public void paste_actionPerformed(ActionEvent e) {
ActionEvent e1 =
new ActionEvent(
this.ids.editor.getGraph(), e.getID(), e.getActionCommand(), e.getModifiers());
if (ids.editor.getGraph() != null) {
(this.ids.editor.getGraph().getTransferHandler().getPasteAction()).actionPerformed(e1);
ids.otherChange();
}
}
public void redo_actionPerformed(ActionEvent e) {
ActionEvent e1 =
new ActionEvent(
this.ids.editor.getGraph(), e.getID(), e.getActionCommand(), e.getModifiers());
if (ids.editor.getGraph() != null) {
resources.getCommonButtons().getRedo().actionPerformed(e1);
ids.otherChange();
}
}
/**
* The intialization, first, starts the GUI components that will show internal agent information
* to the user. Later on, it starts the locks manager which is responsible of preventing some
* information to be removed before transmited to other agents. Following, the agent is registered
* into JADE yellow pages service with the descriptors extracted from method getDescription. Next,
* an agent model diagram is created to show the mental state of the agent. It also register
* action listener to react accordingly to user actions on the diagram. Next, it uses the transfer
* object utility functions to assert information passed to the agent at construction time. Some
* operations cannot be performed until the agent is fully connected to JADE. For those
* operations, they require data that can only be passed in the constructor of the agent. To make
* these data available in the setup method, we use the method setEnabledO2ACommunication and
* getO2AObject. After these initializations, the agent is ready to initialize its internal
* behaviors to handle incoming messages. For more details, look at the comments in the method
* body.
*/
public void setup() {
try {
super.setup();
if (IAFProperties.getGraphicsOn()) {
this.graphics = new AgentGraphics(this.getName());
}
this.lman = new LocksManager(this.getAID().getLocalName(), cl);
/**
* Registers the agent in the yellow pages services. It uses the getDescription to obtain a
* list of services the agent can provide
*/
DFAgentDescription[] roles = this.getDescription();
for (int k = 0; k < roles.length; k++) {
try {
synchronized (synRegister) {
// System.err.println("iniciando registro");
jade.domain.DFService.register(this, roles[k]);
// System.err.println("registrado");
}
} catch (FIPAException fe) {
if (!(fe.getMessage().toLowerCase().indexOf("already") >= 0)) {
System.out.println(
fe.getACLMessage().getPerformative(fe.getACLMessage().getPerformative()));
} else {
try {
synchronized (synRegister) {
// System.err.println("iniciando registro 2");
jade.domain.DFService.register(this, roles[k]);
// System.err.println("registrado 2");
}
} catch (FIPAException fe1) {
// No more exception should be produced
}
}
}
}
/** Creates the GUI for the Mental State Manager */
AgentModelPanelIAF amm = null;
if (IAFProperties.getGraphicsOn()) {
ids = IDEState.emptyIDEState();
amm =
new AgentModelPanelIAF(
new ingenias.editor.entities.AgentModelDataEntity("1"), "1", new Model(ids));
amm.setMarqueeHandler(new AgentModelMarqueeHandlerIAF(amm));
}
/**
* Initializes the Mental State Manager and the Mental State Processor. The mental state
* processor is associated to the GUI of the agents.
*/
if (IAFProperties.getGraphicsOn())
this.msm = new MentalStateManager(ids, amm, this.getAID().getLocalName());
else this.msm = new MentalStateManager(ids, this.getAID().getLocalName());
// this.addBehaviour(this.msm.getConvTracker());
if (IAFProperties.getGraphicsOn())
this.graphics.setMentalStatePanel(this.getLocalName(), amm);
if (IAFProperties.getGraphicsOn())
this.msp = new ingenias.jade.MentalStateProcessor(msm, this, this.getGraphics());
else this.msp = new ingenias.jade.MentalStateProcessor(msm, this);
this.lman.register(msp); // To get notifications of locks removal/addition
/**
* Creates handlers to deal with operations made on the GUI representing the Mental State
* Manager
*/
/*this.msm.registerChangeListener(new GraphModelListener(){
public void graphChanged(GraphModelEvent arg0) {
MainInteractionManager.logMSM("Evaluating changes in mental state",getLocalName());
if (arg0!=null){
if (arg0.getChange().getInserted()!=null)
for (int k=0;k<arg0.getChange().getInserted().length;k++){
MainInteractionManager.logMSM("Inserted "+arg0.getChange().getInserted()[k],getLocalName());
}
if (arg0.getChange().getRemoved()!=null){
for (int k=0;k<arg0.getChange().getRemoved().length;k++){
getMSM().remove(arg0.getChange().getRemoved()[k].toString()); // removes the entity if removed from the panel
MainInteractionManager.logMSM("Removed "+arg0.getChange().getRemoved()[k],getLocalName());
}
}
if (arg0.getChange().getChanged()!=null)
for (int k=0;k<arg0.getChange().getChanged().length;k++){
MainInteractionManager.logMSM("Changed "+arg0.getChange().getChanged()[k],getLocalName());
}
}
msp.doReplan();
}
});*/
/**
* It creates the initial mental state of the agent. It retrieves elements from the
* getO2AObject method, a data transfer method.
*/
MentalEntity queue = null;
do {
queue = (MentalEntity) this.getO2AObject();
if (queue != null) {
try {
this.msm.addMentalEntity(queue);
} catch (InvalidEntity e) {
e.printStackTrace();
}
}
} while (queue != null);
/**
* This behavior takes incoming acl messages and distributes them into two groups: messages
* being processed and messages not being processed. Messages being processed are added again
* to the messages queue so that they can be processed by a specialized behavior
*
* @return
*/
final LifeCycleThread vthread = new LifeCycleThread(this);
getMSM().registerChangeListener(vthread);
vthread.setName("Lifecycle " + this.getAID().getLocalName());
vthread.start(); // The thread is constantly running so that no new
// threads are needed;
StateBehaviorChangesListener behaviorChangesListener = null;
behaviorChangesListener =
new StateBehaviorChangesListener() {
private void wakeUpCommsManagementBehavior() {
/*while (!mainBehavior.getExecutionState().equalsIgnoreCase(CyclicBehaviour.STATE_BLOCKED)){
//System.out.println(mainBehavior.getExecutionState());
try {
Thread.sleep(100);
} catch (InterruptedException e) {
// TODO Auto-generated catch block
e.printStackTrace();
}
}*/
if (mainBehavior.getExecutionState().equalsIgnoreCase(CyclicBehaviour.STATE_BLOCKED))
mainBehavior.restart();
}
@Override
public void protocolFinished() {
new Thread("waking up comms from " + getAID().getLocalName()) {
public void run() {
wakeUpCommsManagementBehavior();
}
}.start();
}
@Override
public void protocolStarted() {
new Thread("waking up comms from " + getAID().getLocalName()) {
public void run() {
wakeUpCommsManagementBehavior();
}
}.start();
}
@Override
public void stateTransitionExecuted(String fromState, String toState) {
new Thread("waking up comms from " + getAID().getLocalName()) {
public void run() {
wakeUpCommsManagementBehavior();
}
}.start();
}
};
mainBehavior = new CommsManagementBehavior(this, behaviorChangesListener);
mainBehavior.setBehaviourName("LifeCycle");
this.addBehaviour(mainBehavior);
this.getMainBehavior();
} catch (Throwable t) {
t.printStackTrace();
}
}