set([GUI_DPQ.Database,GUI_DPQ.En1,GUI_DPQ.En2,... GUI_DPQ.En3,GUI_DPQ.En4,GUI_DPQ.En5,... GUI_DPQ.En6,GUI_DPQ.En7,GUI_DPQ.En8,... GUI_DPQ.En9,GUI_DPQ.En10,GUI_DPQ.Ch1,... GUI_DPQ.Ch2,GUI_DPQ.Ch3,GUI_DPQ.Ch4,... GUI_DPQ.Ch5,GUI_DPQ.Ch6,GUI_DPQ.Ch7,... GUI_DPQ.Ch8,GUI_DPQ.Ch9,GUI_DPQ.Ch10,... GUI_DPQ.FunctionSelect,GUI_DPQ.NextPage,... GUI_DPQ.Compare,GUI_DPQ.RangeSelect,GUI_DPQ.RewriteDatabase],'call',{@ed_call_import1,GUI_DPQ});
时间: 2024-04-11 11:29:30 浏览: 26
这段代码片段是在Matlab中使用set函数来设置一组对象的属性值,并将它们与一个回调函数绑定。这些对象是由GUI_DPQ结构体中的字段表示的。
具体来说,代码中使用了set函数来设置以下对象的属性值:
- GUI_DPQ.Database
- GUI_DPQ.En1
- GUI_DPQ.En2
- GUI_DPQ.En3
- GUI_DPQ.En4
- GUI_DPQ.En5
- GUI_DPQ.En6
- GUI_DPQ.En7
- GUI_DPQ.En8
- GUI_DPQ.En9
- GUI_DPQ.En10
- GUI_DPQ.Ch1
- GUI_DPQ.Ch2
- GUI_DPQ.Ch3
- GUI_DPQ.Ch4
- GUI_DPQ.Ch5
- GUI_DPQ.Ch6
- GUI_DPQ.Ch7
- GUI_DPQ.Ch8
- GUI_DPQ.Ch9
- GUI_DPQ.Ch10
- GUI_DPQ.FunctionSelect
- GUI_DPQ.NextPage
- GUI_DPQ.Compare
- GUI_DPQ.RangeSelect
- GUI_DPQ.RewriteDatabase
这些对象的属性值将被设置为一个回调函数`@ed_call_import1`,同时还传递了一个参数`GUI_DPQ`。
通过这样设置对象属性和回调函数,可以实现在相应事件发生时调用回调函数,并将GUI_DPQ作为参数传递给该函数。这样可以实现与用户界面的交互和响应。
请注意,代码片段中使用了省略号(...)来表示行继续,以便将多个对象放在一行中。
相关问题
dijkstra算法最短路径java
Dijkstra算法最短路径Java代码示例如下:
```java
import java.util.*;
public class DijkstraShortestPath {
private int dist[];
private Set<Integer> visited;
private PriorityQueue<Node> pq;
private int V;
List<List<Node>> adj;
public DijkstraShortestPath(int V) {
this.V = V;
dist = new int[V];
visited = new HashSet<Integer>();
pq = new PriorityQueue<Node>(V, new Node());
}
public void dijkstra(List<List<Node>> adj, int srcVertex) {
this.adj = adj;
for (int i = 0; i < V; i++) {
dist[i] = Integer.MAX_VALUE;
}
pq.add(new Node(srcVertex, 0));
dist[srcVertex] = 0;
while (visited.size() != V) {
int u = pq.remove().node;
visited.add(u);
e_Neighbours(u);
}
}
private void e_Neighbours(int u) {
int edgeDistance = -1;
int newDistance = -1;
for (int i = 0; i < adj.get(u).size(); i++) {
Node vi = adj.get(u).get(i);
if (!visited.contains(vi.node)) {
edgeDistance = vi.cost;
newDistance = dist[u] + edgeDistance;
if (newDistance < dist[vi.node]) {
dist[vi.node] = newDistance;
}
pq.add(new Node(vi.node, dist[vi.node]));
}
}
}
public static void main(String arg[]) {
int V = 5;
int sourceVertex = 0;
List<List<Node>> adj = new ArrayList<List<Node>>();
for (int i = 0; i < V; i++) {
List<Node> item = new ArrayList<Node>();
adj.add(item);
}
adj.get(0).add(new Node(1, 9));
adj.get(0).add(new Node(2, 6));
adj.get(0).add(new Node(3, 5));
adj.get(0).add(new Node(4, 3));
adj.get(2).add(new Node(1, 2));
adj.get(2).add(new Node(3, 4));
DijkstraShortestPath dpq = new DijkstraShortestPath(V);
dpq.dijkstra(adj, sourceVertex);
System.out.println("The shorted path from node :");
for (int i = 0; i < dpq.dist.length; i++)
System.out.println(sourceVertex + " to " + i + " is "
+ dpq.dist[i]);
}
}
class Node implements Comparator<Node> {
public int node;
public int cost;
public Node() {
}
public Node(int node, int cost) {
this.node = node;
this.cost = cost;
}
@Override
public int compare(Node node1, Node node2) {
if (node1.cost < node2.cost)
return -1;
if (node1.cost > node2.cost)
return 1;
return 0;
}
}
```
用Java语言生成dijkstra算法
好的,我可以回答这个问题。您可以使用Java语言编写Dijkstra算法,以下是简单的示例代码:
```java
import java.util.*;
public class Dijkstra{
private int dist[];
private Set<Integer> settled;
private PriorityQueue<Node> pq;
private int V;
List<List<Node> > adj;
public Dijkstra(int V)
{
this.V = V;
dist = new int[V];
settled = new HashSet<Integer>();
pq = new PriorityQueue<Node>(V, new Node());
}
public void dijkstra(List<List<Node> > adj, int src)
{
this.adj = adj;
for (int i = 0; i < V; i++)
dist[i] = Integer.MAX_VALUE;
pq.add(new Node(src, 0));
dist[src] = 0;
while (settled.size() != V) {
int u = pq.remove().node;
settled.add(u);
e_Neighbours(u);
}
}
private void e_Neighbours(int u)
{
int edgeDistance = -1;
int newDistance = -1;
for (int i = 0; i < adj.get(u).size(); i++) {
Node v = adj.get(u).get(i);
if (!settled.contains(v.node)) {
edgeDistance = v.cost;
newDistance = dist[u] + edgeDistance;
if (newDistance < dist[v.node])
dist[v.node] = newDistance;
pq.add(new Node(v.node, dist[v.node]));
}
}
}
public static void main(String[] args)
{
int V = 5;
int source = 0;
List<List<Node> > adj = new ArrayList<List<Node> >();
for (int i = 0; i < V; i++) {
List<Node> item = new ArrayList<Node>();
adj.add(item);
}
adj.get(0).add(new Node(1, 9));
adj.get(0).add(new Node(2, 6));
adj.get(0).add(new Node(3, 5));
adj.get(0).add(new Node(4, 3));
adj.get(2).add(new Node(1, 2));
adj.get(2).add(new Node(3, 4));
Dijkstra dpq = new Dijkstra(V);
dpq.dijkstra(adj, source);
System.out.println("The shorted path from node :");
for (int i = 0; i < dpq.dist.length; i++)
System.out.println(source + " to " + i + " is " + dpq.dist[i]);
}
}
class Node implements Comparator<Node> {
public int node;
public int cost;
public Node()
{
}
public Node(int node, int cost)
{
this.node = node;
this.cost = cost;
}
@Override
public int compare(Node node1, Node node2)
{
if (node1.cost < node2.cost)
return -1;
if (node1.cost > node2.cost)
return 1;
return 0;
}
}
```
这是一个基于邻接列表的Dijkstra算法实现示例,您可以使用此代码进行参考或修改以满足您的特定需求。