Examples with DoubleType soot.DoubleType used on opensource projects

Example 6 with DoubleType

use of soot.DoubleType in project soot by Sable.

the class TypeCastingError method inASTStatementSequenceNode.

public void inASTStatementSequenceNode(ASTStatementSequenceNode node) {
    for (AugmentedStmt as : node.getStatements()) {
        Stmt s = as.get_Stmt();
        if (!(s instanceof DefinitionStmt))
            continue;
        DefinitionStmt ds = (DefinitionStmt) s;
        if (myDebug)
            System.out.println("Definition stmt" + ds);
        ValueBox rightBox = ds.getRightOpBox();
        ValueBox leftBox = ds.getLeftOpBox();
        Value right = rightBox.getValue();
        Value left = leftBox.getValue();
        if (!(left.getType() instanceof PrimType && right.getType() instanceof PrimType)) {
            // only interested in prim type casting errors
            if (myDebug)
                System.out.println("\tDefinition stmt does not contain prims no need to modify");
            continue;
        }
        Type leftType = left.getType();
        Type rightType = right.getType();
        if (myDebug)
            System.out.println("Left type is: " + leftType);
        if (myDebug)
            System.out.println("Right type is: " + rightType);
        if (leftType.equals(rightType)) {
            if (myDebug)
                System.out.println("\tTypes are the same");
            if (myDebug)
                System.out.println("Right value is of instance" + right.getClass());
        }
        if (!leftType.equals(rightType)) {
            if (myDebug)
                System.out.println("\tDefinition stmt has to be modified");
            /*
				 * byte  	 Byte-length integer  	8-bit two's complement
				 * short 	Short integer 	16-bit two's complement
				 * int 	Integer 	32-bit two's complement
				 * long 	Long integer 	64-bit two's complement
				 * float 	Single-precision floating point 	32-bit IEEE 754
				 * double Double-precision floating point  	64-bit IEEE 754 	
				 */
            if (leftType instanceof ByteType && (rightType instanceof DoubleType || rightType instanceof FloatType || rightType instanceof IntType || rightType instanceof LongType || rightType instanceof ShortType)) {
                if (DEBUG)
                    System.out.println("Explicit casting to BYTE required");
                rightBox.setValue(new GCastExpr(right, ByteType.v()));
                if (DEBUG)
                    System.out.println("New right expr is " + rightBox.getValue().toString());
                continue;
            }
            if (leftType instanceof ShortType && (rightType instanceof DoubleType || rightType instanceof FloatType || rightType instanceof IntType || rightType instanceof LongType)) {
                if (DEBUG)
                    System.out.println("Explicit casting to SHORT required");
                rightBox.setValue(new GCastExpr(right, ShortType.v()));
                if (DEBUG)
                    System.out.println("New right expr is " + rightBox.getValue().toString());
                continue;
            }
            if (leftType instanceof IntType && (rightType instanceof DoubleType || rightType instanceof FloatType || rightType instanceof LongType)) {
                if (myDebug)
                    System.out.println("Explicit casting to INT required");
                rightBox.setValue(new GCastExpr(right, IntType.v()));
                if (myDebug)
                    System.out.println("New right expr is " + rightBox.getValue().toString());
                continue;
            }
            if (leftType instanceof LongType && (rightType instanceof DoubleType || rightType instanceof FloatType)) {
                if (DEBUG)
                    System.out.println("Explicit casting to LONG required");
                rightBox.setValue(new GCastExpr(right, LongType.v()));
                if (DEBUG)
                    System.out.println("New right expr is " + rightBox.getValue().toString());
                continue;
            }
            if (leftType instanceof FloatType && rightType instanceof DoubleType) {
                if (DEBUG)
                    System.out.println("Explicit casting to FLOAT required");
                rightBox.setValue(new GCastExpr(right, FloatType.v()));
                if (DEBUG)
                    System.out.println("New right expr is " + rightBox.getValue().toString());
                continue;
            }
        }
    }
}

Example 7 with DoubleType

use of soot.DoubleType in project soot by Sable.

the class DavaPrinter method printTo.

public void printTo(SootClass cl, PrintWriter out) {
    // IterableSet packagesUsed = new IterableSet();
    IterableSet importList = new IterableSet();
    {
        String curPackage = cl.getJavaPackageName();
        if (!curPackage.equals("")) {
            out.println("package " + curPackage + ";");
            out.println();
        }
        if (cl.hasSuperclass()) {
            SootClass superClass = cl.getSuperclass();
            importList.add(superClass.toString());
        // packagesUsed.add(superClass.getJavaPackageName());
        }
        Iterator<SootClass> interfaceIt = cl.getInterfaces().iterator();
        while (interfaceIt.hasNext()) {
            String interfacePackage = ((SootClass) interfaceIt.next()).toString();
            if (!importList.contains(interfacePackage))
                importList.add(interfacePackage);
        // if (!packagesUsed.contains(interfacePackage))
        // packagesUsed.add(interfacePackage);
        }
        Iterator<SootMethod> methodIt = cl.methodIterator();
        while (methodIt.hasNext()) {
            SootMethod dm = (SootMethod) methodIt.next();
            if (dm.hasActiveBody()) {
                // packagesUsed = packagesUsed.union(((DavaBody) dm.getActiveBody()).get_PackagesUsed());
                importList = importList.union(((DavaBody) dm.getActiveBody()).getImportList());
            }
            Iterator<SootClass> eit = dm.getExceptions().iterator();
            while (eit.hasNext()) {
                String thrownPackage = eit.next().toString();
                if (!importList.contains(thrownPackage))
                    importList.add(thrownPackage);
            // if (!packagesUsed.contains(thrownPackage))
            // packagesUsed.add(thrownPackage);
            }
            Iterator<Type> pit = dm.getParameterTypes().iterator();
            while (pit.hasNext()) {
                Type t = (Type) pit.next();
                if (t instanceof RefType) {
                    String paramPackage = ((RefType) t).getSootClass().toString();
                    if (!importList.contains(paramPackage))
                        importList.add(paramPackage);
                // if (packagesUsed.contains(paramPackage) == false)
                // packagesUsed.add(paramPackage);
                }
            }
            Type t = dm.getReturnType();
            if (t instanceof RefType) {
                String returnPackage = ((RefType) t).getSootClass().toString();
                if (!importList.contains(returnPackage))
                    importList.add(returnPackage);
            // if (packagesUsed.contains(returnPackage) == false)
            // packagesUsed.add(returnPackage);
            }
        }
        Iterator<SootField> fieldIt = cl.getFields().iterator();
        while (fieldIt.hasNext()) {
            SootField f = (SootField) fieldIt.next();
            if (f.isPhantom())
                continue;
            Type t = f.getType();
            if (t instanceof RefType) {
                String fieldPackage = ((RefType) t).getSootClass().toString();
                if (!importList.contains(fieldPackage))
                    importList.add(fieldPackage);
            }
        }
        Iterator<String> pit = importList.iterator();
        List<String> toImport = new ArrayList<String>();
        while (pit.hasNext()) {
            /*
            	 * dont import any file which has currentPackage.className
            	 * dont import any file which starts with java.lang
            	 */
            String temp = (String) pit.next();
            // System.out.println("temp is "+temp);
            if (temp.indexOf("java.lang") > -1) {
                // problem is that we need to import sub packages java.lang.ref
                // for instance if the type is java.lang.ref.WeakReference
                String tempClassName = RemoveFullyQualifiedName.getClassName(temp);
                if (temp.equals("java.lang." + tempClassName)) {
                    // System.out.println("temp was not printed as it belongs to java.lang");
                    continue;
                }
            }
            if (curPackage.length() > 0 && temp.indexOf(curPackage) > -1) {
                // System.out.println("here  "+temp);
                continue;
            }
            if (cl.toString().equals(temp))
                continue;
            // System.out.println("printing"+);
            toImport.add(temp);
        }
        /*
             * Check that we are not importing two classes with the same last name
             * If yes then remove explicit import and import the whole package
             * else output explicit import statement
             */
        Iterator it = toImport.iterator();
        while (it.hasNext()) {
            String temp = (String) it.next();
            if (RemoveFullyQualifiedName.containsMultiple(toImport.iterator(), temp, null)) {
                // import package add *
                if (temp.lastIndexOf('.') > -1) {
                    temp = temp.substring(0, temp.lastIndexOf('.'));
                    out.println("import " + temp + ".*;");
                } else
                    throw new DecompilationException("Cant find the DOT . for fullyqualified name");
            } else {
                if (temp.lastIndexOf('.') == -1) {
                // dot not found this is a class belonging to this package so dont add
                } else
                    out.println("import " + temp + ";");
            }
        }
        boolean addNewLine = false;
        addNewLine = true;
        if (addNewLine)
            out.println();
        /*if (!packagesUsed.isEmpty())
                out.println();

            packagesUsed.add("java.lang");
            packagesUsed.add(curPackage);
            */
        Dava.v().set_CurrentPackageContext(importList);
        // Dava.v().set_CurrentPackageContext(packagesUsed);
        Dava.v().set_CurrentPackage(curPackage);
    }
    // Print class name + modifiers
    {
        String classPrefix = "";
        classPrefix = classPrefix + " " + Modifier.toString(cl.getModifiers());
        classPrefix = classPrefix.trim();
        if (!cl.isInterface()) {
            classPrefix = classPrefix + " class";
            classPrefix = classPrefix.trim();
        }
        out.print(classPrefix + " " + cl.getShortJavaStyleName());
    }
    // Print extension
    if (cl.hasSuperclass() && !(cl.getSuperclass().getName().equals("java.lang.Object"))) {
        String superClassName = cl.getSuperclass().getName();
        // Nomair Naeem 8th Feb 2006
        // also check if the super class name is not a fully qualified
        // name. in which case if the package is imported no need for
        // the long name
        superClassName = RemoveFullyQualifiedName.getReducedName(importList, superClassName, cl.getType());
        out.print(" extends " + superClassName + "");
    }
    // Print interfaces
    {
        Iterator<SootClass> interfaceIt = cl.getInterfaces().iterator();
        if (interfaceIt.hasNext()) {
            if (cl.isInterface())
                out.print(" extends ");
            else
                out.print(" implements ");
            out.print("" + (interfaceIt.next()).getName() + "");
            while (interfaceIt.hasNext()) out.print(", " + (interfaceIt.next()).getName() + "");
        }
    }
    out.println();
    out.println("{");
    // Print fields
    {
        Iterator<SootField> fieldIt = cl.getFields().iterator();
        if (fieldIt.hasNext()) {
            while (fieldIt.hasNext()) {
                SootField f = fieldIt.next();
                if (f.isPhantom())
                    continue;
                String declaration = null;
                Type fieldType = f.getType();
                String qualifiers = Modifier.toString(f.getModifiers()) + " ";
                qualifiers += RemoveFullyQualifiedName.getReducedName(importList, fieldType.toString(), fieldType);
                qualifiers = qualifiers.trim();
                if (qualifiers.equals(""))
                    declaration = Scene.v().quotedNameOf(f.getName());
                else
                    declaration = qualifiers + " " + Scene.v().quotedNameOf(f.getName()) + "";
                if (f.isFinal() && f.isStatic()) {
                    if (fieldType instanceof DoubleType && f.hasTag("DoubleConstantValueTag")) {
                        double val = ((DoubleConstantValueTag) f.getTag("DoubleConstantValueTag")).getDoubleValue();
                        out.println("    " + declaration + " = " + val + ";");
                    } else if (fieldType instanceof FloatType && f.hasTag("FloatConstantValueTag")) {
                        float val = ((FloatConstantValueTag) f.getTag("FloatConstantValueTag")).getFloatValue();
                        out.println("    " + declaration + " = " + val + "f;");
                    } else if (fieldType instanceof LongType && f.hasTag("LongConstantValueTag")) {
                        long val = ((LongConstantValueTag) f.getTag("LongConstantValueTag")).getLongValue();
                        out.println("    " + declaration + " = " + val + "l;");
                    } else if (fieldType instanceof CharType && f.hasTag("IntegerConstantValueTag")) {
                        int val = ((IntegerConstantValueTag) f.getTag("IntegerConstantValueTag")).getIntValue();
                        out.println("    " + declaration + " = '" + ((char) val) + "';");
                    } else if (fieldType instanceof BooleanType && f.hasTag("IntegerConstantValueTag")) {
                        int val = ((IntegerConstantValueTag) f.getTag("IntegerConstantValueTag")).getIntValue();
                        if (val == 0)
                            out.println("    " + declaration + " = false;");
                        else
                            out.println("    " + declaration + " = true;");
                    } else if ((fieldType instanceof IntType || fieldType instanceof ByteType || fieldType instanceof ShortType) && f.hasTag("IntegerConstantValueTag")) {
                        int val = ((IntegerConstantValueTag) f.getTag("IntegerConstantValueTag")).getIntValue();
                        out.println("    " + declaration + " = " + val + ";");
                    } else if (f.hasTag("StringConstantValueTag")) {
                        String val = ((StringConstantValueTag) f.getTag("StringConstantValueTag")).getStringValue();
                        out.println("    " + declaration + " = \"" + val + "\";");
                    } else {
                        // System.out.println("Couldnt find type of
                        // field"+f.getDeclaration());
                        out.println("    " + declaration + ";");
                    }
                } else // field is static final
                {
                    out.println("    " + declaration + ";");
                }
            }
        }
    }
    // Print methods
    {
        Iterator<SootMethod> methodIt = cl.methodIterator();
        if (methodIt.hasNext()) {
            if (cl.getMethodCount() != 0)
                out.println();
            while (methodIt.hasNext()) {
                SootMethod method = (SootMethod) methodIt.next();
                if (method.isPhantom())
                    continue;
                if (!Modifier.isAbstract(method.getModifiers()) && !Modifier.isNative(method.getModifiers())) {
                    if (!method.hasActiveBody())
                        throw new RuntimeException("method " + method.getName() + " has no active body!");
                    else
                        printTo(method.getActiveBody(), out);
                    if (methodIt.hasNext())
                        out.println();
                } else {
                    // if method is abstract then print the declaration
                    out.print("    ");
                    out.print(method.getDavaDeclaration());
                    out.println(";");
                    if (methodIt.hasNext())
                        out.println();
                }
            }
        }
    }
    if (G.v().SootClassNeedsDavaSuperHandlerClass.contains(cl)) {
        out.println("\n    private static class DavaSuperHandler{");
        out.println("         java.util.Vector myVector = new java.util.Vector();");
        out.println("\n         public Object get(int pos){");
        out.println("            return myVector.elementAt(pos);");
        out.println("         }");
        out.println("\n         public void store(Object obj){");
        out.println("            myVector.add(obj);");
        out.println("         }");
        out.println("    }");
    }
    out.println("}");
}

Example 8 with DoubleType

use of soot.DoubleType in project soot by Sable.

the class ExprVisitor method caseNegExpr.

@Override
public void caseNegExpr(NegExpr ne) {
    Value source = ne.getOp();
    constantV.setOrigStmt(origStmt);
    Register sourceReg = regAlloc.asImmediate(source, constantV);
    Opcode opc;
    Type type = source.getType();
    if (type instanceof IntegerType) {
        opc = Opcode.NEG_INT;
    } else if (type instanceof FloatType) {
        opc = Opcode.NEG_FLOAT;
    } else if (type instanceof DoubleType) {
        opc = Opcode.NEG_DOUBLE;
    } else if (type instanceof LongType) {
        opc = Opcode.NEG_LONG;
    } else {
        throw new RuntimeException("unsupported value type for neg-* opcode: " + type);
    }
    stmtV.addInsn(new Insn12x(opc, destinationReg, sourceReg), origStmt);
}

Example 9 with DoubleType

use of soot.DoubleType in project soot by Sable.

the class ConstantCastEliminator method internalTransform.

@Override
protected void internalTransform(Body b, String phaseName, Map<String, String> options) {
    // Check for all assignments that perform casts on primitive constants
    for (Unit u : b.getUnits()) {
        if (u instanceof AssignStmt) {
            AssignStmt assign = (AssignStmt) u;
            if (assign.getRightOp() instanceof CastExpr) {
                CastExpr ce = (CastExpr) assign.getRightOp();
                if (ce.getOp() instanceof Constant) {
                    // a = (float) 42
                    if (ce.getType() instanceof FloatType && ce.getOp() instanceof IntConstant) {
                        IntConstant it = (IntConstant) ce.getOp();
                        assign.setRightOp(FloatConstant.v(it.value));
                    } else // a = (double) 42
                    if (ce.getType() instanceof DoubleType && ce.getOp() instanceof IntConstant) {
                        IntConstant it = (IntConstant) ce.getOp();
                        assign.setRightOp(DoubleConstant.v(it.value));
                    }
                }
            }
        }
    }
}

Example 10 with DoubleType

use of soot.DoubleType in project soot by Sable.

the class LocalNameStandardizer method internalTransform.

@Override
protected void internalTransform(Body body, String phaseName, Map<String, String> options) {
    boolean onlyStackName = PhaseOptions.getBoolean(options, "only-stack-locals");
    boolean sortLocals = PhaseOptions.getBoolean(options, "sort-locals");
    final BooleanType booleanType = BooleanType.v();
    final ByteType byteType = ByteType.v();
    final ShortType shortType = ShortType.v();
    final CharType charType = CharType.v();
    final IntType intType = IntType.v();
    final LongType longType = LongType.v();
    final DoubleType doubleType = DoubleType.v();
    final FloatType floatType = FloatType.v();
    final ErroneousType erroneousType = ErroneousType.v();
    final UnknownType unknownType = UnknownType.v();
    final StmtAddressType stmtAddressType = StmtAddressType.v();
    final NullType nullType = NullType.v();
    // Change the names to the standard forms now.
    {
        int objectCount = 0;
        int intCount = 0;
        int longCount = 0;
        int floatCount = 0;
        int doubleCount = 0;
        int addressCount = 0;
        int errorCount = 0;
        int nullCount = 0;
        /* The goal of this option is to ensure that local ordering remains
             * consistent between different iterations of soot. This helps to ensure
             * things like stable string representations of instructions and stable
             * jimple representations of a methods body when soot is used to load
             * the same code in different iterations.
             * 
             * First sorts the locals alphabetically by the string representation of
             * their type. Then if there are two locals with the same type, it uses
             * the only other source of structurally stable information (i.e. the 
             * instructions themselves) to produce an ordering for the locals
             * that remains consistent between different soot instances. It achieves
             * this by determining the position of a local's first occurrence in the 
             * instruction's list of definition statements. This position is then used
             * to sort the locals with the same type in an ascending order. 
             * 
             * The only times that this may not produce a consistent ordering for the 
             * locals between different soot instances is if a local is never defined in
             * the instructions or if the instructions themselves are changed in some way
             * that effects the ordering of the locals. In the first case, if a local is 
             * never defined, the other jimple body phases will remove this local as it is 
             * unused. As such, all we have to do is rerun this LocalNameStandardizer after
             * all other jimple body phases to eliminate any ambiguity introduced by these
             * phases and by the removed unused locals. In the second case, if the instructions
             * themselves changed then the user would have had to intentionally told soot to
             * modify the instructions of the code. Otherwise, the instructions would not have
             * changed because we assume the instructions to always be structurally stable
             * between different instances of soot. As such, in this instance, the user should
             * not be expecting soot to produce the same output as the input and thus the
             * ordering of the locals does not matter.
             */
        if (sortLocals) {
            Chain<Local> locals = body.getLocals();
            final List<ValueBox> defs = body.getDefBoxes();
            ArrayList<Local> sortedLocals = new ArrayList<Local>(locals);
            Collections.sort(sortedLocals, new Comparator<Local>() {

                private Map<Local, Integer> firstOccuranceCache = new HashMap<Local, Integer>();

                @Override
                public int compare(Local arg0, Local arg1) {
                    int ret = arg0.getType().toString().compareTo(arg1.getType().toString());
                    if (ret == 0) {
                        ret = Integer.compare(getFirstOccurance(arg0), getFirstOccurance(arg1));
                    }
                    return ret;
                }

                private int getFirstOccurance(Local l) {
                    Integer cur = firstOccuranceCache.get(l);
                    if (cur != null) {
                        return cur;
                    } else {
                        int count = 0;
                        int first = -1;
                        for (ValueBox vb : defs) {
                            Value v = vb.getValue();
                            if (v instanceof Local && v.equals(l)) {
                                first = count;
                                break;
                            }
                            count++;
                        }
                        firstOccuranceCache.put(l, first);
                        return first;
                    }
                }
            });
            locals.clear();
            locals.addAll(sortedLocals);
        }
        for (Local l : body.getLocals()) {
            String prefix = "";
            if (l.getName().startsWith("$"))
                prefix = "$";
            else {
                if (onlyStackName)
                    continue;
            }
            final Type type = l.getType();
            if (type.equals(booleanType))
                l.setName(prefix + "z" + intCount++);
            else if (type.equals(byteType))
                l.setName(prefix + "b" + longCount++);
            else if (type.equals(shortType))
                l.setName(prefix + "s" + longCount++);
            else if (type.equals(charType))
                l.setName(prefix + "c" + longCount++);
            else if (type.equals(intType))
                l.setName(prefix + "i" + longCount++);
            else if (type.equals(longType))
                l.setName(prefix + "l" + longCount++);
            else if (type.equals(doubleType))
                l.setName(prefix + "d" + doubleCount++);
            else if (type.equals(floatType))
                l.setName(prefix + "f" + floatCount++);
            else if (type.equals(stmtAddressType))
                l.setName(prefix + "a" + addressCount++);
            else if (type.equals(erroneousType) || type.equals(unknownType)) {
                l.setName(prefix + "e" + errorCount++);
            } else if (type.equals(nullType))
                l.setName(prefix + "n" + nullCount++);
            else
                l.setName(prefix + "r" + objectCount++);
        }
    }
}