merge -r 122421-124917 viewer-2.0.0-2 -> viewer-2.0.0-3

ignore-dead-branch

1 files changed, 11 insertions, 418 deletions

diff --git a/indra/llcommon/llmemory.h b/indra/llcommon/llmemory.h
index b5c0711484..f41da37ba6 100644
--- a/indra/llcommon/llmemory.h
+++ b/indra/llcommon/llmemory.h
@@ -29,21 +29,17 @@
  * COMPLETENESS OR PERFORMANCE.
  * $/LicenseInfo$
  */
-#ifndef LL_MEMORY_H
-#define LL_MEMORY_H
+#ifndef LLMEMORY_H
+#define LLMEMORY_H
 
-#include <new>
-#include <cstdlib>
 
-#include "llerror.h"
 
 extern S32 gTotalDAlloc;
 extern S32 gTotalDAUse;
 extern S32 gDACount;
 
-const U32 LLREFCOUNT_SENTINEL_VALUE = 0xAAAAAAAA;
-
-//----------------------------------------------------------------------------
+extern void* ll_allocate (size_t size);
+extern void ll_release (void *p);
 
 class LLMemory
 {
@@ -51,422 +47,19 @@ public:
 	static void initClass();
 	static void cleanupClass();
 	static void freeReserve();
+	// Return the resident set size of the current process, in bytes.
+	// Return value is zero if not known.
+	static U64 getCurrentRSS();
 private:
 	static char* reserveMem;
 };
 
-//----------------------------------------------------------------------------
-// RefCount objects should generally only be accessed by way of LLPointer<>'s
-// NOTE: LLPointer<LLFoo> x = new LLFoo(); MAY NOT BE THREAD SAFE
-//   if LLFoo::LLFoo() does anything like put itself in an update queue.
-//   The queue may get accessed before it gets assigned to x.
-// The correct implementation is:
-//   LLPointer<LLFoo> x = new LLFoo; // constructor does not do anything interesting
-//   x->instantiate(); // does stuff like place x into an update queue
-
-// see llthread.h for LLThreadSafeRefCount
-
-//----------------------------------------------------------------------------
-
-class LLRefCount
-{
-protected:
-	LLRefCount(const LLRefCount&); // not implemented
-private:
-	LLRefCount&operator=(const LLRefCount&); // not implemented
-
-protected:
-	virtual ~LLRefCount(); // use unref()
-	
-public:
-	LLRefCount();
-
-	void ref()
-	{ 
-		mRef++; 
-	} 
-
-	S32 unref()
-	{
-		llassert(mRef >= 1);
-		if (0 == --mRef) 
-		{
-			delete this; 
-			return 0;
-		}
-		return mRef;
-	}	
-
-	S32 getNumRefs() const
-	{
-		return mRef;
-	}
-
-private: 
-	S32	mRef; 
-};
-
-//----------------------------------------------------------------------------
-
-// Note: relies on Type having ref() and unref() methods
-template <class Type> class LLPointer
-{
-public:
-
-	LLPointer() : 
-		mPointer(NULL)
-	{
-	}
-
-	LLPointer(Type* ptr) : 
-		mPointer(ptr)
-	{
-		ref();
-	}
-
-	LLPointer(const LLPointer<Type>& ptr) : 
-		mPointer(ptr.mPointer)
-	{
-		ref();
-	}
-
-	// support conversion up the type hierarchy.  See Item 45 in Effective C++, 3rd Ed.
-	template<typename Subclass>
-	LLPointer(const LLPointer<Subclass>& ptr) : 
-		mPointer(ptr.get())
-	{
-		ref();
-	}
-
-	~LLPointer()								
-	{
-		unref();
-	}
-
-	Type*	get() const							{ return mPointer; }
-	const Type*	operator->() const				{ return mPointer; }
-	Type*	operator->()						{ return mPointer; }
-	const Type&	operator*() const				{ return *mPointer; }
-	Type&	operator*()							{ return *mPointer; }
-
-	operator BOOL()  const						{ return (mPointer != NULL); }
-	operator bool()  const						{ return (mPointer != NULL); }
-	bool operator!() const						{ return (mPointer == NULL); }
-	bool isNull() const							{ return (mPointer == NULL); }
-	bool notNull() const						{ return (mPointer != NULL); }
-
-	operator Type*()       const				{ return mPointer; }
-	operator const Type*() const				{ return mPointer; }
-	bool operator !=(Type* ptr) const           { return (mPointer != ptr); 	}
-	bool operator ==(Type* ptr) const           { return (mPointer == ptr); 	}
-	bool operator ==(const LLPointer<Type>& ptr) const           { return (mPointer == ptr.mPointer); 	}
-	bool operator < (const LLPointer<Type>& ptr) const           { return (mPointer < ptr.mPointer); 	}
-	bool operator > (const LLPointer<Type>& ptr) const           { return (mPointer > ptr.mPointer); 	}
-
-	LLPointer<Type>& operator =(Type* ptr)                   
-	{ 
-		if( mPointer != ptr )
-		{
-			unref(); 
-			mPointer = ptr; 
-			ref();
-		}
-
-		return *this; 
-	}
-
-	LLPointer<Type>& operator =(const LLPointer<Type>& ptr)  
-	{ 
-		if( mPointer != ptr.mPointer )
-		{
-			unref(); 
-			mPointer = ptr.mPointer;
-			ref();
-		}
-		return *this; 
-	}
-
-	// support assignment up the type hierarchy. See Item 45 in Effective C++, 3rd Ed.
-	template<typename Subclass>
-	LLPointer<Type>& operator =(const LLPointer<Subclass>& ptr)  
-	{ 
-		if( mPointer != ptr.get() )
-		{
-			unref(); 
-			mPointer = ptr.get();
-			ref();
-		}
-		return *this; 
-	}
-	
-	// Just exchange the pointers, which will not change the reference counts.
-	static void swap(LLPointer<Type>& a, LLPointer<Type>& b)
-	{
-		Type* temp = a.mPointer;
-		a.mPointer = b.mPointer;
-		b.mPointer = temp;
-	}
-
-protected:
-	void ref()                             
-	{ 
-		if (mPointer)
-		{
-			mPointer->ref();
-		}
-	}
-
-	void unref()
-	{
-		if (mPointer)
-		{
-			Type *tempp = mPointer;
-			mPointer = NULL;
-			tempp->unref();
-			if (mPointer != NULL)
-			{
-				llwarns << "Unreference did assignment to non-NULL because of destructor" << llendl;
-				unref();
-			}
-		}
-	}
-
-protected:
-	Type*	mPointer;
-};
-
-//template <class Type> 
-//class LLPointerTraits
-//{
-//	static Type* null();
-//};
-//
-// Expands LLPointer to return a pointer to a special instance of class Type instead of NULL.
-// This is useful in instances where operations on NULL pointers are semantically safe and/or
-// when error checking occurs at a different granularity or in a different part of the code
-// than when referencing an object via a LLSafeHandle.
-// 
-
-template <class Type> 
-class LLSafeHandle
-{
-public:
-	LLSafeHandle() :
-		mPointer(NULL)
-	{
-	}
-
-	LLSafeHandle(Type* ptr) : 
-		mPointer(NULL)
-	{
-		assign(ptr);
-	}
-
-	LLSafeHandle(const LLSafeHandle<Type>& ptr) : 
-		mPointer(NULL)
-	{
-		assign(ptr.mPointer);
-	}
-
-	// support conversion up the type hierarchy.  See Item 45 in Effective C++, 3rd Ed.
-	template<typename Subclass>
-	LLSafeHandle(const LLSafeHandle<Subclass>& ptr) : 
-		mPointer(NULL)
-	{
-		assign(ptr.get());
-	}
-
-	~LLSafeHandle()								
-	{
-		unref();
-	}
-
-	const Type*	operator->() const				{ return nonNull(mPointer); }
-	Type*	operator->()						{ return nonNull(mPointer); }
-
-	Type*	get() const							{ return mPointer; }
-	// we disallow these operations as they expose our null objects to direct manipulation
-	// and bypass the reference counting semantics
-	//const Type&	operator*() const			{ return *nonNull(mPointer); }
-	//Type&	operator*()							{ return *nonNull(mPointer); }
-
-	operator BOOL()  const						{ return mPointer != NULL; }
-	operator bool()  const						{ return mPointer != NULL; }
-	bool operator!() const						{ return mPointer == NULL; }
-	bool isNull() const							{ return mPointer == NULL; }
-	bool notNull() const						{ return mPointer != NULL; }
-
-
-	operator Type*()       const				{ return mPointer; }
-	operator const Type*() const				{ return mPointer; }
-	bool operator !=(Type* ptr) const           { return (mPointer != ptr); 	}
-	bool operator ==(Type* ptr) const           { return (mPointer == ptr); 	}
-	bool operator ==(const LLSafeHandle<Type>& ptr) const           { return (mPointer == ptr.mPointer); 	}
-	bool operator < (const LLSafeHandle<Type>& ptr) const           { return (mPointer < ptr.mPointer); 	}
-	bool operator > (const LLSafeHandle<Type>& ptr) const           { return (mPointer > ptr.mPointer); 	}
-
-	LLSafeHandle<Type>& operator =(Type* ptr)                   
-	{ 
-		assign(ptr);
-		return *this; 
-	}
-
-	LLSafeHandle<Type>& operator =(const LLSafeHandle<Type>& ptr)  
-	{ 
-		assign(ptr.mPointer);
-		return *this; 
-	}
-
-	// support assignment up the type hierarchy. See Item 45 in Effective C++, 3rd Ed.
-	template<typename Subclass>
-	LLSafeHandle<Type>& operator =(const LLSafeHandle<Subclass>& ptr)  
-	{ 
-		assign(ptr.get());
-		return *this; 
-	}
-
-public:
-	typedef Type* (*NullFunc)();
-	static const NullFunc sNullFunc;
-
-protected:
-	void ref()                             
-	{ 
-		if (mPointer)
-		{
-			mPointer->ref();
-		}
-	}
-
-	void unref()
-	{
-		if (mPointer)
-		{
-			Type *tempp = mPointer;
-			mPointer = NULL;
-			tempp->unref();
-			if (mPointer != NULL)
-			{
-				llwarns << "Unreference did assignment to non-NULL because of destructor" << llendl;
-				unref();
-			}
-		}
-	}
-
-	void assign(Type* ptr)
-	{
-		if( mPointer != ptr )
-		{
-			unref(); 
-			mPointer = ptr; 
-			ref();
-		}
-	}
-
-	static Type* nonNull(Type* ptr)
-	{
-		return ptr == NULL ? sNullFunc() : ptr;
-	}
-
-protected:
-	Type*	mPointer;
-};
-
-// LLInitializedPointer is just a pointer with a default constructor that initializes it to NULL
-// NOT a smart pointer like LLPointer<>
-// Useful for example in std::map<int,LLInitializedPointer<LLFoo> >
-//  (std::map uses the default constructor for creating new entries)
-template <typename T> class LLInitializedPointer
-{
-public:
-	LLInitializedPointer() : mPointer(NULL) {}
-	~LLInitializedPointer() { delete mPointer; }
-	
-	const T* operator->() const { return mPointer; }
-	T* operator->() 			{ return mPointer; }
-	const T& operator*() const 	{ return *mPointer; }
-	T& operator*() 				{ return *mPointer; }
-	operator const T*() const	{ return mPointer; }
-	operator T*()				{ return mPointer; }
-	T* operator=(T* x)				{ return (mPointer = x); }
-	operator bool() const		{ return mPointer != NULL; }
-	bool operator!() const		{ return mPointer == NULL; }
-	bool operator==(T* rhs)		{ return mPointer == rhs; }
-	bool operator==(const LLInitializedPointer<T>* rhs) { return mPointer == rhs.mPointer; }
-
-protected:
-	T* mPointer;
-};	
-
-//----------------------------------------------------------------------------
+// LLRefCount moved to llrefcount.h
 
-// LLSingleton implements the getInstance() method part of the Singleton
-// pattern. It can't make the derived class constructors protected, though, so
-// you have to do that yourself.
-//
-// There are two ways to use LLSingleton. The first way is to inherit from it
-// while using the typename that you'd like to be static as the template
-// parameter, like so:
-//
-//   class Foo: public LLSingleton<Foo>{};
-//
-//   Foo& instance = Foo::instance();
-//
-// The second way is to use the singleton class directly, without inheritance:
-//
-//   typedef LLSingleton<Foo> FooSingleton;
-//
-//   Foo& instance = FooSingleton::instance();
-//
-// In this case, the class being managed as a singleton needs to provide an
-// initSingleton() method since the LLSingleton virtual method won't be
-// available
-//
-// As currently written, it is not thread-safe.
-template <typename T>
-class LLSingleton
-{
-public:
-	virtual ~LLSingleton() {}
-#ifdef  LL_MSVC7
-// workaround for VC7 compiler bug
-// adapted from http://www.codeproject.com/KB/tips/VC2003MeyersSingletonBug.aspx
-// our version doesn't introduce a nested struct so that you can still declare LLSingleton<MyClass>
-// a friend and hide your constructor
-	static T* getInstance()
-    {
-        LLSingleton<T> singleton;
-        return singleton.vsHack();
-    }
-
-	T* vsHack()
-#else
-	static T* getInstance()
-#endif
-	{
-		static T instance;
-		static bool needs_init = true;
-		if (needs_init)
-		{
-			needs_init = false;
-			instance.initSingleton();
-		}
-		return &instance;
-	}
-
-	static T& instance()
-	{
-		return *getInstance();
-	}
-
-private:
-	virtual void initSingleton() {}
-};
+// LLPointer moved to llpointer.h
 
-//----------------------------------------------------------------------------
+// LLSafeHandle moved to llsafehandle.h
 
-// Return the resident set size of the current process, in bytes.
-// Return value is zero if not known.
-U64 getCurrentRSS();
+// LLSingleton moved to llsingleton.h
 
 #endif