out The <code>
* PrintStream</code>
*/
public static void printDefaults(PrintStream out) {
/* print standard runtime entries */
Set<String> keyList = new OrderedSet<String>();
String keyGrp = null;
for (Iterator<Entry> v = RTKey.getRuntimeEntryMap().values().iterator(); v.hasNext(); ) {
Entry rtk = v.next();
if (rtk.isHelp()) {
out.println("");
out.println("# ===== " + rtk.getHelp());
} else {
Object dft = rtk.getDefault();
out.println("# --- " + rtk.getHelp());
out.println("# " + rtk.toString(dft));
String key = rtk.getKey();
keyList.add(key);
if (!key.equals(CONFIG_FILE) && RTConfig.hasProperty(key)) {
String val = RTConfig.getString(key, null);
// if ((val != null) && ((dft == null) || !val.equals(dft.toString()))) {
out.println(rtk.toString(val));
// }
}
}
}
/* orphaned entries */
RTProperties cmdLineProps = RTConfig.getConfigFileProperties();
if (cmdLineProps != null) {
boolean orphanHeader = false;
for (Iterator i = cmdLineProps.keyIterator(); i.hasNext(); ) {
Object k = i.next();
if (!k.equals(COMMAND_LINE_CONF) && !keyList.contains(k)) {
if (!orphanHeader) {
out.println("");
out.println("# ===== Other entries");
orphanHeader = true;
}
Object v = cmdLineProps.getProperty(k, null);
out.println(k + "=" + ((v != null) ? v : NULL_VALUE));
}
}
}
/* final blank line */
out.println("");
}
public String[] getCleanSql() {
if (cleanSql == null) {
// loop over all foreign key constraints
List dropForeignKeysSql = new ArrayList();
List createForeignKeysSql = new ArrayList();
Iterator iter = configuration.getTableMappings();
while (iter.hasNext()) {
Table table = (Table) iter.next();
if (table.isPhysicalTable()) {
Iterator subIter = table.getForeignKeyIterator();
while (subIter.hasNext()) {
ForeignKey fk = (ForeignKey) subIter.next();
if (fk.isPhysicalConstraint()) {
// collect the drop key constraint
dropForeignKeysSql.add(
fk.sqlDropString(
dialect,
properties.getProperty(Environment.DEFAULT_CATALOG),
properties.getProperty(Environment.DEFAULT_SCHEMA)));
createForeignKeysSql.add(
fk.sqlCreateString(
dialect,
mapping,
properties.getProperty(Environment.DEFAULT_CATALOG),
properties.getProperty(Environment.DEFAULT_SCHEMA)));
}
}
}
}
List deleteSql = new ArrayList();
iter = configuration.getTableMappings();
while (iter.hasNext()) {
Table table = (Table) iter.next();
deleteSql.add("delete from " + table.getName());
}
List cleanSqlList = new ArrayList();
cleanSqlList.addAll(dropForeignKeysSql);
cleanSqlList.addAll(deleteSql);
cleanSqlList.addAll(createForeignKeysSql);
cleanSql = (String[]) cleanSqlList.toArray(new String[cleanSqlList.size()]);
}
return cleanSql;
}
boolean closeAndRemoveResourcesInSet(Set s, Method closeMethod) {
boolean okay = true;
Set temp;
synchronized (s) {
temp = new HashSet(s);
}
for (Iterator ii = temp.iterator(); ii.hasNext(); ) {
Object rsrc = ii.next();
try {
closeMethod.invoke(rsrc, CLOSE_ARGS);
} catch (Exception e) {
Throwable t = e;
if (t instanceof InvocationTargetException)
t = ((InvocationTargetException) e).getTargetException();
logger.log(MLevel.WARNING, "An exception occurred while cleaning up a resource.", t);
// t.printStackTrace();
okay = false;
} finally {
s.remove(rsrc);
}
}
// We had to abandon the idea of simply iterating over s directly, because
// our resource close methods sometimes try to remove the resource from
// its parent Set. This is important (when the user closes the resources
// directly), but leads to ConcurrenModificationExceptions while we are
// iterating over the Set to close. So, now we iterate over a copy, but remove
// from the original Set. Since removal is idempotent, it don't matter if
// the close method already provoked a remove. Sucks that we have to copy
// the set though.
//
// Original (direct iteration) version:
//
// synchronized (s)
// {
// for (Iterator ii = s.iterator(); ii.hasNext(); )
// {
// Object rsrc = ii.next();
// try
// { closeMethod.invoke(rsrc, CLOSE_ARGS); }
// catch (Exception e)
// {
// Throwable t = e;
// if (t instanceof InvocationTargetException)
// t = ((InvocationTargetException) e).getTargetException();
// t.printStackTrace();
// okay = false;
// }
// finally
// { ii.remove(); }
// }
// }
return okay;
}
/**
* Run all remaining processors on the procStateList that have not already run this round with
* an empty set of annotations.
*/
public void runContributingProcs(RoundEnvironment re) {
if (!onProcInterator) {
Set<TypeElement> emptyTypeElements = Collections.emptySet();
while (innerIter.hasNext()) {
ProcessorState ps = innerIter.next();
if (ps.contributed) callProcessor(ps.processor, emptyTypeElements, re);
}
}
}
/**
* Print this EmitterSet readably.
*
* @return a string describing this EmitterSet
*/
public String toString() {
StringBuffer s = new StringBuffer();
s.append("Emitter Set of:\n");
Iterator<EmitterDescriptor> i = emitters.iterator();
while (i.hasNext()) s.append(i.next().toString() + "\n");
s.append("-------------\n");
return s.toString();
}
private void load_snap_from_xml(Element snap, StructureCollection structs, LinkedList tempList)
throws VisualizerLoadException {
Iterator iterator = snap.getChildren().iterator();
if (!iterator.hasNext()) throw new VisualizerLoadException("Ran out of elements");
structs.loadTitle((Element) (iterator.next()), tempList, this);
structs.calcDimsAndStartPts(tempList, this);
if (!iterator.hasNext()) return;
Element child = (Element) iterator.next();
if (child.getName().compareTo("doc_url") == 0) {
// load the doc_url
add_a_documentation_URL(child.getText().trim());
if (!iterator.hasNext()) return;
child = (Element) iterator.next();
}
if (child.getName().compareTo("pseudocode_url") == 0) {
// load the psuedocode_url
add_a_pseudocode_URL(child.getText().trim());
if (!iterator.hasNext()) return;
child = (Element) iterator.next();
}
if (child.getName().compareTo("audio_text") == 0) {
// load the psuedocode_url
add_audio_text(child.getText().trim());
if (!iterator.hasNext()) return;
child = (Element) iterator.next();
}
// create & load the individual structures, hooking them into the StructureCollection.
// linespernode : calculate it at end of loadStructure call
while (child.getName().compareTo("question_ref") != 0) {
StructureType child_struct = assignStructureType(child);
child_struct.loadStructure(child, tempList, this);
structs.addChild(child_struct);
if (!iterator.hasNext()) return;
child = (Element) iterator.next();
}
if (child.getName().compareTo("question_ref") == 0) {
// set up question ref
add_a_question_xml(child.getAttributeValue("ref"));
} else
// should never happen
throw new VisualizerLoadException(
"Expected question_ref element, but found " + child.getName());
if (iterator.hasNext()) {
child = (Element) iterator.next();
throw new VisualizerLoadException(
"Found " + child.getName() + " when expecting end of snap.");
}
} // load_snap_from_xml
/**
* returns a list of all IA32_ opt compiler operators that do not correspond to real IA32 opcodes
* handled by the assembler. These are all supposed to have been removed by the time the assembler
* is called, so the assembler actually seeing such an opcode is an internal compiler error. This
* set is used during generating of error checking code.
*
* @param emittedOpcodes the set of IA32 opcodes the assembler understands.
* @return the set of IA32 opt operators that the assembler does not understand.
*/
private static Set<String> getErrorOpcodes(Set<String> emittedOpcodes) {
Iterator<String> e = OperatorFormatTables.getOpcodes();
Set<String> errorOpcodes = new HashSet<String>();
while (e.hasNext()) {
String opcode = (String) e.next();
if (!emittedOpcodes.contains(opcode)) errorOpcodes.add(opcode);
}
return errorOpcodes;
}
/**
* Given an IA32 opcode, return the set of opt compiler IA32_ operators that translate to it.
* There is, by and large, a one-to-one mapping in each each IA332_ opt operator represents an
* IA32 opcde, so this method might seem useless. However, there are some special cases, notably
* for operand size. In this case, an opt operator of the form ADD__B would mean use the ADD IA32
* opcode with a byte operand size.
*/
private static Set<String> getMatchingOperators(String lowLevelOpcode) {
Iterator<String> e = OperatorFormatTables.getOpcodes();
Set<String> matchingOperators = new HashSet<String>();
while (e.hasNext()) {
String o = (String) e.next();
if (o.equals(lowLevelOpcode) || o.startsWith(lowLevelOpcode + "__")) matchingOperators.add(o);
}
return matchingOperators;
}