Keep only base/extractor.[cc|h].

third_party/chrome/base/scoped_ptr.h

Index: third_party/chrome/base/scoped_ptr.h
diff --git a/third_party/chrome/base/scoped_ptr.h b/third_party/chrome/base/scoped_ptr.h
deleted file mode 100644
index 4489f2dac3bdb0e6865ec4da977af775b7080136..0000000000000000000000000000000000000000
--- a/third_party/chrome/base/scoped_ptr.h
+++ /dev/null
@@ -1,380 +0,0 @@
-// Copyright (c) 2006-2008 The Chromium Authors. All rights reserved.
-// Use of this source code is governed by a BSD-style license that can be
-// found in the LICENSE file.
-
-// Scopers help you manage ownership of a pointer, helping you easily manage the
-// a pointer within a scope, and automatically destroying the pointer at the
-// end of a scope.  There are two main classes you will use, which coorespond
-// to the operators new/delete and new[]/delete[].
-//
-// Example usage (scoped_ptr):
-//   {
-//     scoped_ptr<Foo> foo(new Foo("wee"));
-//   }  // foo goes out of scope, releasing the pointer with it.
-//
-//   {
-//     scoped_ptr<Foo> foo;          // No pointer managed.
-//     foo.reset(new Foo("wee"));    // Now a pointer is managed.
-//     foo.reset(new Foo("wee2"));   // Foo("wee") was destroyed.
-//     foo.reset(new Foo("wee3"));   // Foo("wee2") was destroyed.
-//     foo->Method();                // Foo::Method() called.
-//     foo.get()->Method();          // Foo::Method() called.
-//     SomeFunc(foo.Release());      // SomeFunc takes owernship, foo no longer
-//                                   // manages a pointer.
-//     foo.reset(new Foo("wee4"));   // foo manages a pointer again.
-//     foo.reset();                  // Foo("wee4") destroyed, foo no longer
-//                                   // manages a pointer.
-//   }  // foo wasn't managing a pointer, so nothing was destroyed.
-//
-// Example usage (scoped_array):
-//   {
-//     scoped_array<Foo> foo(new Foo[100]);
-//     foo.get()->Method();  // Foo::Method on the 0th element.
-//     foo[10].Method();     // Foo::Method on the 10th element.
-//   }
-
-#ifndef BASE_SCOPED_PTR_H_
-#define BASE_SCOPED_PTR_H_
-
-// This is an implementation designed to match the anticipated future TR2
-// implementation of the scoped_ptr class, and its closely-related brethren,
-// scoped_array, scoped_ptr_malloc.
-
-#include <assert.h>
-#include <stdlib.h>
-#include <cstddef>
-
-// A scoped_ptr<T> is like a T*, except that the destructor of scoped_ptr<T>
-// automatically deletes the pointer it holds (if any).
-// That is, scoped_ptr<T> owns the T object that it points to.
-// Like a T*, a scoped_ptr<T> may hold either NULL or a pointer to a T object.
-// Also like T*, scoped_ptr<T> is thread-compatible, and once you
-// dereference it, you get the threadsafety guarantees of T.
-//
-// The size of a scoped_ptr is small:
-// sizeof(scoped_ptr<C>) == sizeof(C*)
-template <class C>
-class scoped_ptr {
- public:
-
-  // The element type
-  typedef C element_type;
-
-  // Constructor.  Defaults to intializing with NULL.
-  // There is no way to create an uninitialized scoped_ptr.
-  // The input parameter must be allocated with new.
-  explicit scoped_ptr(C* p = NULL) : ptr_(p) { }
-
-  // Destructor.  If there is a C object, delete it.
-  // We don't need to test ptr_ == NULL because C++ does that for us.
-  ~scoped_ptr() {
-    enum { type_must_be_complete = sizeof(C) };
-    delete ptr_;
-  }
-
-  // Reset.  Deletes the current owned object, if any.
-  // Then takes ownership of a new object, if given.
-  // this->reset(this->get()) works.
-  void reset(C* p = NULL) {
-    if (p != ptr_) {
-      enum { type_must_be_complete = sizeof(C) };
-      delete ptr_;
-      ptr_ = p;
-    }
-  }
-
-  // Accessors to get the owned object.
-  // operator* and operator-> will assert() if there is no current object.
-  C& operator*() const {
-    assert(ptr_ != NULL);
-    return *ptr_;
-  }
-  C* operator->() const  {
-    assert(ptr_ != NULL);
-    return ptr_;
-  }
-  C* get() const { return ptr_; }
-
-  // Comparison operators.
-  // These return whether two scoped_ptr refer to the same object, not just to
-  // two different but equal objects.
-  bool operator==(C* p) const { return ptr_ == p; }
-  bool operator!=(C* p) const { return ptr_ != p; }
-
-  // Swap two scoped pointers.
-  void swap(scoped_ptr& p2) {
-    C* tmp = ptr_;
-    ptr_ = p2.ptr_;
-    p2.ptr_ = tmp;
-  }
-
-  // Release a pointer.
-  // The return value is the current pointer held by this object.
-  // If this object holds a NULL pointer, the return value is NULL.
-  // After this operation, this object will hold a NULL pointer,
-  // and will not own the object any more.
-  C* release() {
-    C* retVal = ptr_;
-    ptr_ = NULL;
-    return retVal;
-  }
-
- private:
-  C* ptr_;
-
-  // Forbid comparison of scoped_ptr types.  If C2 != C, it totally doesn't
-  // make sense, and if C2 == C, it still doesn't make sense because you should
-  // never have the same object owned by two different scoped_ptrs.
-  template <class C2> bool operator==(scoped_ptr<C2> const& p2) const;
-  template <class C2> bool operator!=(scoped_ptr<C2> const& p2) const;
-
-  // Disallow evil constructors
-  scoped_ptr(const scoped_ptr&);
-  void operator=(const scoped_ptr&);
-};
-
-// Free functions
-template <class C>
-void swap(scoped_ptr<C>& p1, scoped_ptr<C>& p2) {
-  p1.swap(p2);
-}
-
-template <class C>
-bool operator==(C* p1, const scoped_ptr<C>& p2) {
-  return p1 == p2.get();
-}
-
-template <class C>
-bool operator!=(C* p1, const scoped_ptr<C>& p2) {
-  return p1 != p2.get();
-}
-
-// scoped_array<C> is like scoped_ptr<C>, except that the caller must allocate
-// with new [] and the destructor deletes objects with delete [].
-//
-// As with scoped_ptr<C>, a scoped_array<C> either points to an object
-// or is NULL.  A scoped_array<C> owns the object that it points to.
-// scoped_array<T> is thread-compatible, and once you index into it,
-// the returned objects have only the threadsafety guarantees of T.
-//
-// Size: sizeof(scoped_array<C>) == sizeof(C*)
-template <class C>
-class scoped_array {
- public:
-
-  // The element type
-  typedef C element_type;
-
-  // Constructor.  Defaults to intializing with NULL.
-  // There is no way to create an uninitialized scoped_array.
-  // The input parameter must be allocated with new [].
-  explicit scoped_array(C* p = NULL) : array_(p) { }
-
-  // Destructor.  If there is a C object, delete it.
-  // We don't need to test ptr_ == NULL because C++ does that for us.
-  ~scoped_array() {
-    enum { type_must_be_complete = sizeof(C) };
-    delete[] array_;
-  }
-
-  // Reset.  Deletes the current owned object, if any.
-  // Then takes ownership of a new object, if given.
-  // this->reset(this->get()) works.
-  void reset(C* p = NULL) {
-    if (p != array_) {
-      enum { type_must_be_complete = sizeof(C) };
-      delete[] array_;
-      array_ = p;
-    }
-  }
-
-  // Get one element of the current object.
-  // Will assert() if there is no current object, or index i is negative.
-  C& operator[](std::ptrdiff_t i) const {
-    assert(i >= 0);
-    assert(array_ != NULL);
-    return array_[i];
-  }
-
-  // Get a pointer to the zeroth element of the current object.
-  // If there is no current object, return NULL.
-  C* get() const {
-    return array_;
-  }
-
-  // Comparison operators.
-  // These return whether two scoped_array refer to the same object, not just to
-  // two different but equal objects.
-  bool operator==(C* p) const { return array_ == p; }
-  bool operator!=(C* p) const { return array_ != p; }
-
-  // Swap two scoped arrays.
-  void swap(scoped_array& p2) {
-    C* tmp = array_;
-    array_ = p2.array_;
-    p2.array_ = tmp;
-  }
-
-  // Release an array.
-  // The return value is the current pointer held by this object.
-  // If this object holds a NULL pointer, the return value is NULL.
-  // After this operation, this object will hold a NULL pointer,
-  // and will not own the object any more.
-  C* release() {
-    C* retVal = array_;
-    array_ = NULL;
-    return retVal;
-  }
-
- private:
-  C* array_;
-
-  // Forbid comparison of different scoped_array types.
-  template <class C2> bool operator==(scoped_array<C2> const& p2) const;
-  template <class C2> bool operator!=(scoped_array<C2> const& p2) const;
-
-  // Disallow evil constructors
-  scoped_array(const scoped_array&);
-  void operator=(const scoped_array&);
-};
-
-// Free functions
-template <class C>
-void swap(scoped_array<C>& p1, scoped_array<C>& p2) {
-  p1.swap(p2);
-}
-
-template <class C>
-bool operator==(C* p1, const scoped_array<C>& p2) {
-  return p1 == p2.get();
-}
-
-template <class C>
-bool operator!=(C* p1, const scoped_array<C>& p2) {
-  return p1 != p2.get();
-}
-
-// This class wraps the c library function free() in a class that can be
-// passed as a template argument to scoped_ptr_malloc below.
-class ScopedPtrMallocFree {
- public:
-  inline void operator()(void* x) const {
-    free(x);
-  }
-};
-
-// scoped_ptr_malloc<> is similar to scoped_ptr<>, but it accepts a
-// second template argument, the functor used to free the object.
-
-template<class C, class FreeProc = ScopedPtrMallocFree>
-class scoped_ptr_malloc {
- public:
-
-  // The element type
-  typedef C element_type;
-
-  // Constructor.  Defaults to intializing with NULL.
-  // There is no way to create an uninitialized scoped_ptr.
-  // The input parameter must be allocated with an allocator that matches the
-  // Free functor.  For the default Free functor, this is malloc, calloc, or
-  // realloc.
-  explicit scoped_ptr_malloc(C* p = NULL): ptr_(p) {}
-
-  // Destructor.  If there is a C object, call the Free functor.
-  ~scoped_ptr_malloc() {
-    free_(ptr_);
-  }
-
-  // Reset.  Calls the Free functor on the current owned object, if any.
-  // Then takes ownership of a new object, if given.
-  // this->reset(this->get()) works.
-  void reset(C* p = NULL) {
-    if (ptr_ != p) {
-      free_(ptr_);
-      ptr_ = p;
-    }
-  }
-
-  // Get the current object.
-  // operator* and operator-> will cause an assert() failure if there is
-  // no current object.
-  C& operator*() const {
-    assert(ptr_ != NULL);
-    return *ptr_;
-  }
-
-  C* operator->() const {
-    assert(ptr_ != NULL);
-    return ptr_;
-  }
-
-  C* get() const {
-    return ptr_;
-  }
-
-  // Comparison operators.
-  // These return whether a scoped_ptr_malloc and a plain pointer refer
-  // to the same object, not just to two different but equal objects.
-  // For compatibility wwith the boost-derived implementation, these
-  // take non-const arguments.
-  bool operator==(C* p) const {
-    return ptr_ == p;
-  }
-
-  bool operator!=(C* p) const {
-    return ptr_ != p;
-  }
-
-  // Swap two scoped pointers.
-  void swap(scoped_ptr_malloc & b) {
-    C* tmp = b.ptr_;
-    b.ptr_ = ptr_;
-    ptr_ = tmp;
-  }
-
-  // Release a pointer.
-  // The return value is the current pointer held by this object.
-  // If this object holds a NULL pointer, the return value is NULL.
-  // After this operation, this object will hold a NULL pointer,
-  // and will not own the object any more.
-  C* release() {
-    C* tmp = ptr_;
-    ptr_ = NULL;
-    return tmp;
-  }
-
- private:
-  C* ptr_;
-
-  // no reason to use these: each scoped_ptr_malloc should have its own object
-  template <class C2, class GP>
-  bool operator==(scoped_ptr_malloc<C2, GP> const& p) const;
-  template <class C2, class GP>
-  bool operator!=(scoped_ptr_malloc<C2, GP> const& p) const;
-
-  static FreeProc const free_;
-
-  // Disallow evil constructors
-  scoped_ptr_malloc(const scoped_ptr_malloc&);
-  void operator=(const scoped_ptr_malloc&);
-};
-
-template<class C, class FP>
-FP const scoped_ptr_malloc<C, FP>::free_ = FP();
-
-template<class C, class FP> inline
-void swap(scoped_ptr_malloc<C, FP>& a, scoped_ptr_malloc<C, FP>& b) {
-  a.swap(b);
-}
-
-template<class C, class FP> inline
-bool operator==(C* p, const scoped_ptr_malloc<C, FP>& b) {
-  return p == b.get();
-}
-
-template<class C, class FP> inline
-bool operator!=(C* p, const scoped_ptr_malloc<C, FP>& b) {
-  return p != b.get();
-}
-
-#endif  // BASE_SCOPED_PTR_H_