},
	}

	for _, tc := range tests {
		t.Run(tc.name, func(t *testing.T) {
			ready := make(chan struct{})
			tc.cfg.Transport.ServerList = client.Endpoints()
			newETCD3Client = func(c storagebackend.TransportConfig) (*clientv3.Client, error) {
				defer close(ready)
				dummyKV := mockKV{
					get: func(ctx context.Context) (*clientv3.GetResponse, error) {
						select {

}

type M = m

var waitForSigusr1 struct {
	rdpipe int32
	wrpipe int32
	mID    int64
}

// WaitForSigusr1 blocks until a SIGUSR1 is received. It calls ready
// when it is set up to receive SIGUSR1. The ready function should
// cause a SIGUSR1 to be sent. The r and w arguments are a pipe that
// the signal handler can use to report when the signal is received.
//

		r.syntaxError()
	}
}

// readIdent reads an identifier from the input.
// If an identifier is not present, readIdent records a syntax error.
func (r *importReader) readIdent() {
	c := r.peekByte(true)
	if !isIdent(c) {
		r.syntaxError()
		return
	}
	for isIdent(r.peekByte(false)) {
		r.peek = 0
	}
}

// readString reads a quoted string literal from the input.

// with code expecting an [io.Writer].
//
// Reads and Writes on the pipe are matched one to one
// except when multiple Reads are needed to consume a single Write.
// That is, each Write to the [PipeWriter] blocks until it has satisfied
// one or more Reads from the [PipeReader] that fully consume
// the written data.
// The data is copied directly from the Write to the corresponding
// Read (or Reads); there is no internal buffering.
//

    def serializer = new FileCollectionFingerprintSerializer(stringInterner)

    def "reads and writes empty fingerprints"() {
        when:
        def out = serialize(FileCollectionFingerprint.EMPTY, serializer)

        then:
        out == FileCollectionFingerprint.EMPTY
    }

    def "reads and writes fingerprints"() {
        def hash = TestHashCodes.hashCodeFrom(1234)

	err          error
}

// NewDecoder returns a new decoder that reads from the [io.Reader].
// If r does not also implement [io.ByteReader], it will be wrapped in a
// [bufio.Reader].
func NewDecoder(r io.Reader) *Decoder {
	dec := new(Decoder)
	// We use the ability to read bytes as a plausible surrogate for buffering.
	if _, ok := r.(io.ByteReader); !ok {
		r = bufio.NewReader(r)
	}

Framing rules make it impractical to implement http/2 correctly on a single blocking thread. The flow-control features introduce feedback between reads and writes, requiring writes to acknowledge reads and reads to throttle writes.

In OkHttp we expose a blocking API over a framed protocol. This document explains the code and policy that makes that work.

### Threads

#### Application's calling thread

        lockInfoAccess.writeLockInfo(lockFileAccess, lockInfo);
    }

    public LockInfo readLockInfo() throws IOException {
        return lockInfoAccess.readLockInfo(lockFileAccess);
    }

    /**
     * Reads the lock state from the lock file, possibly writing out a new lock file if not present or empty.
     */
    public LockState ensureLockState() throws IOException {
        return lockStateAccess.ensureLockState(lockFileAccess);

        writes1.size() == 20
        writes1[0].details.location == m1.artifact.uri.toString()
        writes1[0].result.bytesWritten == m1.artifact.file.length()

        def reads1 = buildOperations.all(ExternalResourceReadBuildOperationType)
        reads1.size() == 1

        when:
        // Publish again
        buildFile << """
            version = '1.3'
"""

        def m2 = repo.module("org.test", "test", "1.3")

// A HardLimitedReader reads from R but limits the amount of
// data returned to just N bytes. Each call to Read
// updates N to reflect the new amount remaining.
// Read returns EOF when N <= 0 or when the underlying R returns EOF.
type HardLimitedReader struct {
	R io.Reader // underlying reader
	N int64     // max bytes remaining
}

func (l *HardLimitedReader) Read(p []byte) (n int, err error) {
	if l.N < 0 {