diff --git a/clang/lib/Analysis/BasicValueFactory.cpp b/clang/lib/Analysis/BasicValueFactory.cpp
index 5ed6d22..b33c277 100644
--- a/clang/lib/Analysis/BasicValueFactory.cpp
+++ b/clang/lib/Analysis/BasicValueFactory.cpp
@@ -8,7 +8,7 @@
 //===----------------------------------------------------------------------===//
 //
 //  This file defines BasicValueFactory, a class that manages the lifetime
-//  of APSInt objects and symbolic constraints used by GRExprEngine 
+//  of APSInt objects and symbolic constraints used by GRExprEngine
 //  and related classes.
 //
 //===----------------------------------------------------------------------===//
@@ -17,7 +17,7 @@
 
 using namespace clang;
 
-void CompoundValData::Profile(llvm::FoldingSetNodeID& ID, QualType T, 
+void CompoundValData::Profile(llvm::FoldingSetNodeID& ID, QualType T,
                               llvm::ImmutableList<SVal> L) {
   T.Profile(ID);
   ID.AddPointer(L.getInternalPointer());
@@ -40,7 +40,7 @@
     ID.AddPointer( (void*) X.second);
   }
 };
-  
+
 template<> struct FoldingSetTrait<SValPair> {
   static inline void Profile(const SValPair& X, llvm::FoldingSetNodeID& ID) {
     X.first.Profile(ID);
@@ -61,8 +61,8 @@
   // frees an aux. memory allocated to represent very large constants.
   for (APSIntSetTy::iterator I=APSIntSet.begin(), E=APSIntSet.end(); I!=E; ++I)
     I->getValue().~APSInt();
-  
-  delete (PersistentSValsTy*) PersistentSVals;  
+
+  delete (PersistentSValsTy*) PersistentSVals;
   delete (PersistentSValPairsTy*) PersistentSValPairs;
 }
 
@@ -70,16 +70,16 @@
   llvm::FoldingSetNodeID ID;
   void* InsertPos;
   typedef llvm::FoldingSetNodeWrapper<llvm::APSInt> FoldNodeTy;
-  
+
   X.Profile(ID);
   FoldNodeTy* P = APSIntSet.FindNodeOrInsertPos(ID, InsertPos);
-  
-  if (!P) {  
+
+  if (!P) {
     P = (FoldNodeTy*) BPAlloc.Allocate<FoldNodeTy>();
     new (P) FoldNodeTy(X);
     APSIntSet.InsertNode(P, InsertPos);
   }
-  
+
   return *P;
 }
 
@@ -92,22 +92,22 @@
 const llvm::APSInt& BasicValueFactory::getValue(uint64_t X, unsigned BitWidth,
                                            bool isUnsigned) {
   llvm::APSInt V(BitWidth, isUnsigned);
-  V = X;  
+  V = X;
   return getValue(V);
 }
 
 const llvm::APSInt& BasicValueFactory::getValue(uint64_t X, QualType T) {
-  
+
   unsigned bits = Ctx.getTypeSize(T);
   llvm::APSInt V(bits, T->isUnsignedIntegerType() || Loc::IsLocType(T));
   V = X;
   return getValue(V);
 }
 
-const CompoundValData* 
+const CompoundValData*
 BasicValueFactory::getCompoundValData(QualType T,
                                       llvm::ImmutableList<SVal> Vals) {
-  
+
   llvm::FoldingSetNodeID ID;
   CompoundValData::Profile(ID, T, Vals);
   void* InsertPos;
@@ -129,104 +129,104 @@
   llvm::FoldingSetNodeID ID;
   LazyCompoundValData::Profile(ID, state, region);
   void* InsertPos;
-  
+
   LazyCompoundValData *D =
     LazyCompoundValDataSet.FindNodeOrInsertPos(ID, InsertPos);
-  
+
   if (!D) {
     D = (LazyCompoundValData*) BPAlloc.Allocate<LazyCompoundValData>();
     new (D) LazyCompoundValData(state, region);
     LazyCompoundValDataSet.InsertNode(D, InsertPos);
   }
-  
+
   return D;
 }
 
 const llvm::APSInt*
 BasicValueFactory::EvaluateAPSInt(BinaryOperator::Opcode Op,
                              const llvm::APSInt& V1, const llvm::APSInt& V2) {
-  
+
   switch (Op) {
     default:
       assert (false && "Invalid Opcode.");
-      
+
     case BinaryOperator::Mul:
       return &getValue( V1 * V2 );
-      
+
     case BinaryOperator::Div:
       return &getValue( V1 / V2 );
-      
+
     case BinaryOperator::Rem:
       return &getValue( V1 % V2 );
-      
+
     case BinaryOperator::Add:
       return &getValue( V1 + V2 );
-      
+
     case BinaryOperator::Sub:
       return &getValue( V1 - V2 );
-      
+
     case BinaryOperator::Shl: {
 
       // FIXME: This logic should probably go higher up, where we can
       // test these conditions symbolically.
-      
+
       // FIXME: Expand these checks to include all undefined behavior.
-      
+
       if (V2.isSigned() && V2.isNegative())
         return NULL;
-      
+
       uint64_t Amt = V2.getZExtValue();
-      
+
       if (Amt > V1.getBitWidth())
         return NULL;
-      
+
       return &getValue( V1.operator<<( (unsigned) Amt ));
     }
-      
+
     case BinaryOperator::Shr: {
-      
+
       // FIXME: This logic should probably go higher up, where we can
       // test these conditions symbolically.
-      
+
       // FIXME: Expand these checks to include all undefined behavior.
-      
+
       if (V2.isSigned() && V2.isNegative())
         return NULL;
-      
+
       uint64_t Amt = V2.getZExtValue();
-      
+
       if (Amt > V1.getBitWidth())
         return NULL;
-      
+
       return &getValue( V1.operator>>( (unsigned) Amt ));
     }
-      
+
     case BinaryOperator::LT:
       return &getTruthValue( V1 < V2 );
-      
+
     case BinaryOperator::GT:
       return &getTruthValue( V1 > V2 );
-      
+
     case BinaryOperator::LE:
       return &getTruthValue( V1 <= V2 );
-      
+
     case BinaryOperator::GE:
       return &getTruthValue( V1 >= V2 );
-      
+
     case BinaryOperator::EQ:
       return &getTruthValue( V1 == V2 );
-      
+
     case BinaryOperator::NE:
       return &getTruthValue( V1 != V2 );
-      
+
       // Note: LAnd, LOr, Comma are handled specially by higher-level logic.
-      
+
     case BinaryOperator::And:
       return &getValue( V1 & V2 );
-      
+
     case BinaryOperator::Or:
       return &getValue( V1 | V2 );
-      
+
     case BinaryOperator::Xor:
       return &getValue( V1 ^ V2 );
   }
@@ -235,21 +235,21 @@
 
 const std::pair<SVal, uintptr_t>&
 BasicValueFactory::getPersistentSValWithData(const SVal& V, uintptr_t Data) {
-  
+
   // Lazily create the folding set.
   if (!PersistentSVals) PersistentSVals = new PersistentSValsTy();
-    
+
   llvm::FoldingSetNodeID ID;
   void* InsertPos;
   V.Profile(ID);
   ID.AddPointer((void*) Data);
-  
+
   PersistentSValsTy& Map = *((PersistentSValsTy*) PersistentSVals);
-  
+
   typedef llvm::FoldingSetNodeWrapper<SValData> FoldNodeTy;
   FoldNodeTy* P = Map.FindNodeOrInsertPos(ID, InsertPos);
-  
-  if (!P) {  
+
+  if (!P) {
     P = (FoldNodeTy*) BPAlloc.Allocate<FoldNodeTy>();
     new (P) FoldNodeTy(std::make_pair(V, Data));
     Map.InsertNode(P, InsertPos);
@@ -260,31 +260,31 @@
 
 const std::pair<SVal, SVal>&
 BasicValueFactory::getPersistentSValPair(const SVal& V1, const SVal& V2) {
-  
+
   // Lazily create the folding set.
   if (!PersistentSValPairs) PersistentSValPairs = new PersistentSValPairsTy();
-  
+
   llvm::FoldingSetNodeID ID;
   void* InsertPos;
   V1.Profile(ID);
   V2.Profile(ID);
-  
+
   PersistentSValPairsTy& Map = *((PersistentSValPairsTy*) PersistentSValPairs);
-  
+
   typedef llvm::FoldingSetNodeWrapper<SValPair> FoldNodeTy;
   FoldNodeTy* P = Map.FindNodeOrInsertPos(ID, InsertPos);
-  
-  if (!P) {  
+
+  if (!P) {
     P = (FoldNodeTy*) BPAlloc.Allocate<FoldNodeTy>();
     new (P) FoldNodeTy(std::make_pair(V1, V2));
     Map.InsertNode(P, InsertPos);
   }
-  
+
   return P->getValue();
 }
 
 const SVal* BasicValueFactory::getPersistentSVal(SVal X) {
   return &getPersistentSValWithData(X, 0).first;
-}  
+}