private void process(ByteBuffer inBuffer, ByteBuffer outBuffer) throws IOException { try { int inputSize = inBuffer.remaining(); // OpensslCipher#update will maintain crypto context. int n = cipher.update(inBuffer, outBuffer); if (n < inputSize) { /** * Typically code will not get here. OpensslCipher#update will * consume all input data and put result in outBuffer. * OpensslCipher#doFinal will reset the crypto context. */ contextReset = true; cipher.doFinal(outBuffer); } } catch (Exception e) { throw new IOException(e); } }
Preconditions.checkArgument(input.isDirect() && output.isDirect(), "Direct buffers are required."); int len = update(context, input, input.position(), input.remaining(), output, output.position(), output.remaining()); input.position(input.limit());
private void process(ByteBuffer inBuffer, ByteBuffer outBuffer) throws IOException { try { int inputSize = inBuffer.remaining(); // OpensslCipher#update will maintain crypto context. int n = cipher.update(inBuffer, outBuffer); if (n < inputSize) { /** * Typically code will not get here. OpensslCipher#update will * consume all input data and put result in outBuffer. * OpensslCipher#doFinal will reset the crypto context. */ contextReset = true; cipher.doFinal(outBuffer); } } catch (Exception e) { throw new IOException(e); } }
private void process(ByteBuffer inBuffer, ByteBuffer outBuffer) throws IOException { try { int inputSize = inBuffer.remaining(); // OpensslCipher#update will maintain crypto context. int n = cipher.update(inBuffer, outBuffer); if (n < inputSize) { /** * Typically code will not get here. OpensslCipher#update will * consume all input data and put result in outBuffer. * OpensslCipher#doFinal will reset the crypto context. */ contextReset = true; cipher.doFinal(outBuffer); } } catch (Exception e) { throw new IOException(e); } }
private void process(ByteBuffer inBuffer, ByteBuffer outBuffer) throws IOException { try { int inputSize = inBuffer.remaining(); // OpensslCipher#update will maintain crypto context. int n = cipher.update(inBuffer, outBuffer); if (n < inputSize) { /** * Typically code will not get here. OpensslCipher#update will * consume all input data and put result in outBuffer. * OpensslCipher#doFinal will reset the crypto context. */ contextReset = true; cipher.doFinal(outBuffer); } } catch (Exception e) { throw new IOException(e); } }
private void process(ByteBuffer inBuffer, ByteBuffer outBuffer) throws IOException { try { int inputSize = inBuffer.remaining(); // OpensslCipher#update will maintain crypto context. int n = cipher.update(inBuffer, outBuffer); if (n < inputSize) { /** * Typically code will not get here. OpensslCipher#update will * consume all input data and put result in outBuffer. * OpensslCipher#doFinal will reset the crypto context. */ contextReset = true; cipher.doFinal(outBuffer); } } catch (Exception e) { throw new IOException(e); } }
Preconditions.checkArgument(input.isDirect() && output.isDirect(), "Direct buffers are required."); int len = update(context, input, input.position(), input.remaining(), output, output.position(), output.remaining()); input.position(input.limit());
Preconditions.checkArgument(input.isDirect() && output.isDirect(), "Direct buffers are required."); int len = update(context, input, input.position(), input.remaining(), output, output.position(), output.remaining()); input.position(input.limit());
Preconditions.checkArgument(input.isDirect() && output.isDirect(), "Direct buffers are required."); int len = update(context, input, input.position(), input.remaining(), output, output.position(), output.remaining()); input.position(input.limit());
Preconditions.checkArgument(input.isDirect() && output.isDirect(), "Direct buffers are required."); int len = update(context, input, input.position(), input.remaining(), output, output.position(), output.remaining()); input.position(input.limit());