| Index: include/core/SkTDArray.h
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| diff --git a/include/core/SkTDArray.h b/include/core/SkTDArray.h
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| deleted file mode 100644
|
| index b5332a2cc4aa26d3648ed869c81c0063195dcd9b..0000000000000000000000000000000000000000
|
| --- a/include/core/SkTDArray.h
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| +++ /dev/null
|
| @@ -1,364 +0,0 @@
|
| -
|
| -/*
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| - * Copyright 2006 The Android Open Source Project
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| - *
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| - * Use of this source code is governed by a BSD-style license that can be
|
| - * found in the LICENSE file.
|
| - */
|
| -
|
| -
|
| -#ifndef SkTDArray_DEFINED
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| -#define SkTDArray_DEFINED
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| -
|
| -#include "SkTypes.h"
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| -
|
| -template <typename T> class SkTDArray {
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| -public:
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| - SkTDArray() {
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| - fReserve = fCount = 0;
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| - fArray = NULL;
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| - }
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| - SkTDArray(const T src[], int count) {
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| - SkASSERT(src || count == 0);
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| -
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| - fReserve = fCount = 0;
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| - fArray = NULL;
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| - if (count) {
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| - fArray = (T*)sk_malloc_throw(count * sizeof(T));
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| - memcpy(fArray, src, sizeof(T) * count);
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| - fReserve = fCount = count;
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| - }
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| - }
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| - SkTDArray(const SkTDArray<T>& src) {
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| - fReserve = fCount = 0;
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| - fArray = NULL;
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| - SkTDArray<T> tmp(src.fArray, src.fCount);
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| - this->swap(tmp);
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| - }
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| - ~SkTDArray() {
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| - sk_free(fArray);
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| - }
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| -
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| - SkTDArray<T>& operator=(const SkTDArray<T>& src) {
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| - if (this != &src) {
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| - if (src.fCount > fReserve) {
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| - SkTDArray<T> tmp(src.fArray, src.fCount);
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| - this->swap(tmp);
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| - } else {
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| - sk_careful_memcpy(fArray, src.fArray, sizeof(T) * src.fCount);
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| - fCount = src.fCount;
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| - }
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| - }
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| - return *this;
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| - }
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| -
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| - friend bool operator==(const SkTDArray<T>& a, const SkTDArray<T>& b) {
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| - return a.fCount == b.fCount &&
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| - (a.fCount == 0 ||
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| - !memcmp(a.fArray, b.fArray, a.fCount * sizeof(T)));
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| - }
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| - friend bool operator!=(const SkTDArray<T>& a, const SkTDArray<T>& b) {
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| - return !(a == b);
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| - }
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| -
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| - void swap(SkTDArray<T>& other) {
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| - SkTSwap(fArray, other.fArray);
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| - SkTSwap(fReserve, other.fReserve);
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| - SkTSwap(fCount, other.fCount);
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| - }
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| -
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| - /** Return a ptr to the array of data, to be freed with sk_free. This also
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| - resets the SkTDArray to be empty.
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| - */
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| - T* detach() {
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| - T* array = fArray;
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| - fArray = NULL;
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| - fReserve = fCount = 0;
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| - return array;
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| - }
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| -
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| - bool isEmpty() const { return fCount == 0; }
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| -
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| - /**
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| - * Return the number of elements in the array
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| - */
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| - int count() const { return fCount; }
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| -
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| - /**
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| - * Return the total number of elements allocated.
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| - * reserved() - count() gives you the number of elements you can add
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| - * without causing an allocation.
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| - */
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| - int reserved() const { return fReserve; }
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| -
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| - /**
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| - * return the number of bytes in the array: count * sizeof(T)
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| - */
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| - size_t bytes() const { return fCount * sizeof(T); }
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| -
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| - T* begin() { return fArray; }
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| - const T* begin() const { return fArray; }
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| - T* end() { return fArray ? fArray + fCount : NULL; }
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| - const T* end() const { return fArray ? fArray + fCount : NULL; }
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| -
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| - T& operator[](int index) {
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| - SkASSERT(index < fCount);
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| - return fArray[index];
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| - }
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| - const T& operator[](int index) const {
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| - SkASSERT(index < fCount);
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| - return fArray[index];
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| - }
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| -
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| - T& getAt(int index) {
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| - return (*this)[index];
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| - }
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| - const T& getAt(int index) const {
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| - return (*this)[index];
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| - }
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| -
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| - void reset() {
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| - if (fArray) {
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| - sk_free(fArray);
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| - fArray = NULL;
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| - fReserve = fCount = 0;
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| - } else {
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| - SkASSERT(fReserve == 0 && fCount == 0);
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| - }
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| - }
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| -
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| - void rewind() {
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| - // same as setCount(0)
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| - fCount = 0;
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| - }
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| -
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| - /**
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| - * Sets the number of elements in the array.
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| - * If the array does not have space for count elements, it will increase
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| - * the storage allocated to some amount greater than that required.
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| - * It will never shrink the storage.
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| - */
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| - void setCount(int count) {
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| - SkASSERT(count >= 0);
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| - if (count > fReserve) {
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| - this->resizeStorageToAtLeast(count);
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| - }
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| - fCount = count;
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| - }
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| -
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| - void setReserve(int reserve) {
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| - if (reserve > fReserve) {
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| - this->resizeStorageToAtLeast(reserve);
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| - }
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| - }
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| -
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| - T* prepend() {
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| - this->adjustCount(1);
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| - memmove(fArray + 1, fArray, (fCount - 1) * sizeof(T));
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| - return fArray;
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| - }
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| -
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| - T* append() {
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| - return this->append(1, NULL);
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| - }
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| - T* append(int count, const T* src = NULL) {
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| - int oldCount = fCount;
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| - if (count) {
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| - SkASSERT(src == NULL || fArray == NULL ||
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| - src + count <= fArray || fArray + oldCount <= src);
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| -
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| - this->adjustCount(count);
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| - if (src) {
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| - memcpy(fArray + oldCount, src, sizeof(T) * count);
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| - }
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| - }
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| - return fArray + oldCount;
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| - }
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| -
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| - T* appendClear() {
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| - T* result = this->append();
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| - *result = 0;
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| - return result;
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| - }
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| -
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| - T* insert(int index) {
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| - return this->insert(index, 1, NULL);
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| - }
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| - T* insert(int index, int count, const T* src = NULL) {
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| - SkASSERT(count);
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| - SkASSERT(index <= fCount);
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| - size_t oldCount = fCount;
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| - this->adjustCount(count);
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| - T* dst = fArray + index;
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| - memmove(dst + count, dst, sizeof(T) * (oldCount - index));
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| - if (src) {
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| - memcpy(dst, src, sizeof(T) * count);
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| - }
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| - return dst;
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| - }
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| -
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| - void remove(int index, int count = 1) {
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| - SkASSERT(index + count <= fCount);
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| - fCount = fCount - count;
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| - memmove(fArray + index, fArray + index + count, sizeof(T) * (fCount - index));
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| - }
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| -
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| - void removeShuffle(int index) {
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| - SkASSERT(index < fCount);
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| - int newCount = fCount - 1;
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| - fCount = newCount;
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| - if (index != newCount) {
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| - memcpy(fArray + index, fArray + newCount, sizeof(T));
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| - }
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| - }
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| -
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| - int find(const T& elem) const {
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| - const T* iter = fArray;
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| - const T* stop = fArray + fCount;
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| -
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| - for (; iter < stop; iter++) {
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| - if (*iter == elem) {
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| - return SkToInt(iter - fArray);
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| - }
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| - }
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| - return -1;
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| - }
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| -
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| - int rfind(const T& elem) const {
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| - const T* iter = fArray + fCount;
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| - const T* stop = fArray;
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| -
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| - while (iter > stop) {
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| - if (*--iter == elem) {
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| - return SkToInt(iter - stop);
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| - }
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| - }
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| - return -1;
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| - }
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| -
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| - /**
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| - * Returns true iff the array contains this element.
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| - */
|
| - bool contains(const T& elem) const {
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| - return (this->find(elem) >= 0);
|
| - }
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| -
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| - /**
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| - * Copies up to max elements into dst. The number of items copied is
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| - * capped by count - index. The actual number copied is returned.
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| - */
|
| - int copyRange(T* dst, int index, int max) const {
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| - SkASSERT(max >= 0);
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| - SkASSERT(!max || dst);
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| - if (index >= fCount) {
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| - return 0;
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| - }
|
| - int count = SkMin32(max, fCount - index);
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| - memcpy(dst, fArray + index, sizeof(T) * count);
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| - return count;
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| - }
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| -
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| - void copy(T* dst) const {
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| - this->copyRange(dst, 0, fCount);
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| - }
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| -
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| - // routines to treat the array like a stack
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| - T* push() { return this->append(); }
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| - void push(const T& elem) { *this->append() = elem; }
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| - const T& top() const { return (*this)[fCount - 1]; }
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| - T& top() { return (*this)[fCount - 1]; }
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| - void pop(T* elem) { SkASSERT(fCount > 0); if (elem) *elem = (*this)[fCount - 1]; --fCount; }
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| - void pop() { SkASSERT(fCount > 0); --fCount; }
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| -
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| - void deleteAll() {
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| - T* iter = fArray;
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| - T* stop = fArray + fCount;
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| - while (iter < stop) {
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| - delete *iter;
|
| - iter += 1;
|
| - }
|
| - this->reset();
|
| - }
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| -
|
| - void freeAll() {
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| - T* iter = fArray;
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| - T* stop = fArray + fCount;
|
| - while (iter < stop) {
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| - sk_free(*iter);
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| - iter += 1;
|
| - }
|
| - this->reset();
|
| - }
|
| -
|
| - void unrefAll() {
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| - T* iter = fArray;
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| - T* stop = fArray + fCount;
|
| - while (iter < stop) {
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| - (*iter)->unref();
|
| - iter += 1;
|
| - }
|
| - this->reset();
|
| - }
|
| -
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| - void safeUnrefAll() {
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| - T* iter = fArray;
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| - T* stop = fArray + fCount;
|
| - while (iter < stop) {
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| - SkSafeUnref(*iter);
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| - iter += 1;
|
| - }
|
| - this->reset();
|
| - }
|
| -
|
| - void visitAll(void visitor(T&)) {
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| - T* stop = this->end();
|
| - for (T* curr = this->begin(); curr < stop; curr++) {
|
| - if (*curr) {
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| - visitor(*curr);
|
| - }
|
| - }
|
| - }
|
| -
|
| -#ifdef SK_DEBUG
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| - void validate() const {
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| - SkASSERT((fReserve == 0 && fArray == NULL) ||
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| - (fReserve > 0 && fArray != NULL));
|
| - SkASSERT(fCount <= fReserve);
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| - }
|
| -#endif
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| -
|
| - void shrinkToFit() {
|
| - fReserve = fCount;
|
| - fArray = (T*)sk_realloc_throw(fArray, fReserve * sizeof(T));
|
| - }
|
| -
|
| -private:
|
| - T* fArray;
|
| - int fReserve;
|
| - int fCount;
|
| -
|
| - /**
|
| - * Adjusts the number of elements in the array.
|
| - * This is the same as calling setCount(count() + delta).
|
| - */
|
| - void adjustCount(int delta) {
|
| - this->setCount(fCount + delta);
|
| - }
|
| -
|
| - /**
|
| - * Increase the storage allocation such that it can hold (fCount + extra)
|
| - * elements.
|
| - * It never shrinks the allocation, and it may increase the allocation by
|
| - * more than is strictly required, based on a private growth heuristic.
|
| - *
|
| - * note: does NOT modify fCount
|
| - */
|
| - void resizeStorageToAtLeast(int count) {
|
| - SkASSERT(count > fReserve);
|
| - fReserve = count + 4;
|
| - fReserve += fReserve / 4;
|
| - fArray = (T*)sk_realloc_throw(fArray, fReserve * sizeof(T));
|
| - }
|
| -};
|
| -
|
| -#endif
|
|
|