// hasn't been set to "identity", Write adds "Transfer-Encoding:
// chunked" to the header. Body is closed after it is sent.
func (r *Request) Write(w io.Writer) error {
	return r.write(w, false, nil, nil)
}

// WriteProxy is like [Request.Write] but writes the request in the form
// expected by an HTTP proxy. In particular, [Request.WriteProxy] writes the

		if errors.Is(err, errNoHealRequired) {
			countNoHeal++
		}
		r.DiskCount += result.DiskCount
		r.SetCount += result.SetCount
		r.Before.Drives = append(r.Before.Drives, result.Before.Drives...)
		r.After.Drives = append(r.After.Drives, result.After.Drives...)
	}

	// No heal returned by all serverPools, return errNoHealRequired
	if countNoHeal == len(z.serverPools) {
		return r, errNoHealRequired
	}

   * concurrently readable hash table. The map supports non-blocking reads and concurrent writes
   * across different segments.
   *
   * The page replacement algorithm's data structures are kept casually consistent with the map. The
   * ordering of writes to a segment is sequentially consistent. An update to the map and recording

		// cmd.Stdout and cmd.Stderr in order to keep the underlying
		// interleaving of writes, but then it would see even partial writes
		// interleaved, which would corrupt the JSON. So, we only process
		// cmd.Stdout. This has another consequence though: if stdout==stderr,
		// we have to serialize Writes in case the Writer is not concurrent
		// safe. If we were just passing stdout/stderr through to exec, it would

// finding bugs. If the fuzz target fails for a given input, the fuzzing engine
// writes the inputs that caused the failure to a file in the directory
// testdata/fuzz/<Name> within the package directory. This file later serves as
// a seed input. If the file can't be written at that location (for example,
// because the directory is read-only), the fuzzing engine writes the file to
// the fuzz cache directory within the build cache instead.
//

   * concurrently readable hash table. The map supports non-blocking reads and concurrent writes
   * across different segments.
   *
   * The page replacement algorithm's data structures are kept casually consistent with the map. The
   * ordering of writes to a segment is sequentially consistent. An update to the map and recording

// type conversions. If so, then in the general case it writes
//
//	_cgoIndexNN := a
//	_cgoNN := &cgoIndexNN[i] // with type conversions, if any
//
// to sb, and writes
//
//	_cgoCheckPointer(_cgoNN, _cgoIndexNN)
//
// to sbCheck, and returns true. If a is a simple variable or field reference,
// it writes
//
//	_cgoIndexNN := &a
//

    /** Non-volatile write of the thread to the {@link Waiter#thread} field. */
    abstract void putThread(Waiter waiter, Thread newValue);

    /** Non-volatile write of the waiter to the {@link Waiter#next} field. */
    abstract void putNext(Waiter waiter, @CheckForNull Waiter newValue);

    /** Performs a CAS operation on the {@link #waiters} field. */
    abstract boolean casWaiters(

    /** Non-volatile write of the thread to the {@link Waiter#thread} field. */
    abstract void putThread(Waiter waiter, Thread newValue);

    /** Non-volatile write of the waiter to the {@link Waiter#next} field. */
    abstract void putNext(Waiter waiter, @CheckForNull Waiter newValue);

    /** Performs a CAS operation on the {@link #waiters} field. */
    abstract boolean casWaiters(

	if !dirty && cfg.CmdName != "mod tidy" {
		// The go.mod file has the same semantic content that it had before
		// (but not necessarily the same exact bytes).
		// Don't write go.mod, but write go.sum in case we added or trimmed sums.
		// 'go mod init' shouldn't write go.sum, since it will be incomplete.
		if cfg.CmdName != "mod init" {