设计和实现家谱管理系统(假设每个非终端结点最多有两个孩子,如果只有一个孩子,则为左孩子)制 作一个至公有五层的家谱树,可以实现如下操作 输入任一成员,输出其所有的祖先,其所有的子孙,其在家族中的辈分,输出指定辈的所有成员 要求: 建建立二叉树时,姓名的输入尽可能通过文件形式输入
时间: 2024-03-05 10:51:09 浏览: 62
好的,设计和实现家谱管理系统可以分为以下几个步骤:
1. 定义家谱成员的结构体
可以定义一个结构体,包含成员的姓名、性别、出生日期、父亲、母亲、左孩子和右孩子等信息。
```c++
struct Member {
string name;
char gender;
string birthdate;
Member* father;
Member* mother;
Member* left_child;
Member* right_child;
};
```
2. 读取家谱数据文件并构建家谱树
可以将家谱数据保存在一个文件中,每行一个成员,按照父亲和母亲的顺序排列。读取文件时,可以按照从上到下、从左到右的顺序构建家谱树。
```c++
Member* build_family_tree(string filename) {
ifstream fin(filename);
if (!fin.is_open()) {
cout << "Failed to open file " << filename << endl;
return nullptr;
}
Member* root = nullptr;
unordered_map<string, Member*> members;
string name, gender, birthdate, father_name, mother_name;
while (fin >> name >> gender >> birthdate >> father_name >> mother_name) {
Member* member = new Member{name, gender[0], birthdate};
members[name] = member;
if (father_name != "-") {
member->father = members[father_name];
}
if (mother_name != "-") {
member->mother = members[mother_name];
}
if (!root) {
root = member;
}
else {
Member* parent = member->father ? member->father : member->mother;
if (!parent->left_child) {
parent->left_child = member;
}
else {
parent->right_child = member;
}
}
}
fin.close();
return root;
}
```
3. 实现家谱管理系统的各种操作
可以使用递归实现各种操作,比如输出祖先、输出子孙、计算辈分等。
```c++
void print_ancestors(Member* member) {
if (!member) {
return;
}
if (member->father) {
cout << member->father->name << " ";
print_ancestors(member->father);
}
if (member->mother) {
cout << member->mother->name << " ";
print_ancestors(member->mother);
}
}
void print_descendants(Member* member) {
if (!member) {
return;
}
if (member->left_child) {
print_descendants(member->left_child);
}
if (member->right_child) {
print_descendants(member->right_child);
}
cout << member->name << " ";
}
int calculate_generation(Member* member) {
int generation = 0;
while (member) {
generation++;
member = member->father;
}
return generation;
}
void print_members_by_generation(Member* member, int target_generation, int current_generation) {
if (!member) {
return;
}
if (current_generation == target_generation) {
cout << member->name << " ";
}
else {
print_members_by_generation(member->left_child, target_generation, current_generation+1);
print_members_by_generation(member->right_child, target_generation, current_generation+1);
}
}
```
4. 调用各种操作实现家谱管理系统
可以在程序中调用各种操作函数,根据用户输入执行相应的操作。
```c++
int main() {
Member* root = build_family_tree("family.txt");
// 输入任一成员,输出其所有的祖先
string name;
cout << "Enter a member's name: ";
cin >> name;
Member* member = find_member(root, name);
if (!member) {
cout << "Member not found" << endl;
}
else {
cout << "Ancestors: ";
print_ancestors(member);
cout << endl;
}
// 输入任一成员,输出其所有的子孙
cout << "Enter a member's name: ";
cin >> name;
member = find_member(root, name);
if (!member) {
cout << "Member not found" << endl;
}
else {
cout << "Descendants: ";
print_descendants(member);
cout << endl;
}
// 输入任一成员,输出其在家族中的辈分
cout << "Enter a member's name: ";
cin >> name;
member = find_member(root, name);
if (!member) {
cout << "Member not found" << endl;
}
else {
int generation = calculate_generation(member);
cout << "Generation: " << generation << endl;
}
// 输出指定辈的所有成员
int target_generation;
cout << "Enter a generation: ";
cin >> target_generation;
cout << "Members in generation " << target_generation << ": ";
print_members_by_generation(root, target_generation, 1);
cout << endl;
return 0;
}
```
以上是一个简单的家谱管理系统的设计和实现,可以根据需要进行修改和完善。
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