改进数据结构代码

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

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
BiTree MakeBiTree(TElemType e, BiTree L, BiTree R); //创建一颗二叉树T其中根节点的值为eL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
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;
}