StarMirror/cpp-interview
1
0
Fork 0
mirror of https://github.com/huihut/interview.git synced 2024-03-22 13:10:48 +08:00
Code Issues Projects Releases Wiki Activity

改进数据结构代码

Browse Source
This commit is contained in:
huihut 2019-06-04 23:18:46 +08:00
parent cd16b94024
commit 27dd18fbb8
9 changed files with 935 additions and 919 deletions
Show Stats Download Patch File Download Diff File Expand all files Collapse all files

218
DataStructure/BinaryTree.cpp
View File

@ -1,5 +1,5 @@
#include<stdio.h>
#include<stdlib.h>
#include <stdio.h>
#include <stdlib.h>
#define TRUE 1
#define FALSE 0
@ -8,7 +8,6 @@
#define OVERFLOW -1
#define SUCCESS 1
#define UNSUCCESS 0
#define dataNum 5
int i = 0;
int dep = 0;
@ -17,180 +16,165 @@ char data[dataNum] = { 'A', 'B', 'C', 'D', 'E' };
typedef int Status;
typedef char TElemType;
// 二叉树结构
typedef struct BiTNode
{
TElemType data;
struct BiTNode *lchild, *rchild;
TElemType data;
struct BiTNode *lchild, *rchild;
}BiTNode, *BiTree;
void InitBiTree(BiTree &T); //创建一颗空二叉树
BiTree MakeBiTree(TElemType e, BiTree L, BiTree R); //创建一颗二叉树T，其中根节点的值为e，L和R分别作为左子树和右子树
void DestroyBiTree(BiTree &T); //销毁二叉树
Status BiTreeEmpty(BiTree T); //对二叉树判空。若为空返回TRUE，否则FALSE
Status BreakBiTree(BiTree &T, BiTree &L, BiTree &R); //将一颗二叉树T分解成根、左子树、右子树三部分
Status ReplaceLeft(BiTree &T, BiTree &LT); //替换左子树。若T非空，则用LT替换T的左子树，并用LT返回T的原有左子树
Status ReplaceRight(BiTree &T, BiTree &RT); //替换右子树。若T非空，则用RT替换T的右子树，并用RT返回T的原有右子树
int Leaves(BiTree T);
int Depth(BiTree T);
Status visit(TElemType e);
void UnionBiTree(BiTree &Ttemp);
//InitBiTree空二叉树是只有一个BiTree指针？还是有一个结点但结点域为空？
// 初始化一个空树
void InitBiTree(BiTree &T)
{
T = NULL;
T = NULL;
}
// 构建二叉树
BiTree MakeBiTree(TElemType e, BiTree L, BiTree R)
{
BiTree t;
t = (BiTree)malloc(sizeof(BiTNode));
if (NULL == t) return NULL;
t->data = e;
t->lchild = L;
t->rchild = R;
return t;
BiTree t;
t = (BiTree)malloc(sizeof(BiTNode));
if (NULL == t) return NULL;
t->data = e;
t->lchild = L;
t->rchild = R;
return t;
}
// 访问结点
Status visit(TElemType e)
{
printf("%c", e);
return OK;
printf("%c", e);
return OK;
}
int Leaves(BiTree T) //对二叉树T求叶子结点数目
// 对二叉树T求叶子结点数目
int Leaves(BiTree T)
{
int l = 0, r = 0;
int l = 0, r = 0;
if (NULL == T) return 0;
if (NULL == T->lchild && NULL == T->rchild) return 1;
if (NULL == T) return 0;
if (NULL == T->lchild && NULL == T->rchild) return 1;
//问题分解，2个子问题
//求左子树叶子数目
l = Leaves(T->lchild);
//求右子树叶子数目
r = Leaves(T->rchild);
//组合
return r + l;
// 求左子树叶子数目
l = Leaves(T->lchild);
// 求右子树叶子数目
r = Leaves(T->rchild);
// 组合
return r + l;
}
int depTraverse(BiTree T) //层次遍历：dep是个全局变量,高度
// 层次遍历：dep是个全局变量,高度
int depTraverse(BiTree T)
{
if (NULL == T) return ERROR;
if (NULL == T) return ERROR;
dep = (depTraverse(T->lchild) > depTraverse(T->rchild)) ? depTraverse(T->lchild) : depTraverse(T->rchild);
dep = (depTraverse(T->lchild) > depTraverse(T->rchild)) ? depTraverse(T->lchild) : depTraverse(T->rchild);
return dep + 1;
return dep + 1;
}
void levTraverse(BiTree T, Status(*visit)(TElemType e), int lev) //高度遍历：lev是局部变量，层次
// 高度遍历：lev是局部变量，层次
void levTraverse(BiTree T, Status(*visit)(TElemType e), int lev)
{
if (NULL == T) return;
visit(T->data);
printf("的层次是%d\n", lev);
levTraverse(T->lchild, visit, ++lev);
levTraverse(T->rchild, visit, lev);
if (NULL == T) return;
visit(T->data);
printf("的层次是%d\n", lev);
levTraverse(T->lchild, visit, ++lev);
levTraverse(T->rchild, visit, lev);
}
void InOrderTraverse(BiTree T, Status(*visit)(TElemType e), int &num) //num是个全局变量
// num是个全局变量
void InOrderTraverse(BiTree T, Status(*visit)(TElemType e), int &num)
{
if (NULL == T) return;
visit(T->data);
if (NULL == T->lchild && NULL == T->rchild) { printf("是叶子结点"); num++; }
else printf("不是叶子结点");
printf("\n");
InOrderTraverse(T->lchild, visit, num);
InOrderTraverse(T->rchild, visit, num);
if (NULL == T) return;
visit(T->data);
if (NULL == T->lchild && NULL == T->rchild) { printf("是叶子结点"); num++; }
else printf("不是叶子结点");
printf("\n");
InOrderTraverse(T->lchild, visit, num);
InOrderTraverse(T->rchild, visit, num);
}
// 二叉树判空
Status BiTreeEmpty(BiTree T)
{
if (NULL == T) return TRUE;
return FALSE;
if (NULL == T) return TRUE;
return FALSE;
}
// 打断二叉树：置空二叉树的左右子树
Status BreakBiTree(BiTree &T, BiTree &L, BiTree &R)
{
if (NULL == T) return ERROR;
L = T->lchild;
R = T->rchild;
T->lchild = NULL;
T->rchild = NULL;
return OK;
if (NULL == T) return ERROR;
L = T->lchild;
R = T->rchild;
T->lchild = NULL;
T->rchild = NULL;
return OK;
}
// 替换左子树
Status ReplaceLeft(BiTree &T, BiTree &LT)
{
BiTree temp;
if (NULL == T) return ERROR;
temp = T->lchild;
T->lchild = LT;
LT = temp;
return OK;
BiTree temp;
if (NULL == T) return ERROR;
temp = T->lchild;
T->lchild = LT;
LT = temp;
return OK;
}
// 替换右子树
Status ReplaceRight(BiTree &T, BiTree &RT)
{
BiTree temp;
if (NULL == T) return ERROR;
temp = T->rchild;
T->rchild = RT;
RT = temp;
return OK;
BiTree temp;
if (NULL == T) return ERROR;
temp = T->rchild;
T->rchild = RT;
RT = temp;
return OK;
}
// 合并二叉树
void UnionBiTree(BiTree &Ttemp)
{
BiTree L = NULL, R = NULL;
L = MakeBiTree(data[i++], NULL, NULL);
R = MakeBiTree(data[i++], NULL, NULL);
ReplaceLeft(Ttemp, L);
ReplaceRight(Ttemp, R);
BiTree L = NULL, R = NULL;
L = MakeBiTree(data[i++], NULL, NULL);
R = MakeBiTree(data[i++], NULL, NULL);
ReplaceLeft(Ttemp, L);
ReplaceRight(Ttemp, R);
}
int main()
{
BiTree T = NULL, Ttemp = NULL;
BiTree T = NULL, Ttemp = NULL;
InitBiTree(T);
if (TRUE == BiTreeEmpty(T)) printf("初始化T为空\n");
else printf("初始化T不为空\n");
InitBiTree(T);
if (TRUE == BiTreeEmpty(T)) printf("初始化T为空\n");
else printf("初始化T不为空\n");
T = MakeBiTree(data[i++], NULL, NULL);
T = MakeBiTree(data[i++], NULL, NULL);
Ttemp = T;
UnionBiTree(Ttemp);
Ttemp = T;
UnionBiTree(Ttemp);
Ttemp = T->lchild;
UnionBiTree(Ttemp);
Ttemp = T->lchild;
UnionBiTree(Ttemp);
Status(*visit1)(TElemType);
visit1 = visit;
int num = 0;
InOrderTraverse(T, visit1, num);
printf("叶子结点是 %d\n", num);
printf("叶子结点是 %d\n", Leaves(T));
Status(*visit1)(TElemType);
visit1 = visit;
int num = 0;
InOrderTraverse(T, visit1, num);
printf("叶子结点是 %d\n", num);
int lev = 1;
levTraverse(T, visit1, lev);
printf("叶子结点是 %d\n", Leaves(T));
printf("高度是 %d\n", depTraverse(T));
int lev = 1;
levTraverse(T, visit1, lev);
printf("高度是 %d\n", depTraverse(T));
return 0;
getchar();
return 0;
}

262
DataStructure/HashTable.cpp
View File

@ -6,156 +6,172 @@
#define OVERFLOW -1
#define OK 1
#define ERROR -1
#define MAXNUM 9999 // 用于初始化哈希表的记录 key
typedef int Status;
typedef int KeyType;
typedef struct{
KeyType key;
// 哈希表中的记录类型
typedef struct {
KeyType key;
}RcdType;
typedef struct{
RcdType *rcd;
int size;
int count;
int *tag;
// 哈希表类型
typedef struct {
RcdType *rcd;
int size;
int count;
int *tag;
}HashTable;
// 哈希表每次重建增长后的大小
int hashsize[] = { 11, 31, 61, 127, 251, 503 };
int index = 0;
Status InitHashTable(HashTable &H, int size){
int i;
H.rcd = (RcdType *)malloc(sizeof(RcdType)*size);
H.tag = (int *)malloc(sizeof(int)*size);
if (NULL == H.rcd || NULL == H.tag) return OVERFLOW;
for (i = 0; i< size; i++) H.tag[i] = 0;
H.size = size;
H.count = 0;
return OK;
// 初始哈希表
Status InitHashTable(HashTable &H, int size) {
int i;
H.rcd = (RcdType *)malloc(sizeof(RcdType)*size);
H.tag = (int *)malloc(sizeof(int)*size);
if (NULL == H.rcd || NULL == H.tag) return OVERFLOW;
KeyType maxNum = MAXNUM;
for (i = 0; i < size; i++) {
H.tag[i] = 0;
H.rcd[i].key = maxNum;
}
H.size = size;
H.count = 0;
return OK;
}
int Hash(KeyType key, int m){
return (3 * key) % m;
// 哈希函数：除留余数法
int Hash(KeyType key, int m) {
return (3 * key) % m;
}
void collision(int &p, int m){ //线性探测
p = (p + 1) % m;
// 处理哈希冲突：线性探测
void collision(int &p, int m) {
p = (p + 1) % m;
}
// 在哈希表中查询
Status SearchHash(HashTable H, KeyType key, int &p, int &c) {
p = Hash(key, H.size);
int h = p;
c = 0;
while ((1 == H.tag[p] && H.rcd[p].key != key) || -1 == H.tag[p]){
collision(p, H.size); c++;
}
if (1 == H.tag[p] && key == H.rcd[p].key) return SUCCESS;
else return UNSUCCESS;
p = Hash(key, H.size);
int h = p;
c = 0;
while ((1 == H.tag[p] && H.rcd[p].key != key) || -1 == H.tag[p]) {
collision(p, H.size); c++;
}
if (1 == H.tag[p] && key == H.rcd[p].key) return SUCCESS;
else return UNSUCCESS;
}
void printHash(HashTable H) //打印哈希表
//打印哈希表
void printHash(HashTable H)
{
int i;
printf("key : ");
for (i = 0; i < H.size; i++)
printf("%3d ", H.rcd[i].key);
printf("\n");
printf("tag : ");
for (i = 0; i < H.size; i++)
printf("%3d ", H.tag[i]);
printf("\n\n");
int i;
printf("key : ");
for (i = 0; i < H.size; i++)
printf("%3d ", H.rcd[i].key);
printf("\n");
printf("tag : ");
for (i = 0; i < H.size; i++)
printf("%3d ", H.tag[i]);
printf("\n\n");
}
Status InsertHash(HashTable &H, KeyType key); //对函数的声明
// 函数声明：插入哈希表
Status InsertHash(HashTable &H, KeyType key);
//重构
Status recreateHash(HashTable &H){
RcdType *orcd;
int *otag, osize, i;
orcd = H.rcd;
otag = H.tag;
osize = H.size;
InitHashTable(H, hashsize[index++]);
//把所有元素，按照新哈希函数放到新表中
for (i = 0; i < osize; i++){
if (1 == otag[i]){
InsertHash(H, orcd[i].key);
}
}
// 重建哈希表
Status recreateHash(HashTable &H) {
RcdType *orcd;
int *otag, osize, i;
orcd = H.rcd;
otag = H.tag;
osize = H.size;
InitHashTable(H, hashsize[index++]);
//把所有元素，按照新哈希函数放到新表中
for (i = 0; i < osize; i++) {
if (1 == otag[i]) {
InsertHash(H, orcd[i].key);
}
}
return OK;
}
Status InsertHash(HashTable &H, KeyType key){
int p, c;
if (UNSUCCESS == SearchHash(H, key, p, c)){ //没有相同key
if (c*1.0 / H.size < 0.5){ //冲突次数未达到上线
//插入代码
H.rcd[p].key = key;
H.tag[p] = 1;
H.count++;
return SUCCESS;
}
else recreateHash(H); //重构哈希表
}
return UNSUCCESS;
}
Status DeleteHash(HashTable &H, KeyType key){
int p, c;
if (SUCCESS == SearchHash(H, key, p, c)){
//删除代码
H.tag[p] = -1;
H.count--;
return SUCCESS;
}
else return UNSUCCESS;
// 插入哈希表
Status InsertHash(HashTable &H, KeyType key) {
int p, c;
if (UNSUCCESS == SearchHash(H, key, p, c)) { //没有相同key
if (c*1.0 / H.size < 0.5) { //冲突次数未达到上线
//插入代码
H.rcd[p].key = key;
H.tag[p] = 1;
H.count++;
return SUCCESS;
}
else recreateHash(H); //重构哈希表
}
return UNSUCCESS;
}
void main()
// 删除哈希表
Status DeleteHash(HashTable &H, KeyType key) {
int p, c;
if (SUCCESS == SearchHash(H, key, p, c)) {
//删除代码
H.tag[p] = -1;
H.count--;
return SUCCESS;
}
else return UNSUCCESS;
}
int main()
{
printf("-----哈希表-----\n");
HashTable H;
int i;
int size = 11;
KeyType array[8] = { 22, 41, 53, 46, 30, 13, 12, 67 };
KeyType key;
RcdType e;
//初始化哈希表
printf("初始化哈希表\n");
if (SUCCESS == InitHashTable(H, hashsize[index++])) printf("初始化成功\n");
//插入哈希表
printf("插入哈希表\n");
for (i = 0; i <= 7; i++){
key = array[i];
InsertHash(H, key);
printHash(H);
}
//删除哈希表
printf("删除哈希表\n");
int p, c;
if (SUCCESS == DeleteHash(H, 12)) {
printf("删除成功，此时哈希表为：\n");
printHash(H);
}
//查询哈希表
printf("查询哈希表\n");
if (SUCCESS == SearchHash(H, 67, p, c)) printf("查询成功\n");
//再次插入，测试哈希表的重构
printf("再次插入，测试哈希表的重构：\n");
KeyType array1[8] = { 27, 47, 57, 47, 37, 17, 93, 67 };
for (i = 0; i <= 7; i++){
key = array1[i];
InsertHash(H, key);
printHash(H);
}
}
printf("-----哈希表-----\n");
HashTable H;
int i;
int size = 11;
KeyType array[8] = { 22, 41, 53, 46, 30, 13, 12, 67 };
KeyType key;
//初始化哈希表
printf("初始化哈希表\n");
if (SUCCESS == InitHashTable(H, hashsize[index++])) printf("初始化成功\n");
//插入哈希表
printf("插入哈希表\n");
for (i = 0; i <= 7; i++) {
key = array[i];
InsertHash(H, key);
printHash(H);
}
//删除哈希表
printf("删除哈希表中key为12的元素\n");
int p, c;
if (SUCCESS == DeleteHash(H, 12)) {
printf("删除成功，此时哈希表为：\n");
printHash(H);
}
//查询哈希表
printf("查询哈希表中key为67的元素\n");
if (SUCCESS == SearchHash(H, 67, p, c)) printf("查询成功\n");
//再次插入，测试哈希表的重建
printf("再次插入，测试哈希表的重建：\n");
KeyType array1[8] = { 27, 47, 57, 47, 37, 17, 93, 67 };
for (i = 0; i <= 7; i++) {
key = array1[i];
InsertHash(H, key);
printHash(H);
}
getchar();
return 0;
}

180
DataStructure/LinkList.cpp
View File

@ -25,128 +25,120 @@ typedef int ElemType;
//链表的类型
typedef struct LNode {
ElemType data;
struct LNode *next;
} LNode, *LinkList;
Status InitList_L(LinkList &L);
Status DestroyList_L(LinkList &L);
Status ClearList_L(LinkList &L);
Status ListEmpty_L(LinkList L);
int ListLength_L(LinkList L);
LNode* Search_L(LinkList L, ElemType e);
LNode* NextElem_L(LNode *p);
Status InsertAfter_L(LNode *p, LNode *q);
Status DeleteAfter_L(LNode *p, ElemType &e);
void ListTraverse_L(LinkList L, Status(*visit)(ElemType e));
ElemType data;
struct LNode *next;
} LNode, *LinkList;
//创建包含n个元素的链表L，元素值存储在data数组中
Status create(LinkList &L, ElemType *data, int n) {
LNode *p, *q;
int i;
if (n < 0) return ERROR;
L = NULL;
p = L;
for (i = 0; i < n; i++)
{
q = (LNode *)malloc(sizeof(LNode));
if (NULL == q) return OVERFLOW;
q->data = data[i];
q->next = NULL;
if (NULL == p) L = q;
else p->next = q;
p = q;
}
return OK;
LNode *p, *q;
int i;
if (n < 0) return ERROR;
L = NULL;
p = L;
for (i = 0; i < n; i++)
{
q = (LNode *)malloc(sizeof(LNode));
if (NULL == q) return OVERFLOW;
q->data = data[i];
q->next = NULL;
if (NULL == p) L = q;
else p->next = q;
p = q;
}
return OK;
}
//e从链表末尾入链表
Status EnQueue_LQ(LinkList &L, ElemType &e) {
LinkList p, q;
LinkList p, q;
if (NULL == (q = (LNode *)malloc(sizeof(LNode)))) return OVERFLOW;
q->data = e;
q->next = NULL;
if (NULL == L) L = q;
else
{
p = L;
while (p->next != NULL)
{
p = p->next;
}
p->next = q;
}
return OK;
if (NULL == (q = (LNode *)malloc(sizeof(LNode)))) return OVERFLOW;
q->data = e;
q->next = NULL;
if (NULL == L) L = q;
else
{
p = L;
while (p->next != NULL)
{
p = p->next;
}
p->next = q;
}
return OK;
}
//从链表头节点出链表到e
Status DeQueue_LQ(LinkList &L, ElemType &e) {
if (NULL == L) return ERROR;
LinkList p;
p = L;
e = p->data;
L = L->next;
free(p);
return OK;
if (NULL == L) return ERROR;
LinkList p;
p = L;
e = p->data;
L = L->next;
free(p);
return OK;
}
//遍历调用
Status visit(ElemType e) {
printf("%d\t", e);
printf("%d\t", e);
return OK;
}
//遍历单链表
void ListTraverse_L(LinkList L, Status(*visit)(ElemType e))
{
if (NULL == L) return;
for (LinkList p = L; NULL != p; p = p -> next) {
visit(p -> data);
}
if (NULL == L) return;
for (LinkList p = L; NULL != p; p = p->next) {
visit(p->data);
}
}
int main() {
int i;
ElemType e, data[LONGTH] = { 1, 2, 3, 4, 5 };
LinkList L;
int i;
ElemType e, data[LONGTH] = { 1, 2, 3, 4, 5 };
LinkList L;
//显示测试值
printf("---【单链表】---\n");
printf("待测试元素为：\n");
for (i = 0; i < LONGTH; i++) printf("%d\t", data[i]);
printf("\n");
//显示测试值
printf("---【单链表】---\n");
printf("待测试元素为：\n");
for (i = 0; i < LONGTH; i++) printf("%d\t", data[i]);
printf("\n");
//创建链表L
printf("创建链表L\n");
if (ERROR == create(L, data, LONGTH))
{
printf("创建链表L失败\n");
return -1;
}
printf("成功创建包含%d个元素的链表L\n元素值存储在data数组中\n", LONGTH);
//创建链表L
printf("创建链表L\n");
if (ERROR == create(L, data, LONGTH))
{
printf("创建链表L失败\n");
return -1;
}
printf("成功创建包含%d个元素的链表L\n元素值存储在data数组中\n", LONGTH);
//遍历单链表
printf("此时链表中元素为：\n");
ListTraverse_L(L, visit);
//遍历单链表
printf("此时链表中元素为：\n");
ListTraverse_L(L, visit);
//从链表头节点出链表到e
printf("\n出链表到e\n");
DeQueue_LQ(L, e);
printf("出链表的元素为：%d\n", e);
printf("此时链表中元素为：\n");
//遍历单链表
ListTraverse_L(L, visit);
//从链表头节点出链表到e
printf("\n出链表到e\n");
DeQueue_LQ(L, e);
printf("出链表的元素为：%d\n", e);
printf("此时链表中元素为：\n");
//e从链表末尾入链表
printf("\ne入链表\n");
EnQueue_LQ(L, e);
printf("入链表的元素为：%d\n", e);
printf("此时链表中元素为：\n");
//遍历单链表
ListTraverse_L(L, visit);
printf("\n");
//遍历单链表
ListTraverse_L(L, visit);
return 0;
}
//e从链表末尾入链表
printf("\ne入链表\n");
EnQueue_LQ(L, e);
printf("入链表的元素为：%d\n", e);
printf("此时链表中元素为：\n");
//遍历单链表
ListTraverse_L(L, visit);
printf("\n");
getchar();
return 0;
}

205
DataStructure/LinkList_with_head.cpp
View File

@ -25,142 +25,133 @@ typedef int ElemType;
//链表的类型
typedef struct LNode {
ElemType data;
struct LNode *next;
ElemType data;
struct LNode *next;
} LNode, *LinkList;
Status InitList_L(LinkList &L);
Status DestroyList_L(LinkList &L);
Status ClearList_L(LinkList &L);
Status ListEmpty_L(LinkList L);
int ListLength_L(LinkList L);
LNode* Search_L(LinkList L, ElemType e);
LNode* NextElem_L(LNode *p);
Status InsertAfter_L(LNode *p, LNode *q);
Status DeleteAfter_L(LNode *p, ElemType &e);
void ListTraverse_L(LinkList L, Status(*visit)(ElemType e));
//创建包含n个元素的链表L，元素值存储在data数组中
Status create(LinkList &L, ElemType *data, int n) {
LNode *p, *q;
int i;
if (n < 0) return ERROR;
p = L = NULL;
q = (LNode *)malloc(sizeof(LNode));
if (NULL == q) return OVERFLOW;
q->next = NULL;
p = L = q;
for (i = 0; i < n; i++)
{
q = (LNode *)malloc(sizeof(LNode));
if (NULL == q) return OVERFLOW;
q->data = data[i];
q->next = NULL;
p->next = q;
p = q;
}
return OK;
LNode *p, *q;
int i;
if (n < 0) return ERROR;
p = L = NULL;
q = (LNode *)malloc(sizeof(LNode));
if (NULL == q) return OVERFLOW;
q->next = NULL;
p = L = q;
for (i = 0; i < n; i++)
{
q = (LNode *)malloc(sizeof(LNode));
if (NULL == q) return OVERFLOW;
q->data = data[i];
q->next = NULL;
p->next = q;
p = q;
}
return OK;
}
//e从链表末尾入链表
Status EnQueue_LQ(LinkList &L, ElemType &e) {
LinkList p, q;
LinkList p, q;
if (NULL == (q = (LNode *)malloc(sizeof(LNode)))) return OVERFLOW;
q->data = e;
q->next = NULL;
if (NULL == L)
{
L = (LNode *)malloc(sizeof(LNode));
if (NULL == L) return OVERFLOW;
L -> next = q;
}
else if (NULL == L->next)
{
L -> next = q;
}
else
{
p = L;
while (p->next != NULL)
{
p = p->next;
}
p->next = q;
}
return OK;
if (NULL == (q = (LNode *)malloc(sizeof(LNode)))) return OVERFLOW;
q->data = e;
q->next = NULL;
if (NULL == L)
{
L = (LNode *)malloc(sizeof(LNode));
if (NULL == L) return OVERFLOW;
L->next = q;
}
else if (NULL == L->next)
{
L->next = q;
}
else
{
p = L;
while (p->next != NULL)
{
p = p->next;
}
p->next = q;
}
return OK;
}
//从链表头节点出链表到e
Status DeQueue_LQ(LinkList &L, ElemType &e) {
if (NULL == L || NULL == L->next) return ERROR;
LinkList p;
p = L->next;
e = p->data;
L->next = p->next;
free(p);
return OK;
if (NULL == L || NULL == L->next) return ERROR;
LinkList p;
p = L->next;
e = p->data;
L->next = p->next;
free(p);
return OK;
}
//遍历调用
Status visit(ElemType e) {
printf("%d\t", e);
return OK;
printf("%d\t", e);
return OK;
}
//遍历单链表
void ListTraverse_L(LinkList L, Status(*visit)(ElemType e))
{
if (NULL == L || NULL == L->next) return;
for (LinkList p = L -> next; NULL != p; p = p -> next) {
visit(p -> data);
}
if (NULL == L || NULL == L->next) return;
for (LinkList p = L->next; NULL != p; p = p->next) {
visit(p->data);
}
}
int main() {
int i;
ElemType e, data[LONGTH] = { 1, 2, 3, 4, 5 };
LinkList L;
int i;
ElemType e, data[LONGTH] = { 1, 2, 3, 4, 5 };
LinkList L;
//显示测试值
printf("---【有头结点的单链表】---\n");
printf("待测试元素为：\n");
for (i = 0; i < LONGTH; i++) printf("%d\t", data[i]);
printf("\n");
//显示测试值
printf("---【有头结点的单链表】---\n");
printf("待测试元素为：\n");
for (i = 0; i < LONGTH; i++) printf("%d\t", data[i]);
printf("\n");
//创建链表L
printf("创建链表L\n");
if (ERROR == create(L, data, LONGTH))
{
printf("创建链表L失败\n");
return -1;
}
printf("成功创建包含1个头结点、%d个元素的链表L\n元素值存储在data数组中\n", LONGTH);
//创建链表L
printf("创建链表L\n");
if (ERROR == create(L, data, LONGTH))
{
printf("创建链表L失败\n");
return -1;
}
printf("成功创建包含1个头结点、%d个元素的链表L\n元素值存储在data数组中\n", LONGTH);
//遍历单链表
printf("此时链表中元素为：\n");
ListTraverse_L(L, visit);
//遍历单链表
printf("此时链表中元素为：\n");
ListTraverse_L(L, visit);
//从链表头节点出链表到e
printf("\n出链表到e\n");
DeQueue_LQ(L, e);
printf("出链表的元素为：%d\n", e);
printf("此时链表中元素为：\n");
//遍历单链表
ListTraverse_L(L, visit);
//从链表头节点出链表到e
printf("\n出链表到e\n");
DeQueue_LQ(L, e);
printf("出链表的元素为：%d\n", e);
printf("此时链表中元素为：\n");
//e从链表末尾入链表
printf("\ne入链表\n");
EnQueue_LQ(L, e);
printf("入链表的元素为：%d\n", e);
printf("此时链表中元素为：\n");
//遍历单链表
ListTraverse_L(L, visit);
printf("\n");
//遍历单链表
ListTraverse_L(L, visit);
return 0;
}
//e从链表末尾入链表
printf("\ne入链表\n");
EnQueue_LQ(L, e);
printf("入链表的元素为：%d\n", e);
printf("此时链表中元素为：\n");
//遍历单链表
ListTraverse_L(L, visit);
printf("\n");
getchar();
return 0;
}

617
DataStructure/RedBlackTree.cpp
View File

@ -7,324 +7,371 @@ using namespace std;
class bst {
private:
struct Node {
int value;
bool color;
Node *leftTree, *rightTree, *parent;
struct Node {
int value;
bool color;
Node *leftTree, *rightTree, *parent;
Node() : value(0), color(RED), leftTree(NULL), rightTree(NULL), parent(NULL) { }
Node() : value(0), color(RED), leftTree(NULL), rightTree(NULL), parent(NULL) { }
Node* grandparent() {
if(parent == NULL){
return NULL;
}
return parent->parent;
}
Node* grandparent() {
if (parent == NULL) {
return NULL;
}
return parent->parent;
}
Node* uncle() {
if(grandparent() == NULL) {
return NULL;
}
if(parent == grandparent()->rightTree)
return grandparent()->leftTree;
else
return grandparent()->rightTree;
}
Node* uncle() {
if (grandparent() == NULL) {
return NULL;
}
if (parent == grandparent()->rightTree)
return grandparent()->leftTree;
else
return grandparent()->rightTree;
}
Node* sibling() {
if(parent->leftTree == this)
return parent->rightTree;
else
return parent->leftTree;
}
};
Node* sibling() {
if (parent->leftTree == this)
return parent->rightTree;
else
return parent->leftTree;
}
};
void rotate_right(Node *p){
Node *gp = p->grandparent();
Node *fa = p->parent;
Node *y = p->rightTree;
void rotate_right(Node *p) {
Node *gp = p->grandparent();
Node *fa = p->parent;
Node *y = p->rightTree;
fa->leftTree = y;
fa->leftTree = y;
if(y != NIL)
y->parent = fa;
p->rightTree = fa;
fa->parent = p;
if (y != NIL)
y->parent = fa;
p->rightTree = fa;
fa->parent = p;
if(root == fa)
root = p;
p->parent = gp;
if (root == fa)
root = p;
p->parent = gp;
if(gp != NULL){
if(gp->leftTree == fa)
gp->leftTree = p;
else
gp->rightTree = p;
}
if (gp != NULL) {
if (gp->leftTree == fa)
gp->leftTree = p;
else
gp->rightTree = p;
}
}
}
void rotate_left(Node *p){
if(p->parent == NULL){
root = p;
return;
}
Node *gp = p->grandparent();
Node *fa = p->parent;
Node *y = p->leftTree;
void rotate_left(Node *p) {
if (p->parent == NULL) {
root = p;
return;
}
Node *gp = p->grandparent();
Node *fa = p->parent;
Node *y = p->leftTree;
fa->rightTree = y;
fa->rightTree = y;
if(y != NIL)
y->parent = fa;
p->leftTree = fa;
fa->parent = p;
if (y != NIL)
y->parent = fa;
p->leftTree = fa;
fa->parent = p;
if(root == fa)
root = p;
p->parent = gp;
if (root == fa)
root = p;
p->parent = gp;
if(gp != NULL){
if(gp->leftTree == fa)
gp->leftTree = p;
else
gp->rightTree = p;
}
}
if (gp != NULL) {
if (gp->leftTree == fa)
gp->leftTree = p;
else
gp->rightTree = p;
}
}
void inorder(Node *p){
if(p == NIL)
return;
void inorder(Node *p) {
if (p == NIL)
return;
if(p->leftTree)
inorder(p->leftTree);
if (p->leftTree)
inorder(p->leftTree);
cout << p->value << " ";
if(p->rightTree)
inorder(p->rightTree);
}
cout << p->value << " ";
string outputColor (bool color) {
return color ? "BLACK" : "RED";
}
if (p->rightTree)
inorder(p->rightTree);
}
Node* getSmallestChild(Node *p){
if(p->leftTree == NIL)
return p;
return getSmallestChild(p->leftTree);
}
string outputColor(bool color) {
return color ? "BLACK" : "RED";
}
bool delete_child(Node *p, int data){
if(p->value > data){
if(p->leftTree == NIL){
return false;
}
return delete_child(p->leftTree, data);
} else if(p->value < data){
if(p->rightTree == NIL){
return false;
}
return delete_child(p->rightTree, data);
} else if(p->value == data){
if(p->rightTree == NIL){
delete_one_child (p);
return true;
}
Node *smallest = getSmallestChild(p->rightTree);
swap(p->value, smallest->value);
delete_one_child (smallest);
Node* getSmallestChild(Node *p) {
if (p->leftTree == NIL)
return p;
return getSmallestChild(p->leftTree);
}
return true;
}else{
return false;
}
}
bool delete_child(Node *p, int data) {
if (p->value > data) {
if (p->leftTree == NIL) {
return false;
}
return delete_child(p->leftTree, data);
}
else if (p->value < data) {
if (p->rightTree == NIL) {
return false;
}
return delete_child(p->rightTree, data);
}
else if (p->value == data) {
if (p->rightTree == NIL) {
delete_one_child(p);
return true;
}
Node *smallest = getSmallestChild(p->rightTree);
swap(p->value, smallest->value);
delete_one_child(smallest);
void delete_one_child(Node *p){
Node *child = p->leftTree == NIL ? p->rightTree : p->leftTree;
if(p->parent == NULL && p->leftTree == NIL && p->rightTree == NIL){
p = NULL;
root = p;
return;
}
if(p->parent == NULL){
delete p;
child->parent = NULL;
root = child;
root->color = BLACK;
return;
}
if(p->parent->leftTree == p){
p->parent->leftTree = child;
} else {
p->parent->rightTree = child;
}
child->parent = p->parent;
return true;
}
else {
return false;
}
}
if(p->color == BLACK){
if(child->color == RED){
child->color = BLACK;
} else
delete_case (child);
}
void delete_one_child(Node *p) {
Node *child = p->leftTree == NIL ? p->rightTree : p->leftTree;
if (p->parent == NULL && p->leftTree == NIL && p->rightTree == NIL) {
p = NULL;
root = p;
return;
}
delete p;
}
if (p->parent == NULL) {
delete p;
child->parent = NULL;
root = child;
root->color = BLACK;
return;
}
void delete_case(Node *p){
if(p->parent == NULL){
p->color = BLACK;
return;
}
if(p->sibling()->color == RED) {
p->parent->color = RED;
p->sibling()->color = BLACK;
if(p == p->parent->leftTree)
rotate_left(p->sibling());
else
rotate_right(p->sibling());
}
if(p->parent->color == BLACK && p->sibling()->color == BLACK
&& p->sibling()->leftTree->color == BLACK && p->sibling()->rightTree->color == BLACK) {
p->sibling()->color = RED;
delete_case(p->parent);
} else if(p->parent->color == RED && p->sibling()->color == BLACK
&& p->sibling()->leftTree->color == BLACK && p->sibling()->rightTree->color == BLACK) {
p->sibling()->color = RED;
p->parent->color = BLACK;
} else {
if(p->sibling()->color == BLACK) {
if(p == p->parent->leftTree && p->sibling()->leftTree->color == RED
&& p->sibling()->rightTree->color == BLACK) {
p->sibling()->color = RED;
p->sibling()->leftTree->color = BLACK;
rotate_right(p->sibling()->leftTree);
} else if(p == p->parent->rightTree && p->sibling()->leftTree->color == BLACK
&& p->sibling()->rightTree->color == RED) {
p->sibling()->color = RED;
p->sibling()->rightTree->color = BLACK;
rotate_left(p->sibling()->rightTree);
}
}
p->sibling()->color = p->parent->color;
p->parent->color = BLACK;
if(p == p->parent->leftTree){
p->sibling()->rightTree->color = BLACK;
rotate_left(p->sibling());
} else {
p->sibling()->leftTree->color = BLACK;
rotate_right(p->sibling());
}
}
}
if (p->parent->leftTree == p) {
p->parent->leftTree = child;
}
else {
p->parent->rightTree = child;
}
child->parent = p->parent;
void insert(Node *p, int data){
if(p->value >= data){
if(p->leftTree != NIL)
insert(p->leftTree, data);
else {
Node *tmp = new Node();
tmp->value = data;
tmp->leftTree = tmp->rightTree = NIL;
tmp->parent = p;
p->leftTree = tmp;
insert_case (tmp);
}
} else {
if(p->rightTree != NIL)
insert(p->rightTree, data);
else {
Node *tmp = new Node();
tmp->value = data;
tmp->leftTree = tmp->rightTree = NIL;
tmp->parent = p;
p->rightTree = tmp;
insert_case (tmp);
}
}
}
if (p->color == BLACK) {
if (child->color == RED) {
child->color = BLACK;
}
else
delete_case(child);
}
void insert_case(Node *p){
if(p->parent == NULL){
root = p;
p->color = BLACK;
return;
}
if(p->parent->color == RED){
if(p->uncle()->color == RED) {
p->parent->color = p->uncle()->color = BLACK;
p->grandparent()->color = RED;
insert_case(p->grandparent());
} else {
if(p->parent->rightTree == p && p->grandparent()->leftTree == p->parent) {
rotate_left (p);
rotate_right (p);
p->color = BLACK;
p->leftTree->color = p->rightTree->color = RED;
} else if(p->parent->leftTree == p && p->grandparent()->rightTree == p->parent) {
rotate_right (p);
rotate_left (p);
p->color = BLACK;
p->leftTree->color = p->rightTree->color = RED;
} else if(p->parent->leftTree == p && p->grandparent()->leftTree == p->parent) {
p->parent->color = BLACK;
p->grandparent()->color = RED;
rotate_right(p->parent);
} else if(p->parent->rightTree == p && p->grandparent()->rightTree == p->parent) {
p->parent->color = BLACK;
p->grandparent()->color = RED;
rotate_left(p->parent);
}
}
}
}
delete p;
}
void DeleteTree(Node *p){
if(!p || p == NIL){
return;
}
DeleteTree(p->leftTree);
DeleteTree(p->rightTree);
delete p;
}
void delete_case(Node *p) {
if (p->parent == NULL) {
p->color = BLACK;
return;
}
if (p->sibling()->color == RED) {
p->parent->color = RED;
p->sibling()->color = BLACK;
if (p == p->parent->leftTree)
rotate_left(p->sibling());
else
rotate_right(p->sibling());
}
if (p->parent->color == BLACK && p->sibling()->color == BLACK
&& p->sibling()->leftTree->color == BLACK && p->sibling()->rightTree->color == BLACK) {
p->sibling()->color = RED;
delete_case(p->parent);
}
else if (p->parent->color == RED && p->sibling()->color == BLACK
&& p->sibling()->leftTree->color == BLACK && p->sibling()->rightTree->color == BLACK) {
p->sibling()->color = RED;
p->parent->color = BLACK;
}
else {
if (p->sibling()->color == BLACK) {
if (p == p->parent->leftTree && p->sibling()->leftTree->color == RED
&& p->sibling()->rightTree->color == BLACK) {
p->sibling()->color = RED;
p->sibling()->leftTree->color = BLACK;
rotate_right(p->sibling()->leftTree);
}
else if (p == p->parent->rightTree && p->sibling()->leftTree->color == BLACK
&& p->sibling()->rightTree->color == RED) {
p->sibling()->color = RED;
p->sibling()->rightTree->color = BLACK;
rotate_left(p->sibling()->rightTree);
}
}
p->sibling()->color = p->parent->color;
p->parent->color = BLACK;
if (p == p->parent->leftTree) {
p->sibling()->rightTree->color = BLACK;
rotate_left(p->sibling());
}
else {
p->sibling()->leftTree->color = BLACK;
rotate_right(p->sibling());
}
}
}
void insert(Node *p, int data) {
if (p->value >= data) {
if (p->leftTree != NIL)
insert(p->leftTree, data);
else {
Node *tmp = new Node();
tmp->value = data;
tmp->leftTree = tmp->rightTree = NIL;
tmp->parent = p;
p->leftTree = tmp;
insert_case(tmp);
}
}
else {
if (p->rightTree != NIL)
insert(p->rightTree, data);
else {
Node *tmp = new Node();
tmp->value = data;
tmp->leftTree = tmp->rightTree = NIL;
tmp->parent = p;
p->rightTree = tmp;
insert_case(tmp);
}
}
}
void insert_case(Node *p) {
if (p->parent == NULL) {
root = p;
p->color = BLACK;
return;
}
if (p->parent->color == RED) {
if (p->uncle()->color == RED) {
p->parent->color = p->uncle()->color = BLACK;
p->grandparent()->color = RED;
insert_case(p->grandparent());
}
else {
if (p->parent->rightTree == p && p->grandparent()->leftTree == p->parent) {
rotate_left(p);
rotate_right(p);
p->color = BLACK;
p->leftTree->color = p->rightTree->color = RED;
}
else if (p->parent->leftTree == p && p->grandparent()->rightTree == p->parent) {
rotate_right(p);
rotate_left(p);
p->color = BLACK;
p->leftTree->color = p->rightTree->color = RED;
}
else if (p->parent->leftTree == p && p->grandparent()->leftTree == p->parent) {
p->parent->color = BLACK;
p->grandparent()->color = RED;
rotate_right(p->parent);
}
else if (p->parent->rightTree == p && p->grandparent()->rightTree == p->parent) {
p->parent->color = BLACK;
p->grandparent()->color = RED;
rotate_left(p->parent);
}
}
}
}
void DeleteTree(Node *p) {
if (!p || p == NIL) {
return;
}
DeleteTree(p->leftTree);
DeleteTree(p->rightTree);
delete p;
}
public:
bst() {
NIL = new Node();
NIL->color = BLACK;
root = NULL;
}
bst() {
NIL = new Node();
NIL->color = BLACK;
root = NULL;
}
~bst() {
if (root)
DeleteTree (root);
delete NIL;
}
~bst() {
if (root)
DeleteTree(root);
delete NIL;
}
void inorder() {
if(root == NULL)
return;
inorder (root);
cout << endl;
}
void inorder() {
if (root == NULL)
return;
inorder(root);
cout << endl;
}
void insert (int x) {
if(root == NULL){
root = new Node();
root->color = BLACK;
root->leftTree = root->rightTree = NIL;
root->value = x;
} else {
insert(root, x);
}
}
void insert(int x) {
if (root == NULL) {
root = new Node();
root->color = BLACK;
root->leftTree = root->rightTree = NIL;
root->value = x;
}
else {
insert(root, x);
}
}
bool delete_value (int data) {
return delete_child(root, data);
}
bool delete_value(int data) {
return delete_child(root, data);
}
private:
Node *root, *NIL;
};
Node *root, *NIL;
};
int main()
{
cout << "---【红黑树】---" << endl;
// 创建红黑树
bst tree;
// 插入元素
tree.insert(2);
tree.insert(9);
tree.insert(-10);
tree.insert(0);
tree.insert(33);
tree.insert(-19);
// 顺序打印红黑树
cout << "插入元素后的红黑树：" << endl;
tree.inorder();
// 删除元素
tree.delete_value(2);
// 顺序打印红黑树
cout << "删除元素 2 后的红黑树：" << endl;
tree.inorder();
// 析构
tree.~bst();
getchar();
return 0;
}

190
DataStructure/SqList.cpp
View File

@ -26,167 +26,157 @@ typedef int ElemType;
//顺序栈的类型
typedef struct {
ElemType *elem;
int length;
int size;
int increment;
ElemType *elem;
int length;
int size;
int increment;
} SqList;
Status InitList_Sq(SqList &L, int size, int inc); //初始化顺序表L
Status DestroyList_Sq(SqList &L); //销毁顺序表L
Status ClearList_Sq(SqList &L); //将顺序表L清空
Status ListEmpty_Sq(SqList L); //若顺序表L为空表，则返回TRUE，否则FALSE
int ListLength_Sq(SqList L); //返回顺序表L中元素个数
Status GetElem_Sq(SqList L, int i, ElemType &e); //用e返回顺序表L中第i个元素的值
int Search_Sq(SqList L, ElemType e); //在顺序表L顺序查找元素e，成功时返回该元素在表中第一次出现的位置，否则返回-1
Status ListTraverse_Sq(SqList L, Status(*visit)(ElemType e)); //遍历顺序表L，依次对每个元素调用函数visit()
Status PutElem_Sq(SqList &L, int i, ElemType e); //将顺序表L中第i个元素赋值为e
Status Append_Sq(SqList &L, ElemType e); //在顺序表L表尾添加元素e
Status DeleteLast_Sq(SqList &L, ElemType &e); //删除顺序表L的表尾元素，并用参数e返回其值
//初始化顺序表L
Status InitList_Sq(SqList &L, int size, int inc) {
L.elem = (ElemType *)malloc(size * sizeof(ElemType));
if (NULL == L.elem) return OVERFLOW;
L.length = 0;
L.size = size;
L.increment = inc;
return OK;
L.elem = (ElemType *)malloc(size * sizeof(ElemType));
if (NULL == L.elem) return OVERFLOW;
L.length = 0;
L.size = size;
L.increment = inc;
return OK;
}
//销毁顺序表L
Status DestroyList_Sq(SqList &L) {
free(L.elem);
L.elem = NULL;
return OK;
free(L.elem);
L.elem = NULL;
return OK;
}
//将顺序表L清空
Status ClearList_Sq(SqList &L) {
if (0 != L.length) L.length = 0;
return OK;
if (0 != L.length) L.length = 0;
return OK;
}
//若顺序表L为空表，则返回TRUE，否则FALSE
Status ListEmpty_Sq(SqList L) {
if (0 == L.length) return TRUE;
return FALSE;
if (0 == L.length) return TRUE;
return FALSE;
}
//返回顺序表L中元素个数
int ListLength_Sq(SqList L) {
return L.length;
return L.length;
}
// 用e返回顺序表L中第i个元素的值
Status GetElem_Sq(SqList L, int i, ElemType &e) {
e = L.elem[--i];
return OK;
e = L.elem[--i];
return OK;
}
// 在顺序表L顺序查找元素e，成功时返回该元素在表中第一次出现的位置，否则返回 - 1
int Search_Sq(SqList L, ElemType e) {
int i = 0;
while (i < L.length && L.elem[i] != e) i++;
if (i < L.length) return i;
else return -1;
int i = 0;
while (i < L.length && L.elem[i] != e) i++;
if (i < L.length) return i;
else return -1;
}
//遍历调用
Status visit(ElemType e) {
printf("%d\t",e);
printf("%d\t", e);
return OK;
}
//遍历顺序表L，依次对每个元素调用函数visit()
Status ListTraverse_Sq(SqList L, Status(*visit)(ElemType e)) {
if (0 == L.length) return ERROR;
for (int i = 0; i < L.length; i++) {
visit(L.elem[i]);
}
return OK;
if (0 == L.length) return ERROR;
for (int i = 0; i < L.length; i++) {
visit(L.elem[i]);
}
return OK;
}
//将顺序表L中第i个元素赋值为e
Status PutElem_Sq(SqList &L, int i, ElemType e) {
if (i > L.length) return ERROR;
e = L.elem[--i];
return OK;
if (i > L.length) return ERROR;
e = L.elem[--i];
return OK;
}
//在顺序表L表尾添加元素e
Status Append_Sq(SqList &L, ElemType e) {
if (L.length >= L.size) return ERROR;
L.elem[L.length] = e;
L.length++;
return OK;
if (L.length >= L.size) return ERROR;
L.elem[L.length] = e;
L.length++;
return OK;
}
//删除顺序表L的表尾元素，并用参数e返回其值
Status DeleteLast_Sq(SqList &L, ElemType &e) {
if (0 == L.length) return ERROR;
e = L.elem[L.length - 1];
L.length--;
return OK;
if (0 == L.length) return ERROR;
e = L.elem[L.length - 1];
L.length--;
return OK;
}
int main() {
//定义表L
SqList L;
//定义表L
SqList L;
//定义测量值
int size, increment, i;
//定义测量值
int size, increment, i;
//初始化测试值
size = LONGTH;
increment = LONGTH;
ElemType e, eArray[LONGTH] = { 1, 2, 3, 4, 5 };
//初始化测试值
size = LONGTH;
increment = LONGTH;
ElemType e, eArray[LONGTH] = { 1, 2, 3, 4, 5 };
//显示测试值
printf("---【顺序栈】---\n");
printf("表L的size为：%d\n表L的increment为：%d\n", size, increment);
printf("待测试元素为：\n");
for (i = 0; i < LONGTH; i++) {
printf("%d\t", eArray[i]);
}
printf("\n");
//显示测试值
printf("---【顺序栈】---\n");
printf("表L的size为：%d\n表L的increment为：%d\n", size, increment);
printf("待测试元素为：\n");
for (i = 0; i < LONGTH; i++) {
printf("%d\t", eArray[i]);
}
printf("\n");
//初始化顺序表
if (!InitList_Sq(L, size, increment)) {
printf("初始化顺序表失败\n");
exit(0);
}
printf("已初始化顺序表\n");
//初始化顺序表
if (!InitList_Sq(L, size, increment)) {
printf("初始化顺序表失败\n");
exit(0);
}
printf("已初始化顺序表\n");
//判空
if(TRUE == ListEmpty_Sq(L)) printf("此表为空表\n");
else printf("此表不是空表\n");
//判空
if (TRUE == ListEmpty_Sq(L)) printf("此表为空表\n");
else printf("此表不是空表\n");
//入表
printf("将待测元素入表：\n");
for (i = 0; i < LONGTH; i++) {
if(ERROR == Append_Sq(L, eArray[i])) printf("入表失败\n");;
}
printf("入表成功\n");
//入表
printf("将待测元素入表：\n");
for (i = 0; i < LONGTH; i++) {
if (ERROR == Append_Sq(L, eArray[i])) printf("入表失败\n");;
}
printf("入表成功\n");
//遍历顺序表L
printf("此时表内元素为：\n");
ListTraverse_Sq(L, visit);
//出表
printf("\n将表尾元素入表到e：\n");
if (ERROR == DeleteLast_Sq(L, e)) printf("出表失败\n");
printf("出表成功\n出表元素为%d\n",e);
//遍历顺序表L
printf("此时表内元素为：\n");
ListTraverse_Sq(L, visit);
//遍历顺序表L
printf("此时表内元素为：\n");
ListTraverse_Sq(L, visit);
//出表
printf("\n将表尾元素入表到e：\n");
if (ERROR == DeleteLast_Sq(L, e)) printf("出表失败\n");
printf("出表成功\n出表元素为%d\n", e);
//销毁顺序表
printf("\n销毁顺序表\n");
if(OK == DestroyList_Sq(L)) printf("销毁成功\n");
else printf("销毁失败\n");
//遍历顺序表L
printf("此时表内元素为：\n");
ListTraverse_Sq(L, visit);
return 0;
//销毁顺序表
printf("\n销毁顺序表\n");
if (OK == DestroyList_Sq(L)) printf("销毁成功\n");
else printf("销毁失败\n");
getchar();
return 0;
}

178
DataStructure/SqStack.cpp
View File

@ -22,138 +22,130 @@
//类型定义
typedef int Status;
typedef int ElemType;
typedef int ElemType;
//顺序栈的类型
typedef struct {
ElemType *elem;
int top;
int size;
int increment;
ElemType *elem;
int top;
int size;
int increment;
} SqSrack;
//函数声明
Status InitStack_Sq(SqSrack &S, int size, int inc); //初始化顺序栈
Status DestroyStack_Sq(SqSrack &S); //销毁顺序栈
Status StackEmpty_Sq(SqSrack S); //判断S是否空，若空则返回TRUE，否则返回FALSE
void ClearStack_Sq(SqSrack &S); //清空栈S
Status Push_Sq(SqSrack &S, ElemType e); //元素e压入栈S
Status Pop_Sq(SqSrack &S, ElemType &e); //栈S的栈顶元素出栈，并用e返回
Status GetTop_Sq(SqSrack S, ElemType &e); //取栈S的栈顶元素，并用e返回
//初始化顺序栈
Status InitStack_Sq(SqSrack &S, int size, int inc) {
S.elem = (ElemType *)malloc(size * sizeof(ElemType));
if (NULL == S.elem) return OVERFLOW;
S.top = 0;
S.size = size;
S.increment = inc;
return OK;
S.elem = (ElemType *)malloc(size * sizeof(ElemType));
if (NULL == S.elem) return OVERFLOW;
S.top = 0;
S.size = size;
S.increment = inc;
return OK;
}
//销毁顺序栈
Status DestroyStack_Sq(SqSrack &S) {
free(S.elem);
S.elem = NULL;
return OK;
free(S.elem);
S.elem = NULL;
return OK;
}
//判断S是否空，若空则返回TRUE，否则返回FALSE
Status StackEmpty_Sq(SqSrack S) {
if (0 == S.top) return TRUE;
return FALSE;
if (0 == S.top) return TRUE;
return FALSE;
}
//清空栈S
void ClearStack_Sq(SqSrack &S) {
if (0 == S.top) return;
S.size = 0;
S.top = 0;
if (0 == S.top) return;
S.size = 0;
S.top = 0;
}
//元素e压入栈S
Status Push_Sq(SqSrack &S, ElemType e) {
ElemType *newbase;
if (S.top >= S.size) {
newbase = (ElemType *)realloc(S.elem, (S.size + S.increment) * sizeof(ElemType));
if (NULL == newbase) return OVERFLOW;
S.elem = newbase;
S.size += S.increment;
}
S.elem[S.top++] = e;
return OK;
ElemType *newbase;
if (S.top >= S.size) {
newbase = (ElemType *)realloc(S.elem, (S.size + S.increment) * sizeof(ElemType));
if (NULL == newbase) return OVERFLOW;
S.elem = newbase;
S.size += S.increment;
}
S.elem[S.top++] = e;
return OK;
}
//取栈S的栈顶元素，并用e返回
Status GetTop_Sq(SqSrack S, ElemType &e) {
if (0 == S.top) return ERROR;
e = S.elem[S.top - 1];
return e;
if (0 == S.top) return ERROR;
e = S.elem[S.top - 1];
return e;
}
//栈S的栈顶元素出栈，并用e返回
Status Pop_Sq(SqSrack &S, ElemType &e) {
if (0 == S.top) return ERROR;
e = S.elem[S.top - 1];
S.top--;
return e;
if (0 == S.top) return ERROR;
e = S.elem[S.top - 1];
S.top--;
return e;
}
int main() {
//定义栈S
SqSrack S;
//定义测量值
int size, increment, i;
//定义栈S
SqSrack S;
//初始化测试值
size = LONGTH;
increment = LONGTH;
ElemType e, eArray[LONGTH] = { 1, 2, 3, 4, 5 };
//定义测量值
int size, increment, i;
//显示测试值
printf("---【顺序栈】---\n");
printf("栈S的size为：%d\n栈S的increment为：%d\n", size, increment);
printf("待测试元素为：\n");
for (i = 0; i < LONGTH; i++) {
printf("%d\t", eArray[i]);
}
printf("\n");
//初始化测试值
size = LONGTH;
increment = LONGTH;
ElemType e, eArray[LONGTH] = { 1, 2, 3, 4, 5 };
//初始化顺序栈
if (!InitStack_Sq(S, size, increment)) {
printf("初始化顺序栈失败\n");
exit(0);
}
printf("已初始化顺序栈\n");
//显示测试值
printf("---【顺序栈】---\n");
printf("栈S的size为：%d\n栈S的increment为：%d\n", size, increment);
printf("待测试元素为：\n");
for (i = 0; i < LONGTH; i++) {
printf("%d\t", eArray[i]);
}
printf("\n");
//入栈
for (i = 0; i < S.size; i++) {
if (!Push_Sq(S, eArray[i])) {
printf("%d入栈失败\n", eArray[i]);
exit(0);
}
}
printf("已入栈\n");
//初始化顺序栈
if (!InitStack_Sq(S, size, increment)) {
printf("初始化顺序栈失败\n");
exit(0);
}
printf("已初始化顺序栈\n");
//判断非空
if(StackEmpty_Sq(S)) printf("S栈为空\n");
else printf("S栈非空\n");
//入栈
for (i = 0; i < S.size; i++) {
if (!Push_Sq(S, eArray[i])) {
printf("%d入栈失败\n", eArray[i]);
exit(0);
}
}
printf("已入栈\n");
//取栈S的栈顶元素
printf("栈S的栈顶元素为：\n");
printf("%d\n", GetTop_Sq(S, e));
//判断非空
if (StackEmpty_Sq(S)) printf("S栈为空\n");
else printf("S栈非空\n");
//栈S元素出栈
printf("栈S元素出栈为：\n");
for (i = 0, e = 0; i < S.size; i++) {
printf("%d\t", Pop_Sq(S, e));
}
printf("\n");
//取栈S的栈顶元素
printf("栈S的栈顶元素为：\n");
printf("%d\n", GetTop_Sq(S, e));
//清空栈S
ClearStack_Sq(S);
printf("已清空栈S\n");
return 0;
}
//栈S元素出栈
printf("栈S元素出栈为：\n");
for (i = 0, e = 0; i < S.size; i++) {
printf("%d\t", Pop_Sq(S, e));
}
printf("\n");
//清空栈S
ClearStack_Sq(S);
printf("已清空栈S\n");
getchar();
return 0;
}

2
README.md
View File

@ -1649,6 +1649,8 @@ typedef struct BiTNode
#### 红黑树
[RedBlackTree.cpp](DataStructure/RedBlackTree.cpp)
##### 红黑树的特征是什么？
1. 节点是红色或黑色。

2
README_Details.md
View File

@ -1662,6 +1662,8 @@ typedef struct BiTNode
#### 红黑树
[RedBlackTree.cpp](DataStructure/RedBlackTree.cpp)
##### 红黑树的特征是什么？
1. 节点是红色或黑色。