数据结构与算法基础-学习-27-图之最短路径之Dijkstra（迪杰斯特拉）算法
一、最短路径应用案例
例如从北京到上海旅游，有多条路可以到目的地，哪条路线最短，哪条路线最省钱，就是典型的最短路径问题。
二、最短路径问题分类
最短路径问题可以分为两类，第一类为：两点间最短路径。第二类为：某源点到其他各点最短路径。不同的问题类型可以用不同的算法实现，本文介绍第一类问题的Dijkstra算法实现。
三、Dijkstra算法思路
这次新画了一个图，是时候体现一下画图技巧啦，言归正传，我们需要用有向图加邻接矩阵实现，邻接矩阵结果如下：
[2023-7]--[ Debug ]--Printf AMGraph :
VertexArray : [0 ,1 ,2 ,3 ,4 ,5 ,6 ]
ArcArray :
[32767 ,13 ,8 ,32767 ,30 ,32767 ,32 ]
[32767 ,32767 ,32767 ,32767 ,32767 ,9 ,7 ]
[32767 ,32767 ,32767 ,5 ,32767 ,32767 ,32767 ]
[32767 ,32767 ,32767 ,32767 ,6 ,32767 ,32767 ]
[32767 ,32767 ,32767 ,32767 ,32767 ,2 ,32767 ]
[32767 ,32767 ,32767 ,32767 ,32767 ,32767 ,17 ]
[32767 ,32767 ,32767 ,32767 ,32767 ,32767 ,32767 ]
CurVertexNum : 7
CurArcNum : 10除此之外我们还需要维护一个最短边数组LowestEdgeArray和点到点路径长度数组PathLenArray，如下：
[2023-7]--[ Debug ]--Printf StDijkstra
LowestEdgeArray :
0 : (EndVertextIndex : 1, WeightVal : 13), [ (0,1,13) ]
1 : (EndVertextIndex : 2, WeightVal : 8), [ (0,2,8) ]
2 : (EndVertextIndex : 3, WeightVal : 32767), [ ]
3 : (EndVertextIndex : 4, WeightVal : 30), [ (0,4,30) ]
4 : (EndVertextIndex : 5, WeightVal : 32767), [ ]
5 : (EndVertextIndex : 6, WeightVal : 32), [ (0,6,32) ]
PathLenArray : [ (0,2,8) ]
PathLenArrayLen : 1
PathLenArrayMaxLen : 6我们从0点出发，先解释一下上图如何理解：
第一行表示：最短边数组LowestEdgeArray索引号0存储着顶点索引：0到结束点EndVertextIndex：1，权值为13，后面的[ (0,1,13) ]可以不关注，主要是为了实现例如0->4，经过了哪些点，方便计算用的。
第二行表示：最短边数组LowestEdgeArray索引号1存储着顶点索引：0到结束点EndVertextIndex：2，权值为8。
后面几行也以此类推，就是在邻接矩阵图上遍历。
填写好0到5行最短边数组LowestEdgeArray数据后，计算其中最小的权值8，对应EndVertextIndex：2，并记录点到点路径长度数组PathLenArray中。2号节点被我们找到了，后面遍历1-6号节点时，不需要扫描2号点了。
我们取到的是(0,2,8)，现在我们将邻接矩阵中2号点的计算并更新到最短边数组LowestEdgeArray。
[32767 ,32767 ,32767 ,5 ,32767 ,32767 ,32767 ]我们只需要看2->3的权值5，5+8（之前取到的最小权值）<32767，因为其他点都是无穷大，但实际计算是需要挨个比较的。
2 : (EndVertextIndex : 3, WeightVal : 32767), [ ]更新为13，在开始找最小权值从1，3，4，5，6中扫描。
2 : (EndVertextIndex : 3, WeightVal : 13), [ (2,3,5) ]更新最短边数组LowestEdgeArray和点到点路径长度数组PathLenArray，如下：
[2023-7]--[ Debug ]--Printf StDijkstra
LowestEdgeArray :
0 : (EndVertextIndex : 1, WeightVal : 13), [ (0,1,13) ]
1 : (EndVertextIndex : 2, WeightVal : 8), [ (0,2,8) ]
2 : (EndVertextIndex : 3, WeightVal : 13), [ (2,3,5) ]
3 : (EndVertextIndex : 4, WeightVal : 30), [ (0,4,30) ]
4 : (EndVertextIndex : 5, WeightVal : 32767), [ ]
5 : (EndVertextIndex : 6, WeightVal : 32), [ (0,6,32) ]
PathLenArray : [ (0,2,8),(0,1,13) ]
PathLenArrayLen : 2
PathLenArrayMaxLen : 6PathLenArray : [ (0,2,8),(0,1,13) ]现在只需要扫描3，4，5，6节点信息，上一个最小权值是在1号节点，把邻接矩阵中1号点的信息写入并计算。
[32767 ,32767 ,32767 ,32767 ,32767 ,9 ,7 ]13 < 13 + 32767，LowestEdgeArray中EndVertextIndex：3的权值13小于上一个最小值(0,1,13)的13加上邻接矩阵3号位权值32767，不更新LowestEdgeArray。
30 < 13 + 32767，LowestEdgeArray中EndVertextIndex：4的权值30小于上一个最小值(0,1,13)的13加上邻接矩阵4号位权值32767，不更新LowestEdgeArray。
32767 > 13 + 9，LowestEdgeArray中EndVertextIndex：5的权值32767 大于上一个最小值(0,1,13)的13加上邻接矩阵5号位权值9，更新LowestEdgeArray的EndVertextIndex : 5的权值位22。
32 > 13 + 7，LowestEdgeArray中EndVertextIndex：6的权值32 大于上一个最小值(0,1,13)的13加上邻接矩阵6号位权值7，更新LowestEdgeArray的EndVertextIndex : 6的权值位20。
上面4个点中找出最小权值13，(0,3,13)写入到PathLenArray中，具体变化如下：
[2023-7]--[ Debug ]--Printf StDijkstra
LowestEdgeArray :
0 : (EndVertextIndex : 1, WeightVal : 13), [ (0,1,13) ]
1 : (EndVertextIndex : 2, WeightVal : 8), [ (0,2,8) ]
2 : (EndVertextIndex : 3, WeightVal : 13), [ (2,3,5) ]
3 : (EndVertextIndex : 4, WeightVal : 30), [ (0,4,30) ]
4 : (EndVertextIndex : 5, WeightVal : 22), [ (1,5,9) ]
5 : (EndVertextIndex : 6, WeightVal : 20), [ (1,6,7) ]
PathLenArray : [ (0,2,8),(0,1,13),(0,3,13) ]
PathLenArrayLen : 3
PathLenArrayMaxLen : 6现在只需要扫描4，5，6节点信息，上一个最小权值是在3号节点，把邻接矩阵中3号点的信息写入并计算。
[32767 ,32767 ,32767 ,32767 ,6 ,32767 ,32767 ]30 > 13 + 6，LowestEdgeArray中EndVertextIndex：4的权值30大于上一个最小值(0,3,13)的13加上邻接矩阵4号位权值6，更新LowestEdgeArray的EndVertextIndex : 4的权值位19。
22 < 13 + 32767，LowestEdgeArray中EndVertextIndex：5的权值22 小于上一个最小值(0,3,13)的13加上邻接矩阵5号位权值32767，不更新LowestEdgeArray。
20 < 13 + 32767，LowestEdgeArray中EndVertextIndex：6的权值20 小于上一个最小值(0,3,13)的13加上邻接矩阵6号位权值32767，不更新LowestEdgeArray。
上面3个点中找出最小权值19，(0,4,19)写入到PathLenArray中，具体变化如下：
[2023-7]--[ Debug ]--Printf StDijkstra
LowestEdgeArray :
0 : (EndVertextIndex : 1, WeightVal : 13), [ (0,1,13) ]
1 : (EndVertextIndex : 2, WeightVal : 8), [ (0,2,8) ]
2 : (EndVertextIndex : 3, WeightVal : 13), [ (2,3,5) ]
3 : (EndVertextIndex : 4, WeightVal : 19), [ (3,4,6) ]
4 : (EndVertextIndex : 5, WeightVal : 22), [ (1,5,9) ]
5 : (EndVertextIndex : 6, WeightVal : 20), [ (1,6,7) ]
PathLenArray : [ (0,2,8),(0,1,13),(0,3,13),(0,4,19) ]
PathLenArrayLen : 4
PathLenArrayMaxLen : 6现在只需要扫描5，6节点信息，上一个最小权值是在4号节点，把邻接矩阵中4号点的信息写入并计算。
[32767 ,32767 ,32767 ,32767 ,32767 ,2 ,32767 ]22 >19 + 2，LowestEdgeArray中EndVertextIndex：5的权值22 大于上一个最小值(0,4,19)的19加上邻接矩阵5号位权值2，更新LowestEdgeArray的EndVertextIndex : 5的权值位21。
20 < 19 + 32767，LowestEdgeArray中EndVertextIndex：6的权值20 小于上一个最小值(0,4,19)的19加上邻接矩阵6号位权值32767，不更新LowestEdgeArray。
上面2个点中找出最小权值20，(0,6,20)写入到PathLenArray中，具体变化如下：
[2023-7]--[ Debug ]--Printf StDijkstra
LowestEdgeArray :
0 : (EndVertextIndex : 1, WeightVal : 13), [ (0,1,13) ]
1 : (EndVertextIndex : 2, WeightVal : 8), [ (0,2,8) ]
2 : (EndVertextIndex : 3, WeightVal : 13), [ (2,3,5) ]
3 : (EndVertextIndex : 4, WeightVal : 19), [ (3,4,6) ]
4 : (EndVertextIndex : 5, WeightVal : 21), [ (4,5,2) ]
5 : (EndVertextIndex : 6, WeightVal : 20), [ (1,6,7) ]
PathLenArray : [ (0,2,8),(0,1,13),(0,3,13),(0,4,19),(0,6,20) ]
PathLenArrayLen : 5
PathLenArrayMaxLen : 6现在只需要扫描5节点信息，上一个最小权值是在6号节点，把邻接矩阵中6号点的信息写入并计算。
[32767 ,32767 ,32767 ,32767 ,32767 ,32767 ,32767 ]
21 < 20 + 32767，LowestEdgeArray中EndVertextIndex：5的权值21 小于上一个最小值(0,6,20)的20加上邻接矩阵6号位权值32767，不更新LowestEdgeArray。
上面1个点中找出最小权值20，(0,5,21)写入到PathLenArray中，具体变化如下：
[2023-7]--[ Debug ]--Printf StDijkstra
LowestEdgeArray :
0 : (EndVertextIndex : 1, WeightVal : 13), [ (0,1,13) ]
1 : (EndVertextIndex : 2, WeightVal : 8), [ (0,2,8) ]
2 : (EndVertextIndex : 3, WeightVal : 13), [ (2,3,5) ]
3 : (EndVertextIndex : 4, WeightVal : 19), [ (3,4,6) ]
4 : (EndVertextIndex : 5, WeightVal : 21), [ (4,5,2) ]
5 : (EndVertextIndex : 6, WeightVal : 20), [ (1,6,7) ]
PathLenArray : [ (0,2,8),(0,1,13),(0,3,13),(0,4,19),(0,6,20),(0,5,21) ]
PathLenArrayLen : 6
PathLenArrayMaxLen : 6这样我们就得到0到其他节点的权值啦，有什么写的不妥的，大家可以多提建议。
Dijkstra的时间算法复杂度为：O(n^2)。
四、宏定义
宏定义和部分定义结构体用的是之前的图的，可以参考之前的博客《数据结构与算法基础-学习-23-图之邻接矩阵与邻接表》。
五、自定义结构体
1、StAccessPath
typedef struct StAccessPath
{
NetArcDataType* AccessArray; //存储从起始节点到目的节点的各个节点的信息。
VertexIndexType AccessArrayLen; //AccessArray数组长度。
VertexIndexType AccessArrayMaxLen; //AccessArray数组最大长度，顶点数减一。
}StAccessPath;2、StBaseDijkstra
typedef struct StBaseDijkstra
{
WeightType WeightVal; //从起始节点到目的节点的权值。
VertexIndexType EndVertextIndex; //结束顶点的索引号。
StAccessPath* AccessPath;
} StBaseDijkstra;3、StDijkstra
typedef struct StDijkstra
{
StBaseDijkstra* LowestEdgeArray; //用于存储最短边变化过程的数组。
NetArcDataType* PathLenArray; //记录起始顶点到各个顶点的信息。
VertexIndexType PathLenArrayLen; //记录PathLenArray的使用长度。
VertexIndexType PathLenArrayMaxLen; //记录PathLenArray的最大使用长度。
} StDijkstra;4、StDijkstraAccees
typedef struct StDijkstraAccees
{
StAccessPath** AccessPath;
VertexIndexType AccessPathMaxLen; //AccessPath数组最大长度，也可以说是最大行数，顶点数减一。
}StDijkstraAccees;六、函数定义
1、InitStAccessPath
Status InitStAccessPath(StAccessPath** StAP, VertexIndexType ArrayLen)
{
JudgeAllNullPointer(StAP);
*StAP = (StAccessPath*)MyMalloc(sizeof(StAccessPath));
(*StAP)->AccessArray = (NetArcDataType*)MyMalloc(sizeof(NetArcDataType) * ArrayLen);
(*StAP)->AccessArrayLen = 0;
(*StAP)->AccessArrayMaxLen = ArrayLen;
LogFormat(Debug, "%s\n", "Init StAccessPath OK.");
return SuccessFlag;
}初始化访问路径结构体。
2、DestroyStAccessPath
Status DestroyStAccessPath(StAccessPath** StAP)
{
JudgeAllNullPointer(StAP);
free((*StAP)->AccessArray);
(*StAP)->AccessArray = NULL;
(*StAP)->AccessArrayLen = 0;
(*StAP)->AccessArrayMaxLen = 0;
free(*StAP);
*StAP = NULL;
LogFormat(Debug, "%s\n", "Destroy StAccessPath OK.");
return SuccessFlag;
}销毁访问路径结构体。
3、InitStDijkstra
Status InitStDijkstra(StDijkstra** StDks, VertexIndexType VertexNum, VertexIndexType StartVertexIndex)
{
JudgeAllNullPointer(StDks);
VertexIndexType i = 0;
VertexIndexType j = 0;
*StDks = (StDijkstra*)MyMalloc(sizeof(StDijkstra));
(*StDks)->LowestEdgeArray = (StBaseDijkstra*)MyMalloc(sizeof(StBaseDijkstra) * (VertexNum - 1));
for(i = 0,j = 0; i < VertexNum - 1; i++,j++)
{
InitStAccessPath(&((*StDks)->LowestEdgeArray[i].AccessPath), VertexNum - 1);
if (j == StartVertexIndex)
{
j++;
}
(*StDks)->LowestEdgeArray[i].EndVertextIndex = j;
(*StDks)->LowestEdgeArray[i].WeightVal = 0;
}
(*StDks)->PathLenArray = (NetArcDataType*)MyMalloc(sizeof(NetArcDataType) * (VertexNum - 1));
(*StDks)->PathLenArrayLen = 0;
(*StDks)->PathLenArrayMaxLen = VertexNum - 1;
LogFormat(Debug, "%s\n", "Init StDijkstra OK.");
return SuccessFlag;
}初始化结构体。
4、DestroyStDijkstra
Status DestroyStDijkstra(StDijkstra** StDks)
{
JudgeAllNullPointer(StDks);
VertexIndexType i = 0;
for(i = 0; i < (*StDks)->PathLenArrayMaxLen; i++)
{
DestroyStAccessPath(&((*StDks)->LowestEdgeArray[i].AccessPath));
(*StDks)->LowestEdgeArray[i].EndVertextIndex = 0;
(*StDks)->LowestEdgeArray[i].WeightVal = 0;
}
free((*StDks)->PathLenArray);
(*StDks)->PathLenArray = NULL;
(*StDks)->PathLenArrayLen = 0;
(*StDks)->PathLenArrayMaxLen = 0;
free(*StDks);
*StDks = NULL;
LogFormat(Debug, "%s\n", "Destroy StDijkstra OK.");
return SuccessFlag;
}销毁结构体。
5、InitStDijkstraAccees
Status InitStDijkstraAccees(StDijkstraAccees** StDA, VertexIndexType VertexNum)
{
JudgeAllNullPointer(StDA);
VertexIndexType i = 0;
*StDA = (StDijkstraAccees*)MyMalloc(sizeof(StDijkstraAccees));
(*StDA)->AccessPath = (StAccessPath**)MyMalloc(sizeof(StAccessPath*) * (VertexNum - 1));
for (i = 0; i < VertexNum - 1; i++)
{
InitStAccessPath(&((*StDA)->AccessPath[i]), VertexNum - 1);
}
(*StDA)->AccessPathMaxLen = VertexNum - 1;
LogFormat(Debug, "%s\n", "Init StDijkstraAccees OK.");
return SuccessFlag;
}6、DestroyStDijkstraAccees
Status DestroyStDijkstraAccees(StDijkstraAccees** StDA)
{
JudgeAllNullPointer(StDA);
VertexIndexType i = 0;
for (i = 0; i < (*StDA)->AccessPathMaxLen; i++)
{
DestroyStAccessPath(&((*StDA)->AccessPath[i]));
}
free((*StDA)->AccessPath);
(*StDA)->AccessPath = NULL;
(*StDA)->AccessPathMaxLen = 0;
free(*StDA);
*StDA = NULL;
LogFormat(Debug, "%s\n", "Destroy StDijkstraAccees OK.");
return SuccessFlag;
}7、JudgeVertexIsAccessed
//判断这个点是否被访问过
//SuccessFlag 表示被访问。FailFlag 表示没有被访问。
Status JudgeVertexIsAccessed(StDijkstra* StDks, VertexIndexType VertexIndex)
{
JudgeAllNullPointer(StDks);
VertexIndexType i = 0;
for (i = 0; i < StDks->PathLenArrayLen; i++)
{
if (VertexIndex == StDks->PathLenArray[i].EndVertexIndex)
{
LogFormat(Debug,"Judge Vertex(%d) Is Accessed.\n",VertexIndex);
return SuccessFlag;
}
}
LogFormat(Debug,"Judge Vertex(%d) Is Not Accessed.\n",VertexIndex);
return FailFlag;
}8、PushData2StAccessPath
//将访问路径压入到结构体StAccessPath中。
Status PushData2StAccessPath(StAccessPath* StAP, NetArcDataType Data)
{
JudgeAllNullPointer(StAP);
LogFormat(Debug,"(StartVertexIndex : %d, EndVertexIndex : %d, Weight : %d)\n",Data.StartVertexIndex,Data.EndVertexIndex,Data.Weight);
if (StAP->AccessArrayLen == StAP->AccessArrayMaxLen)
{
LogFormat(Error, "%s\n", "StAccessPath Is Full, Exit.");
exit(ExceptionExitFlag);
}
StAP->AccessArray[StAP->AccessArrayLen] = Data;//结构体复制。
(StAP->AccessArrayLen)++;
LogFormat(Debug, "%s\n", "Push Data To StAccessPath OK.");
return SuccessFlag;
}9、ClearData2StAccessPath
//将结构体StAccessPath的数据清零。
//没有使用到此函数。
Status ClearData2StAccessPath(StAccessPath* StAP)
{
JudgeAllNullPointer(StAP);
StAP->AccessArrayLen = 0;
LogFormat(Debug, "%s\n", "Clear Data To StAccessPath OK.");
return SuccessFlag;
}10、PushData2PathLenArray
//将起始节点到结束节点的权值和索引号压入到PathLenArray中。
Status PushData2PathLenArray(StDijkstra* StDks, NetArcDataType Data)
{
JudgeAllNullPointer(StDks);
if (StDks->PathLenArrayLen == StDks->PathLenArrayMaxLen)
{
LogFormat(Error, "%s\n", "PathLenArray Is Full, Exit.");
exit(ExceptionExitFlag);
}
StDks->PathLenArray[StDks->PathLenArrayLen] = Data;//结构体复制。
(StDks->PathLenArrayLen)++;
PrintfStDijkstra(StDks, Debug);
LogFormat(Debug, "%s\n", "Push Data To StAccessPath OK.");
return SuccessFlag;
}11、PushData2LowestEdgeArray
//将数据压入到LowestEdgeArray中，选出最小的权值及其对应的索引号。
Status PushData2LowestEdgeArray(StDijkstra* StDks, AMGraph* AMG, VertexIndexType PushVertexIndex, VertexIndexType* ReturnVertexIndex, WeightType* ReturnWeightVal)
{
JudgeAllNullPointer(StDks);
JudgeAllNullPointer(AMG);
JudgeAllNullPointer(ReturnVertexIndex);
JudgeAllNullPointer(ReturnWeightVal);
VertexIndexType i = 0;
*ReturnWeightVal = MAX_INT_TYPE_NUM;//返回找出的最小权值。
//VertexIndexType ShortestWeightIndex = 0; //最小权值在最短边数组中的索引号，后续更新到访问路径StDijkstraAccees使用。
NetArcDataType TmpData;
if (StDks->PathLenArrayLen == 0)//说明LowestEdgeArray数组中没有数据，需要先加载一次数据，后面才好进行数据对比。
{
for (i = 0; i < StDks->PathLenArrayMaxLen; i++)
{
StDks->LowestEdgeArray[i].WeightVal = AMG->ArcArray[PushVertexIndex][StDks->LowestEdgeArray[i].EndVertextIndex];
//将访问路径信息写入到结构体StAccessPath中。
if (StDks->LowestEdgeArray[i].WeightVal != MAX_INT_TYPE_NUM)
{
TmpData.StartVertexIndex = PushVertexIndex;
TmpData.EndVertexIndex = StDks->LowestEdgeArray[i].EndVertextIndex;
TmpData.Weight = StDks->LowestEdgeArray[i].WeightVal;
PushData2StAccessPath(StDks->LowestEdgeArray[i].AccessPath,TmpData);
}
if (*ReturnWeightVal > StDks->LowestEdgeArray[i].WeightVal)//找权值最小的索引号。
{
*ReturnWeightVal = StDks->LowestEdgeArray[i].WeightVal;
*ReturnVertexIndex = StDks->LowestEdgeArray[i].EndVertextIndex;
//ShortestWeightIndex = i;
}
}
}
else//说明LowestEdgeArray数组已经有了数据，我们需要对比之前的数据，比原值小的进行更新，不然跳过。
{
for (i = 0; i < StDks->PathLenArrayMaxLen; i++)
{
if (JudgeVertexIsAccessed(StDks, StDks->LowestEdgeArray[i].EndVertextIndex) == SuccessFlag)//访问过的点不需要更新权值
{
continue;
}
//如果邻接矩阵中的权值+上一个最短边数组中的权值<最短边数组中的权值，进行数据更新。
if (StDks->LowestEdgeArray[i].WeightVal > AMG->ArcArray[PushVertexIndex][StDks->LowestEdgeArray[i].EndVertextIndex] + StDks->PathLenArray[StDks->PathLenArrayLen - 1].Weight)
{
StDks->LowestEdgeArray[i].WeightVal = AMG->ArcArray[PushVertexIndex][StDks->LowestEdgeArray[i].EndVertextIndex] + StDks->PathLenArray[StDks->PathLenArrayLen - 1].Weight;
//将访问路径信息写入到结构体StAccessPath中。
//下面这段逻辑需要改进，理想中是可以直接查出起始节点到个节点的路径信息。
//暂时没有想到其他好的方法。
//现在是申请了顶点个数相当的数组个数，其实只用了数组中的第一个空间，这个先不改了，想为了上面的改进做准备。
if (StDks->LowestEdgeArray[i].WeightVal != MAX_INT_TYPE_NUM)
{
TmpData.StartVertexIndex = PushVertexIndex;
TmpData.EndVertexIndex = StDks->LowestEdgeArray[i].EndVertextIndex;
TmpData.Weight = AMG->ArcArray[PushVertexIndex][StDks->LowestEdgeArray[i].EndVertextIndex];
ClearData2StAccessPath(StDks->LowestEdgeArray[i].AccessPath);
PushData2StAccessPath(StDks->LowestEdgeArray[i].AccessPath,TmpData);
}
}
if (*ReturnWeightVal > StDks->LowestEdgeArray[i].WeightVal)//找权值最小的索引号。
{
*ReturnWeightVal = StDks->LowestEdgeArray[i].WeightVal;
*ReturnVertexIndex = StDks->LowestEdgeArray[i].EndVertextIndex;
//ShortestWeightIndex = i;
}
}
}
LogFormat(Debug, "%s\n", "Push Data To Lowest Edge Array OK.");
return SuccessFlag;
}将数据压入最短边数组中。
12、PushData2StDijkstraAccees
Status PushData2StDijkstraAccees(StDijkstraAccees* StDA, VertexIndexType InsertNodeIndex, VertexIndexType StartIndex, VertexIndexType EndIndex, WeightType Weight)
{
JudgeAllNullPointer(StDA);
if (InsertNodeIndex >= StDA->AccessPathMaxLen)
{
LogFormat(Error, "Parameter InsertNodeIndex(%d) Need < AccessPathMaxLen(%d), Exit.\n", InsertNodeIndex, StDA->AccessPathMaxLen);
exit(ExceptionExitFlag);
}
if (StDA->AccessPath[InsertNodeIndex]->AccessArrayLen == StDA->AccessPath[InsertNodeIndex]->AccessArrayMaxLen)
{
LogFormat(Error, "AccessPath[%d] Is Full, AccessArrayMaxLen : %d, Exit.\n", InsertNodeIndex, StDA->AccessPath[InsertNodeIndex]->AccessArrayMaxLen);
exit(ExceptionExitFlag);
}
StDA->AccessPath[InsertNodeIndex]->AccessArray[StDA->AccessPath[InsertNodeIndex]->AccessArrayLen].StartVertexIndex = StartIndex;
StDA->AccessPath[InsertNodeIndex]->AccessArray[StDA->AccessPath[InsertNodeIndex]->AccessArrayLen].EndVertexIndex = EndIndex;
StDA->AccessPath[InsertNodeIndex]->AccessArray[StDA->AccessPath[InsertNodeIndex]->AccessArrayLen].Weight = Weight;
StDA->AccessPath[InsertNodeIndex]->AccessArrayLen++;
LogFormat(Debug, "%s\n", "Push Data To StDijkstraAccees OK.");
return SuccessFlag;
}13、StatisticsStDijkstraAccees
//统计起始节点到各个节点的访问路径。
Status StatisticsStDijkstraAccees(StDijkstra* StDks, StDijkstraAccees* StDA, VertexIndexType StartVertexIndex)
{
JudgeAllNullPointer(StDks);
JudgeAllNullPointer(StDA);
VertexIndexType i = 0;
VertexIndexType j = 0;
VertexIndexType x = 0;
VertexIndexType TmpIndex = 0;//临时变量，存放顶点索引信息。
VertexIndexType* VisitedArray = (VertexIndexType*)MyMalloc(StDks->PathLenArrayLen * sizeof(VertexIndexType));//存放已经命中的索引。
for (i = 0; i < StDks->PathLenArrayMaxLen; i++)
{
//LogFormat(Debug,"i : %d, StartVertexIndex : %d\n",i,StartVertexIndex);
if (StDks->LowestEdgeArray[i].AccessPath->AccessArrayLen == 0)//访问节点数组长度为0时，跳过。
{
continue;
}
//LogFormat(Debug,"(%d,%d,%d,%d,%d,%d)\n",VisitedArray[0],VisitedArray[1],VisitedArray[2],VisitedArray[3],VisitedArray[4],VisitedArray[5]);
//取最外层的顶点信息，如果起始节点等于传入的起始节点索引，不需要寻找其祖先顶点。
if (StDks->LowestEdgeArray[i].AccessPath->AccessArray[StDks->LowestEdgeArray[i].AccessPath->AccessArrayLen - 1].StartVertexIndex == StartVertexIndex)
{
LogFormat(Debug, "No Need To Traverse, Find OK, i : %d, StartVertexIndex : %d\n",i,StartVertexIndex);
PushData2StDijkstraAccees(StDA,
i,
StartVertexIndex,
StDks->LowestEdgeArray[i].AccessPath->AccessArray[StDks->LowestEdgeArray[i].AccessPath->AccessArrayLen - 1].EndVertexIndex,
StDks->LowestEdgeArray[i].AccessPath->AccessArray[StDks->LowestEdgeArray[i].AccessPath->AccessArrayLen - 1].Weight);
continue;
}
for ( x = 0; x < StDks->PathLenArrayMaxLen; x++)//初始化VisitedArray数据
{
if (StDks->LowestEdgeArray[i].AccessPath->AccessArrayLen == 0)
{
VisitedArray[x] = VISITED_FLAG;
}
else
{
VisitedArray[x] = NOT_VISITED_FLAG;
}
}
PushData2StDijkstraAccees(StDA,
i,
StDks->LowestEdgeArray[i].AccessPath->AccessArray[StDks->LowestEdgeArray[i].AccessPath->AccessArrayLen - 1].StartVertexIndex,
StDks->LowestEdgeArray[i].AccessPath->AccessArray[StDks->LowestEdgeArray[i].AccessPath->AccessArrayLen - 1].EndVertexIndex,
StDks->LowestEdgeArray[i].AccessPath->AccessArray[StDks->LowestEdgeArray[i].AccessPath->AccessArrayLen - 1].Weight);
VisitedArray[i] = VISITED_FLAG;
TmpIndex = StDks->LowestEdgeArray[i].AccessPath->AccessArray[StDks->LowestEdgeArray[i].AccessPath->AccessArrayLen - 1].StartVertexIndex;
j = 0;
while (TmpIndex != StartVertexIndex)
{
if (VisitedArray[j] == VISITED_FLAG)//如果这个节点被访问了，就不需要进行访问了
{
continue;
}
//LogFormat(Debug,"(%d,%d,%d,%d,%d,%d)\n",VisitedArray[0],VisitedArray[1],VisitedArray[2],VisitedArray[3],VisitedArray[4],VisitedArray[5]);
//LogFormat(Debug,"j : %d, TmpIndex : %d, CmpIndex : %d,StartVertexIndex : %d\n",j,TmpIndex,StDks->LowestEdgeArray[j].AccessPath->AccessArray[StDks->LowestEdgeArray[j].AccessPath->AccessArrayLen - 1].EndVertexIndex,StartVertexIndex);
if (TmpIndex == StDks->LowestEdgeArray[j].AccessPath->AccessArray[StDks->LowestEdgeArray[j].AccessPath->AccessArrayLen - 1].EndVertexIndex)
{
PushData2StDijkstraAccees(StDA,
i,
StDks->LowestEdgeArray[j].AccessPath->AccessArray[StDks->LowestEdgeArray[j].AccessPath->AccessArrayLen - 1].StartVertexIndex,
TmpIndex,
StDks->LowestEdgeArray[j].AccessPath->AccessArray[StDks->LowestEdgeArray[j].AccessPath->AccessArrayLen - 1].Weight);
TmpIndex = StDks->LowestEdgeArray[j].AccessPath->AccessArray[StDks->LowestEdgeArray[j].AccessPath->AccessArrayLen - 1].StartVertexIndex;
VisitedArray[j] = VISITED_FLAG;
j = 0;
continue;
}
j++;
}
//memset(VisitedArray, NOT_VISITED_FLAG, StDks->PathLenArrayLen * sizeof(VertexIndexType));
}
free(VisitedArray);
VisitedArray = NULL;
LogFormat(Debug, "%s\n", "Statistics StDijkstraAccees OK.");
return SuccessFlag;
}14、DijkstraAlgorithm
Status DijkstraAlgorithm(AMGraph* AMG, StDijkstraAccees* StDA, VertexIndexType StartVertexIndex)
{
JudgeAllNullPointer(AMG);
JudgeAllNullPointer(StDA);
if (AMG->DirectionFlag != NET_DIRECTION_FLAG)
{
LogFormat(Warning, "Dijkstra Algorithm Need Directed Net.\n");
return FailFlag;
}
StDijkstra* StDks = NULL;
VertexIndexType ReturnVertexIndex = 0;
WeightType ReturnWeightVal = 0;
VertexIndexType TmpVertexIndex = 0;
NetArcDataType TmpData;
InitStDijkstra(&StDks, AMG->CurVertexNum, StartVertexIndex);
PushData2LowestEdgeArray(StDks, AMG, StartVertexIndex, &ReturnVertexIndex, &ReturnWeightVal);
TmpData.StartVertexIndex = StartVertexIndex;
TmpData.EndVertexIndex = ReturnVertexIndex;
TmpData.Weight = ReturnWeightVal;
TmpVertexIndex = ReturnVertexIndex;
PushData2PathLenArray(StDks, TmpData);
while(StDks->PathLenArrayLen != StDks->PathLenArrayMaxLen)
{
PushData2LowestEdgeArray(StDks, AMG, TmpVertexIndex, &ReturnVertexIndex, &ReturnWeightVal);
if (ReturnWeightVal == MAX_INT_TYPE_NUM)//如果返回无穷大权值，说明已经找到所有可访问路径。
{
LogFormat(Debug, "ReturnWeightVal : %d, Find All Access Path Ahead Of Time.\n",MAX_INT_TYPE_NUM);
break;
}
TmpData.StartVertexIndex = StartVertexIndex;
TmpData.EndVertexIndex = ReturnVertexIndex;
TmpData.Weight = ReturnWeightVal;
TmpVertexIndex = ReturnVertexIndex;
PushData2PathLenArray(StDks, TmpData);
}
StatisticsStDijkstraAccees(StDks, StDA, StartVertexIndex);
DestroyStDijkstra(&StDks);
LogFormat(Debug, "%s\n", "Dijkstra Algorithm OK.");
return SuccessFlag;
}15、PrintfStDijkstra
Status PrintfStDijkstra(StDijkstra* StDks, int PrintLevel)
{
JudgeAllNullPointer(StDks);
VertexIndexType i = 0;
VertexIndexType j = 0;
char* string = (char*)MyCalloc(STR_TYPE_SIZE, sizeof(char));
CopyStr* PS = NULL;
InitCopyStr(&PS);
ExecCopyStr(PS,"Printf StDijkstra\n");
ExecCopyStr(PS,"LowestEdgeArray :\n");
for (i = 0; i < StDks->PathLenArrayMaxLen; i++)
{
sprintf(string,"%3d : (EndVertextIndex : %3d, WeightVal : %5d), [ ",i,
StDks->LowestEdgeArray[i].EndVertextIndex,
StDks->LowestEdgeArray[i].WeightVal);
ExecCopyStr(PS,string);
for (j = 0; j < StDks->LowestEdgeArray[i].AccessPath->AccessArrayLen; j++)
{
sprintf(string,"(%d,%d,%d),", StDks->LowestEdgeArray[i].AccessPath->AccessArray[j].StartVertexIndex,
StDks->LowestEdgeArray[i].AccessPath->AccessArray[j].EndVertexIndex,
StDks->LowestEdgeArray[i].AccessPath->AccessArray[j].Weight);
ExecCopyStr(PS,string);
}
PS->String[PS->StrEffectiveLen-1] = ' ';
ExecCopyStr(PS,"]\n");
}
ExecCopyStr(PS,"PathLenArray : [ ");
for (i = 0; i < StDks->PathLenArrayLen; i++)
{
sprintf(string,"(%d,%d,%d),",StDks->PathLenArray[i].StartVertexIndex,
StDks->PathLenArray[i].EndVertexIndex,
StDks->PathLenArray[i].Weight);
ExecCopyStr(PS,string);
}
PS->String[PS->StrEffectiveLen-1] = ' ';
ExecCopyStr(PS,"]\n");
sprintf(string,"PathLenArrayLen : %d\n",StDks->PathLenArrayLen);
ExecCopyStr(PS,string);
sprintf(string,"PathLenArrayMaxLen : %d\n",StDks->PathLenArrayMaxLen);
ExecCopyStr(PS,string);
Log(PS->String, PrintLevel);
DestroyCopyStr(&PS);
free(string);
string = NULL;
return SuccessFlag;
}16、PrintfStDijkstraAccees
Status PrintfStDijkstraAccees(StDijkstraAccees* StDA, int PrintLevel)
{
JudgeAllNullPointer(StDA);
VertexIndexType i = 0;
VertexIndexType j = 0;
char* string = (char*)MyCalloc(STR_TYPE_SIZE, sizeof(char));
CopyStr* PS = NULL;
InitCopyStr(&PS);
ExecCopyStr(PS,"Printf StDijkstra\n");
ExecCopyStr(PS,"AccessPath :\n");
for (i = 0; i < StDA->AccessPathMaxLen; i++)
{
ExecCopyStr(PS,"[ ");
for (j = 0; j < StDA->AccessPath[i]->AccessArrayLen; j++)
{
sprintf(string,"(%d,%d,%d),",StDA->AccessPath[i]->AccessArray[j].StartVertexIndex,
StDA->AccessPath[i]->AccessArray[j].EndVertexIndex,
StDA->AccessPath[i]->AccessArray[j].Weight);
ExecCopyStr(PS,string);
}
PS->String[PS->StrEffectiveLen-1] = ' ';
ExecCopyStr(PS,"]\n");
}
sprintf(string,"AccessPathMaxLen : %d\n",StDA->AccessPathMaxLen);
ExecCopyStr(PS,string);
Log(PS->String, PrintLevel);
DestroyCopyStr(&PS);
free(string);
string = NULL;
return SuccessFlag;
}七、Linux环境编译测试
1、起点为0
[root@czg2 Graph]# ./TestGraph
[2023-7]--[ Debug ]--Create Net Data : OK
[2023-7]--[ Debug ]--Create Net Use AMGraph : OK
[2023-7]--[ Debug ]--Printf AMGraph :
VertexArray : [0 ,1 ,2 ,3 ,4 ,5 ,6 ]
ArcArray :
[32767 ,13 ,8 ,32767 ,30 ,32767 ,32 ]
[32767 ,32767 ,32767 ,32767 ,32767 ,9 ,7 ]
[32767 ,32767 ,32767 ,5 ,32767 ,32767 ,32767 ]
[32767 ,32767 ,32767 ,32767 ,6 ,32767 ,32767 ]
[32767 ,32767 ,32767 ,32767 ,32767 ,2 ,32767 ]
[32767 ,32767 ,32767 ,32767 ,32767 ,32767 ,17 ]
[32767 ,32767 ,32767 ,32767 ,32767 ,32767 ,32767 ]
CurVertexNum : 7
CurArcNum : 10
[2023-7]--[ Debug ]--Create Net Use AGraph : OK
[2023-7]--[ Debug ]--Printf AGraph :
0 : [ (6, 32, 0x18e68d0),(4, 30, 0x18e68b0),(2, 8, 0x18e6890),(1, 13, (nil))]
1 : [ (6, 7, 0x18e6910),(5, 9, (nil))]
2 : [ (3, 5, (nil))]
3 : [ (4, 6, (nil))]
4 : [ (5, 2, (nil))]
5 : [ (6, 17, (nil))]
6 : []
VertexNum : 7
ArcNum : 10
[2023-7]--[ Debug ]--Traverse Use AMGraph : [6 ]
[2023-7]--[ Debug ]--Traverse Use AGraph : [6 ]
[2023-7]--[ Debug ]--Init SqQueue Normal
[2023-7]--[ Debug ]--Enter SqQueue Normal
[2023-7]--[ Debug ]--Leave SqQueue Normal
[2023-7]--[ Debug ]--Destroy SqQueue Normal
[2023-7]--[ Debug ]--Breadth First Search Use AMGraph OK
[2023-7]--[ Debug ]--Traverse Use AMGraph : [6 ]
[2023-7]--[ Debug ]--Init SqQueue Normal
[2023-7]--[ Debug ]--Enter SqQueue Normal
[2023-7]--[ Debug ]--Leave SqQueue Normal
[2023-7]--[ Debug ]--Destroy SqQueue Normal
[2023-7]--[ Debug ]--Breadth First Search Use AGraph OK
[2023-7]--[ Debug ]--Traverse Use AGraph : [6 ]
[2023-7]--[ Debug ]--Init WeightSortList OK
[2023-7]--[ Debug ]--Kluskal WeightSort OK
[2023-7]--[ Debug ]--Printf WeightSortList
Data : [(4, 5, 2, 0x18e6cb0),(2, 3, 5, 0x18e6cd0),(3, 4, 6, 0x18e6c70),(1, 6, 7, 0x18e6c30),(0, 2, 8, 0x18e6c90),(1, 5, 9, 0x18e6c50),(0, 1, 13, 0x18e6d10),(5, 6, 17, 0x18e6c10),(0, 4, 30, 0x18e6bf0),(0, 6, 32, 0x18e6cf0)]
NodeCnt : 10
[2023-7]--[ Debug ]--Printf Parent Array
{ -1 ,-1 ,-1 ,-1 ,-1 ,-1 ,-1 }
[2023-7]--[ Debug ]--Printf Parent Array
{ -1 ,-1 ,-1 ,-1 ,-1 ,4 ,-1 }
[2023-7]--[ Debug ]--Printf Parent Array
{ -1 ,-1 ,-1 ,2 ,-1 ,4 ,-1 }
[2023-7]--[ Debug ]--Printf Parent Array
{ -1 ,-1 ,-1 ,2 ,2 ,4 ,-1 }
[2023-7]--[ Debug ]--Printf Parent Array
{ -1 ,-1 ,-1 ,2 ,2 ,4 ,1 }
[2023-7]--[ Debug ]--Printf Parent Array
{ -1 ,-1 ,0 ,2 ,2 ,4 ,1 }
[2023-7]--[ Debug ]--Destroy WeightSortList OK
[2023-7]--[ Info ]--Kluskal Create MST OK
[2023-7]--[ Debug ]--Printf MST
{ (4,5,2),(2,3,5),(3,4,6),(1,6,7),(0,2,8),(1,5,9)}
[2023-7]--[ Debug ]--Printf ShortestEdgeArray
{(0,0),(0,13),(0,8),(0,32767),(0,30),(0,32767),(0,32)}
ArrayLen : 1
ArrayMaxLen : 7
[2023-7]--[ Debug ]--Init ShortestEdgeArray OK
LowestEdgeVertexIndex : 2
[2023-7]--[ Debug ]--Printf ShortestEdgeArray
{(0,0),(0,13),(0,0),(2,5),(0,30),(0,32767),(0,32)}
ArrayLen : 2
ArrayMaxLen : 7
LowestEdgeVertexIndex : 3
[2023-7]--[ Debug ]--Printf ShortestEdgeArray
{(0,0),(0,13),(0,0),(2,0),(3,6),(0,32767),(0,32)}
ArrayLen : 3
ArrayMaxLen : 7
LowestEdgeVertexIndex : 4
[2023-7]--[ Debug ]--Printf ShortestEdgeArray
{(0,0),(0,13),(0,0),(2,0),(3,0),(4,2),(0,32)}
ArrayLen : 4
ArrayMaxLen : 7
LowestEdgeVertexIndex : 5
[2023-7]--[ Debug ]--Printf ShortestEdgeArray
{(0,0),(0,13),(0,0),(2,0),(3,0),(4,0),(5,17)}
ArrayLen : 5
ArrayMaxLen : 7
LowestEdgeVertexIndex : 1
[2023-7]--[ Debug ]--Printf ShortestEdgeArray
{(0,0),(0,0),(0,0),(2,0),(3,0),(4,0),(1,7)}
ArrayLen : 6
ArrayMaxLen : 7
LowestEdgeVertexIndex : 6
[2023-7]--[ Debug ]--Destroy ShortestEdgeArray OK
[2023-7]--[ Info ]--Prim Create MST OK
[2023-7]--[ Debug ]--Printf MST
{ (0,2,8),(2,3,5),(3,4,6),(4,5,2),(0,1,13),(1,6,7)}
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StDijkstraAccees OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StDijkstra OK.
[2023-7]--[ Debug ]--(StartVertexIndex : 1, EndVertexIndex : 5, Weight : 9)
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--(StartVertexIndex : 1, EndVertexIndex : 6, Weight : 7)
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--Push Data To Lowest Edge Array OK.
[2023-7]--[ Debug ]--Printf StDijkstra
LowestEdgeArray :
0 : (EndVertextIndex : 0, WeightVal : 32767), [ ]
1 : (EndVertextIndex : 2, WeightVal : 32767), [ ]
2 : (EndVertextIndex : 3, WeightVal : 32767), [ ]
3 : (EndVertextIndex : 4, WeightVal : 32767), [ ]
4 : (EndVertextIndex : 5, WeightVal : 9), [ (1,5,9) ]
5 : (EndVertextIndex : 6, WeightVal : 7), [ (1,6,7) ]
PathLenArray : [ (1,6,7) ]
PathLenArrayLen : 1
PathLenArrayMaxLen : 6
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--Judge Vertex(0) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(2) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(3) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(4) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(5) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(6) Is Accessed.
[2023-7]--[ Debug ]--Push Data To Lowest Edge Array OK.
[2023-7]--[ Debug ]--Printf StDijkstra
LowestEdgeArray :
0 : (EndVertextIndex : 0, WeightVal : 32767), [ ]
1 : (EndVertextIndex : 2, WeightVal : 32767), [ ]
2 : (EndVertextIndex : 3, WeightVal : 32767), [ ]
3 : (EndVertextIndex : 4, WeightVal : 32767), [ ]
4 : (EndVertextIndex : 5, WeightVal : 9), [ (1,5,9) ]
5 : (EndVertextIndex : 6, WeightVal : 7), [ (1,6,7) ]
PathLenArray : [ (1,6,7),(1,5,9) ]
PathLenArrayLen : 2
PathLenArrayMaxLen : 6
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--Judge Vertex(0) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(2) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(3) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(4) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(5) Is Accessed.
[2023-7]--[ Debug ]--Judge Vertex(6) Is Accessed.
[2023-7]--[ Debug ]--Push Data To Lowest Edge Array OK.
[2023-7]--[ Debug ]--ReturnWeightVal : 32767, Find All Access Path Ahead Of Time.
[2023-7]--[ Debug ]--No Need To Traverse, Find OK, i : 4, StartVertexIndex : 1
[2023-7]--[ Debug ]--Push Data To StDijkstraAccees OK.
[2023-7]--[ Debug ]--No Need To Traverse, Find OK, i : 5, StartVertexIndex : 1
[2023-7]--[ Debug ]--Push Data To StDijkstraAccees OK.
[2023-7]--[ Debug ]--Statistics StDijkstraAccees OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StDijkstra OK.
[2023-7]--[ Debug ]--Dijkstra Algorithm OK.
[2023-7]--[ Debug ]--Printf StDijkstra
AccessPath :
[ ]
[ ]
[ ]
[ ]
[ (1,5,9) ]
[ (1,6,7) ]
AccessPathMaxLen : 6
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StDijkstraAccees OK.
[2023-7]--[ Debug ]--Destroy Net Data : OK
[2023-7]--[ Debug ]--Destroy Net Use AMGraph : OK
[2023-7]--[ Debug ]--Destroy Net Use AGraph : OK
[root@czg2 Graph]# vim makefile
[root@czg2 Graph]#
[root@czg2 Graph]#
[root@czg2 Graph]# make
gcc -Wall -Wextra -O3 ../Log/Log.c ../PublicFunction/PublicFunction.c ../PublicFunction/SqQueue/SqQueue.c Graph.c MinimumSpanningTree.c ShortestPath.c main.c -o TestGraph -I ../Log/ -I ../PublicFunction/ -I ../Select/ -I ../PublicFunction/SqQueue/
[root@czg2 Graph]# ./TestGraph
[2023-7]--[ Debug ]--Create Net Data : OK
[2023-7]--[ Debug ]--Create Net Use AMGraph : OK
[2023-7]--[ Debug ]--Printf AMGraph :
VertexArray : [0 ,1 ,2 ,3 ,4 ,5 ,6 ]
ArcArray :
[32767 ,13 ,8 ,32767 ,30 ,32767 ,32 ]
[32767 ,32767 ,32767 ,32767 ,32767 ,9 ,7 ]
[32767 ,32767 ,32767 ,5 ,32767 ,32767 ,32767 ]
[32767 ,32767 ,32767 ,32767 ,6 ,32767 ,32767 ]
[32767 ,32767 ,32767 ,32767 ,32767 ,2 ,32767 ]
[32767 ,32767 ,32767 ,32767 ,32767 ,32767 ,17 ]
[32767 ,32767 ,32767 ,32767 ,32767 ,32767 ,32767 ]
CurVertexNum : 7
CurArcNum : 10
[2023-7]--[ Debug ]--Create Net Use AGraph : OK
[2023-7]--[ Debug ]--Printf AGraph :
0 : [ (6, 32, 0x1e238d0),(4, 30, 0x1e238b0),(2, 8, 0x1e23890),(1, 13, (nil))]
1 : [ (6, 7, 0x1e23910),(5, 9, (nil))]
2 : [ (3, 5, (nil))]
3 : [ (4, 6, (nil))]
4 : [ (5, 2, (nil))]
5 : [ (6, 17, (nil))]
6 : []
VertexNum : 7
ArcNum : 10
[2023-7]--[ Debug ]--Traverse Use AMGraph : [6 ]
[2023-7]--[ Debug ]--Traverse Use AGraph : [6 ]
[2023-7]--[ Debug ]--Init SqQueue Normal
[2023-7]--[ Debug ]--Enter SqQueue Normal
[2023-7]--[ Debug ]--Leave SqQueue Normal
[2023-7]--[ Debug ]--Destroy SqQueue Normal
[2023-7]--[ Debug ]--Breadth First Search Use AMGraph OK
[2023-7]--[ Debug ]--Traverse Use AMGraph : [6 ]
[2023-7]--[ Debug ]--Init SqQueue Normal
[2023-7]--[ Debug ]--Enter SqQueue Normal
[2023-7]--[ Debug ]--Leave SqQueue Normal
[2023-7]--[ Debug ]--Destroy SqQueue Normal
[2023-7]--[ Debug ]--Breadth First Search Use AGraph OK
[2023-7]--[ Debug ]--Traverse Use AGraph : [6 ]
[2023-7]--[ Debug ]--Init WeightSortList OK
[2023-7]--[ Debug ]--Kluskal WeightSort OK
[2023-7]--[ Debug ]--Printf WeightSortList
Data : [(4, 5, 2, 0x1e23cb0),(2, 3, 5, 0x1e23cd0),(3, 4, 6, 0x1e23c70),(1, 6, 7, 0x1e23c30),(0, 2, 8, 0x1e23c90),(1, 5, 9, 0x1e23c50),(0, 1, 13, 0x1e23d10),(5, 6, 17, 0x1e23c10),(0, 4, 30, 0x1e23bf0),(0, 6, 32, 0x1e23cf0)]
NodeCnt : 10
[2023-7]--[ Debug ]--Printf Parent Array
{ -1 ,-1 ,-1 ,-1 ,-1 ,-1 ,-1 }
[2023-7]--[ Debug ]--Printf Parent Array
{ -1 ,-1 ,-1 ,-1 ,-1 ,4 ,-1 }
[2023-7]--[ Debug ]--Printf Parent Array
{ -1 ,-1 ,-1 ,2 ,-1 ,4 ,-1 }
[2023-7]--[ Debug ]--Printf Parent Array
{ -1 ,-1 ,-1 ,2 ,2 ,4 ,-1 }
[2023-7]--[ Debug ]--Printf Parent Array
{ -1 ,-1 ,-1 ,2 ,2 ,4 ,1 }
[2023-7]--[ Debug ]--Printf Parent Array
{ -1 ,-1 ,0 ,2 ,2 ,4 ,1 }
[2023-7]--[ Debug ]--Destroy WeightSortList OK
[2023-7]--[ Info ]--Kluskal Create MST OK
[2023-7]--[ Debug ]--Printf MST
{ (4,5,2),(2,3,5),(3,4,6),(1,6,7),(0,2,8),(1,5,9)}
[2023-7]--[ Debug ]--Printf ShortestEdgeArray
{(0,0),(0,13),(0,8),(0,32767),(0,30),(0,32767),(0,32)}
ArrayLen : 1
ArrayMaxLen : 7
[2023-7]--[ Debug ]--Init ShortestEdgeArray OK
LowestEdgeVertexIndex : 2
[2023-7]--[ Debug ]--Printf ShortestEdgeArray
{(0,0),(0,13),(0,0),(2,5),(0,30),(0,32767),(0,32)}
ArrayLen : 2
ArrayMaxLen : 7
LowestEdgeVertexIndex : 3
[2023-7]--[ Debug ]--Printf ShortestEdgeArray
{(0,0),(0,13),(0,0),(2,0),(3,6),(0,32767),(0,32)}
ArrayLen : 3
ArrayMaxLen : 7
LowestEdgeVertexIndex : 4
[2023-7]--[ Debug ]--Printf ShortestEdgeArray
{(0,0),(0,13),(0,0),(2,0),(3,0),(4,2),(0,32)}
ArrayLen : 4
ArrayMaxLen : 7
LowestEdgeVertexIndex : 5
[2023-7]--[ Debug ]--Printf ShortestEdgeArray
{(0,0),(0,13),(0,0),(2,0),(3,0),(4,0),(5,17)}
ArrayLen : 5
ArrayMaxLen : 7
LowestEdgeVertexIndex : 1
[2023-7]--[ Debug ]--Printf ShortestEdgeArray
{(0,0),(0,0),(0,0),(2,0),(3,0),(4,0),(1,7)}
ArrayLen : 6
ArrayMaxLen : 7
LowestEdgeVertexIndex : 6
[2023-7]--[ Debug ]--Destroy ShortestEdgeArray OK
[2023-7]--[ Info ]--Prim Create MST OK
[2023-7]--[ Debug ]--Printf MST
{ (0,2,8),(2,3,5),(3,4,6),(4,5,2),(0,1,13),(1,6,7)}
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StDijkstraAccees OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StDijkstra OK.
[2023-7]--[ Debug ]--(StartVertexIndex : 0, EndVertexIndex : 1, Weight : 13)
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--(StartVertexIndex : 0, EndVertexIndex : 2, Weight : 8)
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--(StartVertexIndex : 0, EndVertexIndex : 4, Weight : 30)
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--(StartVertexIndex : 0, EndVertexIndex : 6, Weight : 32)
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--Push Data To Lowest Edge Array OK.
[2023-7]--[ Debug ]--Printf StDijkstra
LowestEdgeArray :
0 : (EndVertextIndex : 1, WeightVal : 13), [ (0,1,13) ]
1 : (EndVertextIndex : 2, WeightVal : 8), [ (0,2,8) ]
2 : (EndVertextIndex : 3, WeightVal : 32767), [ ]
3 : (EndVertextIndex : 4, WeightVal : 30), [ (0,4,30) ]
4 : (EndVertextIndex : 5, WeightVal : 32767), [ ]
5 : (EndVertextIndex : 6, WeightVal : 32), [ (0,6,32) ]
PathLenArray : [ (0,2,8) ]
PathLenArrayLen : 1
PathLenArrayMaxLen : 6
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--Judge Vertex(1) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(2) Is Accessed.
[2023-7]--[ Debug ]--Judge Vertex(3) Is Not Accessed.
[2023-7]--[ Debug ]--Clear Data To StAccessPath OK.
[2023-7]--[ Debug ]--(StartVertexIndex : 2, EndVertexIndex : 3, Weight : 5)
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--Judge Vertex(4) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(5) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(6) Is Not Accessed.
[2023-7]--[ Debug ]--Push Data To Lowest Edge Array OK.
[2023-7]--[ Debug ]--Printf StDijkstra
LowestEdgeArray :
0 : (EndVertextIndex : 1, WeightVal : 13), [ (0,1,13) ]
1 : (EndVertextIndex : 2, WeightVal : 8), [ (0,2,8) ]
2 : (EndVertextIndex : 3, WeightVal : 13), [ (2,3,5) ]
3 : (EndVertextIndex : 4, WeightVal : 30), [ (0,4,30) ]
4 : (EndVertextIndex : 5, WeightVal : 32767), [ ]
5 : (EndVertextIndex : 6, WeightVal : 32), [ (0,6,32) ]
PathLenArray : [ (0,2,8),(0,1,13) ]
PathLenArrayLen : 2
PathLenArrayMaxLen : 6
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--Judge Vertex(1) Is Accessed.
[2023-7]--[ Debug ]--Judge Vertex(2) Is Accessed.
[2023-7]--[ Debug ]--Judge Vertex(3) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(4) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(5) Is Not Accessed.
[2023-7]--[ Debug ]--Clear Data To StAccessPath OK.
[2023-7]--[ Debug ]--(StartVertexIndex : 1, EndVertexIndex : 5, Weight : 9)
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--Judge Vertex(6) Is Not Accessed.
[2023-7]--[ Debug ]--Clear Data To StAccessPath OK.
[2023-7]--[ Debug ]--(StartVertexIndex : 1, EndVertexIndex : 6, Weight : 7)
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--Push Data To Lowest Edge Array OK.
[2023-7]--[ Debug ]--Printf StDijkstra
LowestEdgeArray :
0 : (EndVertextIndex : 1, WeightVal : 13), [ (0,1,13) ]
1 : (EndVertextIndex : 2, WeightVal : 8), [ (0,2,8) ]
2 : (EndVertextIndex : 3, WeightVal : 13), [ (2,3,5) ]
3 : (EndVertextIndex : 4, WeightVal : 30), [ (0,4,30) ]
4 : (EndVertextIndex : 5, WeightVal : 22), [ (1,5,9) ]
5 : (EndVertextIndex : 6, WeightVal : 20), [ (1,6,7) ]
PathLenArray : [ (0,2,8),(0,1,13),(0,3,13) ]
PathLenArrayLen : 3
PathLenArrayMaxLen : 6
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--Judge Vertex(1) Is Accessed.
[2023-7]--[ Debug ]--Judge Vertex(2) Is Accessed.
[2023-7]--[ Debug ]--Judge Vertex(3) Is Accessed.
[2023-7]--[ Debug ]--Judge Vertex(4) Is Not Accessed.
[2023-7]--[ Debug ]--Clear Data To StAccessPath OK.
[2023-7]--[ Debug ]--(StartVertexIndex : 3, EndVertexIndex : 4, Weight : 6)
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--Judge Vertex(5) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(6) Is Not Accessed.
[2023-7]--[ Debug ]--Push Data To Lowest Edge Array OK.
[2023-7]--[ Debug ]--Printf StDijkstra
LowestEdgeArray :
0 : (EndVertextIndex : 1, WeightVal : 13), [ (0,1,13) ]
1 : (EndVertextIndex : 2, WeightVal : 8), [ (0,2,8) ]
2 : (EndVertextIndex : 3, WeightVal : 13), [ (2,3,5) ]
3 : (EndVertextIndex : 4, WeightVal : 19), [ (3,4,6) ]
4 : (EndVertextIndex : 5, WeightVal : 22), [ (1,5,9) ]
5 : (EndVertextIndex : 6, WeightVal : 20), [ (1,6,7) ]
PathLenArray : [ (0,2,8),(0,1,13),(0,3,13),(0,4,19) ]
PathLenArrayLen : 4
PathLenArrayMaxLen : 6
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--Judge Vertex(1) Is Accessed.
[2023-7]--[ Debug ]--Judge Vertex(2) Is Accessed.
[2023-7]--[ Debug ]--Judge Vertex(3) Is Accessed.
[2023-7]--[ Debug ]--Judge Vertex(4) Is Accessed.
[2023-7]--[ Debug ]--Judge Vertex(5) Is Not Accessed.
[2023-7]--[ Debug ]--Clear Data To StAccessPath OK.
[2023-7]--[ Debug ]--(StartVertexIndex : 4, EndVertexIndex : 5, Weight : 2)
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--Judge Vertex(6) Is Not Accessed.
[2023-7]--[ Debug ]--Push Data To Lowest Edge Array OK.
[2023-7]--[ Debug ]--Printf StDijkstra
LowestEdgeArray :
0 : (EndVertextIndex : 1, WeightVal : 13), [ (0,1,13) ]
1 : (EndVertextIndex : 2, WeightVal : 8), [ (0,2,8) ]
2 : (EndVertextIndex : 3, WeightVal : 13), [ (2,3,5) ]
3 : (EndVertextIndex : 4, WeightVal : 19), [ (3,4,6) ]
4 : (EndVertextIndex : 5, WeightVal : 21), [ (4,5,2) ]
5 : (EndVertextIndex : 6, WeightVal : 20), [ (1,6,7) ]
PathLenArray : [ (0,2,8),(0,1,13),(0,3,13),(0,4,19),(0,6,20) ]
PathLenArrayLen : 5
PathLenArrayMaxLen : 6
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--Judge Vertex(1) Is Accessed.
[2023-7]--[ Debug ]--Judge Vertex(2) Is Accessed.
[2023-7]--[ Debug ]--Judge Vertex(3) Is Accessed.
[2023-7]--[ Debug ]--Judge Vertex(4) Is Accessed.
[2023-7]--[ Debug ]--Judge Vertex(5) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(6) Is Accessed.
[2023-7]--[ Debug ]--Push Data To Lowest Edge Array OK.
[2023-7]--[ Debug ]--Printf StDijkstra
LowestEdgeArray :
0 : (EndVertextIndex : 1, WeightVal : 13), [ (0,1,13) ]
1 : (EndVertextIndex : 2, WeightVal : 8), [ (0,2,8) ]
2 : (EndVertextIndex : 3, WeightVal : 13), [ (2,3,5) ]
3 : (EndVertextIndex : 4, WeightVal : 19), [ (3,4,6) ]
4 : (EndVertextIndex : 5, WeightVal : 21), [ (4,5,2) ]
5 : (EndVertextIndex : 6, WeightVal : 20), [ (1,6,7) ]
PathLenArray : [ (0,2,8),(0,1,13),(0,3,13),(0,4,19),(0,6,20),(0,5,21) ]
PathLenArrayLen : 6
PathLenArrayMaxLen : 6
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--No Need To Traverse, Find OK, i : 0, StartVertexIndex : 0
[2023-7]--[ Debug ]--Push Data To StDijkstraAccees OK.
[2023-7]--[ Debug ]--No Need To Traverse, Find OK, i : 1, StartVertexIndex : 0
[2023-7]--[ Debug ]--Push Data To StDijkstraAccees OK.
[2023-7]--[ Debug ]--Push Data To StDijkstraAccees OK.
[2023-7]--[ Debug ]--(0,0,1,0,0,0)
[2023-7]--[ Debug ]--j : 0, TmpIndex : 2, CmpIndex : 1,StartVertexIndex : 0
[2023-7]--[ Debug ]--(0,0,1,0,0,0)
[2023-7]--[ Debug ]--j : 1, TmpIndex : 2, CmpIndex : 2,StartVertexIndex : 0
[2023-7]--[ Debug ]--Push Data To StDijkstraAccees OK.
[2023-7]--[ Debug ]--Push Data To StDijkstraAccees OK.
[2023-7]--[ Debug ]--(0,0,0,1,0,0)
[2023-7]--[ Debug ]--j : 0, TmpIndex : 3, CmpIndex : 1,StartVertexIndex : 0
[2023-7]--[ Debug ]--(0,0,0,1,0,0)
[2023-7]--[ Debug ]--j : 1, TmpIndex : 3, CmpIndex : 2,StartVertexIndex : 0
[2023-7]--[ Debug ]--(0,0,0,1,0,0)
[2023-7]--[ Debug ]--j : 2, TmpIndex : 3, CmpIndex : 3,StartVertexIndex : 0
[2023-7]--[ Debug ]--Push Data To StDijkstraAccees OK.
[2023-7]--[ Debug ]--(0,0,1,1,0,0)
[2023-7]--[ Debug ]--j : 0, TmpIndex : 2, CmpIndex : 1,StartVertexIndex : 0
[2023-7]--[ Debug ]--(0,0,1,1,0,0)
[2023-7]--[ Debug ]--j : 1, TmpIndex : 2, CmpIndex : 2,StartVertexIndex : 0
[2023-7]--[ Debug ]--Push Data To StDijkstraAccees OK.
[2023-7]--[ Debug ]--Push Data To StDijkstraAccees OK.
[2023-7]--[ Debug ]--(0,0,0,0,1,0)
[2023-7]--[ Debug ]--j : 0, TmpIndex : 4, CmpIndex : 1,StartVertexIndex : 0
[2023-7]--[ Debug ]--(0,0,0,0,1,0)
[2023-7]--[ Debug ]--j : 1, TmpIndex : 4, CmpIndex : 2,StartVertexIndex : 0
[2023-7]--[ Debug ]--(0,0,0,0,1,0)
[2023-7]--[ Debug ]--j : 2, TmpIndex : 4, CmpIndex : 3,StartVertexIndex : 0
[2023-7]--[ Debug ]--(0,0,0,0,1,0)
[2023-7]--[ Debug ]--j : 3, TmpIndex : 4, CmpIndex : 4,StartVertexIndex : 0
[2023-7]--[ Debug ]--Push Data To StDijkstraAccees OK.
[2023-7]--[ Debug ]--(0,0,0,1,1,0)
[2023-7]--[ Debug ]--j : 0, TmpIndex : 3, CmpIndex : 1,StartVertexIndex : 0
[2023-7]--[ Debug ]--(0,0,0,1,1,0)
[2023-7]--[ Debug ]--j : 1, TmpIndex : 3, CmpIndex : 2,StartVertexIndex : 0
[2023-7]--[ Debug ]--(0,0,0,1,1,0)
[2023-7]--[ Debug ]--j : 2, TmpIndex : 3, CmpIndex : 3,StartVertexIndex : 0
[2023-7]--[ Debug ]--Push Data To StDijkstraAccees OK.
[2023-7]--[ Debug ]--(0,0,1,1,1,0)
[2023-7]--[ Debug ]--j : 0, TmpIndex : 2, CmpIndex : 1,StartVertexIndex : 0
[2023-7]--[ Debug ]--(0,0,1,1,1,0)
[2023-7]--[ Debug ]--j : 1, TmpIndex : 2, CmpIndex : 2,StartVertexIndex : 0
[2023-7]--[ Debug ]--Push Data To StDijkstraAccees OK.
[2023-7]--[ Debug ]--Push Data To StDijkstraAccees OK.
[2023-7]--[ Debug ]--(0,0,0,0,0,1)
[2023-7]--[ Debug ]--j : 0, TmpIndex : 1, CmpIndex : 1,StartVertexIndex : 0
[2023-7]--[ Debug ]--Push Data To StDijkstraAccees OK.
[2023-7]--[ Debug ]--Statistics StDijkstraAccees OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StDijkstra OK.
[2023-7]--[ Debug ]--Dijkstra Algorithm OK.
[2023-7]--[ Debug ]--Printf StDijkstra
AccessPath :
[ (0,1,13) ]
[ (0,2,8) ]
[ (2,3,5),(0,2,8) ]
[ (3,4,6),(2,3,5),(0,2,8) ]
[ (4,5,2),(3,4,6),(2,3,5),(0,2,8) ]
[ (1,6,7),(0,1,13) ]
AccessPathMaxLen : 6
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StDijkstraAccees OK.
[2023-7]--[ Debug ]--Destroy Net Data : OK
[2023-7]--[ Debug ]--Destroy Net Use AMGraph : OK
[2023-7]--[ Debug ]--Destroy Net Use AGraph : OK2、起点为1
[root@czg2 Graph]# ./TestGraph
[2023-7]--[ Debug ]--Create Net Data : OK
[2023-7]--[ Debug ]--Create Net Use AMGraph : OK
[2023-7]--[ Debug ]--Printf AMGraph :
VertexArray : [0 ,1 ,2 ,3 ,4 ,5 ,6 ]
ArcArray :
[32767 ,13 ,8 ,32767 ,30 ,32767 ,32 ]
[32767 ,32767 ,32767 ,32767 ,32767 ,9 ,7 ]
[32767 ,32767 ,32767 ,5 ,32767 ,32767 ,32767 ]
[32767 ,32767 ,32767 ,32767 ,6 ,32767 ,32767 ]
[32767 ,32767 ,32767 ,32767 ,32767 ,2 ,32767 ]
[32767 ,32767 ,32767 ,32767 ,32767 ,32767 ,17 ]
[32767 ,32767 ,32767 ,32767 ,32767 ,32767 ,32767 ]
CurVertexNum : 7
CurArcNum : 10
[2023-7]--[ Debug ]--Create Net Use AGraph : OK
[2023-7]--[ Debug ]--Printf AGraph :
0 : [ (6, 32, 0x18e68d0),(4, 30, 0x18e68b0),(2, 8, 0x18e6890),(1, 13, (nil))]
1 : [ (6, 7, 0x18e6910),(5, 9, (nil))]
2 : [ (3, 5, (nil))]
3 : [ (4, 6, (nil))]
4 : [ (5, 2, (nil))]
5 : [ (6, 17, (nil))]
6 : []
VertexNum : 7
ArcNum : 10
[2023-7]--[ Debug ]--Traverse Use AMGraph : [6 ]
[2023-7]--[ Debug ]--Traverse Use AGraph : [6 ]
[2023-7]--[ Debug ]--Init SqQueue Normal
[2023-7]--[ Debug ]--Enter SqQueue Normal
[2023-7]--[ Debug ]--Leave SqQueue Normal
[2023-7]--[ Debug ]--Destroy SqQueue Normal
[2023-7]--[ Debug ]--Breadth First Search Use AMGraph OK
[2023-7]--[ Debug ]--Traverse Use AMGraph : [6 ]
[2023-7]--[ Debug ]--Init SqQueue Normal
[2023-7]--[ Debug ]--Enter SqQueue Normal
[2023-7]--[ Debug ]--Leave SqQueue Normal
[2023-7]--[ Debug ]--Destroy SqQueue Normal
[2023-7]--[ Debug ]--Breadth First Search Use AGraph OK
[2023-7]--[ Debug ]--Traverse Use AGraph : [6 ]
[2023-7]--[ Debug ]--Init WeightSortList OK
[2023-7]--[ Debug ]--Kluskal WeightSort OK
[2023-7]--[ Debug ]--Printf WeightSortList
Data : [(4, 5, 2, 0x18e6cb0),(2, 3, 5, 0x18e6cd0),(3, 4, 6, 0x18e6c70),(1, 6, 7, 0x18e6c30),(0, 2, 8, 0x18e6c90),(1, 5, 9, 0x18e6c50),(0, 1, 13, 0x18e6d10),(5, 6, 17, 0x18e6c10),(0, 4, 30, 0x18e6bf0),(0, 6, 32, 0x18e6cf0)]
NodeCnt : 10
[2023-7]--[ Debug ]--Printf Parent Array
{ -1 ,-1 ,-1 ,-1 ,-1 ,-1 ,-1 }
[2023-7]--[ Debug ]--Printf Parent Array
{ -1 ,-1 ,-1 ,-1 ,-1 ,4 ,-1 }
[2023-7]--[ Debug ]--Printf Parent Array
{ -1 ,-1 ,-1 ,2 ,-1 ,4 ,-1 }
[2023-7]--[ Debug ]--Printf Parent Array
{ -1 ,-1 ,-1 ,2 ,2 ,4 ,-1 }
[2023-7]--[ Debug ]--Printf Parent Array
{ -1 ,-1 ,-1 ,2 ,2 ,4 ,1 }
[2023-7]--[ Debug ]--Printf Parent Array
{ -1 ,-1 ,0 ,2 ,2 ,4 ,1 }
[2023-7]--[ Debug ]--Destroy WeightSortList OK
[2023-7]--[ Info ]--Kluskal Create MST OK
[2023-7]--[ Debug ]--Printf MST
{ (4,5,2),(2,3,5),(3,4,6),(1,6,7),(0,2,8),(1,5,9)}
[2023-7]--[ Debug ]--Printf ShortestEdgeArray
{(0,0),(0,13),(0,8),(0,32767),(0,30),(0,32767),(0,32)}
ArrayLen : 1
ArrayMaxLen : 7
[2023-7]--[ Debug ]--Init ShortestEdgeArray OK
LowestEdgeVertexIndex : 2
[2023-7]--[ Debug ]--Printf ShortestEdgeArray
{(0,0),(0,13),(0,0),(2,5),(0,30),(0,32767),(0,32)}
ArrayLen : 2
ArrayMaxLen : 7
LowestEdgeVertexIndex : 3
[2023-7]--[ Debug ]--Printf ShortestEdgeArray
{(0,0),(0,13),(0,0),(2,0),(3,6),(0,32767),(0,32)}
ArrayLen : 3
ArrayMaxLen : 7
LowestEdgeVertexIndex : 4
[2023-7]--[ Debug ]--Printf ShortestEdgeArray
{(0,0),(0,13),(0,0),(2,0),(3,0),(4,2),(0,32)}
ArrayLen : 4
ArrayMaxLen : 7
LowestEdgeVertexIndex : 5
[2023-7]--[ Debug ]--Printf ShortestEdgeArray
{(0,0),(0,13),(0,0),(2,0),(3,0),(4,0),(5,17)}
ArrayLen : 5
ArrayMaxLen : 7
LowestEdgeVertexIndex : 1
[2023-7]--[ Debug ]--Printf ShortestEdgeArray
{(0,0),(0,0),(0,0),(2,0),(3,0),(4,0),(1,7)}
ArrayLen : 6
ArrayMaxLen : 7
LowestEdgeVertexIndex : 6
[2023-7]--[ Debug ]--Destroy ShortestEdgeArray OK
[2023-7]--[ Info ]--Prim Create MST OK
[2023-7]--[ Debug ]--Printf MST
{ (0,2,8),(2,3,5),(3,4,6),(4,5,2),(0,1,13),(1,6,7)}
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StDijkstraAccees OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StDijkstra OK.
[2023-7]--[ Debug ]--(StartVertexIndex : 1, EndVertexIndex : 5, Weight : 9)
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--(StartVertexIndex : 1, EndVertexIndex : 6, Weight : 7)
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--Push Data To Lowest Edge Array OK.
[2023-7]--[ Debug ]--Printf StDijkstra
LowestEdgeArray :
0 : (EndVertextIndex : 0, WeightVal : 32767), [ ]
1 : (EndVertextIndex : 2, WeightVal : 32767), [ ]
2 : (EndVertextIndex : 3, WeightVal : 32767), [ ]
3 : (EndVertextIndex : 4, WeightVal : 32767), [ ]
4 : (EndVertextIndex : 5, WeightVal : 9), [ (1,5,9) ]
5 : (EndVertextIndex : 6, WeightVal : 7), [ (1,6,7) ]
PathLenArray : [ (1,6,7) ]
PathLenArrayLen : 1
PathLenArrayMaxLen : 6
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--Judge Vertex(0) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(2) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(3) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(4) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(5) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(6) Is Accessed.
[2023-7]--[ Debug ]--Push Data To Lowest Edge Array OK.
[2023-7]--[ Debug ]--Printf StDijkstra
LowestEdgeArray :
0 : (EndVertextIndex : 0, WeightVal : 32767), [ ]
1 : (EndVertextIndex : 2, WeightVal : 32767), [ ]
2 : (EndVertextIndex : 3, WeightVal : 32767), [ ]
3 : (EndVertextIndex : 4, WeightVal : 32767), [ ]
4 : (EndVertextIndex : 5, WeightVal : 9), [ (1,5,9) ]
5 : (EndVertextIndex : 6, WeightVal : 7), [ (1,6,7) ]
PathLenArray : [ (1,6,7),(1,5,9) ]
PathLenArrayLen : 2
PathLenArrayMaxLen : 6
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--Judge Vertex(0) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(2) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(3) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(4) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(5) Is Accessed.
[2023-7]--[ Debug ]--Judge Vertex(6) Is Accessed.
[2023-7]--[ Debug ]--Push Data To Lowest Edge Array OK.
[2023-7]--[ Debug ]--ReturnWeightVal : 32767, Find All Access Path Ahead Of Time.
[2023-7]--[ Debug ]--No Need To Traverse, Find OK, i : 4, StartVertexIndex : 1
[2023-7]--[ Debug ]--Push Data To StDijkstraAccees OK.
[2023-7]--[ Debug ]--No Need To Traverse, Find OK, i : 5, StartVertexIndex : 1
[2023-7]--[ Debug ]--Push Data To StDijkstraAccees OK.
[2023-7]--[ Debug ]--Statistics StDijkstraAccees OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StDijkstra OK.
[2023-7]--[ Debug ]--Dijkstra Algorithm OK.
[2023-7]--[ Debug ]--Printf StDijkstra
AccessPath :
[ ]
[ ]
[ ]
[ ]
[ (1,5,9) ]
[ (1,6,7) ]
AccessPathMaxLen : 6
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StDijkstraAccees OK.
[2023-7]--[ Debug ]--Destroy Net Data : OK
[2023-7]--[ Debug ]--Destroy Net Use AMGraph : OK
[2023-7]--[ Debug ]--Destroy Net Use AGraph : OK3、起点为3
[root@czg2 Graph]# ./TestGraph
[2023-7]--[ Debug ]--Create Net Data : OK
[2023-7]--[ Debug ]--Create Net Use AMGraph : OK
[2023-7]--[ Debug ]--Printf AMGraph :
VertexArray : [0 ,1 ,2 ,3 ,4 ,5 ,6 ]
ArcArray :
[32767 ,13 ,8 ,32767 ,30 ,32767 ,32 ]
[32767 ,32767 ,32767 ,32767 ,32767 ,9 ,7 ]
[32767 ,32767 ,32767 ,5 ,32767 ,32767 ,32767 ]
[32767 ,32767 ,32767 ,32767 ,6 ,32767 ,32767 ]
[32767 ,32767 ,32767 ,32767 ,32767 ,2 ,32767 ]
[32767 ,32767 ,32767 ,32767 ,32767 ,32767 ,17 ]
[32767 ,32767 ,32767 ,32767 ,32767 ,32767 ,32767 ]
CurVertexNum : 7
CurArcNum : 10
[2023-7]--[ Debug ]--Create Net Use AGraph : OK
[2023-7]--[ Debug ]--Printf AGraph :
0 : [ (6, 32, 0xdcd8d0),(4, 30, 0xdcd8b0),(2, 8, 0xdcd890),(1, 13, (nil))]
1 : [ (6, 7, 0xdcd910),(5, 9, (nil))]
2 : [ (3, 5, (nil))]
3 : [ (4, 6, (nil))]
4 : [ (5, 2, (nil))]
5 : [ (6, 17, (nil))]
6 : []
VertexNum : 7
ArcNum : 10
[2023-7]--[ Debug ]--Traverse Use AMGraph : [6 ]
[2023-7]--[ Debug ]--Traverse Use AGraph : [6 ]
[2023-7]--[ Debug ]--Init SqQueue Normal
[2023-7]--[ Debug ]--Enter SqQueue Normal
[2023-7]--[ Debug ]--Leave SqQueue Normal
[2023-7]--[ Debug ]--Destroy SqQueue Normal
[2023-7]--[ Debug ]--Breadth First Search Use AMGraph OK
[2023-7]--[ Debug ]--Traverse Use AMGraph : [6 ]
[2023-7]--[ Debug ]--Init SqQueue Normal
[2023-7]--[ Debug ]--Enter SqQueue Normal
[2023-7]--[ Debug ]--Leave SqQueue Normal
[2023-7]--[ Debug ]--Destroy SqQueue Normal
[2023-7]--[ Debug ]--Breadth First Search Use AGraph OK
[2023-7]--[ Debug ]--Traverse Use AGraph : [6 ]
[2023-7]--[ Debug ]--Init WeightSortList OK
[2023-7]--[ Debug ]--Kluskal WeightSort OK
[2023-7]--[ Debug ]--Printf WeightSortList
Data : [(4, 5, 2, 0xdcdcb0),(2, 3, 5, 0xdcdcd0),(3, 4, 6, 0xdcdc70),(1, 6, 7, 0xdcdc30),(0, 2, 8, 0xdcdc90),(1, 5, 9, 0xdcdc50),(0, 1, 13, 0xdcdd10),(5, 6, 17, 0xdcdc10),(0, 4, 30, 0xdcdbf0),(0, 6, 32, 0xdcdcf0)]
NodeCnt : 10
[2023-7]--[ Debug ]--Printf Parent Array
{ -1 ,-1 ,-1 ,-1 ,-1 ,-1 ,-1 }
[2023-7]--[ Debug ]--Printf Parent Array
{ -1 ,-1 ,-1 ,-1 ,-1 ,4 ,-1 }
[2023-7]--[ Debug ]--Printf Parent Array
{ -1 ,-1 ,-1 ,2 ,-1 ,4 ,-1 }
[2023-7]--[ Debug ]--Printf Parent Array
{ -1 ,-1 ,-1 ,2 ,2 ,4 ,-1 }
[2023-7]--[ Debug ]--Printf Parent Array
{ -1 ,-1 ,-1 ,2 ,2 ,4 ,1 }
[2023-7]--[ Debug ]--Printf Parent Array
{ -1 ,-1 ,0 ,2 ,2 ,4 ,1 }
[2023-7]--[ Debug ]--Destroy WeightSortList OK
[2023-7]--[ Info ]--Kluskal Create MST OK
[2023-7]--[ Debug ]--Printf MST
{ (4,5,2),(2,3,5),(3,4,6),(1,6,7),(0,2,8),(1,5,9)}
[2023-7]--[ Debug ]--Printf ShortestEdgeArray
{(0,0),(0,13),(0,8),(0,32767),(0,30),(0,32767),(0,32)}
ArrayLen : 1
ArrayMaxLen : 7
[2023-7]--[ Debug ]--Init ShortestEdgeArray OK
LowestEdgeVertexIndex : 2
[2023-7]--[ Debug ]--Printf ShortestEdgeArray
{(0,0),(0,13),(0,0),(2,5),(0,30),(0,32767),(0,32)}
ArrayLen : 2
ArrayMaxLen : 7
LowestEdgeVertexIndex : 3
[2023-7]--[ Debug ]--Printf ShortestEdgeArray
{(0,0),(0,13),(0,0),(2,0),(3,6),(0,32767),(0,32)}
ArrayLen : 3
ArrayMaxLen : 7
LowestEdgeVertexIndex : 4
[2023-7]--[ Debug ]--Printf ShortestEdgeArray
{(0,0),(0,13),(0,0),(2,0),(3,0),(4,2),(0,32)}
ArrayLen : 4
ArrayMaxLen : 7
LowestEdgeVertexIndex : 5
[2023-7]--[ Debug ]--Printf ShortestEdgeArray
{(0,0),(0,13),(0,0),(2,0),(3,0),(4,0),(5,17)}
ArrayLen : 5
ArrayMaxLen : 7
LowestEdgeVertexIndex : 1
[2023-7]--[ Debug ]--Printf ShortestEdgeArray
{(0,0),(0,0),(0,0),(2,0),(3,0),(4,0),(1,7)}
ArrayLen : 6
ArrayMaxLen : 7
LowestEdgeVertexIndex : 6
[2023-7]--[ Debug ]--Destroy ShortestEdgeArray OK
[2023-7]--[ Info ]--Prim Create MST OK
[2023-7]--[ Debug ]--Printf MST
{ (0,2,8),(2,3,5),(3,4,6),(4,5,2),(0,1,13),(1,6,7)}
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StDijkstraAccees OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StAccessPath OK.
[2023-7]--[ Debug ]--Init StDijkstra OK.
[2023-7]--[ Debug ]--(StartVertexIndex : 3, EndVertexIndex : 4, Weight : 6)
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--Push Data To Lowest Edge Array OK.
[2023-7]--[ Debug ]--Printf StDijkstra
LowestEdgeArray :
0 : (EndVertextIndex : 0, WeightVal : 32767), [ ]
1 : (EndVertextIndex : 1, WeightVal : 32767), [ ]
2 : (EndVertextIndex : 2, WeightVal : 32767), [ ]
3 : (EndVertextIndex : 4, WeightVal : 6), [ (3,4,6) ]
4 : (EndVertextIndex : 5, WeightVal : 32767), [ ]
5 : (EndVertextIndex : 6, WeightVal : 32767), [ ]
PathLenArray : [ (3,4,6) ]
PathLenArrayLen : 1
PathLenArrayMaxLen : 6
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--Judge Vertex(0) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(1) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(2) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(4) Is Accessed.
[2023-7]--[ Debug ]--Judge Vertex(5) Is Not Accessed.
[2023-7]--[ Debug ]--Clear Data To StAccessPath OK.
[2023-7]--[ Debug ]--(StartVertexIndex : 4, EndVertexIndex : 5, Weight : 2)
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--Judge Vertex(6) Is Not Accessed.
[2023-7]--[ Debug ]--Push Data To Lowest Edge Array OK.
[2023-7]--[ Debug ]--Printf StDijkstra
LowestEdgeArray :
0 : (EndVertextIndex : 0, WeightVal : 32767), [ ]
1 : (EndVertextIndex : 1, WeightVal : 32767), [ ]
2 : (EndVertextIndex : 2, WeightVal : 32767), [ ]
3 : (EndVertextIndex : 4, WeightVal : 6), [ (3,4,6) ]
4 : (EndVertextIndex : 5, WeightVal : 8), [ (4,5,2) ]
5 : (EndVertextIndex : 6, WeightVal : 32767), [ ]
PathLenArray : [ (3,4,6),(3,5,8) ]
PathLenArrayLen : 2
PathLenArrayMaxLen : 6
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--Judge Vertex(0) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(1) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(2) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(4) Is Accessed.
[2023-7]--[ Debug ]--Judge Vertex(5) Is Accessed.
[2023-7]--[ Debug ]--Judge Vertex(6) Is Not Accessed.
[2023-7]--[ Debug ]--Clear Data To StAccessPath OK.
[2023-7]--[ Debug ]--(StartVertexIndex : 5, EndVertexIndex : 6, Weight : 17)
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--Push Data To Lowest Edge Array OK.
[2023-7]--[ Debug ]--Printf StDijkstra
LowestEdgeArray :
0 : (EndVertextIndex : 0, WeightVal : 32767), [ ]
1 : (EndVertextIndex : 1, WeightVal : 32767), [ ]
2 : (EndVertextIndex : 2, WeightVal : 32767), [ ]
3 : (EndVertextIndex : 4, WeightVal : 6), [ (3,4,6) ]
4 : (EndVertextIndex : 5, WeightVal : 8), [ (4,5,2) ]
5 : (EndVertextIndex : 6, WeightVal : 25), [ (5,6,17) ]
PathLenArray : [ (3,4,6),(3,5,8),(3,6,25) ]
PathLenArrayLen : 3
PathLenArrayMaxLen : 6
[2023-7]--[ Debug ]--Push Data To StAccessPath OK.
[2023-7]--[ Debug ]--Judge Vertex(0) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(1) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(2) Is Not Accessed.
[2023-7]--[ Debug ]--Judge Vertex(4) Is Accessed.
[2023-7]--[ Debug ]--Judge Vertex(5) Is Accessed.
[2023-7]--[ Debug ]--Judge Vertex(6) Is Accessed.
[2023-7]--[ Debug ]--Push Data To Lowest Edge Array OK.
[2023-7]--[ Debug ]--ReturnWeightVal : 32767, Find All Access Path Ahead Of Time.
[2023-7]--[ Debug ]--No Need To Traverse, Find OK, i : 3, StartVertexIndex : 3
[2023-7]--[ Debug ]--Push Data To StDijkstraAccees OK.
[2023-7]--[ Debug ]--Push Data To StDijkstraAccees OK.
[2023-7]--[ Debug ]--Push Data To StDijkstraAccees OK.
[2023-7]--[ Debug ]--Push Data To StDijkstraAccees OK.
[2023-7]--[ Debug ]--Push Data To StDijkstraAccees OK.
[2023-7]--[ Debug ]--Push Data To StDijkstraAccees OK.
[2023-7]--[ Debug ]--Statistics StDijkstraAccees OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StDijkstra OK.
[2023-7]--[ Debug ]--Dijkstra Algorithm OK.
[2023-7]--[ Debug ]--Printf StDijkstra
AccessPath :
[ ]
[ ]
[ ]
[ (3,4,6) ]
[ (4,5,2),(3,4,6) ]
[ (5,6,17),(4,5,2),(3,4,6) ]
AccessPathMaxLen : 6
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StAccessPath OK.
[2023-7]--[ Debug ]--Destroy StDijkstraAccees OK.
[2023-7]--[ Debug ]--Destroy Net Data : OK
[2023-7]--[ Debug ]--Destroy Net Use AMGraph : OK
[2023-7]--[ Debug ]--Destroy Net Use AGraph : OK