本文整理了Java中edu.uci.ics.jung.graph.Graph.degree()
方法的一些代码示例,展示了Graph.degree()
的具体用法。这些代码示例主要来源于Github
/Stackoverflow
/Maven
等平台,是从一些精选项目中提取出来的代码,具有较强的参考意义,能在一定程度帮忙到你。Graph.degree()
方法的具体详情如下:
包路径:edu.uci.ics.jung.graph.Graph
类名称:Graph
方法名:degree
暂无
代码示例来源:origin: geogebra/geogebra
/**
* @see edu.uci.ics.jung.graph.Hypergraph#degree(java.lang.Object)
*/
@Override
public int degree(V vertex) {
return delegate.degree(vertex);
}
代码示例来源:origin: geogebra/geogebra
/**
* @see edu.uci.ics.jung.graph.Hypergraph#degree(java.lang.Object)
*/
@Override
public int degree(V vertex) {
return delegate.degree(vertex);
}
代码示例来源:origin: net.sf.jung/jung-samples
public boolean apply(Context<Graph<V,E>,V> context) {
Graph<V,E> graph = context.graph;
V v = context.element;
// Vertex v = (Vertex)arg0;
if (filter_small)
return (graph.degree(v) >= MIN_DEGREE);
else
return true;
}
}
代码示例来源:origin: net.sourceforge.jadex/jadex-tools-comanalyzer
/**
* Returns the degree (number of incident edges) of a vertex.
* @param vertex The vertex.
* @return The degree.
*/
public int degree(Object vertex)
{
return delegate.degree(vertex);
}
代码示例来源:origin: net.sf.jung/jung-api
/**
* @see edu.uci.ics.jung.graph.Hypergraph#degree(java.lang.Object)
*/
public int degree(V vertex) {
return delegate.degree(vertex);
}
代码示例来源:origin: geogebra/geogebra
/**
* @see edu.uci.ics.jung.graph.Hypergraph#degree(java.lang.Object)
*/
@Override
public synchronized int degree(V vertex) {
return delegate.degree(vertex);
}
代码示例来源:origin: net.sf.jung/jung-api
/**
* @see edu.uci.ics.jung.graph.Hypergraph#degree(java.lang.Object)
*/
public int degree(V vertex) {
return delegate.degree(vertex);
}
代码示例来源:origin: net.sf.jung/jung-api
/**
* @see edu.uci.ics.jung.graph.Hypergraph#degree(java.lang.Object)
*/
public synchronized int degree(V vertex) {
return delegate.degree(vertex);
}
代码示例来源:origin: net.sf.jung/jung-visualization
public int degree(V vertex) {
return graph.degree(vertex);
}
public E findEdge(V v1, V v2) {
代码示例来源:origin: geogebra/geogebra
/**
* Returns the effective size of <code>v</code> divided by the number of
* alters in <code>v</code>'s network. (In other words,
* <code>effectiveSize(v) / v.degree()</code>.) If
* <code>v.degree() == 0</code>, returns 0.
*/
public double efficiency(V v) {
double degree = g.degree(v);
if (degree == 0) {
return 0;
}
return effectiveSize(v) / degree;
}
代码示例来源:origin: org.opendaylight.controller.thirdparty/net.sf.jung2
/**
* Returns the effective size of <code>v</code> divided by the number of
* alters in <code>v</code>'s network. (In other words,
* <code>effectiveSize(v) / v.degree()</code>.)
* If <code>v.degree() == 0</code>, returns 0.
*/
public double efficiency(V v) {
double degree = g.degree(v);
if (degree == 0)
return 0;
else
return effectiveSize(v) / degree;
}
代码示例来源:origin: net.sf.jung/jung-algorithms
/**
* Returns the effective size of <code>v</code> divided by the number of
* alters in <code>v</code>'s network. (In other words,
* <code>effectiveSize(v) / v.degree()</code>.)
* If <code>v.degree() == 0</code>, returns 0.
*
* @param v the vertex whose properties are being measured
* @return the effective size of the vertex divided by its degree
*/
public double efficiency(V v) {
double degree = g.degree(v);
if (degree == 0)
return 0;
else
return effectiveSize(v) / degree;
}
代码示例来源:origin: net.sf.jung/jung-samples
public Shape apply(V v)
{
if (funny_shapes)
{
if (graph.degree(v) < 5)
{
int sides = Math.max(graph.degree(v), 3);
return factory.getRegularPolygon(v, sides);
}
else
return factory.getRegularStar(v, graph.degree(v));
}
else
return factory.getEllipse(v);
}
}
代码示例来源:origin: net.sf.jung/jung-algorithms
/**
* Generates a graph whose degree distribution approximates a power-law.
* @return the generated graph
*/
public Graph<V,E> get() {
Graph<V,E> graph = initializeGraph();
List<V> vertices = new ArrayList<V>(graph.getVertices());
for (int rIdx = 0; rIdx < mNumIterations; rIdx++) {
V v = null;
int degree = 0;
do {
v = vertices.get((int) (mRandom.nextDouble() * mNumVertices));
degree = graph.degree(v);
} while (degree == 0);
List<E> edges = new ArrayList<E>(graph.getIncidentEdges(v));
E randomExistingEdge = edges.get((int) (mRandom.nextDouble()*degree));
// FIXME: look at email thread on a more efficient RNG for arbitrary distributions
V x = vertices.get((int) (mRandom.nextDouble() * mNumVertices));
V y = null;
do {
y = vertices.get((int) (mRandom.nextDouble() * mNumVertices));
} while (mRandom.nextDouble() > ((graph.degree(y)+1)/mMaxDegree));
if (!graph.isSuccessor(y,x) && x != y) {
graph.removeEdge(randomExistingEdge);
graph.addEdge(edgeFactory.get(), x, y);
}
}
return graph;
}
代码示例来源:origin: org.opendaylight.controller.thirdparty/net.sf.jung2
/**
* Generates a graph whose degree distribution approximates a power-law.
* @return the generated graph
*/
public Graph<V,E> create() {
Graph<V,E> graph = initializeGraph();
List<V> vertices = new ArrayList<V>(graph.getVertices());
for (int rIdx = 0; rIdx < mNumIterations; rIdx++) {
V v = null;
int degree = 0;
do {
v = vertices.get((int) (mRandom.nextDouble() * mNumVertices));
degree = graph.degree(v);
} while (degree == 0);
List<E> edges = new ArrayList<E>(graph.getIncidentEdges(v));
E randomExistingEdge = edges.get((int) (mRandom.nextDouble()*degree));
// FIXME: look at email thread on a more efficient RNG for arbitrary distributions
V x = vertices.get((int) (mRandom.nextDouble() * mNumVertices));
V y = null;
do {
y = vertices.get((int) (mRandom.nextDouble() * mNumVertices));
} while (mRandom.nextDouble() > ((graph.degree(y)+1)/mMaxDegree));
if (!graph.isSuccessor(y,x) && x != y) {
graph.removeEdge(randomExistingEdge);
graph.addEdge(edgeFactory.create(), x, y);
}
}
return graph;
}
代码示例来源:origin: net.sf.jung/jung-algorithms
protected Graph<V,E> initializeGraph() {
Graph<V,E> graph = null;
graph = graphFactory.get();
for(int i=0; i<mNumVertices; i++) {
graph.addVertex(vertexFactory.get());
}
List<V> vertices = new ArrayList<V>(graph.getVertices());
while (graph.getEdgeCount() < mNumEdges) {
V u = vertices.get((int) (mRandom.nextDouble() * mNumVertices));
V v = vertices.get((int) (mRandom.nextDouble() * mNumVertices));
if (!graph.isSuccessor(v,u)) {
graph.addEdge(edgeFactory.get(), u, v);
}
}
double maxDegree = 0;
for (V v : graph.getVertices()) {
maxDegree = Math.max(graph.degree(v),maxDegree);
}
mMaxDegree = maxDegree; //(maxDegree+1)*(maxDegree)/2;
return graph;
}
代码示例来源:origin: geogebra/geogebra
protected Graph<V, E> initializeGraph() {
Graph<V, E> graph = null;
graph = graphFactory.create();
for (int i = 0; i < mNumVertices; i++) {
graph.addVertex(vertexFactory.create());
}
List<V> vertices = new ArrayList<V>(graph.getVertices());
while (graph.getEdgeCount() < mNumEdges) {
V u = vertices.get((int) (mRandom.nextDouble() * mNumVertices));
V v = vertices.get((int) (mRandom.nextDouble() * mNumVertices));
if (!graph.isSuccessor(v, u)) {
graph.addEdge(edgeFactory.create(), u, v);
}
}
double maxDegree = 0;
for (V v : graph.getVertices()) {
maxDegree = Math.max(graph.degree(v), maxDegree);
}
mMaxDegree = maxDegree; // (maxDegree+1)*(maxDegree)/2;
return graph;
}
代码示例来源:origin: org.opendaylight.controller.thirdparty/net.sf.jung2
protected Graph<V,E> initializeGraph() {
Graph<V,E> graph = null;
graph = graphFactory.create();
for(int i=0; i<mNumVertices; i++) {
graph.addVertex(vertexFactory.create());
}
List<V> vertices = new ArrayList<V>(graph.getVertices());
while (graph.getEdgeCount() < mNumEdges) {
V u = vertices.get((int) (mRandom.nextDouble() * mNumVertices));
V v = vertices.get((int) (mRandom.nextDouble() * mNumVertices));
if (!graph.isSuccessor(v,u)) {
graph.addEdge(edgeFactory.create(), u, v);
}
}
double maxDegree = 0;
for (V v : graph.getVertices()) {
maxDegree = Math.max(graph.degree(v),maxDegree);
}
mMaxDegree = maxDegree; //(maxDegree+1)*(maxDegree)/2;
return graph;
}
代码示例来源:origin: org.opendaylight.controller.thirdparty/net.sf.jung2
/**
* Burt's measure of the effective size of a vertex's network. Essentially, the
* number of neighbors minus the average degree of those in <code>v</code>'s neighbor set,
* not counting ties to <code>v</code>. Formally:
* <pre>
* effectiveSize(v) = v.degree() - (sum_{u in N(v)} sum_{w in N(u), w !=u,v} p(v,w)*m(u,w))
* </pre>
* where
* <ul>
* <li/><code>N(a) = a.getNeighbors()</code>
* <li/><code>p(v,w) =</code> normalized mutual edge weight of v and w
* <li/><code>m(u,w)</code> = maximum-scaled mutual edge weight of u and w
* </ul>
* @see #normalizedMutualEdgeWeight(Object, Object)
* @see #maxScaledMutualEdgeWeight(Object, Object)
*/
public double effectiveSize(V v)
{
double result = g.degree(v);
for(V u : g.getNeighbors(v)) {
for(V w : g.getNeighbors(u)) {
if (w != v && w != u)
result -= normalizedMutualEdgeWeight(v,w) *
maxScaledMutualEdgeWeight(u,w);
}
}
return result;
}
代码示例来源:origin: net.sf.jung/jung-samples
/**
* @return the graph for this demo
*/
Graph<String,Number> getGraph() {
Graph<String,Number> g =
new EppsteinPowerLawGenerator<String,Number>(
new GraphFactory(), new VertexFactory(), new EdgeFactory(), 26, 50, 50).get();
Set<String> removeMe = new HashSet<String>();
for (String v : g.getVertices()) {
if ( g.degree(v) == 0 ) {
removeMe.add( v );
}
}
for(String v : removeMe) {
g.removeVertex(v);
}
return g;
}
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