Examples of ChannelBuffer

com.alibaba.dubbo.remoting.buffer.ChannelBuffer
kipedia.org/wiki/Index_(information_technology)#Array_element_identifier">zero-based indexing. It means the index of the first byte is always {@code 0} andthe index of the last byte is always {@link #capacity() capacity - 1}. For example, to iterate all bytes of a buffer, you can do the following, regardless of its internal implementation:
```
 {@link ChannelBuffer} buffer = ...;for (int i = 0; i < buffer.capacity(); i ++) { byte b = buffer.getByte(i); System.out.println((char) b); } 
```
Sequential Access Indexing

{@link ChannelBuffer} provides two pointer variables to support sequentialread and write operations - {@link #readerIndex() readerIndex} for a readoperation and {@link #writerIndex() writerIndex} for a write operationrespectively. The following diagram shows how a buffer is segmented into three areas by the two pointers:
```
 +-------------------+------------------+------------------+ | discardable bytes |  readable bytes  |  writable bytes  | |                   |     (CONTENT)    |                  | +-------------------+------------------+------------------+ |                   |                  |                  | 0      <=      readerIndex   <=   writerIndex    <=    capacity 
```
Readable bytes (the actual content)

This segment is where the actual data is stored. Any operation whose name starts with {@code read} or {@code skip} will get or skip the data at thecurrent {@link #readerIndex() readerIndex} and increase it by the number ofread bytes. If the argument of the read operation is also a {@link ChannelBuffer} and no destination index is specified, the specified buffer's{@link #readerIndex() readerIndex} is increased together.
If there's not enough content left, {@link IndexOutOfBoundsException} israised. The default value of newly allocated, wrapped or copied buffer's {@link #readerIndex() readerIndex} is {@code 0}.
```
 // Iterates the readable bytes of a buffer. {@link ChannelBuffer} buffer = ...;while (buffer.readable()) { System.out.println(buffer.readByte()); } 
```
Writable bytes

This segment is a undefined space which needs to be filled. Any operation whose name ends with {@code write} will write the data at the current {@link #writerIndex() writerIndex} and increase it by the number of written bytes.If the argument of the write operation is also a {@link ChannelBuffer}, and no source index is specified, the specified buffer's {@link #readerIndex() readerIndex} is increased together.
If there's not enough writable bytes left, {@link IndexOutOfBoundsException}is raised. The default value of newly allocated buffer's {@link #writerIndex() writerIndex} is {@code 0}. The default value of wrapped or copied buffer's {@link #writerIndex() writerIndex} is the {@link #capacity() capacity} of the buffer.
```
 // Fills the writable bytes of a buffer with random integers. {@link ChannelBuffer} buffer = ...;while (buffer.writableBytes() >= 4) { buffer.writeInt(random.nextInt()); } 
```
Discardable bytes

This segment contains the bytes which were read already by a read operation. Initially, the size of this segment is {@code 0}, but its size increases up to the {@link #writerIndex() writerIndex} as read operations are executed.The read bytes can be discarded by calling {@link #discardReadBytes()} toreclaim unused area as depicted by the following diagram:
```
 BEFORE discardReadBytes() +-------------------+------------------+------------------+ | discardable bytes |  readable bytes  |  writable bytes  | +-------------------+------------------+------------------+ |                   |                  |                  | 0      <=      readerIndex   <=   writerIndex    <=    capacity AFTER discardReadBytes() +------------------+--------------------------------------+ |  readable bytes  |    writable bytes (got more space)   | +------------------+--------------------------------------+ |                  |                                      | readerIndex (0) <= writerIndex (decreased)        <=        capacity 
```
Please note that there is no guarantee about the content of writable bytes after calling {@link #discardReadBytes()}. The writable bytes will not be moved in most cases and could even be filled with completely different data depending on the underlying buffer implementation.

Clearing the buffer indexes

You can set both {@link #readerIndex() readerIndex} and {@link #writerIndex() writerIndex} to {@code 0} by calling {@link #clear()}. It does not clear the buffer content (e.g. filling with {@code 0}) but just clears the two pointers. Please also note that the semantic of this operation is different from {@link ByteBuffer#clear()}.
```
 BEFORE clear() +-------------------+------------------+------------------+ | discardable bytes |  readable bytes  |  writable bytes  | +-------------------+------------------+------------------+ |                   |                  |                  | 0      <=      readerIndex   <=   writerIndex    <=    capacity AFTER clear() +---------------------------------------------------------+ |             writable bytes (got more space)             | +---------------------------------------------------------+ |                                                         | 0 = readerIndex = writerIndex            <=            capacity 
```
Mark and reset

There are two marker indexes in every buffer. One is for storing {@link #readerIndex() readerIndex} and the other is for storing {@link #writerIndex() writerIndex}. You can always reposition one of the two indexes by calling a reset method. It works in a similar fashion to the mark and reset methods in {@link InputStream} except that there's no {@code readlimit}.

Conversion to existing JDK types

Byte array

If a {@link ChannelBuffer} is backed by a byte array (i.e. {@code byte[]}), you can access it directly via the {@link #array()} method. To determine ifa buffer is backed by a byte array, {@link #hasArray()} should be used.

NIO Buffers

Various {@link #toByteBuffer()} methods convert a {@link ChannelBuffer} intoone or more NIO buffers. These methods avoid buffer allocation and memory copy whenever possible, but there's no guarantee that memory copy will not be involved.

I/O Streams

Please refer to {@link ChannelBufferInputStream} and {@link ChannelBufferOutputStream}. @author kimi
com.facebook.presto.jdbc.internal.netty.buffer.ChannelBuffer
kipedia.org/wiki/Zero-based_numbering">zero-based indexing. It means the index of the first byte is always {@code 0} and the index of the last byte isalways {@link #capacity() capacity - 1}. For example, to iterate all bytes of a buffer, you can do the following, regardless of its internal implementation:
```
 {@link ChannelBuffer} buffer = ...;for (int i = 0; i < buffer.capacity(); i ++) { byte b = buffer.getByte(i); System.out.println((char) b); } 
```
Sequential Access Indexing
{@link ChannelBuffer} provides two pointer variables to support sequentialread and write operations - {@link #readerIndex() readerIndex} for a readoperation and {@link #writerIndex() writerIndex} for a write operationrespectively. The following diagram shows how a buffer is segmented into three areas by the two pointers:
```
 +-------------------+------------------+------------------+ | discardable bytes |  readable bytes  |  writable bytes  | |                   |     (CONTENT)    |                  | +-------------------+------------------+------------------+ |                   |                  |                  | 0      <=      readerIndex   <=   writerIndex    <=    capacity 
```
Readable bytes (the actual content)
This segment is where the actual data is stored. Any operation whose name starts with {@code read} or {@code skip} will get or skip the data at thecurrent {@link #readerIndex() readerIndex} and increase it by the number ofread bytes. If the argument of the read operation is also a {@link ChannelBuffer} and no destination index is specified, the specifiedbuffer's {@link #readerIndex() readerIndex} is increased together.
If there's not enough content left, {@link IndexOutOfBoundsException} israised. The default value of newly allocated, wrapped or copied buffer's {@link #readerIndex() readerIndex} is {@code 0}.
```
 // Iterates the readable bytes of a buffer. {@link ChannelBuffer} buffer = ...;while (buffer.readable()) { System.out.println(buffer.readByte()); } 
```
Writable bytes
This segment is a undefined space which needs to be filled. Any operation whose name ends with {@code write} will write the data at the current{@link #writerIndex() writerIndex} and increase it by the number of writtenbytes. If the argument of the write operation is also a {@link ChannelBuffer}, and no source index is specified, the specified buffer's {@link #readerIndex() readerIndex} is increased together.
If there's not enough writable bytes left, {@link IndexOutOfBoundsException}is raised. The default value of newly allocated buffer's {@link #writerIndex() writerIndex} is {@code 0}. The default value of wrapped or copied buffer's {@link #writerIndex() writerIndex} is the{@link #capacity() capacity} of the buffer.
```
 // Fills the writable bytes of a buffer with random integers. {@link ChannelBuffer} buffer = ...;while (buffer.writableBytes() >= 4) { buffer.writeInt(random.nextInt()); } 
```
Discardable bytes
This segment contains the bytes which were read already by a read operation. Initially, the size of this segment is {@code 0}, but its size increases up to the {@link #writerIndex() writerIndex} as read operations are executed.The read bytes can be discarded by calling {@link #discardReadBytes()} toreclaim unused area as depicted by the following diagram:
```
 BEFORE discardReadBytes() +-------------------+------------------+------------------+ | discardable bytes |  readable bytes  |  writable bytes  | +-------------------+------------------+------------------+ |                   |                  |                  | 0      <=      readerIndex   <=   writerIndex    <=    capacity AFTER discardReadBytes() +------------------+--------------------------------------+ |  readable bytes  |    writable bytes (got more space)   | +------------------+--------------------------------------+ |                  |                                      | readerIndex (0) <= writerIndex (decreased)        <=        capacity 
```
Please note that there is no guarantee about the content of writable bytes after calling {@link #discardReadBytes()}. The writable bytes will not be moved in most cases and could even be filled with completely different data depending on the underlying buffer implementation.
Clearing the buffer indexes
You can set both {@link #readerIndex() readerIndex} and{@link #writerIndex() writerIndex} to {@code 0} by calling {@link #clear()}. It does not clear the buffer content (e.g. filling with {@code 0}) but just clears the two pointers. Please also note that the semantic of this operation is different from {@link ByteBuffer#clear()}.
```
 BEFORE clear() +-------------------+------------------+------------------+ | discardable bytes |  readable bytes  |  writable bytes  | +-------------------+------------------+------------------+ |                   |                  |                  | 0      <=      readerIndex   <=   writerIndex    <=    capacity AFTER clear() +---------------------------------------------------------+ |             writable bytes (got more space)             | +---------------------------------------------------------+ |                                                         | 0 = readerIndex = writerIndex            <=            capacity 
```
Search operations
Various {@link #indexOf(int,int,byte)} methods help you locate an index ofa value which meets a certain criteria. Complicated dynamic sequential search can be done with {@link ChannelBufferIndexFinder} as well as simplestatic single byte search.
If you are decoding variable length data such as NUL-terminated string, you will find {@link #bytesBefore(byte)} also useful.
Mark and reset
There are two marker indexes in every buffer. One is for storing {@link #readerIndex() readerIndex} and the other is for storing{@link #writerIndex() writerIndex}. You can always reposition one of the two indexes by calling a reset method. It works in a similar fashion to the mark and reset methods in {@link InputStream} except that there's no{@code readlimit}.
Derived buffers
You can create a view of an existing buffer by calling either {@link #duplicate()}, {@link #slice()} or {@link #slice(int,int)}. A derived buffer will have an independent {@link #readerIndex() readerIndex}, {@link #writerIndex() writerIndex} and marker indexes, while it sharesother internal data representation, just like a NIO buffer does.
In case a completely fresh copy of an existing buffer is required, please call {@link #copy()} method instead.
Conversion to existing JDK types

Byte array
If a {@link ChannelBuffer} is backed by a byte array (i.e. {@code byte[]}), you can access it directly via the {@link #array()} method. To determineif a buffer is backed by a byte array, {@link #hasArray()} should be used.
NIO Buffers
Various {@link #toByteBuffer()} and {@link #toByteBuffers()} methods converta {@link ChannelBuffer} into one or more NIO buffers. These methods avoidbuffer allocation and memory copy whenever possible, but there's no guarantee that memory copy will not be involved.
Strings
Various {@link #toString(String)} methods convert a {@link ChannelBuffer}into a {@link String}. Please note that {@link #toString()} is not aconversion method.
I/O Streams
Please refer to {@link ChannelBufferInputStream} and{@link ChannelBufferOutputStream}. @apiviz.landmark
io.netty.buffer.ChannelBuffer
net.gleamynode.netty.buffer.ChannelBuffer
kipedia.org/wiki/Index_(information_technology)#Array_element_identifier">zero-based indexing. It means the index of the first byte is always {@code 0} and the index ofthe last byte is always {@link #capacity() capacity - 1}. For example, to iterate all bytes of a buffer, you can do the following, regardless of its internal implementation:
```
 ChannelBuffer buffer = ...; for (int i = 0; i < buffer.capacity(); i ++) { byte b = array.getByte(i); System.out.println((char) b); } 
```
Sequential Access Indexing
{@link ChannelBuffer} provides two pointer variables to support sequentialread and write operations - {@link #readerIndex() readerIndex} for a readoperation and {@link #writerIndex() writerIndex} for a write operationrespectively. The following diagram shows how a buffer is segmented into three areas by the two pointers:
```
 +-------------------+------------------+------------------+ | discardable bytes |  readable bytes  |  writable space  | +-------------------+------------------+------------------+ |                   |                  |                  | 0      <=      readerIndex   <=   writerIndex    <=    capacity 
```
Readable bytes
This segment is where the actual data is stored. Any operation whose name starts with {@code read} or {@code skip} will get or skip the data at thecurrent {@link #readerIndex() readerIndex} and increase it by the number ofread bytes. If the argument of the read operation is also a {@link ChannelBuffer} and no specific start index is specified, thespecified buffer's {@link #readerIndex() readerIndex} is increased together.
If there's no more readable bytes left, {@link IndexOutOfBoundsException}is raised. The default value of newly allocated, wrapped or copied buffer's {@link #readerIndex() readerIndex} is {@code 0}.
```
 // Iterates the readable bytes of a buffer. ChannelBuffer buffer = ...; while (buffer.isReadable()) { System.out.println(buffer.readByte()); } 
```
Writable space
This segment is undefined space which needs to be filled. Any operation whose name ends with {@code write} will write the data at the current{@link #writerIndex() writerIndex} and increase it by the number of writtenbytes. If the argument of the write operation is also a {@link ChannelBuffer}, and no specific start index is specified, the specified buffer's {@link #readerIndex() readerIndex} is increased together.
If there's no more writable space left, {@link IndexOutOfBoundsException}is raised. The default value of newly allocated buffer's {@link #writerIndex() writerIndex} is {@code 0}. The default value of wrapped or copied buffer's {@link #writerIndex() writerIndex} is the{@link #capacity() capacity} of the buffer.
```
 // Fills the writable space of a buffer with random integers. ChannelBuffer buffer = ...; while (buffer.writableBytes() >= 4) { buffer.writeInt(random.nextInt()); } 
```
Discardable bytes
This segment contains the bytes which were read already by a read operation. Initially, the size of this segment is {@code 0}, but its size increases up to the {@link #writerIndex() writerIndex} as read operations are executed.The read bytes can be discarded by calling {@link #discardReadBytes()} toreclaim unused area as depicted by the following diagram:
```
 BEFORE discardReadBytes() +-------------------+------------------+------------------+ | discardable bytes |  readable bytes  |  writable space  | +-------------------+------------------+------------------+ |                   |                  |                  | 0      <=      readerIndex   <=   writerIndex    <=    capacity AFTER discardReadBytes() +------------------+--------------------------------------+ |  readable bytes  |    writable space (got more space)   | +------------------+--------------------------------------+ |                  |                                      | readerIndex (0) <= writerIndex (decreased)        <=        capacity 
```
Search operations
Various {@code indexOf()} methods help you locate an index of a value whichmeets a certain criteria. Complicated dynamic sequential search can be done with {@link ChannelBufferIndexFinder} as well as simple static single bytesearch.
Conversion to a NIO buffer
Various {@code toByteBuffer()} and {@code toByteBuffers()} methods converta {@link ChannelBuffer} into one or more NIO buffers. These methods avoidbuffer allocation and memory copy whenever possible, but there's no guarantee that memory copy will not be involved or that an explicit memory copy will be involved. @author The Netty Project (netty@googlegroups.com) @author Trustin Lee (trustin@gmail.com) @version $Rev: 558 $, $Date: 2008-07-16 21:28:27 +0900 (Wed, 16 Jul 2008) $ @apiviz.landmark
org.elasticsearch.common.netty.buffer.ChannelBuffer
org.jboss.netty.buffer.ChannelBuffer
kipedia.org/wiki/Index_(information_technology)#Array_element_identifier">zero-based indexing. It means the index of the first byte is always {@code 0} and the index ofthe last byte is always {@link #capacity() capacity - 1}. For example, to iterate all bytes of a buffer, you can do the following, regardless of its internal implementation:
```
 ChannelBuffer buffer = ...; for (int i = 0; i < buffer.capacity(); i ++) { byte b = array.getByte(i); System.out.println((char) b); } 
```
Sequential Access Indexing
{@link ChannelBuffer} provides two pointer variables to support sequentialread and write operations - {@link #readerIndex() readerIndex} for a readoperation and {@link #writerIndex() writerIndex} for a write operationrespectively. The following diagram shows how a buffer is segmented into three areas by the two pointers:
```
 +-------------------+------------------+------------------+ | discardable bytes |  readable bytes  |  writable bytes  | |                   |     (CONTENT)    |                  | +-------------------+------------------+------------------+ |                   |                  |                  | 0      <=      readerIndex   <=   writerIndex    <=    capacity 
```
Readable bytes (the actual content)
This segment is where the actual data is stored. Any operation whose name starts with {@code read} or {@code skip} will get or skip the data at thecurrent {@link #readerIndex() readerIndex} and increase it by the number ofread bytes. If the argument of the read operation is also a {@link ChannelBuffer} and no start index is specified, the specifiedbuffer's {@link #readerIndex() readerIndex} is increased together.
If there's not enough content left, {@link IndexOutOfBoundsException} israised. The default value of newly allocated, wrapped or copied buffer's {@link #readerIndex() readerIndex} is {@code 0}.
```
 // Iterates the readable bytes of a buffer. ChannelBuffer buffer = ...; while (buffer.readable()) { System.out.println(buffer.readByte()); } 
```
Writable bytes
This segment is a undefined space which needs to be filled. Any operation whose name ends with {@code write} will write the data at the current{@link #writerIndex() writerIndex} and increase it by the number of writtenbytes. If the argument of the write operation is also a {@link ChannelBuffer}, and no start index is specified, the specified buffer's {@link #readerIndex() readerIndex} is increased together.
If there's not enough writable bytes left, {@link IndexOutOfBoundsException}is raised. The default value of newly allocated buffer's {@link #writerIndex() writerIndex} is {@code 0}. The default value of wrapped or copied buffer's {@link #writerIndex() writerIndex} is the{@link #capacity() capacity} of the buffer.
```
 // Fills the writable bytes of a buffer with random integers. ChannelBuffer buffer = ...; while (buffer.writableBytes() >= 4) { buffer.writeInt(random.nextInt()); } 
```
Discardable bytes
This segment contains the bytes which were read already by a read operation. Initially, the size of this segment is {@code 0}, but its size increases up to the {@link #writerIndex() writerIndex} as read operations are executed.The read bytes can be discarded by calling {@link #discardReadBytes()} toreclaim unused area as depicted by the following diagram:
```
 BEFORE discardReadBytes() +-------------------+------------------+------------------+ | discardable bytes |  readable bytes  |  writable bytes  | +-------------------+------------------+------------------+ |                   |                  |                  | 0      <=      readerIndex   <=   writerIndex    <=    capacity AFTER discardReadBytes() +------------------+--------------------------------------+ |  readable bytes  |    writable bytes (got more space)   | +------------------+--------------------------------------+ |                  |                                      | readerIndex (0) <= writerIndex (decreased)        <=        capacity 
```
Clearing the buffer indexes
You can set both {@link #readerIndex() readerIndex} and{@link #writerIndex() writerIndex} to {@code 0} by calling {@link #clear()}. It does not clear the buffer content (e.g. filling with {@code 0}) but just clears the two pointers. Please also note that the semantic of this operation is different from {@link ByteBuffer#clear()}.
```
 BEFORE clear() +-------------------+------------------+------------------+ | discardable bytes |  readable bytes  |  writable bytes  | +-------------------+------------------+------------------+ |                   |                  |                  | 0      <=      readerIndex   <=   writerIndex    <=    capacity AFTER clear() +---------------------------------------------------------+ |             writable bytes (got more space)             | +---------------------------------------------------------+ |                                                         | 0 = readerIndex = writerIndex            <=            capacity 
```
Search operations
Various {@code indexOf()} methods help you locate an index of a value whichmeets a certain criteria. Complicated dynamic sequential search can be done with {@link ChannelBufferIndexFinder} as well as simple static single bytesearch.
Mark and reset
There are two marker indexes in every buffer. One is for storing {@link #readerIndex() readerIndex} and the other is for storing{@link #writerIndex() writerIndex}. You can always reposition one of the two indexes by calling a reset method. It works in a similar fashion to the mark and reset methods in {@link InputStream} except that there's no{@code readlimit}.
Derived buffers
You can create a view of an existing buffer by calling either {@link #duplicate()}, {@link #slice()} or {@link #slice(int,int)}. A derived buffer will have an independent {@link #readerIndex() readerIndex}, {@link #writerIndex() writerIndex} and marker indexes, while it sharesother internal data representation, just like a NIO buffer does.
In case a completely fresh copy of an existing buffer is required, please call {@link #copy()} method instead.
Conversion to existing JDK types

NIO Buffers
Various {@link #toByteBuffer()} and {@link #toByteBuffers()} methods converta {@link ChannelBuffer} into one or more NIO buffers. These methods avoidbuffer allocation and memory copy whenever possible, but there's no guarantee that memory copy will not be involved or that an explicit memory copy will be involved.
Strings
Various {@link #toString(String)} methods convert a {@link ChannelBuffer}into a {@link String}. Plesae note that {@link #toString()} is not aconversion method.
I/O Streams
Please refer to {@link ChannelBufferInputStream} and{@link ChannelBufferOutputStream}. @author The Netty Project (netty-dev@lists.jboss.org) @author Trustin Lee (tlee@redhat.com) @version $Rev: 1017 $, $Date: 2009-03-12 15:40:36 +0900 (Thu, 12 Mar 2009) $ @apiviz.landmark

Examples of org.jboss.netty.buffer.ChannelBuffer

  }


  @Override
  public ChannelFuture writeToChannelAsBinary(Channel channel)
  {
    ChannelBuffer buffer = toBinaryChannelBuffer();
    return channel.write(buffer);
  }

View Full Code Here

Examples of org.jboss.netty.buffer.ChannelBuffer

  @Override
  public void writeToChannelAsBinary(ChannelHandlerContext ctx, ChannelFuture future)
  {
    ChannelFuture realFuture = (null != future) ? future : Channels.future(ctx.getChannel());


    ChannelBuffer serializedResponse = serializeToBinary();
    DownstreamMessageEvent e = new DownstreamMessageEvent(ctx.getChannel(), realFuture,
                                                          serializedResponse,
                                                          ctx.getChannel().getRemoteAddress());
    ctx.sendDownstream(e);
  }

View Full Code Here

Examples of org.jboss.netty.buffer.ChannelBuffer

    TestAbstractQueue queue = new TestAbstractQueue();
    TestConnectionStateMessage stateMsg = new TestConnectionStateMessage();
    HttpResponse httpResponse = new DefaultHttpResponse(HttpVersion.HTTP_1_1, HttpResponseStatus.OK);
    StreamHttpResponseProcessor  processor =
        new StreamHttpResponseProcessor(null, queue, stateMsg, null);
    ChannelBuffer buf = HeapChannelBufferFactory.getInstance().getBuffer(100);
    HttpChunk httpChunk = new DefaultHttpChunk(buf);
    HttpChunkTrailer httpChunkTrailer = new DefaultHttpChunkTrailer();


    processor.startResponse(httpResponse);
    processor.addChunk(httpChunk);

View Full Code Here

Examples of org.jboss.netty.buffer.ChannelBuffer

    TestAbstractQueue queue = new TestAbstractQueue();
    TestConnectionStateMessage stateMsg = new TestConnectionStateMessage();
    HttpResponse httpResponse = new DefaultHttpResponse(HttpVersion.HTTP_1_1, HttpResponseStatus.OK);
    StreamHttpResponseProcessor  processor =
        new StreamHttpResponseProcessor(null, queue, stateMsg, null);
    ChannelBuffer buf = HeapChannelBufferFactory.getInstance().getBuffer(100);
    HttpChunk httpChunk = new DefaultHttpChunk(buf);
    HttpChunkTrailer httpChunkTrailer = new DefaultHttpChunkTrailer();


    processor.channelException(new Exception("dummy exception"));
    processor.startResponse(httpResponse);

View Full Code Here

Examples of org.jboss.netty.buffer.ChannelBuffer

    TestAbstractQueue queue = new TestAbstractQueue();
    TestConnectionStateMessage stateMsg = new TestConnectionStateMessage();
    HttpResponse httpResponse = new DefaultHttpResponse(HttpVersion.HTTP_1_1, HttpResponseStatus.OK);
    StreamHttpResponseProcessor  processor =
        new StreamHttpResponseProcessor(null, queue, stateMsg, null);
    ChannelBuffer buf = HeapChannelBufferFactory.getInstance().getBuffer(100);
    HttpChunk httpChunk = new DefaultHttpChunk(buf);
    HttpChunkTrailer httpChunkTrailer = new DefaultHttpChunkTrailer();


    processor.startResponse(httpResponse);
    processor.channelException(new Exception("dummy exception"));

View Full Code Here

Examples of org.jboss.netty.buffer.ChannelBuffer

    TestAbstractQueue queue = new TestAbstractQueue();
    TestConnectionStateMessage stateMsg = new TestConnectionStateMessage();
    HttpResponse httpResponse = new DefaultHttpResponse(HttpVersion.HTTP_1_1, HttpResponseStatus.OK);
    StreamHttpResponseProcessor  processor =
        new StreamHttpResponseProcessor(null, queue, stateMsg, null);
    ChannelBuffer buf = HeapChannelBufferFactory.getInstance().getBuffer(100);
    HttpChunk httpChunk = new DefaultHttpChunk(buf);
    HttpChunkTrailer httpChunkTrailer = new DefaultHttpChunkTrailer();


    processor.startResponse(httpResponse);
    processor.addChunk(httpChunk);

View Full Code Here

Examples of org.jboss.netty.buffer.ChannelBuffer

    TestAbstractQueue queue = new TestAbstractQueue();
    TestConnectionStateMessage stateMsg = new TestConnectionStateMessage();
    HttpResponse httpResponse = new DefaultHttpResponse(HttpVersion.HTTP_1_1, HttpResponseStatus.OK);
    StreamHttpResponseProcessor  processor =
        new StreamHttpResponseProcessor(null, queue, stateMsg, null);
    ChannelBuffer buf = HeapChannelBufferFactory.getInstance().getBuffer(100);
    HttpChunk httpChunk = new DefaultHttpChunk(buf);
    HttpChunkTrailer httpChunkTrailer = new DefaultHttpChunkTrailer();


    processor.startResponse(httpResponse);
    processor.addChunk(httpChunk);

View Full Code Here

Examples of org.jboss.netty.buffer.ChannelBuffer

    TestAbstractQueue queue = new TestAbstractQueue();
    TestConnectionStateMessage stateMsg = new TestConnectionStateMessage();
    HttpResponse httpResponse = new DefaultHttpResponse(HttpVersion.HTTP_1_1, HttpResponseStatus.OK);
    StreamHttpResponseProcessor  processor =
        new StreamHttpResponseProcessor(null, queue, stateMsg, null);
    ChannelBuffer buf = HeapChannelBufferFactory.getInstance().getBuffer(100);
    HttpChunk httpChunk = new DefaultHttpChunk(buf);
    HttpChunkTrailer httpChunkTrailer = new DefaultHttpChunkTrailer();


    processor.startResponse(httpResponse);
    processor.addChunk(httpChunk);

View Full Code Here

Examples of org.jboss.netty.buffer.ChannelBuffer

    TestAbstractQueue queue = new TestAbstractQueue();
    TestConnectionStateMessage stateMsg = new TestConnectionStateMessage();
    DefaultHttpResponse httpResponse = new DefaultHttpResponse(HttpVersion.HTTP_1_1, HttpResponseStatus.OK);
    RegisterHttpResponseProcessor  processor =
        new RegisterHttpResponseProcessor(null, queue, stateMsg, null);
    ChannelBuffer buf = getRegisterResponse();
    HttpChunk httpChunk = new DefaultHttpChunk(buf);
    HttpChunkTrailer httpChunkTrailer = new DefaultHttpChunkTrailer();


    processor.startResponse(httpResponse);
    processor.addChunk(httpChunk);

View Full Code Here

Examples of org.jboss.netty.buffer.ChannelBuffer

    TestAbstractQueue queue = new TestAbstractQueue();
    TestConnectionStateMessage stateMsg = new TestConnectionStateMessage();
    DefaultHttpResponse httpResponse = new DefaultHttpResponse(HttpVersion.HTTP_1_1, HttpResponseStatus.OK);
    RegisterHttpResponseProcessor  processor =
        new RegisterHttpResponseProcessor(null, queue, stateMsg, null);
    ChannelBuffer buf = getRegisterResponse();
    httpResponse.setContent(buf);
    httpResponse.setHeader(HttpHeaders.Names.CONTENT_LENGTH,"1000");
    processor.startResponse(httpResponse);
    processor.finishResponse();

View Full Code Here

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Examples of ChannelBuffer

Sequential Access Indexing

Readable bytes (the actual content)

Writable bytes

Discardable bytes

Clearing the buffer indexes

Mark and reset

Conversion to existing JDK types

Byte array

NIO Buffers

I/O Streams

Sequential Access Indexing

Readable bytes (the actual content)

Writable bytes

Discardable bytes

Clearing the buffer indexes

Search operations

Mark and reset

Derived buffers

Conversion to existing JDK types

Byte array

NIO Buffers

Strings

I/O Streams

Sequential Access Indexing

Readable bytes

Writable space

Discardable bytes

Search operations

Conversion to a NIO buffer

Sequential Access Indexing

Readable bytes (the actual content)

Writable bytes

Discardable bytes

Clearing the buffer indexes

Search operations

Mark and reset

Derived buffers

Conversion to existing JDK types

NIO Buffers

Strings

I/O Streams

Examples of org.jboss.netty.buffer.ChannelBuffer

Examples of org.jboss.netty.buffer.ChannelBuffer

Examples of org.jboss.netty.buffer.ChannelBuffer

Examples of org.jboss.netty.buffer.ChannelBuffer

Examples of org.jboss.netty.buffer.ChannelBuffer

Examples of org.jboss.netty.buffer.ChannelBuffer

Examples of org.jboss.netty.buffer.ChannelBuffer

Examples of org.jboss.netty.buffer.ChannelBuffer

Examples of org.jboss.netty.buffer.ChannelBuffer

Examples of org.jboss.netty.buffer.ChannelBuffer