@Override
public void actionPerformed(ActionEvent e) {
if (td.getTabCount() > 0) {
TextDocument ta = (TextDocument) td.getComponentAt(td.getSelectedIndex());
Pattern pn = Pattern.compile(tf1.getText());
Matcher mt = pn.matcher(ta.getText());
if (e.getSource() == jb2) { // 取代
ta.setText(mt.replaceAll(tf2.getText()));
} else if (e.getSource() == jb1) { // 尋找
Highlighter hl = ta.getHighlighter();
hl.removeAllHighlights();
while (mt.find()) {
try {
hl.addHighlight(
mt.start(), mt.end(), new DefaultHighlighter.DefaultHighlightPainter(null));
} catch (Exception ex) {
}
} // 開啟及關閉介面
} else if (e.getSource() == replace_searchMenuItem) {
System.out.println("Replace/Search is show:" + !show);
if (show) {
getContentPane().remove(jp);
show = false;
} else {
getContentPane().add(jp, BorderLayout.SOUTH);
show = true;
}
validate(); // 刷新容器
}
} else if (e.getSource() == replace_searchMenuItem) {
JOptionPane.showMessageDialog(
null, "尚無檔案，無法使用!", "Repace/Search error", JOptionPane.ERROR_MESSAGE);
}
}
public synchronized String format(String message) {
Matcher matcher = variablePattern.matcher(message);
while (matcher.find()) {
String variable = matcher.group();
variable = variable.substring(1);
if (variable.startsWith("{") && variable.endsWith("}"))
variable = variable.substring(1, variable.length() - 1);
String value = variables.get(variable);
if (value == null) value = "";
message =
message.replaceFirst(Pattern.quote(matcher.group()), Matcher.quoteReplacement(value));
}
matcher = colorPattern.matcher(message);
while (matcher.find())
message =
message.substring(0, matcher.start()) + "\247" + message.substring(matcher.end() - 1);
return message;
}
/**
* Replace occurrences of "%ab" with the character represented by the hex value. Strings of
* escaped characters are treated as UTF-8 byte sequences and decoded appropriately.
*/
private static String decode(String s) {
int length = s.length();
StringBuilder str = new StringBuilder(length);
Matcher matcher = PATTERN.matcher(s);
int offset = 0;
byte[] bb = null;
while (matcher.find(offset)) {
int count = matcher.groupCount();
for (int i = 0; i < count; i++) {
String match = matcher.group(0);
int num = match.length() / 3;
if (bb == null || bb.length < num) {
bb = new byte[num];
}
for (int j = 0; j < num; j++) {
int head = j * 3 + 1;
int tail = head + 2;
bb[j] = (byte) Integer.parseInt(match.substring(head, tail), 16);
}
try {
String text = new String(bb, "UTF-8");
str.append(s.substring(offset, matcher.start()));
str.append(text);
} catch (UnsupportedEncodingException e) {
// NOTE: This should *never* be thrown because all
// JVMs are required to support UTF-8. I mean,
// the strings in the .class file are all in
// a modified UTF-8, for pete's sake! :)
}
}
offset = matcher.end();
}
if (offset < length) {
str.append(s.substring(offset));
}
return str.toString();
}
/** Performs the subsequent ReTrace operations. */
public void execute() throws IOException {
// Read the mapping file.
MappingReader mappingReader = new MappingReader(mappingFile);
mappingReader.pump(this);
StringBuffer expressionBuffer = new StringBuffer(regularExpression.length() + 32);
char[] expressionTypes = new char[32];
int expressionTypeCount = 0;
int index = 0;
while (true) {
int nextIndex = regularExpression.indexOf('%', index);
if (nextIndex < 0
|| nextIndex == regularExpression.length() - 1
|| expressionTypeCount == expressionTypes.length) {
break;
}
expressionBuffer.append(regularExpression.substring(index, nextIndex));
expressionBuffer.append('(');
char expressionType = regularExpression.charAt(nextIndex + 1);
switch (expressionType) {
case 'c':
expressionBuffer.append(REGEX_CLASS);
break;
case 'C':
expressionBuffer.append(REGEX_CLASS_SLASH);
break;
case 'l':
expressionBuffer.append(REGEX_LINE_NUMBER);
break;
case 't':
expressionBuffer.append(REGEX_TYPE);
break;
case 'f':
expressionBuffer.append(REGEX_MEMBER);
break;
case 'm':
expressionBuffer.append(REGEX_MEMBER);
break;
case 'a':
expressionBuffer.append(REGEX_ARGUMENTS);
break;
}
expressionBuffer.append(')');
expressionTypes[expressionTypeCount++] = expressionType;
index = nextIndex + 2;
}
expressionBuffer.append(regularExpression.substring(index));
Pattern pattern = Pattern.compile(expressionBuffer.toString());
// Read the stack trace file.
LineNumberReader reader =
new LineNumberReader(
stackTraceFile == null
? (Reader) new InputStreamReader(System.in)
: (Reader) new BufferedReader(new FileReader(stackTraceFile)));
try {
StringBuffer outLine = new StringBuffer(256);
List extraOutLines = new ArrayList();
String className = null;
// Read the line in the stack trace.
while (true) {
String line = reader.readLine();
if (line == null) {
break;
}
Matcher matcher = pattern.matcher(line);
if (matcher.matches()) {
int lineNumber = 0;
String type = null;
String arguments = null;
// Figure out a class name, line number, type, and
// arguments beforehand.
for (int expressionTypeIndex = 0;
expressionTypeIndex < expressionTypeCount;
expressionTypeIndex++) {
int startIndex = matcher.start(expressionTypeIndex + 1);
if (startIndex >= 0) {
String match = matcher.group(expressionTypeIndex + 1);
char expressionType = expressionTypes[expressionTypeIndex];
switch (expressionType) {
case 'c':
className = originalClassName(match);
break;
case 'C':
className = originalClassName(ClassUtil.externalClassName(match));
break;
case 'l':
lineNumber = Integer.parseInt(match);
break;
case 't':
type = originalType(match);
break;
case 'a':
arguments = originalArguments(match);
break;
}
}
}
// Actually construct the output line.
int lineIndex = 0;
outLine.setLength(0);
extraOutLines.clear();
for (int expressionTypeIndex = 0;
expressionTypeIndex < expressionTypeCount;
expressionTypeIndex++) {
int startIndex = matcher.start(expressionTypeIndex + 1);
if (startIndex >= 0) {
int endIndex = matcher.end(expressionTypeIndex + 1);
String match = matcher.group(expressionTypeIndex + 1);
// Copy a literal piece of input line.
outLine.append(line.substring(lineIndex, startIndex));
char expressionType = expressionTypes[expressionTypeIndex];
switch (expressionType) {
case 'c':
className = originalClassName(match);
outLine.append(className);
break;
case 'C':
className = originalClassName(ClassUtil.externalClassName(match));
outLine.append(ClassUtil.internalClassName(className));
break;
case 'l':
lineNumber = Integer.parseInt(match);
outLine.append(match);
break;
case 't':
type = originalType(match);
outLine.append(type);
break;
case 'f':
originalFieldName(className, match, type, outLine, extraOutLines);
break;
case 'm':
originalMethodName(
className, match, lineNumber, type, arguments, outLine, extraOutLines);
break;
case 'a':
arguments = originalArguments(match);
outLine.append(arguments);
break;
}
// Skip the original element whose processed version
// has just been appended.
lineIndex = endIndex;
}
}
// Copy the last literal piece of input line.
outLine.append(line.substring(lineIndex));
// Print out the main line.
System.out.println(outLine);
// Print out any additional lines.
for (int extraLineIndex = 0; extraLineIndex < extraOutLines.size(); extraLineIndex++) {
System.out.println(extraOutLines.get(extraLineIndex));
}
} else {
// Print out the original line.
System.out.println(line);
}
}
} catch (IOException ex) {
throw new IOException("Can't read stack trace (" + ex.getMessage() + ")");
} finally {
if (stackTraceFile != null) {
try {
reader.close();
} catch (IOException ex) {
// This shouldn't happen.
}
}
}
}
public CreateCplusplusHeader(GNode n) {
classTree = n;
/*Debug**/
// p1.println(classTree.size());
final PrintWriter p1;
final GNode[] containsRelevantClasses;
final ArrayList<String> stringClasses = new ArrayList<String>();
final ArrayList<Integer> countClasses = new ArrayList<Integer>();
final ArrayList<Integer> countChildren = new ArrayList<Integer>();
final GNode stac = GNode.create("Holder");
File headerFile;
File newDirectory;
try {
newDirectory = new File("cplusplusfiles");
newDirectory.mkdir();
headerFile = new File("cplusplusfiles", "Header.h");
headerFile.createNewFile();
p1 = new PrintWriter(headerFile);
/*Remove comments below to Debug**/
// p1.println(classTree.size());
// p1.println(containsRelevantClasses.size());
// p1.println(countClasses);
// p1.println(countChildren);
p1.println("// Ankit Goel's Header");
p1.println("#pragma once");
p1.println();
p1.println("#include <stdint.h>");
p1.println("#include <string>");
p1.println();
p1.println("using namespace java::lang;");
p1.println("// Foward Declarations ");
p1.println();
/* Remove comments below to Debug**/
// String s = classTree.getNode(1).getNode(0).getNode(0).getName();
// p1.println(s);
// p1.flush();
// p1.close();
new Visitor() {
int counter22 = 0;
public void visitClass(GNode n) {
counter22++;
countChildren.add(n.size());
countClasses.add(counter22);
visit(n);
}
public void visitClassHeaderDeclaration(GNode n) {
stac.add(n);
/*Remove comments below to Debug**/
// p1.println(n.getNode(0).getName());
// containsRelevantClasses[counter22] = (GNode) n;
}
public void visit(Node n) {
for (Object o : n) if (o instanceof Node) dispatch((Node) o);
}
}.dispatch(classTree);
/*Remove comments below to Debug**/
// p1.println(stac.size());
String globalVariableArrayCheck;
for (int b = 4; b < stac.size(); b++) {
createCplusplusHeader = (GNode) stac.getNode(b);
GNode vMethods = (GNode) createCplusplusHeader.getNode(0);
// p1.println(createCplusplusHeader.getName());
/*Remove comments below to Debug**/
// p1.println(vMethods.getName());
// We need a mapping of methodName to accessibility
final HashMap<String, String> mNAccess = new HashMap<String, String>();
/*Remove comments below to Debug**/
// We need a mapping to methodName to whetherItsStatic
// p1.println(mNAccess);
// p1.println(mNAccess.get("goel"));
final GNode constructorPrinter = GNode.create("ConstructorPrinter");
final ArrayList<Integer> getCounter = new ArrayList<Integer>();
new Visitor() {
int counter2 = 0;
public void visitVirtualMethodDeclaration(GNode n) {
counter2++;
getCounter.add(counter2);
}
public void visit(Node n) {
for (Object o : n) if (o instanceof Node) dispatch((Node) o);
}
}.dispatch(vMethods);
int startHere = getCounter.get(getCounter.size() - 1) + 1;
/*Remove comments below to Debug**/
// p1.println(startHere);
final String className = vMethods.getNode(startHere).getNode(4).getNode(0).getString(0);
final String plainClassName = className.substring(2, className.length());
final GNode ARRAYTRACKER = GNode.create("ArrayTracker");
// Need another dispatch for constructor heeader node
new Visitor() {
public void visitConstructorHeader(GNode n) {
// Add each node
if (n.getString(0).equals(plainClassName)) constructorPrinter.add(n);
}
public void visitCustomArrayDeclaration(GNode n) {
ARRAYTRACKER.add(n);
}
public void visit(Node n) {
for (Object o : n) if (o instanceof Node) dispatch((Node) o);
}
}.dispatch(createCplusplusHeader);
// p1.println(constructorPrinter.size());
// Find out when the virtual method declarations ends
/*Remove comments below to Debug**/
// p1.println(getCounter);
p1.println("struct __" + plainClassName + ";");
p1.println();
p1.println("struct __" + plainClassName + "_VT;");
p1.println();
p1.println("typedef __rt::Ptr<" + "__" + plainClassName + "> " + plainClassName + ";");
p1.println();
p1.println("struct __" + plainClassName + " { ");
p1.println();
p1.println(" // The data layout for java.lang.plainClassName");
p1.println(" " + "__" + plainClassName + "_VT* __vptr;");
// Get the Field Decl in this
final GNode fields = GNode.create("Fields");
new Visitor() {
public void visitDataLayoutDeclaration(GNode n) {
visit(n);
}
public void visitDataFieldList(GNode n) {
fields.add(n);
}
public void visit(Node n) {
for (Object o : n) if (o instanceof Node) dispatch((Node) o);
}
}.dispatch(createCplusplusHeader);
// p1.println(fields.size());
final ArrayList<String> privateOrpublic = new ArrayList<String>();
final ArrayList<String> PrimitiveType = new ArrayList<String>();
final ArrayList<String> Decl = new ArrayList<String>();
new Visitor() {
public void visitDataFieldList(GNode n) {
visit(n);
}
public void visitFieldDeclaration(GNode n) {
// if (n.getNode(0).size() > 0 )
// privateOrpublic.add(n.getNode(0).getNode(0).getString(0));
/*
if (n.getNode(0).getNode(0).getString(0).equals("static") && n.getNode(1).getNode(0).getString(0).equals("int") )
PrimitiveType.add("static const int32_t ");
**/
if (n.getNode(1).getNode(0).getString(0).equals("int")
&& n.toString().contains("static")) PrimitiveType.add(" static int32_t");
else PrimitiveType.add(n.getNode(1).getNode(0).getString(0));
Decl.add(n.getNode(2).getNode(0).getString(0));
/*
else
Decl.add(n.getNode(2).getNode(0).getString(0) + " = " + n.getNode(2).getNode(0).getNode(2).getString(0));
**/
}
public void visit(Node n) {
for (Object o : n) if (o instanceof Node) dispatch((Node) o);
}
}.dispatch(fields);
// Print out the Data Fields
for (int c = 0; c < Decl.size(); c++) {
p1.println();
p1.println(" " + PrimitiveType.get(c) + " " + Decl.get(c) + ";");
}
List<String> typeOfParameter = new ArrayList<String>();
List<String> DECLARATOR = new ArrayList<String>();
// p1.println(constructorPrinter);
for (int ccd = 0; ccd < constructorPrinter.size(); ccd++) {
// There is more than one parameter
if (constructorPrinter.getNode(ccd).getNode(1).size() >= 1) {
GNode GETPARAMS = GNode.create("GETPARAMS");
GETPARAMS.add(constructorPrinter.getNode(ccd).getNode(1));
// p1.println(GETPARAMS);
// Now Go through the Formal Parameters
for (int dcc = 0; dcc < GETPARAMS.size(); dcc++) {
typeOfParameter.add(
GETPARAMS.getNode(0).getNode(dcc).getNode(1).getNode(0).getString(0));
DECLARATOR.add(GETPARAMS.getNode(0).getNode(dcc).getString(3));
}
} else {
p1.println();
p1.println(" " + className + "();");
}
}
if (DECLARATOR.size() >= 1 && typeOfParameter.size() >= 1) {
p1.print(className + "( ");
for (int goela = 0; goela < typeOfParameter.size(); goela++) {
if (goela != typeOfParameter.size() - 1)
p1.print(typeOfParameter.get(goela) + " " + DECLARATOR.get(goela) + ",");
else p1.print(typeOfParameter.get(goela) + " " + DECLARATOR.get(goela) + ");");
}
}
p1.println();
if ((constructorPrinter.size() == 0)) {
p1.println();
p1.println(" " + "// The Constructor");
p1.println();
p1.println(" " + "__" + plainClassName + "(); ");
}
// Find Instance Methods of the class Basically go through vtMethodPointersList and
// go through its children and check if the qualified identifier is the same as the clas
// name
// Store the names in a Arraylist type
final List<String> names = new ArrayList<String>();
List<String> types2 = new ArrayList<String>();
final List<Integer> indexx = new ArrayList<Integer>();
final HashMap<Integer, String> checkForOtherSuperClass = new HashMap<Integer, String>();
// final HashMap<String,String> checkForPredefinedMethods = new HashMap<String,String>();
// Basically You need to consider this fact there will be however so many Constructors and
// you need to keep a tally to start it like that and
// Ignore those indices
final List<Integer> constuctorIndex = new ArrayList<Integer>();
final GNode constructors = GNode.create("CONSTRUCTOR");
final String constructorNameGetter = plainClassName;
// p1.println(constructors.size());
// p1.println(constructorNameGetter);
// Lets find out which methods are unique
new Visitor() {
public int counter = 0;
public void visitVTConstructorDeclaration(GNode n) {
visit(n);
}
public void visitvtMethodPointersList(GNode n) {
visit(n);
}
public void visitvtMethodPointer(GNode n) {
counter++;
if (!(n.getNode(1).getString(1).equals("__Object"))
&& !(n.getString(0).equals("main_String"))) {
// constructorIndex.add(counter);
// p1.println(n.getString(0));
indexx.add(counter);
names.add(n.getString(0));
// There needs to be a check for the other than __Object && __SuperClass
checkForOtherSuperClass.put(counter, n.getNode(1).getString(1));
// checkForPredefinedMethods.put(n.getString(0), n.getNode(1).getString(1));
} else {
checkForOtherSuperClass.put(counter, n.getNode(1).getString(1));
// constructors.add(n);
}
}
public void visit(Node n) {
for (Object o : n) if (o instanceof Node) dispatch((Node) o);
}
}.dispatch(vMethods);
// p1.println(names);
// p1.println("Constructors" + constructors.size());
// p1.println(checkForOtherSuperClass);
// System.out.println("ARRAY CONTENTS" + names);
// Now lets get the type of the method and store it in Types arraylist
// Visit the Method Declarations of the Java AST and store the types in order into an array.
// Then
// store the corresponding names of the methods in another array then do matching to
// determine the
// the types of the method
// p1.println(checkForOtherSuperClass);
for (int i = 0; i < indexx.size(); i++) {
if (vMethods.getNode(indexx.get(i)).getGeneric(0) != null) {
if (vMethods.getNode(indexx.get(i)).getNode(0).getName().equals("Type")) {
// I think there only needs to be one check for a bool value the rest translate as is
if (vMethods
.getNode(indexx.get(i))
.getNode(0)
.getNode(0)
.getString(0)
.equals("boolean")) types2.add("bool");
else types2.add(vMethods.getNode(indexx.get(i)).getNode(0).getNode(0).getString(0));
} else types2.add("void");
} else {
types2.add(" ");
}
}
// p1.println(types2);
// p1.println(names);
// params are appended to the methods name
List<String> specialnames = new ArrayList<String>();
// A single method name which is a string could essential map to however many Strings
Map<String, String> parameters = new HashMap<String, String>();
// Remove anything after _ in the method these are the parameters that are appended to it
for (int i = 0; i < names.size(); i++) {
Pattern p = Pattern.compile("_");
Matcher m = p.matcher(names.get(i));
if (m.find()) {
// p1.println("FOUND");
// p1.println(m.start());
// ****** Changed
// specialnames.add(names.get(i).substring(0,m.start()));
specialnames.add(names.get(i));
// Money.add(names.get(i));
parameters.put(
specialnames.get(i), names.get(i).substring(m.start(), names.get(i).length()));
} else {
specialnames.add(names.get(i));
// The hashmap needs to be consistent
parameters.put(names.get(i), "ZeroParams");
}
}
// p1.println(names);
// p1.println(parameters);
// p1.println(types2);
// p1.println(parameters);
// Now print the instance methods using the types and names
p1.println(" // The instance methods of java.lang.plainClassName");
// p1.println(specialnames);
// Constructor Initializeer
p1.println(" static " + plainClassName + " init_Construct( " + plainClassName + "); ");
for (int i = 0; i < types2.size(); i++) {
if (parameters.get(specialnames.get(i)).equals("ZeroParams")
&& !(specialnames.get(i).equals(plainClassName)))
p1.println(
" "
+ "static "
+ types2.get(i)
+ " "
+ specialnames.get(i)
+ "( "
+ plainClassName
+ ")"
+ ";");
else {
if (!(specialnames.get(i).equals(plainClassName))) {
ArrayList<Integer> getTheParameters = new ArrayList<Integer>();
p1.print(
" "
+ "static "
+ types2.get(i)
+ " "
+ specialnames.get(i)
+ "( "
+ plainClassName
+ " , ");
Pattern pp = Pattern.compile("_");
Matcher mm = pp.matcher(parameters.get(specialnames.get(i)));
while (mm.find()) {
getTheParameters.add(mm.start());
}
for (int cc = 0; cc < getTheParameters.size(); cc++) {
if (cc != getTheParameters.size() - 1) {
p1.print(
parameters
.get(specialnames.get(i))
.substring(getTheParameters.get(cc) + 1, getTheParameters.get(cc + 1))
+ " , ");
} else {
int length = parameters.get(specialnames.get(i)).length();
p1.print(
parameters
.get(specialnames.get(i))
.substring(getTheParameters.get(cc) + 1, length)
+ ");");
}
}
p1.println();
}
}
}
p1.println();
p1.println(
" // The Function returning the class Object representing java.lang.plainClassName ");
p1.println(" static Class __class(); ");
p1.println(" static void init( " + "__" + plainClassName + "*" + " );");
p1.println();
// Changes for Command line arguements
if (plainClassName.contains("Test")) {
p1.println(" static void main(__rt::Ptr<__rt::Array<String> > args);");
}
p1.println(" static __" + plainClassName + "_" + "VT " + "__vtable;");
p1.println();
p1.println(" };");
p1.println();
// Now print the Constructor taking into account which ones are implemented by the given
// class
p1.println("struct __" + plainClassName + "_" + "VT" + "{");
p1.println(" Class __isa;");
// Introduce some logic to differentiate between new methods and predefined inherited method
// from Object
List<String> arr1 = new ArrayList<String>();
arr1.add("hashcode");
arr1.add("equals");
arr1.add("getClass");
arr1.add("toString");
arr1.add("getName");
arr1.add("getSuperClass");
arr1.add("isInstance");
// Basically iterate through map and add any methods that have a type not equal to the
// You need to add the inherited types
p1.println(" void (*__delete)(__" + plainClassName + "*);");
p1.println(" int32_t (*hashCode)(" + plainClassName + ");");
p1.println(" bool (*equals)(" + plainClassName + " , " + "Object);");
p1.println(" Class (*getClass)(" + plainClassName + ");");
p1.println(" String (*toString) (" + plainClassName + ");");
for (int i = 0; i < names.size(); i++) {
if (!(arr1.contains(names.get(i)))) {
p1.println();
ArrayList<Integer> getTheParameters = new ArrayList<Integer>();
if (parameters.get(specialnames.get(i)).equals("ZeroParams")
&& !(specialnames.get(i).equals(plainClassName)))
p1.println(
" "
+ types2.get(i)
+ " (*"
+ specialnames.get(i)
+ ") ("
+ plainClassName
+ ");");
else {
if (!(specialnames.get(i).equals(plainClassName))) {
Pattern pp = Pattern.compile("_");
Matcher mm = pp.matcher(parameters.get(specialnames.get(i)));
while (mm.find()) {
getTheParameters.add(mm.start());
}
p1.print(
" "
+ types2.get(i)
+ " (*"
+ specialnames.get(i)
+ ") ("
+ plainClassName
+ " , ");
for (int cc = 0; cc < getTheParameters.size(); cc++) {
if (cc != getTheParameters.size() - 1) {
p1.print(
parameters
.get(specialnames.get(i))
.substring(
getTheParameters.get(cc) + 1, getTheParameters.get(cc + 1))
+ " , ");
} else {
int length = parameters.get(specialnames.get(i)).length();
p1.print(
parameters
.get(specialnames.get(i))
.substring(getTheParameters.get(cc) + 1, length)
+ ");");
}
}
}
// p1.println(getTheParameters);
}
}
}
p1.println();
p1.println();
// Now the constructor initilization inlined in the header
p1.println(" __" + plainClassName + "_VT()");
p1.println(" : __isa(__" + plainClassName + "::__class()),");
List<String> getImplementation = new ArrayList<String>();
int COUNT = 0;
// Are there any instance methods
for (int i = 0; i < specialnames.size(); i++) {
if (!(specialnames.equals(plainClassName))) COUNT++;
}
// p1.println(COUNT);
for (int i = 0; i < arr1.size(); i++) {
if (names.contains(arr1.get(i))) {
// Suppose a super class defines an Object method then this is wrong so add an
// additional check
// if(checkForPredefinedMethods.get(arr1.get(i)).equals("__" + plainClassName))
getImplementation.add(plainClassName);
// else
// getImplementation.add(checkForPredefinedMethods.get(arr1.get(i)));
} else {
getImplementation.add("Object");
}
}
// Remove comment to Debug
// p1.println(getImplementation);
p1.println(" __delete(&__rt::__delete<__" + plainClassName + ">),");
// Hardcoded May Need to Change in the final Phase
if (getImplementation.get(0).equals("Object"))
p1.println(
" hashCode((int32_t(*)("
+ plainClassName
+ "))"
+ "&__"
+ getImplementation.get(0)
+ "::hashCode),");
else p1.println(" hashCode(&__" + plainClassName + "::hashCode),");
if (getImplementation.get(1).equals("Object"))
p1.println(
" equals((bool(*)("
+ plainClassName
+ " , Object)) &__"
+ getImplementation.get(1)
+ "::equals), ");
else p1.println(" equals(&__" + plainClassName + "::equals");
if (getImplementation.get(2).equals("Object"))
p1.println(
" getClass((Class(*)("
+ plainClassName
+ ")) &__"
+ getImplementation.get(2)
+ "::getClass), ");
else p1.println(" getClass(&__" + plainClassName + ")");
// Remember to Take care of the comma issue
if (getImplementation
.get(3)
.equals("Object") /*|| !(getImplementation.get(3).equals("__" + plainClassName))**/) {
if (COUNT != 0)
p1.println(
" toString((String(*)("
+ plainClassName
+ ")) &__"
+ getImplementation.get(3)
+ "::toString), ");
else
p1.println(
" toString((String(*)("
+ plainClassName
+ ")) &__"
+ getImplementation.get(3)
+ "::toString) { ");
} else {
int x = names.size();
boolean bat = false;
if ((x == 1) && (names.get(0).equals("toString"))) bat = true;
if (COUNT != 0 && !(bat))
p1.println(" toString(&__" + getImplementation.get(3) + "::toString),");
else p1.println(" toString(&__" + getImplementation.get(3) + "::toString) {");
}
// p1.println(names);
//
for (int uniqueNames = 0; uniqueNames < names.size(); uniqueNames++) {
// Remove Unnecessary Methods
if (arr1.contains(names.get(uniqueNames))) {
names.remove(uniqueNames);
specialnames.remove(uniqueNames);
types2.remove(uniqueNames);
}
}
// p1.println(types2);
// p1.println(names);
// ADD Remaining Methods to implementation
for (int i = 0; i < names.size(); i++) {
if (!(arr1.contains(specialnames.get(i)))
&& checkForOtherSuperClass.get(i + 6).equals(className)
&& (i == names.size() - 1)
&& !(specialnames.get(i).equals(plainClassName))) {
// Remember to Fix this later
p1.println();
p1.println(
" "
+ specialnames.get(i)
+ "(&__"
+ plainClassName
+ "::"
+ specialnames.get(i)
+ ") {");
}
// Finally Add Parameters Here
else {
if (parameters.get(specialnames.get(i)).equals("ZeroParams")
&& !(specialnames.get(i).equals(plainClassName))
&& !(arr1.contains(specialnames.get(i)))) {
if (i != names.size() - 1)
p1.println(
" "
+ specialnames.get(i)
+ "(("
+ types2.get(i)
+ "(*)"
+ "("
+ plainClassName
+ "))"
+ "&"
+ checkForOtherSuperClass.get(i + 6)
+ "::"
+ specialnames.get(i)
+ "),");
else
p1.println(
" "
+ specialnames.get(i)
+ "(("
+ types2.get(i)
+ "(*)"
+ "("
+ plainClassName
+ "))"
+ "&"
+ checkForOtherSuperClass.get(i + 6)
+ "::"
+ specialnames.get(i)
+ ") {");
p1.println();
} else {
if (!(specialnames.get(i).equals(plainClassName))
&& !(arr1.contains(specialnames.get(i)))) {
ArrayList<Integer> getTheParameters = new ArrayList<Integer>();
p1.print(
" "
+ specialnames.get(i)
+ "(("
+ types2.get(i)
+ "(*)"
+ "("
+ plainClassName
+ " , ");
Pattern pp = Pattern.compile("_");
Matcher mm = pp.matcher(parameters.get(specialnames.get(i)));
while (mm.find()) {
getTheParameters.add(mm.start());
}
for (int cc = 0; cc < getTheParameters.size(); cc++) {
if (cc != getTheParameters.size() - 1) {
p1.print(
parameters
.get(specialnames.get(i))
.substring(
getTheParameters.get(cc) + 1, getTheParameters.get(cc + 1))
+ " , ");
} else {
int length = parameters.get(specialnames.get(i)).length();
p1.print(
parameters
.get(specialnames.get(i))
.substring(getTheParameters.get(cc) + 1, length));
if (i != names.size() - 1)
p1.print(
"))"
+ "&"
+ checkForOtherSuperClass.get(i + 6)
+ "::"
+ specialnames.get(i)
+ "),");
else
p1.print(
"))"
+ "&"
+ checkForOtherSuperClass.get(i + 6)
+ "::"
+ specialnames.get(i)
+ ") {");
p1.println();
}
}
// p1.println(getTheParameters);
}
}
}
}
p1.println(" }");
p1.println("};");
p1.println();
p1.println();
p1.println();
/*Remove comments below to Debug**/
}
// p1.println(names);
p1.flush();
p1.close();
} catch (Exception e) {
}
}
private Map<String, com.sun.jdi.connect.Connector.Argument> parseConnectorArgs(
Connector connector, String argString) {
Map<String, com.sun.jdi.connect.Connector.Argument> arguments = connector.defaultArguments();
/*
* We are parsing strings of the form:
* name1=value1,[name2=value2,...]
* However, the value1...valuen substrings may contain
* embedded comma(s), so make provision for quoting inside
* the value substrings. (Bug ID 4285874)
*/
String regexPattern =
"(quote=[^,]+,)|"
+ // special case for quote=.,
"(\\w+=)"
+ // name=
"(((\"[^\"]*\")|"
+ // ( "l , ue"
"('[^']*')|"
+ // 'l , ue'
"([^,'\"]+))+,)"; // v a l u e )+ ,
Pattern p = Pattern.compile(regexPattern);
Matcher m = p.matcher(argString);
while (m.find()) {
int startPosition = m.start();
int endPosition = m.end();
if (startPosition > 0) {
/*
* It is an error if parsing skips over any part of argString.
*/
throw new IllegalArgumentException(
MessageOutput.format("Illegal connector argument", argString));
}
String token = argString.substring(startPosition, endPosition);
int index = token.indexOf('=');
String name = token.substring(0, index);
String value = token.substring(index + 1, token.length() - 1); // Remove comma delimiter
/*
* for values enclosed in quotes (single and/or double quotes)
* strip off enclosing quote chars
* needed for quote enclosed delimited substrings
*/
if (name.equals("options")) {
StringBuilder sb = new StringBuilder();
for (String s : splitStringAtNonEnclosedWhiteSpace(value)) {
while (isEnclosed(s, "\"") || isEnclosed(s, "'")) {
s = s.substring(1, s.length() - 1);
}
sb.append(s);
sb.append(" ");
}
value = sb.toString();
}
Connector.Argument argument = arguments.get(name);
if (argument == null) {
throw new IllegalArgumentException(
MessageOutput.format(
"Argument is not defined for connector:", new Object[] {name, connector.name()}));
}
argument.setValue(value);
argString = argString.substring(endPosition); // Remove what was just parsed...
m = p.matcher(argString); // and parse again on what is left.
}
if ((!argString.equals(",")) && (argString.length() > 0)) {
/*
* It is an error if any part of argString is left over,
* unless it was empty to begin with.
*/
throw new IllegalArgumentException(
MessageOutput.format("Illegal connector argument", argString));
}
return arguments;
}
/**
* Parses the files passed into the <CODE>setTemplateFiles</CODE> method. The data extracted from
* the template files is returned.
*/
public void parse() {
setMessage("Parsing Files");
templates.clear();
importedFieldCount = 0;
importedMacroCount = 0;
File[] templateFiles = getTemplateFiles();
resetParseCanceled();
int totalFileSize = 0;
for (int i = 0; i < templateFiles.length; i++)
if (templateFiles[i].exists()) totalFileSize += (int) templateFiles[i].length();
setProgressMaximum(totalFileSize);
int progress = 0;
setProgressValue(0);
setProgressIndeterminate(false);
for (int i = 0; i < templateFiles.length; i++) {
String currentFilePath = templateFiles[i].getAbsolutePath();
Timestamp modifiedDate = new Timestamp(templateFiles[i].lastModified());
Template currentTemplate = new Template(currentFilePath, modifiedDate);
String[] nameParts = templateFiles[i].getName().split("\\.");
if (nameParts != null && nameParts.length > 0) currentTemplate.setID(nameParts[0]);
templates.add(currentTemplate);
try {
BufferedReader iStream = new BufferedReader(new FileReader(templateFiles[i]));
try {
String currentLine = iStream.readLine();
Signal currentSignal = null, archiveTag = null;
ArchiveRequest request = null;
ArchiveGroup group = null;
HashMap archiveSignals = new HashMap();
int lineNumber = 0;
int braceCount = 0;
while (currentLine != null) // null indicates EOF
{
lineNumber++;
if (currentLine.trim().startsWith("#")) // Comments start with #
{
// Comments start with #. Archive information is embedded in comments.
ArchiveGroup newGroup = parseArchiveGroupTag(currentLine, currentTemplate);
if (newGroup != null) group = newGroup;
else {
ArchiveRequest newRequest =
parseArchiveRequestTag(currentLine, group, currentTemplate);
if (newRequest != null) request = newRequest;
else {
Signal newArchiveTag = parseArchiveTag(currentLine);
if (newArchiveTag != null) {
if (archiveTag != null) // Tag was not used in request. Use for defaults.
archiveSignals.put(archiveTag.getID(), archiveTag);
archiveTag = newArchiveTag;
}
}
}
} else {
Matcher macroMatcher = macroPattern.matcher(currentLine);
if (macroMatcher.find()) {
String macro = macroMatcher.group(1);
if (!currentTemplate.containsMacro(macro)) {
importedMacroCount++;
currentTemplate.addMacro(macro);
}
}
int linePosition = 0;
int lineLength = currentLine.length();
while (linePosition < lineLength) {
int openBracePosition = currentLine.indexOf('{', linePosition);
int closeBracePosition = currentLine.indexOf('}', linePosition);
if (currentSignal == null || braceCount == 0) {
// Got no signal or the brace was never opened...
Matcher recordMatcher = recordPattern.matcher(currentLine);
if (recordMatcher.find(linePosition))
if (openBracePosition < 0 || recordMatcher.start() < openBracePosition) {
linePosition = recordMatcher.end();
SignalType currentSignalType = new SignalType();
String recordType = recordMatcher.group(1);
currentSignalType.setRecordType(new EpicsRecordType(recordType));
String signalID = recordMatcher.group(2);
currentSignal = new Signal(signalID);
currentSignal.setType(currentSignalType);
if (archiveTag != null)
archiveSignals.put(archiveTag.getID(), archiveTag); // Use as defaults.
archiveTag = (Signal) archiveSignals.get(signalID);
if (archiveTag != null) {
currentSignal.setArchiveIndicator("Y");
currentSignal.setArchiveType(archiveTag.getArchiveType());
currentSignal.setArchiveFrequency(archiveTag.getArchiveFrequency());
// Must use a new instance of signal since each request has different
// values for type, frequency, etc.
if (request != null && request.getSignal(signalID) == null)
request.addSignal(new Signal(signalID));
currentSignal.setArchiveIndicator("Y");
currentSignal.setArchiveType(archiveTag.getArchiveType());
currentSignal.setArchiveFrequency(archiveTag.getArchiveFrequency());
}
currentTemplate.addSignal(currentSignal);
archiveTag = null; // Reset so is not used twice.
continue; // Go back and check the line position against length.
}
}
if (braceCount == 0 && currentSignal != null && openBracePosition >= linePosition) {
// Got the signal, need the open brace.
linePosition = openBracePosition + 1;
braceCount++;
continue; // Go back and check the line position against length.
}
if (braceCount > 0) {
// Looking for fields or the close brace.
Matcher fieldMatcher = fieldPattern.matcher(currentLine);
if (fieldMatcher.find(linePosition))
if (closeBracePosition < 0 || fieldMatcher.start() < closeBracePosition) {
// Found a field...
linePosition = fieldMatcher.end();
SignalField currentField = new SignalField();
String currentFieldID = fieldMatcher.group(1);
currentField.setType(new SignalFieldType(currentFieldID));
currentField.setValue(fieldMatcher.group(2));
currentSignal.addField(currentField);
importedFieldCount++;
continue;
}
if (closeBracePosition >= 0) {
// Found end of current signal.
braceCount--;
linePosition = closeBracePosition + 1;
currentSignal = null;
continue;
}
}
linePosition = lineLength;
if (isParseCanceled()) break;
}
}
progress += currentLine.length() + 1;
setProgressValue(progress);
currentLine = iStream.readLine();
if (isParseCanceled()) break;
}
} finally {
iStream.close();
}
} catch (java.io.FileNotFoundException ex) {
StringBuffer errorMessage = new StringBuffer("<HTML><FONT COLOR=RED>Unable to open file '");
errorMessage.append(templateFiles[i].getAbsoluteFile());
errorMessage.append("'.</FONT></HTML>");
addMessage(errorMessage.toString());
} catch (java.io.IOException ex) {
ex.printStackTrace();
StringBuffer errorMessage = new StringBuffer("<HTML><FONT COLOR=RED>IO Error: ");
errorMessage.append(ex.getMessage());
errorMessage.append("</FONT></HTML>");
addMessage(errorMessage.toString());
}
if (isParseCanceled()) break;
}
}