w:    width,
		wcap: capwidth,
	}
}

// Populate - populates and pre-warms the byte pool, this function is non-blocking.
func (bp *BytePoolCap) Populate() {
	for _, buf := range reedsolomon.AllocAligned(cap(bp.c), bp.wcap) {
		bp.Put(buf[:bp.w])
	}
}

// Get gets a []byte from the BytePool, or creates a new one if none are
// available in the pool.
func (bp *BytePoolCap) Get() (b []byte) {
	if bp == nil {

func exponentialBackoffWait(r *rand.Rand, unit, cap time.Duration) func(uint) time.Duration {
	if unit > time.Hour {
		// Protect against integer overflow
		panic("unit cannot exceed one hour")
	}
	return func(attempt uint) time.Duration {
		if attempt > 16 {
			// Protect against integer overflow
			attempt = 16
		}
		// sleep = random_between(unit, min(cap, base * 2 ** attempt))

		b = append(b, ' ')
		buf.Write(b)
	}
	os.Stdout.Write(buf.Bytes())
	// Output: 0 1 2 3
}

func ExampleBuffer_Cap() {
	buf1 := bytes.NewBuffer(make([]byte, 10))
	buf2 := bytes.NewBuffer(make([]byte, 0, 10))
	fmt.Println(buf1.Cap())
	fmt.Println(buf2.Cap())
	// Output:
	// 10
	// 10
}

func ExampleBuffer_Grow() {
	var b bytes.Buffer
	b.Grow(64)
	bb := b.Bytes()

				return
			}
		case "EcDist":
			var zb0003 uint32
			zb0003, err = dc.ReadArrayHeader()
			if err != nil {
				err = msgp.WrapError(err, "ErasureDist")
				return
			}
			if cap(z.ErasureDist) >= int(zb0003) {
				z.ErasureDist = (z.ErasureDist)[:zb0003]
			} else {
				z.ErasureDist = make([]uint8, zb0003)
			}
			for za0003 := range z.ErasureDist {

			return
		}
		z.Metadata[za0001] = za0002
	}
	var zb0003 uint32
	zb0003, err = dc.ReadArrayHeader()
	if err != nil {
		err = msgp.WrapError(err, "Parts")
		return
	}
	if cap(z.Parts) >= int(zb0003) {
		z.Parts = (z.Parts)[:zb0003]
	} else {
		z.Parts = make([]ObjectPartInfo, zb0003)
	}
	for za0003 := range z.Parts {
		err = z.Parts[za0003].DecodeMsg(dc)
		if err != nil {

					}
					continue
				}
				if int64(cap(dst)) < hdr.Length+1 {
					dst = make([]byte, 0, hdr.Length+hdr.Length>>3)
				}
				return readAllInto(dst[:0], &wsReader)
			}
		}

		// Keep reusing the same buffer.
		var msg []byte
		for {
			if atomic.LoadUint32((*uint32)(&c.state)) != StateConnected {
				cancel(ErrDisconnected)
				return
			}
			if cap(msg) > readBufferSize*4 {

// capacity" section for details.
func len(v Type) int

// The cap built-in function returns the capacity of v, according to its type:
//
//	Array: the number of elements in v (same as len(v)).
//	Pointer to array: the number of elements in *v (same as len(v)).
//	Slice: the maximum length the slice can reach when resliced;
//	if v is nil, cap(v) is zero.
//	Channel: the channel buffer capacity, in units of elements;

		if err != nil {
			err = msgp.WrapError(err)
			return
		}
		var zb0005 uint32
		zb0005, err = dc.ReadArrayHeader()
		if err != nil {
			err = msgp.WrapError(err, zb0001)
			return
		}
		if cap(zb0002) >= int(zb0005) {
			zb0002 = (zb0002)[:zb0005]
		} else {
			zb0002 = make([]lockRequesterInfo, zb0005)
		}
		for zb0003 := range zb0002 {
			err = zb0002[zb0003].DecodeMsg(dc)
			if err != nil {

				update = false
				if isArrayKind {
					db.Statement.ReflectValue.Set(reflect.Zero(reflectValue.Type()))
				} else {
					// if the slice cap is externally initialized, the externally initialized slice is directly used here
					if reflectValue.Cap() == 0 {
						db.Statement.ReflectValue.Set(reflect.MakeSlice(reflectValue.Type(), 0, 20))
					} else {
						reflectValue.SetLen(0)

	}
	m.respWait = responses // Route directly to output.
	m.respMu.Unlock()

	// Try to grab an initial block.
	m.singleResp = false
	m.RecvSeq = m.SendSeq // Sync
	if cap(requests) > 0 {
		m.outBlock = make(chan struct{}, cap(requests))
	}
	msg := message{
		Op:         OpConnectMux,
		Handler:    h,
		Payload:    payload,
		DeadlineMS: uint32(m.deadline.Milliseconds()),
	}
	msg.setZeroPayloadFlag()