Browse Source

add HRD_analy

master
Dnomd343 5 years ago
parent
commit
2aec669556
  1. 447
      HRD_analy.cpp
  2. 57
      HRD_analy.h

447
main.cpp → HRD_analy.cpp

@ -1,150 +1,84 @@
#include <iostream>
#include <vector>
#include <string>
#include <algorithm>
#include <fstream>
using namespace std;
#include "HRD_analy.h"
ifstream File_Input;
ofstream File_Output;
struct Case_struct {
bool freeze[4][5]; // true -> no move ; false -> can move
unsigned char status[4][5]; // 0xFF -> undefined ; 0xFE -> space
unsigned char type[15]; // 0 -> 2 * 2 ; 1 -> 2 * 1 ; 2 -> 1 * 2 ; 3 -> 1 * 1
unsigned long long code;
};
vector <vector <Case_struct *> > Layer; // 储存全部层数据的节点
vector <vector <vector <int> > > Hash; // 哈希表
vector <vector <vector <int> > > Layer_Next; // 子节点数据
vector <vector <vector <int> > > Layer_Source; // 父节点数据
vector <int> int_vector;
int layer_num, layer_index; // layer_num: 当前扫描节点的层编号 layer_index: 当前扫描节点的层中编号
// 布局的基本参数
int min_solution_step; // 最少的步数
int min_solution_num; // 最少步解的个数
vector <unsigned long long> min_solution_case; // 所有最少步解
vector <unsigned int> solution_step; // 所有解对应的步数
int solution_num; // 解的个数
vector <unsigned long long> solution_case; // 所有解
int farthest_step; // 最远布局的步数
int farthest_num; // 最远布局的个数
vector <unsigned long long> farthest_case; // 所有最远的布局
void debug(Case_struct &dat);
unsigned long long Change_int (char str[10]);
string Change_str(unsigned long long dat);
bool Parse_Code(Case_struct &dat, unsigned long long Code);
void Get_Code(Case_struct &dat);
void Find_Sub_Case(Case_struct &dat, int &num, int x, int y, bool addr[4][5]);
void Build_Case(Case_struct &dat, int &num, int x, int y, bool addr[4][5]);
void Find_Next_Case(Case_struct &dat_raw);
void Add_Case(Case_struct *dat);
void Calculate(unsigned long long code);
void Free_Data();
void Analyse_Case(unsigned long long code);
void Sort(vector <unsigned long long> &dat);
int main() {
cout << "Klotski Calculator by Dnomd343" << endl;
cout << "start" << endl;
//Calculate(0x4FEA13400); // 0x1A9BF0C00 0x2CF519C00 0x652D7F000 0x2B1877C00
struct Case_struct {
unsigned int id;
unsigned long long code;
int min_solution_step;
int min_solution_num;
vector <unsigned long long> min_solution_case;
vector <unsigned int> solution_step;
int solution_num;
vector <unsigned long long> solution_case;
int farthest_step;
int farthest_num;
vector <unsigned long long> farthest_case;
};
vector <Case_struct> Cases;
Case_struct empty_case;
char str[9];
int i, j;
File_Input.open("test.txt");
while (File_Input.eof() != true) {
File_Input >> str;
Cases.push_back(empty_case);
Cases[Cases.size() - 1].id = Cases.size() - 1;
Cases[Cases.size() - 1].code = Change_int(str);
}
File_Input.close();
for (i = 0; i < Cases.size(); i++) {
cout << Change_str(Cases[i].code) << "...";
Analyse_Case(Cases[i].code);
Cases[i].min_solution_step = min_solution_step;
Cases[i].solution_num = solution_num;
Cases[i].min_solution_num = min_solution_num;
Cases[i].solution_case = solution_case;
Cases[i].solution_step = solution_step;
Cases[i].min_solution_case = min_solution_case;
Cases[i].farthest_step = farthest_step;
Cases[i].farthest_num = farthest_num;
Cases[i].farthest_case = farthest_case;
cout << "OK -> " << i + 1 << "/" << Cases.size() << endl;
}
cout << "Output farthest.csv...";
File_Output.open("farthest.csv");
File_Output << "id,farthest_step,farthest_num,farthest_case";
for (i = 0; i < Cases.size(); i++) {
File_Output << endl;
File_Output << Cases[i].id << ",";
File_Output << Cases[i].farthest_step << ",";
File_Output << Cases[i].farthest_num << ",";
for (j = 0; j < Cases[i].farthest_case.size(); j++) {
File_Output << Change_str(Cases[i].farthest_case[j]);
if (j != Cases[i].farthest_case.size() - 1) {File_Output << "-";}
}
}
File_Output.close();
cout << "OK" << endl;
cout << "Output min_solution.csv...";
File_Output.open("min_solution.csv");
File_Output << "id,min_solution_step,min_solution_num,min_solution_case";
for (i = 0; i < Cases.size(); i++) {
File_Output << endl;
File_Output << Cases[i].id << ",";
File_Output << Cases[i].min_solution_step << ",";
File_Output << Cases[i].min_solution_num << ",";
for (j = 0; j < Cases[i].min_solution_case.size(); j++) {
File_Output << Change_str(Cases[i].min_solution_case[j]);
if (j != Cases[i].min_solution_case.size() - 1) {File_Output << "-";}
}
}
File_Output.close();
cout << "OK" << endl;
cout << "Output solution.csv...";
File_Output.open("solution.csv");
File_Output << "id,solution_num,solution_case";
for (i = 0; i < Cases.size(); i++) {
File_Output << endl;
File_Output << Cases[i].id << ",";
File_Output << Cases[i].solution_num << ",";
for (j = 0; j < Cases[i].solution_case.size(); j++) {
File_Output << Change_str(Cases[i].solution_case[j]);
File_Output << "(" << Cases[i].solution_step[j] << ")";
if (j != Cases[i].solution_case.size() - 1) {File_Output << "-";}
}
}
File_Output.close();
cout << "OK" << endl;
cout << "All Done!" << endl;
cout << "bye..." << endl;
return 0;
void HRD_analy::Output_Detail(string File_name) { // 输出分析结果到文件
unsigned int i, j, k;
vector <Case_cal *> case_list;
if (quiet == false) {
cout << "Output into: " << File_name << " ...";
}
File_Output.open(File_name);
File_Output << "[Min_solution_step]" << endl;
File_Output << min_solution_step << endl;
File_Output << "[Min_solution_case]" << endl;
File_Output << "num: " << min_solution_num << endl;
for (i = 0; i < min_solution_case.size(); i++) {
File_Output << Change_str(min_solution_case[i]) << endl;
}
File_Output << "[Farthest_step]" << endl;
File_Output << farthest_step << endl;
File_Output << "[Farthest_case]" << endl;
File_Output << "num: " << farthest_num << endl;
for (i = 0; i < farthest_case.size(); i++) {
File_Output << Change_str(farthest_case[i]) << endl;
}
File_Output << "[Solution]" << endl;
File_Output << "num: " << solution_num << endl;
for (i = 0; i < solution_case.size(); i++) {
File_Output << Change_str(solution_case[i]) << "(" << solution_step[i] << ")" << endl;
}
File_Output << "[Layer_Size]" << endl;
for (i = 0; i < Layer.size(); i++) {
File_Output << i << " -> " << Layer[i].size() << endl;
}
File_Output << "[Layer]" << endl;
for (i = 0; i < Layer.size(); i++) {
for (j = 0; j < Layer[i].size(); j++) {
File_Output << "(" << i << "," << j << ") -> ";
File_Output << Change_str((*Layer[i][j]).code) << endl;
}
}
File_Output << "[Next]" << endl;
for (i = 0; i < Layer.size(); i++) {
for (j = 0; j < Layer[i].size(); j++) {
case_list = (*(*Layer[i][j]).adjacent).next_case;
File_Output << "(" << i << "," << j << ") ->";
for (k = 0; k < case_list.size(); k++) {
File_Output << " (" << (*case_list[k]).layer_num;
File_Output << "," << (*case_list[k]).layer_index << ")";
}
File_Output << endl;
}
}
File_Output << "[Source]" << endl;
for (i = 0; i < Layer.size(); i++) {
for (j = 0; j < Layer[i].size(); j++) {
case_list = (*(*Layer[i][j]).adjacent).source_case;
File_Output << "(" << i << "," << j << ") <-";
for (k = 0; k < case_list.size(); k++) {
File_Output << " (" << (*case_list[k]).layer_num;
File_Output << "," << (*case_list[k]).layer_index << ")";
}
File_Output << endl;
}
}
File_Output.close();
if (quiet == false) {
cout << "done" << endl;
}
}
void Analyse_Case(unsigned long long code) { // 分析输入编码的各种参数 (输入编码必须无误)
void HRD_analy::Analyse_Case(unsigned long long code) { // 分析输入编码的各种参数 (输入编码必须无误)
vector < vector <bool> > solution_flag;
vector <unsigned long long> temp;
int i, j, k;
unsigned int i, j, k;
farthest_step = -1; // 初始化farthest
farthest_num = 0;
farthest_case.clear();
@ -159,14 +93,14 @@ void Analyse_Case(unsigned long long code) { // 分析输入编码的各种参
for (i = 0; i < solution_flag.size(); i++) {
solution_flag[i].resize(Layer[i].size());
}
// 获取最远端情况
farthest_step = Layer.size() - 1; // 计算最远布局的步数
for (i = 0; i < Layer[farthest_step].size(); i++) { // 找到所有最远的布局
farthest_case.push_back((*Layer[farthest_step][i]).code);
}
farthest_num = farthest_case.size();
Sort(farthest_case); //得到的结果进行排序
sort(farthest_case.begin(), farthest_case.end()); //得到的结果进行排序
// 获取最少步解
for (i = 0; i < Layer.size(); i++) {
for (j = 0; j < Layer[i].size(); j++) {
if (((*Layer[i][j]).code >> 32) == 0xD) { // 2 * 2块在出口位置
@ -184,8 +118,9 @@ void Analyse_Case(unsigned long long code) { // 分析输入编码的各种参
}
}
min_solution_num = min_solution_case.size();
Sort(min_solution_case); // 得到的结果进行排序
sort(min_solution_case.begin(), min_solution_case.end()); // 得到的结果进行排序
// 获取全部解
vector <Case_cal *> case_list;
solution_case = min_solution_case; // 同步最少步解到所有解序列中
for (i = 0; i < solution_case.size(); i++) { // 初始化已知部分的solution_step
solution_step.push_back(min_solution_step);
@ -193,8 +128,10 @@ void Analyse_Case(unsigned long long code) { // 分析输入编码的各种参
for (i = 0; i < Layer.size() - 1; i++) { // 遍历除最后一层外的所有层
for (j = 0; j < Layer[i].size(); j++) { // 遍历层内元素
if (solution_flag[i][j] == true) { // 若该元素被标识
for (k = 0; k < Layer_Next[i][j].size(); k++) { // 遍历其下一步
solution_flag[i + 1][Layer_Next[i][j][k]] = true; // 标识
case_list = (*(*Layer[i][j]).adjacent).next_case;
for (k = 0; k < case_list.size(); k++) { // 遍历其下一步
//solution_flag[i + 1][Layer_Next[i][j][k]] = true;
solution_flag[i + 1][(*case_list[k]).layer_index] = true; // 标识
}
}
}
@ -208,117 +145,117 @@ void Analyse_Case(unsigned long long code) { // 分析输入编码的各种参
}
}
}
Sort(temp); // 将得到的结果进行排序
sort(temp.begin(), temp.end()); // 将得到的结果进行排序
for (k = 0; k < temp.size(); k++) { // 将temp内容加入solution_case中
solution_case.push_back(temp[k]);
}
}
solution_num = solution_case.size();
if (quiet == true) {return;} // 若quiet为true则不输出
cout << "---------------------------" << endl;
cout << "farthest_step = " << farthest_step << endl;
cout << "farthest_num = " << farthest_num << endl;
cout << "farthest_case -> " << endl;
for (i = 0; i < farthest_case.size(); i++) {
cout << " " << Change_str(farthest_case[i]) << endl;
}
cout << "---------------------------" << endl;
cout << "min_solution_step = " << min_solution_step << endl;
cout << "min_solution_num = " << min_solution_num << endl;
cout << "min_solution_case -> " << endl;
for (i = 0; i < min_solution_case.size(); i++) {
cout << " " << Change_str(min_solution_case[i]) << endl;
}
cout << "---------------------------" << endl;
cout << "solution_num = " << solution_num << endl;
cout << "solution_case(solution_step) -> " << endl;
for (i = 0; i < solution_case.size(); i++) {
cout << " " << Change_str(solution_case[i]) << "(" << solution_step[i] << ")" << endl;
}
cout << "---------------------------" << endl;
}
void Sort(vector <unsigned long long> &dat) { // 将输入的vector排序 (从小到大)
unsigned int i, j;
if (dat.size() == 0) {return;} // 空的则退出
for (i = 0; i < dat.size() - 1; i++) { // 冒泡排序
for (j = 0; j < dat.size() - 1 - i; j++) {
if (dat[j] >= dat[j + 1]) {
swap(dat[j], dat[j + 1]);
}
}
}
}
void Free_Data() { //释放数据
for (int i = 0; i < Layer.size(); i++) { // 释放Layer中指向的全部节点
for (int j = 0; j < Layer[i].size(); j++) {
void HRD_analy::Free_Data() { // 释放上一次的计算结果
unsigned int i, j;
for (i = 0; i < Layer.size(); i++) { // 释放Layer中指向的全部节点
for (j = 0; j < Layer[i].size(); j++) {
delete (*Layer[i][j]).adjacent;
delete Layer[i][j];
}
}
Layer.clear(); // 清空层数据
Hash.clear(); // 清空哈希表
Layer_Next.clear(); // 清空子节点标识
Layer_Source.clear(); // 清空父节点标识
for (i = 0; i < 0x10000; i++) { // 清空哈希表
Layer_hash[i].clear();
}
}
void Calculate(unsigned long long code) { // 计算输入编码的全部层数据
Free_Data(); // 释放上一次计算的数据
Case_struct *dat = new Case_struct;
vector <Case_struct *> empty_layer;
vector <vector <int> > int_2nd_vector;
vector <vector <int> > hash_layer;
hash_layer.resize(0x100); // 单层哈希索引设定为8位
Parse_Code(*dat, code); // 解译输入编码
Layer.push_back(empty_layer); // 添加首层
Hash.push_back(hash_layer);
Layer_Next.push_back(int_2nd_vector);
Layer_Source.push_back(int_2nd_vector);
Layer[0].push_back(dat); // 添加根节点
Hash[0][0xff & (code >> 24)].push_back(0);
Layer_Next[0].push_back(int_vector);
Layer_Source[0].push_back(int_vector);
layer_num = layer_index = 0; // 定义入口为根节点
void HRD_analy::Calculate(unsigned long long code) {
Free_Data(); // 初始化数据结构
Case_cal *start = new Case_cal;
(*start).adjacent = new Case_near;
Parse_Code(*start, code); // 解译输入编码
Layer.resize(1); // 创建第0层
Layer[0].push_back(start); // 加入根节点
(*start).layer_num = (*start).layer_index = 0; // 初始化根节点编号
Layer_hash[0xffff & ((*start).code >> 16)].push_back(start); // 根节点加入哈希表
now_move_num = now_move_index = 0; // 从根节点开始运算
while (1 == 1) { // 创建死循环
if (layer_index == 0) { // 若在计算层的第一个元素
Layer.push_back(empty_layer); // 则新增一层
Hash.push_back(hash_layer);
Layer_Next.push_back(int_2nd_vector);
Layer_Source.push_back(int_2nd_vector);
if (now_move_index == 0) { // 若在计算层的第一个元素
Layer.resize(Layer.size() + 1); // 则新增一层
}
Find_Next_Case(*Layer[layer_num][layer_index]); // 寻找子布局
if (layer_index == Layer[layer_num].size() - 1) { // 若在层的最后一个元素
if (Layer[layer_num + 1].size() == 0) { // 若下一层是空的
now_move_case = Layer[now_move_num][now_move_index]; // 记录当前正在查找的节点
Find_Next_Case(*now_move_case); // 寻找节点的子布局
if (now_move_index == Layer[now_move_num].size() - 1) { // 若在层的最后一个元素
if (Layer[now_move_num + 1].size() == 0) { // 若下一层是空的
break; // 已全部搜索完毕 退出搜索循环
}
layer_num++; // 计算目标移到下一层第一个元素
layer_index = 0;
now_move_num++; // 计算目标移到下一层第一个元素
now_move_index = 0;
if (quiet == false) {
cout << now_move_num << " -> " << Layer[now_move_num].size() << endl;
}
} else { // 不是最后一个元素
layer_index++; // 计算目标移到下一元素
now_move_index++; // 计算目标移到下一元素
}
}
Layer.pop_back(); // 移除最后的空层
Hash.pop_back();
Layer_Next.pop_back();
Layer_Source.pop_back();
}
void Add_Case(Case_struct *dat) { // 新节点若不重复即可以加入
int x, y, k, num;
int hash_index = (0xff & ((*dat).code >> 24)); // 取编码低24 ~ 32位作为哈希索引
num = layer_num; // 扫描目标为当前计算所在层
for (k = 0; k < Hash[num][hash_index].size(); k++) { // 遍历对应索引
if ((*Layer[num][Hash[num][hash_index][k]]).code == (*dat).code) { // 若发现重复
delete dat; // 释放不加入的节点
return; // 退出
}
}
num++; // 向下一层
for (k = 0; k < Hash[num][hash_index].size(); k++) { // 遍历对应索引
if ((*Layer[num][Hash[num][hash_index][k]]).code == (*dat).code) { // 若发现重复
for (x = 0; x < 4; x++) { // 遍历freeze表
for (y = 0; y < 5; y++) {
if ((*dat).freeze[x][y] == true) { // 将输入表合并到原先的表上
(*Layer[num][Hash[num][hash_index][k]]).freeze[x][y] = true;
void HRD_analy::Add_Case(Case_cal *dat) { // 将计算得到的节点加入层级中
unsigned int i, x, y;
Case_cal *repeat_case;
int hash_index = 0xffff & ((*dat).code >> 16); // 取得哈希索引
for (i = 0; i < Layer_hash[hash_index].size(); i++) { // 遍历索引内容
repeat_case = Layer_hash[hash_index][i];
if ((*repeat_case).code == (*dat).code) { // 发现重复
if ((*repeat_case).layer_num == now_move_num + 1) { // 若发现的目标比现在多一层
(*(*repeat_case).adjacent).source_case.push_back(now_move_case); // 记录父节点信息
(*(*now_move_case).adjacent).next_case.push_back(repeat_case); // 记录子节点信息
for (x = 0; x < 4; x++) { // 遍历freeze表
for (y = 0; y < 5; y++) {
if ((*dat).freeze[x][y] == true) { // 将输入表合并到原先的表上
(*repeat_case).freeze[x][y] = true;
}
}
}
}
Layer_Next[layer_num][layer_index].push_back(Hash[num][hash_index][k]); // 添加子节点数据
Layer_Source[num][Hash[num][hash_index][k]].push_back(layer_index); // 添加父节点数据
delete dat; // 释放不加入的节点
delete dat; // 销毁节点
return; // 退出
}
}
Hash[layer_num + 1][0xff & ((*dat).code >> 24)].push_back(Layer[layer_num + 1].size()); // 添加索引
Layer[layer_num + 1].push_back(dat); // 新增布局到Layer对应层中
Layer_Next[layer_num + 1].push_back(int_vector); // 新建子节点
Layer_Source[layer_num + 1].push_back(int_vector); // 新建父节点
Layer_Next[layer_num][layer_index].push_back(Layer[layer_num + 1].size() - 1); // 添加子节点数据
Layer_Source[layer_num + 1][Layer_Source[layer_num + 1].size() - 1].push_back(layer_index); // 添加父节点数据
(*dat).adjacent = new Case_near; // 初始化节点的相邻布局结构
(*(*dat).adjacent).source_case.push_back(now_move_case); // 记录父节点信息
(*(*now_move_case).adjacent).next_case.push_back(dat); // 记录子节点信息
(*dat).layer_num = now_move_num + 1; // 记录节点的层编号
(*dat).layer_index = Layer[now_move_num + 1].size(); // 记录节点在层中的编号
Layer[now_move_num + 1].push_back(dat); // 加入层级结构中
Layer_hash[hash_index].push_back(dat); // 加入哈希索引
}
void Find_Next_Case(Case_struct &dat_raw) { // 找到下一步移动的情况(一步可以为同一块多次移动) 结果聚集到Add_Case中
void HRD_analy::Find_Next_Case(Case_cal &dat_raw) { // 找到下一步移动的情况(一步可以为同一块多次移动) 结果聚集到Add_Case中
int num, x, y, i, j;
bool addr[4][5]; // 在Find_Sub_Case深搜中用于剪枝
Case_struct dat = dat_raw;
Case_cal dat = dat_raw;
for (y = 0; y < 5; y++) { // 仅保留空格位置的freeze为true
for (x = 0; x < 4; x++) {
if (dat.status[x][y] != 0xFE && dat.freeze[x][y] == true) { // 不为空格但freeze为true
@ -340,7 +277,7 @@ void Find_Next_Case(Case_struct &dat_raw) { // 找到下一步移动的情况(
addr[x][y] = true; // 加入当前块 防止重复查询
switch (dat.type[num]) {
case 0: // 2 * 2
dat_raw.freeze[x + 1][y]
dat_raw.freeze[x + 1][y]
= dat_raw.freeze[x][y + 1] = dat_raw.freeze[x + 1][y + 1] = true;
dat.status[x + 1][y] = dat.status[x][y + 1] = dat.status[x + 1][y + 1] = 0xFE;
dat.freeze[x + 1][y] = dat.freeze[x][y + 1] = dat.freeze[x + 1][y + 1] = true;
@ -374,7 +311,7 @@ void Find_Next_Case(Case_struct &dat_raw) { // 找到下一步移动的情况(
}
}
void Find_Sub_Case(Case_struct &dat, int &num, int x, int y, bool addr[4][5]) { // 找到下一个单格移动的情况
void HRD_analy::Find_Sub_Case(Case_cal &dat, int &num, int x, int y, bool addr[4][5]) { // 找到下一个单格移动的情况
switch (dat.type[num]) {
case 0: // 2 * 2
if (y != 0) { // 不在最上面
@ -467,17 +404,17 @@ void Find_Sub_Case(Case_struct &dat, int &num, int x, int y, bool addr[4][5]) {
}
}
void Build_Case(Case_struct &dat, int &num, int x, int y, bool addr[4][5]) { // 实现移动并将结果发送到Add_Case
void HRD_analy::Build_Case(Case_cal &dat, int &num, int x, int y, bool addr[4][5]) { // 实现移动并将结果发送到Add_Case
if (addr[x][y] == true) { // 重复
return; // 退出
} else {
addr[x][y] = true; // 加入位置数据
}
Case_struct *dat_mod = new Case_struct; // 新建对象 在Add_Case中加入层中或被释放
Case_cal *dat_mod = new Case_cal; // 新建对象 在Add_Case中加入层中或被释放
*dat_mod = dat;
switch ((*dat_mod).type[num]) { // 注入移动后的信息
case 0: // 2 * 2
(*dat_mod).status[x][y] = (*dat_mod).status[x][y + 1]
(*dat_mod).status[x][y] = (*dat_mod).status[x][y + 1]
= (*dat_mod).status[x + 1][y] = (*dat_mod).status[x + 1][y + 1] = num;
break;
case 1: // 2 * 1
@ -495,7 +432,7 @@ void Build_Case(Case_struct &dat, int &num, int x, int y, bool addr[4][5]) { //
Find_Sub_Case(dat, num, x, y, addr); // 递归搜索
}
void Get_Code(Case_struct &dat) { // 获取编码并存储在dat.code 输入数据必须无误
void HRD_analy::Get_Code(Case_cal &dat) { // 获取编码并存储在dat.code 输入数据必须无误
bool temp[4][5]; // 用于临时标记
int x, y, num;
dat.code = 0;
@ -542,7 +479,7 @@ void Get_Code(Case_struct &dat) { // 获取编码并存储在dat.code 输入数
dat.code &= 0xFFFFFFFFF; // 清除高28位内容
}
bool Parse_Code(Case_struct &dat, unsigned long long Code) { // 解析编码 返回false表示编码有误
bool HRD_analy::Parse_Code(Case_cal &dat, unsigned long long Code) { // 解析编码 返回false表示编码有误
unsigned char range[16]; // dat低32位分16组
int i, x, y, num, space_num = 0;
dat.code = Code;
@ -613,7 +550,7 @@ bool Parse_Code(Case_struct &dat, unsigned long long Code) { // 解析编码 返
return true; // 20格恰好被填满
}
string Change_str(unsigned long long dat) { // 将数字转化为文本编码
string HRD_analy::Change_str(unsigned long long dat) { // 将数字转化为文本编码
string str;
str.resize(9); // 修改其长度为9位
for (int i = 8; i >= 0; i--) { // 将每一位从数值转为ASCII码
@ -627,7 +564,7 @@ string Change_str(unsigned long long dat) { // 将数字转化为文本编码
return str;
}
unsigned long long Change_int (char *str) { // 将文本编码转化为数字(传入9位字符串)
unsigned long long HRD_analy::Change_int (char *str) { // 将文本编码转化为数字(传入9位字符串)
unsigned long long dat = 0;
for (int i = 0; i < 9; i++) { // 将每一位从ASCII码转为数值
dat <<= 4;
@ -641,55 +578,3 @@ unsigned long long Change_int (char *str) { // 将文本编码转化为数字(
}
return dat;
}
void debug(Case_struct &dat) {
cout << "status" << endl;
for (int y = 0; y < 5; y++) {
for (int x = 0; x < 4; x++) {
if (dat.status[x][y] <= 9) { // 0 ~ 9
cout << int(dat.status[x][y]) << " ";
} else if (dat.status[x][y] <= 0xE) { // A ~ E
cout << char(dat.status[x][y] + 55) << " ";
} else if (dat.status[x][y] == 0xFE) { // space
cout << ". ";
} else if (dat.status[x][y] == 0xFF) { // undefined
cout << "* ";
} else { // error
cout << "! ";
}
}
cout << endl;
}
cout << "freeze" << endl;
for (int y = 0; y < 5; y++) {
for (int x = 0; x < 4; x++) {
if (dat.freeze[x][y] == true) {
cout << "x ";
} else {
cout << "- ";
}
}
cout << endl;
}
cout << "type" << endl;
for (int i = 0; i < 15; i++) {
if (i < 10) {
cout << i;
} else {
cout << char(i + 55);
}
cout << " -> ";
if (dat.type[i] == 0) {
cout << "2 * 2" << endl;
} else if (dat.type[i] == 1) {
cout << "2 * 1" << endl;
} else if (dat.type[i] == 2) {
cout << "1 * 2" << endl;
} else if (dat.type[i] == 3) {
cout << "1 * 1" << endl;
} else {
cout << "undefined" << endl;
}
}
cout << "code: " << Change_str(dat.code) << endl;
}

57
HRD_analy.h

@ -0,0 +1,57 @@
#ifndef HRD_analy_H
#define HRD_analy_H
#include <vector>
#include <string>
using namespace std;
class HRD_analy {
public:
struct Case_near;
struct Case_cal {
bool freeze[4][5]; // true -> no move ; false -> can move
unsigned char status[4][5]; // 0xFF -> undefined ; 0xFE -> space
unsigned char type[15]; // 0 -> 2 * 2 ; 1 -> 2 * 1 ; 2 -> 1 * 2 ; 3 -> 1 * 1
unsigned long long code;
unsigned int layer_num;
unsigned int layer_index;
Case_near *adjacent;
};
struct Case_near {
vector <Case_cal *> source_case;
vector <Case_cal *> next_case;
};
vector <vector <Case_cal *> > Layer; // 储存全部层数据的节点
bool quiet = false; // true -> 静默模式 false -> 输出运算情况
// 布局的基本参数
int min_solution_step; // 最少的步数
int min_solution_num; // 最少步解的个数
vector <unsigned long long> min_solution_case; // 所有最少步解
vector <unsigned int> solution_step; // 所有解对应的步数
int solution_num; // 解的个数
vector <unsigned long long> solution_case; // 所有解
int farthest_step; // 最远布局的步数
int farthest_num; // 最远布局的个数
vector <unsigned long long> farthest_case; // 所有最远的布局
unsigned long long Change_int (char str[10]);
string Change_str(unsigned long long dat);
void Analyse_Case(unsigned long long code);
void Output_Detail(string File_name);
private:
vector <Case_cal *> Layer_hash[0x10000]; // 哈希表
Case_cal *now_move_case;
unsigned int now_move_num, now_move_index; // 当前扫描节点的层编号 / 当前扫描节点的层中编号
bool Parse_Code(Case_cal &dat, unsigned long long Code);
void Get_Code(Case_cal &dat);
void Find_Sub_Case(Case_cal &dat, int &num, int x, int y, bool addr[4][5]);
void Build_Case(Case_cal &dat, int &num, int x, int y, bool addr[4][5]);
void Find_Next_Case(Case_cal &dat_raw);
void Add_Case(Case_cal *dat);
void Calculate(unsigned long long code);
void Free_Data();
};
#endif
Loading…
Cancel
Save