Added a bunch of javadoc and changed the names of one of the

method sets to be a little less confusing.
cleanup_build_scripts
Paul Speed 9 years ago
parent 95aa2d72d0
commit 3a4624a5fe
  1. 4
      jme3-networking/src/main/java/com/jme3/network/service/rmi/Asynchronous.java
  2. 21
      jme3-networking/src/main/java/com/jme3/network/service/rmi/CallType.java
  3. 3
      jme3-networking/src/main/java/com/jme3/network/service/rmi/ClassInfo.java
  4. 3
      jme3-networking/src/main/java/com/jme3/network/service/rmi/ClassInfoRegistry.java
  5. 3
      jme3-networking/src/main/java/com/jme3/network/service/rmi/MethodInfo.java
  6. 2
      jme3-networking/src/main/java/com/jme3/network/service/rmi/RemoteObjectHandler.java
  7. 48
      jme3-networking/src/main/java/com/jme3/network/service/rmi/RmiClientService.java
  8. 4
      jme3-networking/src/main/java/com/jme3/network/service/rmi/RmiContext.java
  9. 59
      jme3-networking/src/main/java/com/jme3/network/service/rmi/RmiHostedService.java
  10. 53
      jme3-networking/src/main/java/com/jme3/network/service/rmi/RmiRegistry.java

@ -41,7 +41,9 @@ import static java.lang.annotation.RetentionPolicy.*;
/**
* Indicates that a given method should be executed asynchronously
* through the RMI service. This must annotate the method on the
* shared interface for it to have an effect.
* shared interface for it to have an effect. If reliable=false
* is specified then remote method invocation is done over UDP
* instead of TCP, ie: unreliably... but faster.
*
* @author Paul Speed
*/

@ -34,10 +34,27 @@ package com.jme3.network.service.rmi;
/**
*
* Internal type denoting the type of call to make when remotely
* invoking methods.
*
* @author Paul Speed
*/
public enum CallType {
Synchronous, Asynchronous, Unreliable
/**
* Caller will block until a response is received and returned.
*/
Synchronous,
/**
* Caller does not block or wait for a response. The other end
* of the connection will also not send one.
*/
Asynchronous,
/**
* Similar to asynchronous in that no response is expected or sent
* but differs in that the call will be sent over UDP and so may
* not make it to the other end.
*/
Unreliable
}

@ -39,7 +39,8 @@ import java.util.List;
/**
*
* Internal information about a shared class. This is the information
* that is sent over the wire for shared types.
*
* @author Paul Speed
*/

@ -40,7 +40,8 @@ import java.util.concurrent.locks.ReentrantReadWriteLock;
/**
*
* Internal registry of shared types and their ClassInfo and MethodInfo
* objects.
*
* @author Paul Speed
*/

@ -39,7 +39,8 @@ import javax.jws.Oneway;
/**
*
* Internal information about shared methods. This is part of the data that
* is passed over the wire when an object is shared.
*
* @author Paul Speed
*/

@ -39,7 +39,7 @@ import java.util.concurrent.ConcurrentHashMap;
/**
*
* Used internally to remotely invoke methods on RMI shared objects.
*
* @author Paul Speed
*/

@ -41,7 +41,23 @@ import java.util.List;
/**
* A service that can be added to the client to support a simple
* shared objects protocol.
*
* <p>Objects are shared by adding them to the RmiRegistry with one of the
* share() methods. Shared objects must have a separate interface and implementation.
* The interface is what the other end of the connection will use to interact
* with the object and that interface class must be available on both ends of
* the connection. The implementing class need only be on the sharing end.</p>
*
* <p>Shared objects can be accessed on the other end of the connection by
* using one of the RmiRegistry's getRemoteObject() methods. These can be
* used to lookup an object by class if it is a shared singleton or by name
* if it was registered with a name.</p>
*
* <p>Note: This RMI implementation is not as advanced as Java's regular
* RMI as it won't marshall shared references, ie: you can't pass
* a shared objects as an argument to another shared object's method.</p>
*
* @author Paul Speed
*/
@ -64,18 +80,42 @@ public class RmiClientService extends AbstractClientService {
this.rmiObjectId = rmiObjectId;
}
/**
* Shares the specified object with the server and associates it with the
* specified type. Objects shared in this way are available in the connection-specific
* RMI registry on the server and are not available to other connections.
*/
public <T> void share( T object, Class<? super T> type ) {
share(defaultChannel, object, type);
}
/**
* Shares the specified object with the server and associates it with the
* specified type. Objects shared in this way are available in the connection-specific
* RMI registry on the server and are not available to other connections.
* All object related communication will be done over the specified connection
* channel.
*/
public <T> void share( byte channel, T object, Class<? super T> type ) {
share(channel, type.getName(), object, type);
}
/**
* Shares the specified object with the server and associates it with the
* specified name. Objects shared in this way are available in the connection-specific
* RMI registry on the server and are not available to other connections.
*/
public <T> void share( String name, T object, Class<? super T> type ) {
share(defaultChannel, name, object, type);
}
/**
* Shares the specified object with the server and associates it with the
* specified name. Objects shared in this way are available in the connection-specific
* RMI registry on the server and are not available to other connections.
* All object related communication will be done over the specified connection
* channel.
*/
public <T> void share( byte channel, String name, T object, Class<? super T> type ) {
if( !isStarted ) {
synchronized(pending) {
@ -90,10 +130,18 @@ public class RmiClientService extends AbstractClientService {
rmi.share(channel, name, object, type);
}
/**
* Looks up a remote object on the server by type and returns a local proxy to the
* remote object that was shared on the other end of the network connection.
*/
public <T> T getRemoteObject( Class<T> type ) {
return rmi.getRemoteObject(type);
}
/**
* Looks up a remote object on the server by name and returns a local proxy to the
* remote object that was shared on the other end of the network connection.
*/
public <T> T getRemoteObject( String name, Class<T> type ) {
return rmi.getRemoteObject(name, type);
}

@ -46,6 +46,10 @@ import com.jme3.network.HostedConnection;
public class RmiContext {
private static final ThreadLocal<HostedConnection> connection = new ThreadLocal<HostedConnection>();
/**
* Returns the HostedConnection that is responsible for any
* RMI-related calls on this thread.
*/
public static HostedConnection getRmiConnection() {
return connection.get();
}

@ -46,7 +46,30 @@ import java.util.logging.Logger;
/**
* A service that can be added to the host to support a simple
* shared objects protocol.
*
* <p>Objects are shared by adding them to the RmiRegistry with one of the
* share() methods. Shared objects must have a separate interface and implementation.
* The interface is what the other end of the connection will use to interact
* with the object and that interface class must be available on both ends of
* the connection. The implementing class need only be on the sharing end.</p>
*
* <p>Shared objects can be accessed on the other end of the connection by
* using one of the RmiRegistry's getRemoteObject() methods. These can be
* used to lookup an object by class if it is a shared singleton or by name
* if it was registered with a name.</p>
*
* <p>On the hosting side, a special shardGlobal() method is provided that
* will register shared objects that will automatically be provided to every
* new joining client and they will all be calling the same server-side instance.
* Normally, shared objects themselves are connection specific and handled
* at the connection layer. The shareGlobal() space is a way to have global
* resources passed directly though the need is relatively rare.</p>
*
* <p>Note: This RMI implementation is not as advanced as Java's regular
* RMI as it won't marshall shared references, ie: you can't pass
* a shared objects as an argument to another shared object's method.</p>
*
* @author Paul Speed
*/
@ -74,14 +97,34 @@ public class RmiHostedService extends AbstractHostedService {
Serializer.registerClasses(ClassInfo.class, MethodInfo.class);
}
/**
* Shares a server-wide object associated with the specified type. All connections
* with RMI hosting started will have access to this shared object as soon as they
* connect and they will all share the same instance. It is up to the shared object
* to handle any multithreading that might be required.
*/
public <T> void shareGlobal( T object, Class<? super T> type ) {
shareGlobal(defaultChannel, type.getName(), object, type);
}
/**
* Shares a server-wide object associated with the specified name. All connections
* with RMI hosting started will have access to this shared object as soon as they
* connect and they will all share the same instance. It is up to the shared object
* to handle any multithreading that might be required.
*/
public <T> void shareGlobal( String name, T object, Class<? super T> type ) {
shareGlobal(defaultChannel, name, object, type);
}
/**
* Shares a server-wide object associated with the specified name over the specified
* channel. All connections with RMI hosting started will have access to this shared
* object as soon as they connect and they will all share the same instance. It is up
* to the shared object to handle any multithreading that might be required.
* All network communcation associated with the shared object will be done over
* the specified channel.
*/
public <T> void shareGlobal( byte channel, String name, T object, Class<? super T> type ) {
GlobalShare share = new GlobalShare(channel, object, type);
GlobalShare existing = globalShares.put(name, share);
@ -99,14 +142,30 @@ public class RmiHostedService extends AbstractHostedService {
}
}
/**
* Set to true if all new connections should automatically have RMI hosting started.
* Set to false if the game-specific connection setup will call startHostingOnConnection()
* after some connection setup is done (for example, logging in). Note: generally
* is is safe to autohost RMI as long as callers are careful about what they've added
* using shareGlobal(). One reasonable use-case is to shareGlobal() some kind of login
* service and nothing else. All other shared objects would then be added as connection
* specific objects during successful login processing.
*/
public void setAutoHost( boolean b ) {
this.autoHost = b;
}
/**
* Returns true if RMI hosting is automatically started for all new connections.
*/
public boolean getAutoHost() {
return autoHost;
}
/**
* Returns the RMI registry for the specific HostedConection. Each connection
* has its own registry with its own connection-specific shared objects.
*/
public RmiRegistry getRmiRegistry( HostedConnection hc ) {
return hc.getAttribute(ATTRIBUTE_NAME);
}

@ -87,18 +87,45 @@ public class RmiRegistry {
rpc.registerHandler(rmiId, rmiHandler);
}
/**
* Exposes the specified object to the other end of the connection as
* the specified interface type. The object can be looked up by type
* on the other end.
*/
public <T> void share( T object, Class<? super T> type ) {
share(defaultChannel, object, type);
}
/**
* Exposes, through a specific connection channel, the specified object
* to the other end of the connection as the specified interface type.
* The object can be looked up by type on the other end.
* The specified channel will be used for all network communication
* specific to this object.
*/
public <T> void share( byte channel, T object, Class<? super T> type ) {
share(channel, type.getName(), object, type);
}
/**
* Exposes the specified object to the other end of the connection as
* the specified interface type and associates it with the specified name.
* The object can be looked up by the associated name on the other end of
* the connection.
*/
public <T> void share( String name, T object, Class<? super T> type ) {
share(defaultChannel, name, object, type);
}
/**
* Exposes, through a specific connection channel, the specified object to
* the other end of the connection as the specified interface type and associates
* it with the specified name.
* The object can be looked up by the associated name on the other end of
* the connection.
* The specified channel will be used for all network communication
* specific to this object.
*/
public <T> void share( byte channel, String name, T object, Class<? super T> type ) {
ClassInfo typeInfo = classCache.getClassInfo(type);
@ -153,16 +180,18 @@ public class RmiRegistry {
}
/**
* Returns an object that was previously registered with share().
* Returns a local object that was previously registered with share() using
* just type registration.
*/
public <T> T getSharedObject( Class<T> type ) {
return getSharedObject(type.getName(), type);
public <T> T getLocalObject( Class<T> type ) {
return getLocalObject(type.getName(), type);
}
/**
* Returns an object that was previously registered with share().
* Returns a local object that was previously registered with share() using
* name registration.
*/
public <T> T getSharedObject( String name, Class<T> type ) {
public <T> T getLocalObject( String name, Class<T> type ) {
local.lock.readLock().lock();
try {
return type.cast(local.byName.get(name));
@ -171,10 +200,24 @@ public class RmiRegistry {
}
}
/**
* Looks up a remote object by type and returns a local proxy to the remote object
* that was shared on the other end of the network connection. If this is called
* from a client then it is accessing a shared object registered on the server.
* If this is called from the server then it is accessing a shared object registered
* on the client.
*/
public <T> T getRemoteObject( Class<T> type ) {
return getRemoteObject(type.getName(), type);
}
/**
* Looks up a remote object by name and returns a local proxy to the remote object
* that was shared on the other end of the network connection. If this is called
* from a client then it is accessing a shared object registered on the server.
* If this is called from the server then it is accessing a shared object registered
* on the client.
*/
public <T> T getRemoteObject( String name, Class<T> type ) {
remote.lock.readLock().lock();
try {

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