feat: Traditional Chinese version (#1163)

* First commit

* Update mkdocs.yml

* Translate all the docs to traditional Chinese

* Translate the code files.

* Translate the docker file

* Fix mkdocs.yml

* Translate all the figures from SC to TC

* 二叉搜尋樹 -> 二元搜尋樹

* Update terminology.

* Update terminology

* 构造函数/构造方法 -> 建構子
异或 -> 互斥或

* 擴充套件 -> 擴展

* constant - 常量 - 常數

* 類	-> 類別

* AVL -> AVL 樹

* 數組 -> 陣列

* 係統 -> 系統
斐波那契數列 -> 費波那契數列
運算元量 -> 運算量
引數 -> 參數

* 聯絡 -> 關聯

* 麵試 -> 面試

* 面向物件 -> 物件導向
歸併排序 -> 合併排序
范式 -> 範式

* Fix 算法 -> 演算法

* 錶示 -> 表示
反碼 -> 一補數
補碼 -> 二補數
列列尾部 -> 佇列尾部
區域性性 -> 區域性
一摞 -> 一疊

* Synchronize with main branch

* 賬號 -> 帳號
推匯 -> 推導

* Sync with main branch

* First commit

* Update mkdocs.yml

* Translate all the docs to traditional Chinese

* Translate the code files.

* Translate the docker file

* Fix mkdocs.yml

* Translate all the figures from SC to TC

* 二叉搜尋樹 -> 二元搜尋樹

* Update terminology

* 构造函数/构造方法 -> 建構子
异或 -> 互斥或

* 擴充套件 -> 擴展

* constant - 常量 - 常數

* 類	-> 類別

* AVL -> AVL 樹

* 數組 -> 陣列

* 係統 -> 系統
斐波那契數列 -> 費波那契數列
運算元量 -> 運算量
引數 -> 參數

* 聯絡 -> 關聯

* 麵試 -> 面試

* 面向物件 -> 物件導向
歸併排序 -> 合併排序
范式 -> 範式

* Fix 算法 -> 演算法

* 錶示 -> 表示
反碼 -> 一補數
補碼 -> 二補數
列列尾部 -> 佇列尾部
區域性性 -> 區域性
一摞 -> 一疊

* Synchronize with main branch

* 賬號 -> 帳號
推匯 -> 推導

* Sync with main branch

* Update terminology.md

* 操作数量(num. of operations)-> 操作數量

* 字首和->前綴和

* Update figures

* 歸 -> 迴
記憶體洩漏 -> 記憶體流失

* Fix the bug of the file filter

* 支援 -> 支持
Add zh-Hant/README.md

* Add the zh-Hant chapter covers.
Bug fixes.

* 外掛 -> 擴充功能

* Add the landing page for zh-Hant version

* Unify the font of the chapter covers for the zh, en, and zh-Hant version

* Move zh-Hant/ to zh-hant/

* Translate terminology.md to traditional Chinese
This commit is contained in:
Yudong Jin
2024-04-06 02:30:11 +08:00
committed by GitHub
parent 33d7f8a2e5
commit 5f7385c8a3
1875 changed files with 102923 additions and 18 deletions
@@ -0,0 +1,6 @@
add_executable(array_stack array_stack.c)
add_executable(linkedlist_stack linkedlist_stack.c)
add_executable(array_queue array_queue.c)
add_executable(linkedlist_queue linkedlist_queue.c)
add_executable(array_deque array_deque.c)
add_executable(linkedlist_deque linkedlist_deque.c)
@@ -0,0 +1,159 @@
/**
* File: array_deque.c
* Created Time: 2023-03-13
* Author: Gonglja (glj0@outlook.com)
*/
#include "../utils/common.h"
/* 基於環形陣列實現的雙向佇列 */
typedef struct {
int *nums; // 用於儲存佇列元素的陣列
int front; // 佇列首指標,指向佇列首元素
int queSize; // 尾指標,指向佇列尾 + 1
int queCapacity; // 佇列容量
} ArrayDeque;
/* 建構子 */
ArrayDeque *newArrayDeque(int capacity) {
ArrayDeque *deque = (ArrayDeque *)malloc(sizeof(ArrayDeque));
// 初始化陣列
deque->queCapacity = capacity;
deque->nums = (int *)malloc(sizeof(int) * deque->queCapacity);
deque->front = deque->queSize = 0;
return deque;
}
/* 析構函式 */
void delArrayDeque(ArrayDeque *deque) {
free(deque->nums);
free(deque);
}
/* 獲取雙向佇列的容量 */
int capacity(ArrayDeque *deque) {
return deque->queCapacity;
}
/* 獲取雙向佇列的長度 */
int size(ArrayDeque *deque) {
return deque->queSize;
}
/* 判斷雙向佇列是否為空 */
bool empty(ArrayDeque *deque) {
return deque->queSize == 0;
}
/* 計算環形陣列索引 */
int dequeIndex(ArrayDeque *deque, int i) {
// 透過取餘操作實現陣列首尾相連
// 當 i 越過陣列尾部時,回到頭部
// 當 i 越過陣列頭部後,回到尾部
return ((i + capacity(deque)) % capacity(deque));
}
/* 佇列首入列 */
void pushFirst(ArrayDeque *deque, int num) {
if (deque->queSize == capacity(deque)) {
printf("雙向佇列已滿\r\n");
return;
}
// 佇列首指標向左移動一位
// 透過取餘操作實現 front 越過陣列頭部回到尾部
deque->front = dequeIndex(deque, deque->front - 1);
// 將 num 新增到佇列首
deque->nums[deque->front] = num;
deque->queSize++;
}
/* 佇列尾入列 */
void pushLast(ArrayDeque *deque, int num) {
if (deque->queSize == capacity(deque)) {
printf("雙向佇列已滿\r\n");
return;
}
// 計算佇列尾指標,指向佇列尾索引 + 1
int rear = dequeIndex(deque, deque->front + deque->queSize);
// 將 num 新增至佇列尾
deque->nums[rear] = num;
deque->queSize++;
}
/* 訪問佇列首元素 */
int peekFirst(ArrayDeque *deque) {
// 訪問異常:雙向佇列為空
assert(empty(deque) == 0);
return deque->nums[deque->front];
}
/* 訪問佇列尾元素 */
int peekLast(ArrayDeque *deque) {
// 訪問異常:雙向佇列為空
assert(empty(deque) == 0);
int last = dequeIndex(deque, deque->front + deque->queSize - 1);
return deque->nums[last];
}
/* 佇列首出列 */
int popFirst(ArrayDeque *deque) {
int num = peekFirst(deque);
// 佇列首指標向後移動一位
deque->front = dequeIndex(deque, deque->front + 1);
deque->queSize--;
return num;
}
/* 佇列尾出列 */
int popLast(ArrayDeque *deque) {
int num = peekLast(deque);
deque->queSize--;
return num;
}
/* Driver Code */
int main() {
/* 初始化佇列 */
int capacity = 10;
ArrayDeque *deque = newArrayDeque(capacity);
pushLast(deque, 3);
pushLast(deque, 2);
pushLast(deque, 5);
printf("雙向佇列 deque = ");
printArray(deque->nums, deque->queSize);
/* 訪問元素 */
int peekFirstNum = peekFirst(deque);
printf("佇列首元素 peekFirst = %d\r\n", peekFirstNum);
int peekLastNum = peekLast(deque);
printf("佇列尾元素 peekLast = %d\r\n", peekLastNum);
/* 元素入列 */
pushLast(deque, 4);
printf("元素 4 佇列尾入列後 deque = ");
printArray(deque->nums, deque->queSize);
pushFirst(deque, 1);
printf("元素 1 佇列首入列後 deque = ");
printArray(deque->nums, deque->queSize);
/* 元素出列 */
int popLastNum = popLast(deque);
printf("佇列尾出列元素 = %d ,佇列尾出列後 deque= ", popLastNum);
printArray(deque->nums, deque->queSize);
int popFirstNum = popFirst(deque);
printf("佇列首出列元素 = %d ,佇列首出列後 deque= ", popFirstNum);
printArray(deque->nums, deque->queSize);
/* 獲取佇列的長度 */
int dequeSize = size(deque);
printf("雙向佇列長度 size = %d\r\n", dequeSize);
/* 判斷佇列是否為空 */
bool isEmpty = empty(deque);
printf("佇列是否為空 = %s\r\n", isEmpty ? "true" : "false");
// 釋放記憶體
delArrayDeque(deque);
return 0;
}
@@ -0,0 +1,121 @@
/**
* File: array_queue.c
* Created Time: 2023-01-28
* Author: Zero (glj0@outlook.com)
*/
#include "../utils/common.h"
/* 基於環形陣列實現的佇列 */
typedef struct {
int *nums; // 用於儲存佇列元素的陣列
int front; // 佇列首指標,指向佇列首元素
int queSize; // 尾指標,指向佇列尾 + 1
int queCapacity; // 佇列容量
} ArrayQueue;
/* 建構子 */
ArrayQueue *newArrayQueue(int capacity) {
ArrayQueue *queue = (ArrayQueue *)malloc(sizeof(ArrayQueue));
// 初始化陣列
queue->queCapacity = capacity;
queue->nums = (int *)malloc(sizeof(int) * queue->queCapacity);
queue->front = queue->queSize = 0;
return queue;
}
/* 析構函式 */
void delArrayQueue(ArrayQueue *queue) {
free(queue->nums);
free(queue);
}
/* 獲取佇列的容量 */
int capacity(ArrayQueue *queue) {
return queue->queCapacity;
}
/* 獲取佇列的長度 */
int size(ArrayQueue *queue) {
return queue->queSize;
}
/* 判斷佇列是否為空 */
bool empty(ArrayQueue *queue) {
return queue->queSize == 0;
}
/* 訪問佇列首元素 */
int peek(ArrayQueue *queue) {
assert(size(queue) != 0);
return queue->nums[queue->front];
}
/* 入列 */
void push(ArrayQueue *queue, int num) {
if (size(queue) == capacity(queue)) {
printf("佇列已滿\r\n");
return;
}
// 計算佇列尾指標,指向佇列尾索引 + 1
// 透過取餘操作實現 rear 越過陣列尾部後回到頭部
int rear = (queue->front + queue->queSize) % queue->queCapacity;
// 將 num 新增至佇列尾
queue->nums[rear] = num;
queue->queSize++;
}
/* 出列 */
int pop(ArrayQueue *queue) {
int num = peek(queue);
// 佇列首指標向後移動一位,若越過尾部,則返回到陣列頭部
queue->front = (queue->front + 1) % queue->queCapacity;
queue->queSize--;
return num;
}
/* Driver Code */
int main() {
/* 初始化佇列 */
int capacity = 10;
ArrayQueue *queue = newArrayQueue(capacity);
/* 元素入列 */
push(queue, 1);
push(queue, 3);
push(queue, 2);
push(queue, 5);
push(queue, 4);
printf("佇列 queue = ");
printArray(queue->nums, queue->queSize);
/* 訪問佇列首元素 */
int peekNum = peek(queue);
printf("佇列首元素 peek = %d\r\n", peekNum);
/* 元素出列 */
peekNum = pop(queue);
printf("出列元素 pop = %d ,出列後 queue = ", peekNum);
printArray(queue->nums, queue->queSize);
/* 獲取佇列的長度 */
int queueSize = size(queue);
printf("佇列長度 size = %d\r\n", queueSize);
/* 判斷佇列是否為空 */
bool isEmpty = empty(queue);
printf("佇列是否為空 = %s\r\n", isEmpty ? "true" : "false");
/* 測試環形陣列 */
for (int i = 0; i < 10; i++) {
push(queue, i);
pop(queue);
printf("第 %d 輪入列 + 出列後 queue = ", i);
printArray(queue->nums, queue->queSize);
}
// 釋放記憶體
delArrayQueue(queue);
return 0;
}
@@ -0,0 +1,103 @@
/**
* File: array_stack.c
* Created Time: 2023-01-12
* Author: Zero (glj0@outlook.com)
*/
#include "../utils/common.h"
#define MAX_SIZE 5000
/* 基於陣列實現的堆疊 */
typedef struct {
int *data;
int size;
} ArrayStack;
/* 建構子 */
ArrayStack *newArrayStack() {
ArrayStack *stack = malloc(sizeof(ArrayStack));
// 初始化一個大容量,避免擴容
stack->data = malloc(sizeof(int) * MAX_SIZE);
stack->size = 0;
return stack;
}
/* 析構函式 */
void delArrayStack(ArrayStack *stack) {
free(stack->data);
free(stack);
}
/* 獲取堆疊的長度 */
int size(ArrayStack *stack) {
return stack->size;
}
/* 判斷堆疊是否為空 */
bool isEmpty(ArrayStack *stack) {
return stack->size == 0;
}
/* 入堆疊 */
void push(ArrayStack *stack, int num) {
if (stack->size == MAX_SIZE) {
printf("堆疊已滿\n");
return;
}
stack->data[stack->size] = num;
stack->size++;
}
/* 訪問堆疊頂元素 */
int peek(ArrayStack *stack) {
if (stack->size == 0) {
printf("堆疊為空\n");
return INT_MAX;
}
return stack->data[stack->size - 1];
}
/* 出堆疊 */
int pop(ArrayStack *stack) {
int val = peek(stack);
stack->size--;
return val;
}
/* Driver Code */
int main() {
/* 初始化堆疊 */
ArrayStack *stack = newArrayStack();
/* 元素入堆疊 */
push(stack, 1);
push(stack, 3);
push(stack, 2);
push(stack, 5);
push(stack, 4);
printf("堆疊 stack = ");
printArray(stack->data, stack->size);
/* 訪問堆疊頂元素 */
int val = peek(stack);
printf("堆疊頂元素 top = %d\n", val);
/* 元素出堆疊 */
val = pop(stack);
printf("出堆疊元素 pop = %d ,出堆疊後 stack = ", val);
printArray(stack->data, stack->size);
/* 獲取堆疊的長度 */
int size = stack->size;
printf("堆疊的長度 size = %d\n", size);
/* 判斷是否為空 */
bool empty = isEmpty(stack);
printf("堆疊是否為空 = %stack\n", empty ? "true" : "false");
// 釋放記憶體
delArrayStack(stack);
return 0;
}
@@ -0,0 +1,212 @@
/**
* File: linkedlist_deque.c
* Created Time: 2023-03-13
* Author: Gonglja (glj0@outlook.com)
*/
#include "../utils/common.h"
/* 雙向鏈結串列節點 */
typedef struct DoublyListNode {
int val; // 節點值
struct DoublyListNode *next; // 後繼節點
struct DoublyListNode *prev; // 前驅節點
} DoublyListNode;
/* 建構子 */
DoublyListNode *newDoublyListNode(int num) {
DoublyListNode *new = (DoublyListNode *)malloc(sizeof(DoublyListNode));
new->val = num;
new->next = NULL;
new->prev = NULL;
return new;
}
/* 析構函式 */
void delDoublyListNode(DoublyListNode *node) {
free(node);
}
/* 基於雙向鏈結串列實現的雙向佇列 */
typedef struct {
DoublyListNode *front, *rear; // 頭節點 front ,尾節點 rear
int queSize; // 雙向佇列的長度
} LinkedListDeque;
/* 建構子 */
LinkedListDeque *newLinkedListDeque() {
LinkedListDeque *deque = (LinkedListDeque *)malloc(sizeof(LinkedListDeque));
deque->front = NULL;
deque->rear = NULL;
deque->queSize = 0;
return deque;
}
/* 析構函式 */
void delLinkedListdeque(LinkedListDeque *deque) {
// 釋放所有節點
for (int i = 0; i < deque->queSize && deque->front != NULL; i++) {
DoublyListNode *tmp = deque->front;
deque->front = deque->front->next;
free(tmp);
}
// 釋放 deque 結構體
free(deque);
}
/* 獲取佇列的長度 */
int size(LinkedListDeque *deque) {
return deque->queSize;
}
/* 判斷佇列是否為空 */
bool empty(LinkedListDeque *deque) {
return (size(deque) == 0);
}
/* 入列 */
void push(LinkedListDeque *deque, int num, bool isFront) {
DoublyListNode *node = newDoublyListNode(num);
// 若鏈結串列為空,則令 front 和 rear 都指向node
if (empty(deque)) {
deque->front = deque->rear = node;
}
// 佇列首入列操作
else if (isFront) {
// 將 node 新增至鏈結串列頭部
deque->front->prev = node;
node->next = deque->front;
deque->front = node; // 更新頭節點
}
// 佇列尾入列操作
else {
// 將 node 新增至鏈結串列尾部
deque->rear->next = node;
node->prev = deque->rear;
deque->rear = node;
}
deque->queSize++; // 更新佇列長度
}
/* 佇列首入列 */
void pushFirst(LinkedListDeque *deque, int num) {
push(deque, num, true);
}
/* 佇列尾入列 */
void pushLast(LinkedListDeque *deque, int num) {
push(deque, num, false);
}
/* 訪問佇列首元素 */
int peekFirst(LinkedListDeque *deque) {
assert(size(deque) && deque->front);
return deque->front->val;
}
/* 訪問佇列尾元素 */
int peekLast(LinkedListDeque *deque) {
assert(size(deque) && deque->rear);
return deque->rear->val;
}
/* 出列 */
int pop(LinkedListDeque *deque, bool isFront) {
if (empty(deque))
return -1;
int val;
// 佇列首出列操作
if (isFront) {
val = peekFirst(deque); // 暫存頭節點值
DoublyListNode *fNext = deque->front->next;
if (fNext) {
fNext->prev = NULL;
deque->front->next = NULL;
delDoublyListNode(deque->front);
}
deque->front = fNext; // 更新頭節點
}
// 佇列尾出列操作
else {
val = peekLast(deque); // 暫存尾節點值
DoublyListNode *rPrev = deque->rear->prev;
if (rPrev) {
rPrev->next = NULL;
deque->rear->prev = NULL;
delDoublyListNode(deque->rear);
}
deque->rear = rPrev; // 更新尾節點
}
deque->queSize--; // 更新佇列長度
return val;
}
/* 佇列首出列 */
int popFirst(LinkedListDeque *deque) {
return pop(deque, true);
}
/* 佇列尾出列 */
int popLast(LinkedListDeque *deque) {
return pop(deque, false);
}
/* 列印佇列 */
void printLinkedListDeque(LinkedListDeque *deque) {
int *arr = malloc(sizeof(int) * deque->queSize);
// 複製鏈結串列中的資料到陣列
int i;
DoublyListNode *node;
for (i = 0, node = deque->front; i < deque->queSize; i++) {
arr[i] = node->val;
node = node->next;
}
printArray(arr, deque->queSize);
free(arr);
}
/* Driver Code */
int main() {
/* 初始化雙向佇列 */
LinkedListDeque *deque = newLinkedListDeque();
pushLast(deque, 3);
pushLast(deque, 2);
pushLast(deque, 5);
printf("雙向佇列 deque = ");
printLinkedListDeque(deque);
/* 訪問元素 */
int peekFirstNum = peekFirst(deque);
printf("佇列首元素 peekFirst = %d\r\n", peekFirstNum);
int peekLastNum = peekLast(deque);
printf("佇列首元素 peekLast = %d\r\n", peekLastNum);
/* 元素入列 */
pushLast(deque, 4);
printf("元素 4 佇列尾入列後 deque =");
printLinkedListDeque(deque);
pushFirst(deque, 1);
printf("元素 1 佇列首入列後 deque =");
printLinkedListDeque(deque);
/* 元素出列 */
int popLastNum = popLast(deque);
printf("佇列尾出列元素 popLast = %d ,佇列尾出列後 deque = ", popLastNum);
printLinkedListDeque(deque);
int popFirstNum = popFirst(deque);
printf("佇列首出列元素 popFirst = %d ,佇列首出列後 deque = ", popFirstNum);
printLinkedListDeque(deque);
/* 獲取佇列的長度 */
int dequeSize = size(deque);
printf("雙向佇列長度 size = %d\r\n", dequeSize);
/* 判斷佇列是否為空 */
bool isEmpty = empty(deque);
printf("雙向佇列是否為空 = %s\r\n", isEmpty ? "true" : "false");
// 釋放記憶體
delLinkedListdeque(deque);
return 0;
}
@@ -0,0 +1,128 @@
/**
* File: linkedlist_queue.c
* Created Time: 2023-03-13
* Author: Gonglja (glj0@outlook.com)
*/
#include "../utils/common.h"
/* 基於鏈結串列實現的佇列 */
typedef struct {
ListNode *front, *rear;
int queSize;
} LinkedListQueue;
/* 建構子 */
LinkedListQueue *newLinkedListQueue() {
LinkedListQueue *queue = (LinkedListQueue *)malloc(sizeof(LinkedListQueue));
queue->front = NULL;
queue->rear = NULL;
queue->queSize = 0;
return queue;
}
/* 析構函式 */
void delLinkedListQueue(LinkedListQueue *queue) {
// 釋放所有節點
while (queue->front != NULL) {
ListNode *tmp = queue->front;
queue->front = queue->front->next;
free(tmp);
}
// 釋放 queue 結構體
free(queue);
}
/* 獲取佇列的長度 */
int size(LinkedListQueue *queue) {
return queue->queSize;
}
/* 判斷佇列是否為空 */
bool empty(LinkedListQueue *queue) {
return (size(queue) == 0);
}
/* 入列 */
void push(LinkedListQueue *queue, int num) {
// 尾節點處新增 node
ListNode *node = newListNode(num);
// 如果佇列為空,則令頭、尾節點都指向該節點
if (queue->front == NULL) {
queue->front = node;
queue->rear = node;
}
// 如果佇列不為空,則將該節點新增到尾節點後
else {
queue->rear->next = node;
queue->rear = node;
}
queue->queSize++;
}
/* 訪問佇列首元素 */
int peek(LinkedListQueue *queue) {
assert(size(queue) && queue->front);
return queue->front->val;
}
/* 出列 */
int pop(LinkedListQueue *queue) {
int num = peek(queue);
ListNode *tmp = queue->front;
queue->front = queue->front->next;
free(tmp);
queue->queSize--;
return num;
}
/* 列印佇列 */
void printLinkedListQueue(LinkedListQueue *queue) {
int *arr = malloc(sizeof(int) * queue->queSize);
// 複製鏈結串列中的資料到陣列
int i;
ListNode *node;
for (i = 0, node = queue->front; i < queue->queSize; i++) {
arr[i] = node->val;
node = node->next;
}
printArray(arr, queue->queSize);
free(arr);
}
/* Driver Code */
int main() {
/* 初始化佇列 */
LinkedListQueue *queue = newLinkedListQueue();
/* 元素入列 */
push(queue, 1);
push(queue, 3);
push(queue, 2);
push(queue, 5);
push(queue, 4);
printf("佇列 queue = ");
printLinkedListQueue(queue);
/* 訪問佇列首元素 */
int peekNum = peek(queue);
printf("佇列首元素 peek = %d\r\n", peekNum);
/* 元素出列 */
peekNum = pop(queue);
printf("出列元素 pop = %d ,出列後 queue = ", peekNum);
printLinkedListQueue(queue);
/* 獲取佇列的長度 */
int queueSize = size(queue);
printf("佇列長度 size = %d\r\n", queueSize);
/* 判斷佇列是否為空 */
bool isEmpty = empty(queue);
printf("佇列是否為空 = %s\r\n", isEmpty ? "true" : "false");
// 釋放記憶體
delLinkedListQueue(queue);
return 0;
}
@@ -0,0 +1,107 @@
/**
* File: linkedlist_stack.c
* Created Time: 2023-01-12
* Author: Zero (glj0@outlook.com)
*/
#include "../utils/common.h"
/* 基於鏈結串列實現的堆疊 */
typedef struct {
ListNode *top; // 將頭節點作為堆疊頂
int size; // 堆疊的長度
} LinkedListStack;
/* 建構子 */
LinkedListStack *newLinkedListStack() {
LinkedListStack *s = malloc(sizeof(LinkedListStack));
s->top = NULL;
s->size = 0;
return s;
}
/* 析構函式 */
void delLinkedListStack(LinkedListStack *s) {
while (s->top) {
ListNode *n = s->top->next;
free(s->top);
s->top = n;
}
free(s);
}
/* 獲取堆疊的長度 */
int size(LinkedListStack *s) {
return s->size;
}
/* 判斷堆疊是否為空 */
bool isEmpty(LinkedListStack *s) {
return size(s) == 0;
}
/* 入堆疊 */
void push(LinkedListStack *s, int num) {
ListNode *node = (ListNode *)malloc(sizeof(ListNode));
node->next = s->top; // 更新新加節點指標域
node->val = num; // 更新新加節點資料域
s->top = node; // 更新堆疊頂
s->size++; // 更新堆疊大小
}
/* 訪問堆疊頂元素 */
int peek(LinkedListStack *s) {
if (s->size == 0) {
printf("堆疊為空\n");
return INT_MAX;
}
return s->top->val;
}
/* 出堆疊 */
int pop(LinkedListStack *s) {
int val = peek(s);
ListNode *tmp = s->top;
s->top = s->top->next;
// 釋放記憶體
free(tmp);
s->size--;
return val;
}
/* Driver Code */
int main() {
/* 初始化堆疊 */
LinkedListStack *stack = newLinkedListStack();
/* 元素入堆疊 */
push(stack, 1);
push(stack, 3);
push(stack, 2);
push(stack, 5);
push(stack, 4);
printf("堆疊 stack = ");
printLinkedList(stack->top);
/* 訪問堆疊頂元素 */
int val = peek(stack);
printf("堆疊頂元素 top = %d\r\n", val);
/* 元素出堆疊 */
val = pop(stack);
printf("出堆疊元素 pop = %d, 出堆疊後 stack = ", val);
printLinkedList(stack->top);
/* 獲取堆疊的長度 */
printf("堆疊的長度 size = %d\n", size(stack));
/* 判斷是否為空 */
bool empty = isEmpty(stack);
printf("堆疊是否為空 = %s\n", empty ? "true" : "false");
// 釋放記憶體
delLinkedListStack(stack);
return 0;
}