// Write section [65296].
		buf.Write([]byte{0})
		buf.Write([]byte("y.c\x00"))
		for i := 1; i <= 65288; i++ {
			// var_0001 ~ var_ff08
			name := fmt.Sprintf("var_%04x", i)
			buf.Write([]byte(name))
			buf.Write([]byte{0})
		}

		// Write section [65297].
		buf.Write([]byte{0})
		buf.Write([]byte(".symtab\x00"))
		buf.Write([]byte(".strtab\x00"))
		buf.Write([]byte(".shstrtab\x00"))

	// NOTE: NoFlushTables is used so we don't flush non-kubernetes chains in the table.
	proxier.iptablesData.Reset()
	proxier.iptablesData.Write(proxier.natChains.Bytes())
	proxier.iptablesData.Write(proxier.natRules.Bytes())
	proxier.iptablesData.Write(proxier.filterChains.Bytes())
	proxier.iptablesData.Write(proxier.filterRules.Bytes())

	proxier.logger.V(5).Info(
		"Restoring iptables", "natChains", proxier.natChains,

	return off
}

// write writes string table t into the output file.
func (t *xcoffStringTable) write(out *OutBuf) {
	out.Write32(uint32(t.size()))
	for _, s := range t.strings {
		out.WriteString(s)
		out.Write8(0)
	}
}

// write writes XCOFF section sect into the output file.
func (sect *XcoffScnHdr64) write(ctxt *Link) {
	binary.Write(ctxt.Out, binary.BigEndian, sect)

	}

	if transcript != nil {
		transcript.Write(data)
	}

	return m, nil
}

var (
	errShutdown = errors.New("tls: protocol is shutdown")
)

// Write writes data to the connection.
//
// As Write calls [Conn.Handshake], in order to prevent indefinite blocking a deadline
// must be set for both [Conn.Read] and Write before Write is called when the handshake

var brokenConnErr = errors.New("too many writes to brokenConn")

func (b *brokenConn) Write(data []byte) (int, error) {
	if b.numWrites >= b.breakAfter {
		return 0, brokenConnErr
	}

	b.numWrites++
	return b.Conn.Write(data)
}

func TestFailedWrite(t *testing.T) {
	// Test that a write error during the handshake is returned.
	for _, breakAfter := range []int{0, 1} {

	bps int
}

func (c *slowConn) Write(p []byte) (int, error) {
	if c.bps == 0 {
		panic("too slow")
	}
	t0 := time.Now()
	wrote := 0
	for wrote < len(p) {
		time.Sleep(100 * time.Microsecond)
		allowed := int(time.Since(t0).Seconds()*float64(c.bps)) / 8
		if allowed > len(p) {
			allowed = len(p)
		}
		if wrote < allowed {
			n, err := c.Conn.Write(p[wrote:allowed])
			wrote += n

//    (from _GCoff), enabling the write barrier, enabling mutator
//    assists, and enqueueing root mark jobs. No objects may be
//    scanned until all Ps have enabled the write barrier, which is
//    accomplished using STW.
//
//    b. Start the world. From this point, GC work is done by mark
//    workers started by the scheduler and by assists performed as
//    part of allocation. The write barrier shades both the

	sh := elfshname(".MIPS.abiflags")
	ctxt.Out.SeekSet(int64(sh.Off))
	ctxt.Out.Write16(0) // version
	ctxt.Out.Write8(32) // isaLevel
	ctxt.Out.Write8(1)  // isaRev
	ctxt.Out.Write8(1)  // gprSize
	ctxt.Out.Write8(1)  // cpr1Size
	ctxt.Out.Write8(0)  // cpr2Size
	if buildcfg.GOMIPS == "softfloat" {
		ctxt.Out.Write8(MIPS_FPABI_SOFT) // fpAbi
	} else {

// 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

   * segments, each governed by its own write lock. The segment lock is taken once for each explicit
   * write, and twice for each cache loading computation (once prior to loading the new value, and
   * once after loading completes). Much internal cache management is performed at the segment
   * granularity. For example, access queues and write queues are kept per segment when they are