Renames the assembler* files.

src/IceAssembler.cpp

-//===- subzero/src/assembler.cpp - Assembler base class -------------------===//
+//===- subzero/src/IceAssembler.cpp - Assembler base class ----------------===//
 // Copyright (c) 2012, the Dart project authors.  Please see the AUTHORS file
 // for details. All rights reserved. Use of this source code is governed by a
 // BSD-style license that can be found in the LICENSE file.
 //
 // Modified by the Subzero authors.
 //
 // This is forked from Dart revision 39313.
 // Please update the revision if we merge back changes from Dart.
 // https://code.google.com/p/dart/wiki/GettingTheSource
 //
 //===----------------------------------------------------------------------===//
 //
 //                        The Subzero Code Generator
 //
 // This file is distributed under the University of Illinois Open Source
 // License. See LICENSE.TXT for details.
 //
 //===----------------------------------------------------------------------===//
 //
-// This file implements the Assembler class.
+// This file implements the Assembler base class.
 //
 //===----------------------------------------------------------------------===//
 
-#include "assembler.h"
+#include "IceAssembler.h"
 #include "IceGlobalContext.h"
 #include "IceOperand.h"
 
 namespace Ice {
 
-static uintptr_t NewContents(Assembler &assembler, intptr_t capacity) {
-  uintptr_t result = assembler.AllocateBytes(capacity);
-  return result;
+static uintptr_t NewContents(Assembler &Assemblr, intptr_t Capacity) {
+  uintptr_t Result = Assemblr.allocateBytes(Capacity);
+  return Result;
 }
 
 AssemblerFixup *AssemblerBuffer::createFixup(FixupKind Kind,
                                              const Constant *Value) {
   AssemblerFixup *F =
-      new (assembler_.Allocate<AssemblerFixup>()) AssemblerFixup();
+      new (Assemblr.allocate<AssemblerFixup>()) AssemblerFixup();
   F->set_position(0);
   F->set_kind(Kind);
   F->set_value(Value);
-  if (!assembler_.getPreliminary())
-    fixups_.push_back(F);
+  if (!Assemblr.getPreliminary())
+    Fixups.push_back(F);
   return F;
 }
 
 #ifndef NDEBUG
 AssemblerBuffer::EnsureCapacity::EnsureCapacity(AssemblerBuffer *buffer) {
   if (buffer->cursor() >= buffer->limit())
-    buffer->ExtendCapacity();
+    buffer->extendCapacity();
   // In debug mode, we save the assembler buffer along with the gap
   // size before we start emitting to the buffer. This allows us to
   // check that any single generated instruction doesn't overflow the
   // limit implied by the minimum gap size.
-  buffer_ = buffer;
-  gap_ = ComputeGap();
+  Buffer = buffer;
+  Gap = computeGap();
   // Make sure that extending the capacity leaves a big enough gap
   // for any kind of instruction.
-  assert(gap_ >= kMinimumGap);
+  assert(Gap >= kMinimumGap);
   // Mark the buffer as having ensured the capacity.
-  assert(!buffer->HasEnsuredCapacity()); // Cannot nest.
-  buffer->has_ensured_capacity_ = true;
+  assert(!buffer->hasEnsuredCapacity()); // Cannot nest.
+  buffer->HasEnsuredCapacity = true;
 }
 
 AssemblerBuffer::EnsureCapacity::~EnsureCapacity() {
   // Unmark the buffer, so we cannot emit after this.
-  buffer_->has_ensured_capacity_ = false;
+  Buffer->HasEnsuredCapacity = false;
   // Make sure the generated instruction doesn't take up more
   // space than the minimum gap.
-  intptr_t delta = gap_ - ComputeGap();
+  intptr_t delta = Gap - computeGap();
   assert(delta <= kMinimumGap);
 }
 #endif // !NDEBUG
 
-AssemblerBuffer::AssemblerBuffer(Assembler &assembler) : assembler_(assembler) {
+AssemblerBuffer::AssemblerBuffer(Assembler &Asm) : Assemblr(Asm) {
   const intptr_t OneKB = 1024;
   static const intptr_t kInitialBufferCapacity = 4 * OneKB;
-  contents_ = NewContents(assembler_, kInitialBufferCapacity);
-  cursor_ = contents_;
-  limit_ = ComputeLimit(contents_, kInitialBufferCapacity);
+  Contents = NewContents(Assemblr, kInitialBufferCapacity);
+  Cursor = Contents;
+  Limit = computeLimit(Contents, kInitialBufferCapacity);
 #ifndef NDEBUG
-  has_ensured_capacity_ = false;
+  HasEnsuredCapacity = false;
 #endif // !NDEBUG
 
   // Verify internal state.
-  assert(Capacity() == kInitialBufferCapacity);
-  assert(Size() == 0);
+  assert(capacity() == kInitialBufferCapacity);
+  assert(size() == 0);
 }
 
 AssemblerBuffer::~AssemblerBuffer() {}
 
-void AssemblerBuffer::ExtendCapacity() {
-  intptr_t old_size = Size();
-  intptr_t old_capacity = Capacity();
+void AssemblerBuffer::extendCapacity() {
+  intptr_t old_size = size();
+  intptr_t old_capacity = capacity();
   const intptr_t OneMB = 1 << 20;
   intptr_t new_capacity = std::min(old_capacity * 2, old_capacity + OneMB);
   if (new_capacity < old_capacity) {
     llvm::report_fatal_error(
         "Unexpected overflow in AssemblerBuffer::ExtendCapacity");
   }
 
   // Allocate the new data area and copy contents of the old one to it.
-  uintptr_t new_contents = NewContents(assembler_, new_capacity);
+  uintptr_t new_contents = NewContents(Assemblr, new_capacity);
   memmove(reinterpret_cast<void *>(new_contents),
-          reinterpret_cast<void *>(contents_), old_size);
+          reinterpret_cast<void *>(Contents), old_size);
 
   // Compute the relocation delta and switch to the new contents area.
-  intptr_t delta = new_contents - contents_;
-  contents_ = new_contents;
+  intptr_t delta = new_contents - Contents;
+  Contents = new_contents;
 
   // Update the cursor and recompute the limit.
-  cursor_ += delta;
-  limit_ = ComputeLimit(new_contents, new_capacity);
+  Cursor += delta;
+  Limit = computeLimit(new_contents, new_capacity);
 
   // Verify internal state.
-  assert(Capacity() == new_capacity);
-  assert(Size() == old_size);
+  assert(capacity() == new_capacity);
+  assert(size() == old_size);
 }
 
 llvm::StringRef Assembler::getBufferView() const {
-  return llvm::StringRef(reinterpret_cast<const char *>(buffer_.contents()),
-                         buffer_.Size());
+  return llvm::StringRef(reinterpret_cast<const char *>(Buffer.contents()),
+                         Buffer.size());
 }
 
 void Assembler::emitIASBytes(GlobalContext *Ctx) const {
   Ostream &Str = Ctx->getStrEmit();
-  intptr_t EndPosition = buffer_.Size();
+  intptr_t EndPosition = Buffer.size();
   intptr_t CurPosition = 0;
   const intptr_t FixupSize = 4;
   for (const AssemblerFixup *NextFixup : fixups()) {
     intptr_t NextFixupLoc = NextFixup->position();
     for (intptr_t i = CurPosition; i < NextFixupLoc; ++i) {
       Str << "\t.byte 0x";
-      Str.write_hex(buffer_.Load<uint8_t>(i));
+      Str.write_hex(Buffer.load<uint8_t>(i));
       Str << "\n";
     }
     Str << "\t.long ";
-    NextFixup->emit(Ctx, buffer_.Load<RelocOffsetT>(NextFixupLoc));
+    NextFixup->emit(Ctx, Buffer.load<RelocOffsetT>(NextFixupLoc));
     if (fixupIsPCRel(NextFixup->kind()))
       Str << " - .";
     Str << "\n";
     CurPosition = NextFixupLoc + FixupSize;
     assert(CurPosition <= EndPosition);
   }
   // Handle any bytes that are not prefixed by a fixup.
   for (intptr_t i = CurPosition; i < EndPosition; ++i) {
     Str << "\t.byte 0x";
-    Str.write_hex(buffer_.Load<uint8_t>(i));
+    Str.write_hex(Buffer.load<uint8_t>(i));
     Str << "\n";
   }
 }
 
 } // end of namespace Ice