given:
        def streamBuf = new StreamByteBuffer(32000)
        def output = streamBuf.getOutputStream()

        when:
        output.write(1)
        output.write(2)
        output.write(3)
        output.write(255)
        output.close()

        then:
        def input = streamBuf.getInputStream()
        input.read() == 1
        input.read() == 2
        input.read() == 3

	buf := new(bytes.Buffer)
	binary.Write(buf, binary.BigEndian, uint32(totalLength))
	binary.Write(buf, binary.BigEndian, uint32(headerLength))
	prelude := buf.Bytes()
	binary.Write(buf, binary.BigEndian, crc32.ChecksumIEEE(prelude))
	buf.Write(header)
	if payload != nil {
		buf.Write(payload)
	}
	message := buf.Bytes()
	binary.Write(buf, binary.BigEndian, crc32.ChecksumIEEE(message))

	return buf.Bytes()

		return
	}
	r := NewReader(buf)

	// Write half the input and read back.
	for i := 0; i < 2; i++ {
		var lo, hi int
		if i == 0 {
			lo, hi = 0, (len(input)+1)/2
		} else {
			lo, hi = (len(input)+1)/2, len(input)
		}
		t.Logf("#%d: write %d-%d", i, lo, hi)
		if _, err := w.Write(input[lo:hi]); err != nil {
			t.Errorf("testSync: write: %v", err)
			return
		}
		if i == 0 {

    lockedConf 'org:bar:1.+'
}
"""

        when:
        succeeds'dependencies', '--write-locks', '--refresh-dependencies'

        then:
        lockfileFixture.verifyLockfile('lockedConf', ['org:foo:1.0', 'org:bar:1.0'])
    }

// license that can be found in the LICENSE file.

// Garbage collector: write barriers.
//
// For the concurrent garbage collector, the Go compiler implements
// updates to pointer-valued fields that may be in heap objects by
// emitting calls to write barriers. The main write barrier for
// individual pointer writes is gcWriteBarrier and is implemented in
// assembly. This file contains write barrier entry points for bulk
// operations. See also mwbbuf.go.

  }

  @Test fun `decode raw sequence`() {
    val buffer =
      Buffer()
        .write("300A".decodeHex())
        .write("1505".decodeHex())
        .write("Smith".encodeUtf8())
        .write("01".decodeHex())
        .write("01".decodeHex())
        .write("FF".decodeHex())

    val derReader = DerReader(buffer)

    derReader.read("test") { header ->

                throw new DictionaryException("Failed to write: " + oldItem + " -> " + item, e);
            }
        }

        public void write(final String line) {
            try {
                writer.write(line);
                writer.write(Constants.LINE_SEPARATOR);
            } catch (final IOException e) {
                throw new DictionaryException("Failed to write: " + line, e);
            }
        }

        @Override
        public void write(Encoder encoder, BuildActionParameters parameters) throws Exception {
            FILE_SERIALIZER.write(encoder, parameters.getCurrentDir());
            NO_NULL_STRING_MAP_SERIALIZER.write(encoder, parameters.getSystemProperties());
            NO_NULL_STRING_MAP_SERIALIZER.write(encoder, parameters.getEnvVariables());
            logLevelSerializer.write(encoder, parameters.getLogLevel());

        public void write(Encoder encoder, Path value) throws Exception {
            encoder.writeString(value.toString());
        }
    }

    private static class ByteArraySerializer extends AbstractSerializer<byte[]> {
        @Override
        public byte[] read(Decoder decoder) throws Exception {
            return decoder.readBinary();
        }

        @Override

<p>
Note that if there are no read-write or write-write data races on memory location <i>x</i>,
then any read <i>r</i> on <i>x</i> has only one possible <i>W</i>(<i>r</i>):
the single <i>w</i> that immediately precedes it in the happens before order.
</p>

<p>
More generally, it can be shown that any Go program that is data-race-free,
meaning it has no program executions with read-write or write-write data races,