/**
* Scan all output dirs for artifacts and remove those files (artifacts?) that are not recognized
* as such, in the javac_state file.
*/
public void removeUnidentifiedArtifacts() {
Set<File> allKnownArtifacts = new HashSet<>();
for (Package pkg : prev.packages().values()) {
for (File f : pkg.artifacts().values()) {
allKnownArtifacts.add(f);
}
}
// Do not forget about javac_state....
allKnownArtifacts.add(javacState);
for (File f : binArtifacts) {
if (!allKnownArtifacts.contains(f)) {
Log.debug("Removing " + f.getPath() + " since it is unknown to the javac_state.");
f.delete();
}
}
for (File f : headerArtifacts) {
if (!allKnownArtifacts.contains(f)) {
Log.debug("Removing " + f.getPath() + " since it is unknown to the javac_state.");
f.delete();
}
}
for (File f : gensrcArtifacts) {
if (!allKnownArtifacts.contains(f)) {
Log.debug("Removing " + f.getPath() + " since it is unknown to the javac_state.");
f.delete();
}
}
}
/** Lookup the artifacts generated for this package in the previous build. */
private Map<String, File> fetchPrevArtifacts(String pkg) {
Package p = prev.packages().get(pkg);
if (p != null) {
return p.artifacts();
}
return new HashMap<>();
}
/**
* Check whether a given application version is compatible with the version of JHotDraw currently
* loaded in the Java VM. A version number is available if there is a corresponding version entry
* in the JHotDraw jar file for the framework package.
*/
public static boolean isCompatibleVersion(String compareVersionString) {
// Package pack = VersionManagement.class.getPackage();
Package pack = packages[4];
if (compareVersionString == null) {
return pack.getSpecificationVersion() == null;
} else {
return pack.isCompatibleWith(compareVersionString);
}
}
/**
* Propagate recompilation through the dependency chains. Avoid re-tainting packages that have
* already been compiled.
*/
public void taintPackagesDependingOnChangedPackages(
Set<String> pkgs, Set<String> recentlyCompiled) {
for (Package pkg : prev.packages().values()) {
for (String dep : pkg.dependencies()) {
if (pkgs.contains(dep) && !recentlyCompiled.contains(pkg.name())) {
taintPackage(pkg.name(), " its depending on " + dep);
}
}
}
}
/** If artifacts have gone missing, force a recompile of the packages they belong to. */
public void taintPackagesThatMissArtifacts() {
for (Package pkg : prev.packages().values()) {
for (File f : pkg.artifacts().values()) {
if (!f.exists()) {
// Hmm, the artifact on disk does not exist! Someone has removed it....
// Lets rebuild the package.
taintPackage(pkg.name(), "" + f + " is missing.");
}
}
}
}
/** Mark a java package as tainted, ie it needs recompilation. */
public void taintPackage(String name, String because) {
if (!taintedPackages.contains(name)) {
if (because != null)
Log.debug("Tainting " + Util.justPackageName(name) + " because " + because);
// It has not been tainted before.
taintedPackages.add(name);
needsSaving();
Package nowp = now.packages().get(name);
if (nowp != null) {
for (String d : nowp.dependents()) {
taintPackage(d, because);
}
}
}
}
public static String getPackageVersion(final Package lookupPackage) {
if (lookupPackage == null) {
return null;
}
String specVersion = lookupPackage.getSpecificationVersion();
if (specVersion != null) {
return specVersion;
} else {
// search in parent package
String normalizedPackageName = normalizePackageName(lookupPackage.getName());
String nextPackageName = getNextPackage(normalizedPackageName);
return getPackageVersion(Package.getPackage(nextPackageName));
}
}
public String getVersion(Class<?> api) {
log.trace("getVersion for {}", api);
Package pkg = api.getPackage();
log.trace(" -> {}/{}", pkg.getImplementationVersion(), pkg.getSpecificationVersion());
String version = pkg.getSpecificationVersion();
if (version == null) version = pkg.getImplementationVersion();
if (version == null) {
try {
version = readVersionFromManifest(api);
} catch (IOException e) {
log.error("Could not extract version for " + api, e);
return null;
}
}
return version;
}
public void generate(String inputFileName) throws Exception {
List<MetaClass> metaClasses = new ArrayList<>();
List<LifeLine> lifeLines = new ArrayList<>();
List<MethodInvocation> rootMessages = new ArrayList<>();
MethodInvocation parentMessage = new MethodInvocation();
GsonBuilder builder = new GsonBuilder();
List<MethodInvocation> methodInvocations = new ArrayList<>();
Package mainPackage = new Package();
List<Guard> listOfGuards = new ArrayList<>();
Map<Guard, Instruction> guardToCFMap = new HashMap<>();
List<Instruction> combinedFragments = new ArrayList<Instruction>();
List<Operation> operationsList = new ArrayList<>();
builder.registerTypeAdapter(RefObject.class, new RefObjectJsonDeSerializer());
Gson gson = builder.create();
Element myTypes = gson.fromJson(new FileReader(inputFileName), Element.class);
if (myTypes._type.equals("Project")) {
List<Element> umlElements =
myTypes
.ownedElements
.stream()
.filter(f -> f._type.equals("UMLModel"))
.collect(Collectors.toList());
if (umlElements.size() > 0) { // There has be to atleast one UMLModel package
Element element = umlElements.get(0);
// package that the classes are supposed to be in
mainPackage.setName(element.name);
List<Element> umlPackages =
element
.ownedElements
.stream()
.filter(g -> g._type.equals("UMLPackage"))
.collect(Collectors.toList());
if (umlPackages.size()
> 1) { // There has to be two packages- one for class one for behaviour
Element classes = umlPackages.get(0);
Element behaviour = umlPackages.get(1);
// *--------------------------CLASSES-------------------------------*//
// in the first pass, get all classes that are defined in the diagram
// get details that can be directly inferred from the json like, fields and operations,
// which do not refer to other classes
for (Element umlClass : classes.getOwnedElements()) {
MetaClass metaClass = new MetaClass(umlClass.name, umlClass._id);
// check if class is interface or not because there is no distinction in json
if (umlClass._type.equals("UMLClass")) {
metaClass.setInterface(false);
} else {
metaClass.setInterface(true);
}
if (umlClass.operations != null) {
metaClass.setOperations(umlClass.operations);
operationsList.addAll(metaClass.operations);
}
if (umlClass.attributes != null) {
metaClass.setFields(umlClass.attributes);
}
metaClasses.add(metaClass);
}
// in second pass, define associations and generalizations for these classes
for (Element umlClass : classes.getOwnedElements()) {
if (umlClass.ownedElements != null) {
// find corresponding metaclass, then populate the secondary inferences
List<MetaClass> correspondingMetaClassList =
metaClasses
.stream()
.filter(f -> f._id.equals(umlClass._id))
.collect(Collectors.toList());
MetaClass correspondingMetaClass = correspondingMetaClassList.get(0);
List<Element> umlAssociations =
umlClass
.ownedElements
.stream()
.filter(f -> f._type.equals("UMLAssociation"))
.collect(Collectors.toList());
if (umlAssociations.size() > 0) {
correspondingMetaClass.setAssociations(metaClasses, umlAssociations);
}
List<Element> umlGeneralization =
umlClass
.ownedElements
.stream()
.filter(f -> f._type.equals("UMLGeneralization"))
.collect(Collectors.toList());
if (umlGeneralization.size() > 0) {
correspondingMetaClass.setGeneralizations(metaClasses, umlGeneralization);
}
List<Element> umlRealization =
umlClass
.ownedElements
.stream()
.filter(f -> f._type.equals("UMLInterfaceRealization"))
.collect(Collectors.toList());
if (umlRealization.size() > 0) {
correspondingMetaClass.setInterfaceRealization(metaClasses, umlRealization);
}
}
}
// *--------------------------CLASSES-------------------------------*//
// *----------------------- BEHAVIOUR---------------------------------*//
for (Element umlCollaboration : behaviour.getOwnedElements()) {
// Role to Class mapping
ArrayList<Element> attributes = umlCollaboration.attributes;
HashMap<String, MetaClass> roleToClassMap = new HashMap<>();
if (attributes != null) {
for (Element attribute : attributes) {
List<MetaClass> roleClass =
metaClasses
.stream()
.filter(f -> f._id.equals(attribute.type.$ref))
.collect(Collectors.toList());
roleToClassMap.put(attribute._id, roleClass.get(0));
}
}
for (Element umlInteraction : umlCollaboration.ownedElements) {
// mapping lifelines to the classes they correspond
ArrayList<Element> participants = umlInteraction.participants;
if (participants != null && participants.size() > 0) {
for (Element participant : participants) {
MetaClass participantClass = roleToClassMap.get(participant.represent.$ref);
LifeLine lifeLine = new LifeLine();
lifeLine.setName(participant.name);
lifeLine.setId(participant._id);
lifeLine.setMetaClass(participantClass);
lifeLines.add(lifeLine);
}
}
// first parse all the combined fragments and get ready
if (umlInteraction.fragments != null) {
for (Element fragment :
umlInteraction.fragments) { // depending on the fragment set the class
Instruction instruction = null;
if (fragment.interactionOperator.equals("loop")) {
Loop loop = new Loop();
loop.setId(fragment._id);
loop.setWeight(0);
Guard guard = new Guard(fragment.operands.get(0)._id);
// loop can have only one condition--- one condition-- condition is made up of
// AND or OR's
guard.setCondition(fragment.operands.get(0).guard);
loop.setGuard(guard);
instruction = loop;
combinedFragments.add(loop);
listOfGuards.add(guard);
guardToCFMap.put(guard, loop);
}
if (fragment.interactionOperator.equals("alt")) {
Conditional c = new Conditional();
c.setId(fragment._id);
c.setWeight(0);
instruction = c;
combinedFragments.add(c);
Guard consequence = new Guard(fragment.operands.get(0)._id);
consequence.setCondition(fragment.operands.get(0).guard);
c.setCons(consequence);
listOfGuards.add(consequence);
guardToCFMap.put(consequence, c);
consequence.setConsequence(true);
if (fragment.operands.size() > 1) {
Guard alternate = new Guard(fragment.operands.get(1)._id);
alternate.setCondition(fragment.operands.get(1).guard);
c.setAlt(alternate);
listOfGuards.add(alternate);
guardToCFMap.put(alternate, c);
alternate.setAlternative(true);
}
}
if (fragment.tags != null) {
for (Element tag : fragment.tags) {
if (tag.name.equals("parent")) {
List<Instruction> instructionList =
combinedFragments
.stream()
.filter(e -> e.getId().equals(tag.reference.$ref))
.collect(Collectors.toList());
if (instructionList.size() > 0) {
instructionList.get(0).getBlock().add(instruction);
instruction.setParent(instructionList.get(0));
}
}
}
}
}
}
// parsing the messages and make nodes out them to later build a tree from the
// lifelines
ArrayList<Element> messages = umlInteraction.messages;
Element startMessage = messages.get(0);
String sourceRef = startMessage.source.$ref;
String targetRef = startMessage.target.$ref;
Element endMessage = null;
LifeLine sourceLifeLine = getLifeLine(lifeLines, sourceRef);
LifeLine targetLifeLine = getLifeLine(lifeLines, targetRef);
// First message processing
parentMessage = new MethodInvocation();
parentMessage.setAssignmentTarget(startMessage.assignmentTarget);
parentMessage.setMessageSort(startMessage.messageSort);
parentMessage.setSource(sourceLifeLine.getMetaClass());
parentMessage.setTarget(targetLifeLine.getMetaClass());
parentMessage.setName(startMessage.name);
parentMessage.setId(startMessage._id);
if (sourceLifeLine.getId().equals(targetLifeLine.getId())) {
parentMessage.setCallerObject("this");
} else {
parentMessage.setCallerObject(targetLifeLine.getName());
}
int weight = 0;
parentMessage.setWeight(weight++);
if (startMessage.signature != null) {
parentMessage.setSignature(startMessage.signature.$ref);
}
if (startMessage.tags != null) {
for (Element tag : startMessage.tags) {
// if (tag.name.equals("CF")) {
// parentMessage.setInCF(true);
//
// parentMessage.setCfID(tag.reference.$ref);
// }
if (tag.name.equals("operand")) {
parentMessage.setOperandId(tag.reference.$ref);
}
}
}
MethodInvocation rootMessage = parentMessage;
methodInvocations.add(rootMessage);
rootMessages.add(rootMessage);
Iterator<Element> iter = messages.iterator();
while (iter.hasNext()) {
if (iter.next() == endMessage) {
continue;
}
iter.remove();
List<Element> childMessages = getChildMessages(messages, targetRef);
for (Element child : childMessages) {
LifeLine childSource = getLifeLine(lifeLines, child.source.$ref);
LifeLine childTarget = getLifeLine(lifeLines, child.target.$ref);
MethodInvocation childMessage = new MethodInvocation();
childMessage.setMessageSort(child.messageSort);
childMessage.setSource(childSource.getMetaClass());
childMessage.setTarget(childTarget.getMetaClass());
childMessage.setAssignmentTarget(child.assignmentTarget);
childMessage.setName(child.name);
childMessage.setId(child._id);
childMessage.setWeight(weight++);
childMessage.setArguments(child.arguments);
if (childSource.getId().equals(childTarget.getId())) {
childMessage.setCallerObject("this");
} else {
childMessage.setCallerObject(childTarget.getName());
}
if (child.signature != null) {
childMessage.setSignature(child.signature.$ref);
}
if (child.tags != null) {
for (Element tag : child.tags) {
// if (tag.name.equals("CF")) {
// childMessage.setInCF(true);
//
// childMessage.setCfID(tag.reference.$ref);
// }
if (tag.name.equals("operand")) {
childMessage.setOperandId(tag.reference.$ref);
}
}
}
parentMessage.childNodes.add(childMessage);
methodInvocations.add(childMessage);
}
if (childMessages.size() > 0) {
List<MethodInvocation> nextMessage =
parentMessage
.childNodes
.stream()
.filter(f -> !f.source.equals(f.target))
.collect(Collectors.toList());
List<Element> startMessageNext =
childMessages
.stream()
.filter(f -> !f.source.$ref.equals(f.target.$ref))
.collect(Collectors.toList());
startMessage = startMessageNext.get(0);
targetRef = startMessage.target.$ref;
sourceRef = startMessage.source.$ref;
parentMessage = nextMessage.get(0);
if (childMessages.size() > 1) {
endMessage = childMessages.get(childMessages.size() - 1);
}
}
}
}
for (MethodInvocation methodInvocation : methodInvocations) {
List<Operation> matchingOperation =
operationsList
.stream()
.filter(f -> f._id.equals(methodInvocation.getSignature()))
.collect(Collectors.toList());
if (matchingOperation.size() > 0) {
operationMap.put(methodInvocation, matchingOperation.get(0)._id);
methodInvocation.setOperation(matchingOperation.get(0));
}
}
Stack stack = new Stack();
for (MethodInvocation root : methodInvocations) {
stack.push(root);
while (!stack.empty()) {
MethodInvocation methodInvocation = (MethodInvocation) stack.pop();
Operation currentOperation = methodInvocation.getOperation();
if (currentOperation != null) {
// all child nodes of this node make up its body
List<MethodInvocation> childNodes = methodInvocation.childNodes;
for (MethodInvocation child : childNodes) {
stack.push(child);
}
for (MethodInvocation childNode : childNodes) {
if (childNode.getOperandId() != null) {
List<Instruction> combinedFragmentsList =
combinedFragments
.stream()
.filter(f -> f.getId().equals(childNode.getCfID()))
.collect(Collectors.toList());
List<Guard> guardList =
listOfGuards
.stream()
.filter(f -> f.id.equals(childNode.getOperandId()))
.collect(Collectors.toList());
if (guardList.size() > 0) {
Guard currentGuard = guardList.get(0);
Instruction instruction = guardToCFMap.get(guardList.get(0));
// get the topmost CF if it is in a tree
Instruction parent = instruction.getParent();
while (instruction.getParent() != null) {
instruction = instruction.getParent();
}
if (currentGuard.isConsequence) {
Conditional conditional = (Conditional) instruction;
if (!conditional.getConsequence().contains(childNode)) {
conditional.getConsequence().add(childNode);
}
}
if (currentGuard.isAlternative) {
Conditional conditional = (Conditional) instruction;
if (!conditional.getAlternative().contains(childNode)) {
conditional.getAlternative().add(childNode);
}
}
if (!currentGuard.isAlternative && !currentGuard.isConsequence) {
Loop loop = (Loop) instruction;
loop.getBlock().add(childNode);
} else {
if (!currentOperation.getBlock().contains(instruction)) {
currentOperation.getBlock().add(instruction);
}
}
}
} else {
if (!currentOperation.getBlock().contains(childNode)) {
currentOperation.getBlock().add(childNode);
}
}
}
}
}
}
}
}
}
}
//
//// printAllData(metaClasses);
// while (parentMessage.childNodes != null || parentMessage.childNodes.size() > 0) {
// System.out.println("parent " + parentMessage.name);
// for (com.cbpro.main.MethodInvocation child : parentMessage.childNodes) {
// System.out.println("child " + child.name);
// }
// if (parentMessage.childNodes.size() > 0) {
// parentMessage = parentMessage.childNodes.get(0);
// } else {
// break;
// }
// }
mainPackage.print();
File dir = new File("/home/ramyashenoy/Desktop/DemoFolder/" + mainPackage.getName());
boolean successful = dir.mkdir();
if (successful) {
System.out.println("directory was created successfully");
for (MetaClass metaClass : metaClasses) {
if (metaClass.name.equals("Main")) {
continue;
} else {
String data = metaClass.print();
BufferedWriter out = null;
try {
FileWriter fstream =
new FileWriter(
dir.getPath() + "/" + metaClass.name + ".java",
true); // true tells to append data.
out = new BufferedWriter(fstream);
out.write(data);
} catch (IOException e) {
System.err.println("Error: " + e.getMessage());
} finally {
if (out != null) {
out.close();
}
}
}
}
} else {
// creating the directory failed
System.out.println("failed trying to create the directory");
}
mainPackage.setClasses(metaClasses);
}
/**
* For all packages, find all sources belonging to the package, group the sources based on their
* transformers and apply the transformers on each source code group.
*/
private boolean perform(File outputDir, Map<String, Transformer> suffixRules) {
boolean rc = true;
// Group sources based on transforms. A source file can only belong to a single transform.
Map<Transformer, Map<String, Set<URI>>> groupedSources = new HashMap<>();
for (Source src : now.sources().values()) {
Transformer t = suffixRules.get(src.suffix());
if (t != null) {
if (taintedPackages.contains(src.pkg().name()) && !src.isLinkedOnly()) {
addFileToTransform(groupedSources, t, src);
}
}
}
// Go through the transforms and transform them.
for (Map.Entry<Transformer, Map<String, Set<URI>>> e : groupedSources.entrySet()) {
Transformer t = e.getKey();
Map<String, Set<URI>> srcs = e.getValue();
// These maps need to be synchronized since multiple threads will be writing results into
// them.
Map<String, Set<URI>> packageArtifacts =
Collections.synchronizedMap(new HashMap<String, Set<URI>>());
Map<String, Set<String>> packageDependencies =
Collections.synchronizedMap(new HashMap<String, Set<String>>());
Map<String, String> packagePublicApis =
Collections.synchronizedMap(new HashMap<String, String>());
boolean r =
t.transform(
srcs,
visibleSrcs,
visibleClasses,
prev.dependents(),
outputDir.toURI(),
packageArtifacts,
packageDependencies,
packagePublicApis,
0,
isIncremental(),
numCores,
out,
err);
if (!r) rc = false;
for (String p : srcs.keySet()) {
recompiledPackages.add(p);
}
// The transform is done! Extract all the artifacts and store the info into the Package
// objects.
for (Map.Entry<String, Set<URI>> a : packageArtifacts.entrySet()) {
Module mnow = now.findModuleFromPackageName(a.getKey());
mnow.addArtifacts(a.getKey(), a.getValue());
}
// Extract all the dependencies and store the info into the Package objects.
for (Map.Entry<String, Set<String>> a : packageDependencies.entrySet()) {
Set<String> deps = a.getValue();
Module mnow = now.findModuleFromPackageName(a.getKey());
mnow.setDependencies(a.getKey(), deps);
}
// Extract all the pubapis and store the info into the Package objects.
for (Map.Entry<String, String> a : packagePublicApis.entrySet()) {
Module mprev = prev.findModuleFromPackageName(a.getKey());
List<String> pubapi = Package.pubapiToList(a.getValue());
Module mnow = now.findModuleFromPackageName(a.getKey());
mnow.setPubapi(a.getKey(), pubapi);
if (mprev.hasPubapiChanged(a.getKey(), pubapi)) {
// Aha! The pubapi of this package has changed!
// It can also be a new compile from scratch.
if (mprev.lookupPackage(a.getKey()).existsInJavacState()) {
// This is an incremental compile! The pubapi
// did change. Trigger recompilation of dependents.
packagesWithChangedPublicApis.add(a.getKey());
Log.info("The pubapi of " + Util.justPackageName(a.getKey()) + " has changed!");
}
}
}
}
return rc;
}
/** Load a javac_state file. */
public static JavacState load(
String[] args,
File binDir,
File gensrcDir,
File headerDir,
boolean permitUnidentifiedArtifacts,
PrintStream out,
PrintStream err) {
JavacState db =
new JavacState(
args, binDir, gensrcDir, headerDir, permitUnidentifiedArtifacts, false, out, err);
Module lastModule = null;
Package lastPackage = null;
Source lastSource = null;
boolean noFileFound = false;
boolean foundCorrectVerNr = false;
boolean newCommandLine = false;
boolean syntaxError = false;
try (BufferedReader in = new BufferedReader(new FileReader(db.javacStateFilename))) {
for (; ; ) {
String l = in.readLine();
if (l == null) break;
if (l.length() >= 3 && l.charAt(1) == ' ') {
char c = l.charAt(0);
if (c == 'M') {
lastModule = db.prev.loadModule(l);
} else if (c == 'P') {
if (lastModule == null) {
syntaxError = true;
break;
}
lastPackage = db.prev.loadPackage(lastModule, l);
} else if (c == 'D') {
if (lastModule == null || lastPackage == null) {
syntaxError = true;
break;
}
lastPackage.loadDependency(l);
} else if (c == 'I') {
if (lastModule == null || lastPackage == null) {
syntaxError = true;
break;
}
lastPackage.loadPubapi(l);
} else if (c == 'A') {
if (lastModule == null || lastPackage == null) {
syntaxError = true;
break;
}
lastPackage.loadArtifact(l);
} else if (c == 'S') {
if (lastModule == null || lastPackage == null) {
syntaxError = true;
break;
}
lastSource = db.prev.loadSource(lastPackage, l, false);
} else if (c == 'G') {
if (lastModule == null || lastPackage == null) {
syntaxError = true;
break;
}
lastSource = db.prev.loadSource(lastPackage, l, true);
} else if (c == 'R') {
String ncmdl = "R " + db.theArgs;
if (!l.equals(ncmdl)) {
newCommandLine = true;
}
} else if (c == '#') {
if (l.startsWith("# javac_state ver ")) {
int sp = l.indexOf(" ", 18);
if (sp != -1) {
String ver = l.substring(18, sp);
if (!ver.equals("0.3")) {
break;
}
foundCorrectVerNr = true;
}
}
}
}
}
} catch (FileNotFoundException e) {
// Silently create a new javac_state file.
noFileFound = true;
} catch (IOException e) {
Log.info("Dropping old javac_state because of errors when reading it.");
db =
new JavacState(
args, binDir, gensrcDir, headerDir, permitUnidentifiedArtifacts, true, out, err);
foundCorrectVerNr = true;
newCommandLine = false;
syntaxError = false;
}
if (foundCorrectVerNr == false && !noFileFound) {
Log.info("Dropping old javac_state since it is of an old version.");
db =
new JavacState(
args, binDir, gensrcDir, headerDir, permitUnidentifiedArtifacts, true, out, err);
} else if (newCommandLine == true && !noFileFound) {
Log.info("Dropping old javac_state since a new command line is used!");
db =
new JavacState(
args, binDir, gensrcDir, headerDir, permitUnidentifiedArtifacts, true, out, err);
} else if (syntaxError == true) {
Log.info("Dropping old javac_state since it contains syntax errors.");
db =
new JavacState(
args, binDir, gensrcDir, headerDir, permitUnidentifiedArtifacts, true, out, err);
}
db.prev.calculateDependents();
return db;
}
private void unpackSegment(InputStream in, JarOutputStream out) throws IOException {
_props.setProperty(java.util.jar.Pack200.Unpacker.PROGRESS, "0");
// Process the output directory or jar output.
new PackageReader(pkg, in).read();
if (_props.getBoolean("unpack.strip.debug")) pkg.stripAttributeKind("Debug");
if (_props.getBoolean("unpack.strip.compile")) pkg.stripAttributeKind("Compile");
_props.setProperty(java.util.jar.Pack200.Unpacker.PROGRESS, "50");
pkg.ensureAllClassFiles();
// Now write out the files.
HashSet classesToWrite = new HashSet(pkg.getClasses());
for (Iterator i = pkg.getFiles().iterator(); i.hasNext(); ) {
Package.File file = (Package.File) i.next();
String name = file.nameString;
JarEntry je = new JarEntry(Utils.getJarEntryName(name));
boolean deflate;
deflate =
(keepDeflateHint)
? (((file.options & Constants.FO_DEFLATE_HINT) != 0)
|| ((pkg.default_options & Constants.AO_DEFLATE_HINT) != 0))
: deflateHint;
boolean needCRC = !deflate; // STORE mode requires CRC
if (needCRC) crc.reset();
bufOut.reset();
if (file.isClassStub()) {
Package.Class cls = file.getStubClass();
assert (cls != null);
new ClassWriter(cls, needCRC ? crcOut : bufOut).write();
classesToWrite.remove(cls); // for an error check
} else {
// collect data & maybe CRC
file.writeTo(needCRC ? crcOut : bufOut);
}
je.setMethod(deflate ? JarEntry.DEFLATED : JarEntry.STORED);
if (needCRC) {
if (verbose > 0)
Utils.log.info("stored size=" + bufOut.size() + " and crc=" + crc.getValue());
je.setMethod(JarEntry.STORED);
je.setSize(bufOut.size());
je.setCrc(crc.getValue());
}
if (keepModtime) {
je.setTime(file.modtime);
// Convert back to milliseconds
je.setTime((long) file.modtime * 1000);
} else {
je.setTime((long) modtime * 1000);
}
out.putNextEntry(je);
bufOut.writeTo(out);
out.closeEntry();
if (verbose > 0) Utils.log.info("Writing " + Utils.zeString((ZipEntry) je));
}
assert (classesToWrite.isEmpty());
_props.setProperty(java.util.jar.Pack200.Unpacker.PROGRESS, "100");
pkg.reset(); // reset for the next segment, if any
}
/**
* Return the version of the main package of the framework. A version number is available if there
* is a corresponding version entry in the JHotDraw jar file for the framework package.
*/
public static String getJHotDrawVersion() {
// look for the framework main package
Package pack = packages[4];
return pack.getSpecificationVersion();
}
/**
* Collection of utility methods that are useful for dealing with version information retrieved from
* reading jar files or package loaded by the class manager. Some methods also help comparing
* version information. The method getJHotDrawVersion() can be used to retrieve the current version
* of JHotDraw as loaded by the class manager.
*
* @author Wolfram Kaiser
* @version <$CURRENT_VERSION$>
*/
public class VersionManagement {
public static String JHOTDRAW_COMPONENT = "CH.ifa.draw/";
public static String JHOTDRAW_JAR = "jhotdraw.jar";
public static Package[] packages = {
Package.getPackage("CH.ifa.draw.applet"),
Package.getPackage("CH.ifa.draw.application"),
Package.getPackage("CH.ifa.draw.contrib"),
Package.getPackage("CH.ifa.draw.figures"),
Package.getPackage("CH.ifa.draw.framework"),
Package.getPackage("CH.ifa.draw.standard"),
Package.getPackage("CH.ifa.draw.util")
};
/**
* Return the version of the main package of the framework. A version number is available if there
* is a corresponding version entry in the JHotDraw jar file for the framework package.
*/
public static String getJHotDrawVersion() {
// look for the framework main package
Package pack = packages[4];
return pack.getSpecificationVersion();
}
/** */
public static String getPackageVersion(final Package lookupPackage) {
if (lookupPackage == null) {
return null;
}
String specVersion = lookupPackage.getSpecificationVersion();
if (specVersion != null) {
return specVersion;
} else {
// search in parent package
String normalizedPackageName = normalizePackageName(lookupPackage.getName());
String nextPackageName = getNextPackage(normalizedPackageName);
return getPackageVersion(Package.getPackage(nextPackageName));
}
}
/**
* Check whether a given application version is compatible with the version of JHotDraw currently
* loaded in the Java VM. A version number is available if there is a corresponding version entry
* in the JHotDraw jar file for the framework package.
*/
public static boolean isCompatibleVersion(String compareVersionString) {
// Package pack = VersionManagement.class.getPackage();
Package pack = packages[4];
if (compareVersionString == null) {
return pack.getSpecificationVersion() == null;
} else {
return pack.isCompatibleWith(compareVersionString);
}
}
/**
* Read the version information from a file with a given file name. The file must be a jar
* manifest file and all its entries are searched for package names and their specification
* version information. All information is collected in a map for later lookup of package names
* and their versions.
*
* @param versionFileName name of the jar file containing version information
*/
public static String readVersionFromFile(String applicationName, String versionFileName) {
try {
FileInputStream fileInput = new FileInputStream(versionFileName);
Manifest manifest = new Manifest();
manifest.read(fileInput);
Map entries = manifest.getEntries();
// Now write out the pre-entry attributes
Iterator entryIterator = entries.entrySet().iterator();
while (entryIterator.hasNext()) {
Map.Entry currentEntry = (Map.Entry) entryIterator.next();
String packageName = currentEntry.getKey().toString();
packageName = normalizePackageName(packageName);
Attributes attributes = (Attributes) currentEntry.getValue();
String packageSpecVersion = attributes.getValue(Attributes.Name.SPECIFICATION_VERSION);
packageSpecVersion = extractVersionInfo(packageSpecVersion);
return packageSpecVersion;
}
} catch (IOException exception) {
exception.printStackTrace();
}
// no version found
return null;
}
/**
* Get the super package of a package specifier. The super package is the package specifier
* without the latest package name, e.g. the next package for "org.jhotdraw.tools" would be
* "org.jhotdraw".
*
* @param searchPackage package specifier
* @return next package if one is available, null otherwise
*/
public static String getNextPackage(String searchPackage) {
if (searchPackage == null) {
return null;
}
int foundNextPackage = searchPackage.lastIndexOf('.');
if (foundNextPackage > 0) {
return searchPackage.substring(0, foundNextPackage);
} else {
return null;
}
}
/**
* A package name is normalized by replacing all path delimiters by "." to retrieve a valid
* standardized package specifier used in package declarations in Java source files.
*
* @param toBeNormalized package name to be normalized
* @return normalized package name
*/
public static String normalizePackageName(String toBeNormalized) {
// first, replace the standard package delimiter used in jars
String replaced = toBeNormalized.replace('/', '.');
// then, replace the default path separator in case this one was used as well
replaced = replaced.replace(File.pathSeparatorChar, '.');
if (replaced.endsWith(".")) {
int lastSeparator = replaced.lastIndexOf('.');
return replaced.substring(0, lastSeparator);
} else {
return replaced;
}
}
/**
* Get the version information specified in a jar manifest file without any leading or trailing
* "\"".
*
* @param versionString a version string with possibly leading or trailing "\""
* @return stripped version information
*/
public static String extractVersionInfo(String versionString) {
// guarding conditions
if (versionString == null) {
return null;
}
if (versionString.length() == 0) {
return "";
}
int startIndex = versionString.indexOf("\"");
if (startIndex < 0) {
startIndex = 0;
} else {
// start from next character
startIndex++;
}
int endIndex = versionString.lastIndexOf("\"");
if (endIndex < 0) {
endIndex = versionString.length();
}
return versionString.substring(startIndex, endIndex);
}
}