{"runtime.makechan64", 1},
	{"runtime.makechan", 1},
	{"runtime.chanrecv1", 1},
	{"runtime.chanrecv2", 1},
	{"runtime.chansend1", 1},
	{"runtime.closechan", 1},
	{"runtime.chanlen", 1},
	{"runtime.chancap", 1},
	{"runtime.writeBarrier", 0},
	{"runtime.typedmemmove", 1},
	{"runtime.typedmemclr", 1},
	{"runtime.typedslicecopy", 1},
	{"runtime.selectnbsend", 1},
	{"runtime.selectnbrecv", 1},

}

//go:linkname reflectlite_chanlen internal/reflectlite.chanlen
func reflectlite_chanlen(c *hchan) int {
	return chanlen(c)
}

//go:linkname reflect_chancap reflect.chancap
func reflect_chancap(c *hchan) int {
	return chancap(c)
}

//go:linkname reflect_chanclose reflect.chanclose
func reflect_chanclose(c *hchan) {
	closechan(c)
}

func (q *waitq) enqueue(sgp *sudog) {
	sgp.next = nil

func chanrecv1(hchan <-chan any, elem *any)
func chanrecv2(hchan <-chan any, elem *any) bool
func chansend1(hchan chan<- any, elem *any)
func closechan(hchan chan<- any)
func chanlen(hchan any) int
func chancap(hchan any) int

var writeBarrier struct {
	enabled bool
	pad     [3]byte
	cgo     bool
	alignme uint64
}

// *byte is really *runtime.Type
func typedmemmove(typ *byte, dst *any, src *any)

	{"makechan64", funcTag, 98},
	{"makechan", funcTag, 99},
	{"chanrecv1", funcTag, 101},
	{"chanrecv2", funcTag, 102},
	{"chansend1", funcTag, 104},
	{"closechan", funcTag, 105},
	{"chanlen", funcTag, 106},
	{"chancap", funcTag, 106},
	{"writeBarrier", varTag, 108},
	{"typedmemmove", funcTag, 109},
	{"typedmemclr", funcTag, 110},
	{"typedslicecopy", funcTag, 111},
	{"selectnbsend", funcTag, 112},
	{"selectnbrecv", funcTag, 113},

		init.Append(ir.TakeInit(conv)...)
		_, len := backingArrayPtrLen(cheapExpr(conv.X, init))
		return len
	}
	if isChanLenCap(n) {
		name := "chanlen"
		if n.Op() == ir.OCAP {
			name = "chancap"
		}
		// cannot use chanfn - closechan takes any, not chan any,
		// because it accepts both send-only and recv-only channels.
		fn := typecheck.LookupRuntime(name, n.X.Type())
		return mkcall1(fn, n.Type(), init, n.X)

	}
	return v.capNonSlice()
}

func (v Value) capNonSlice() int {
	k := v.kind()
	switch k {
	case Array:
		return v.typ().Len()
	case Chan:
		return chancap(v.pointer())
	case Ptr:
		if v.typ().Elem().Kind() == abi.Array {
			return v.typ().Elem().Len()
		}
		panic("reflect: call of reflect.Value.Cap on ptr to non-array Value")
	}

     * when it fails. All this method does is provide a better, consistent, error message.
     *
     * This should be used whenever there is a chance the cast could fail. If in doubt, use this.
     *
     * @param outputType The type to cast the input to
     * @param object The object to be cast (must not be {@code null})
     * @param <O> The type to be cast to

		"(NaN+0i):nan (-3+0i):foo (7+1i):bar (7+2i):bar2 (+Inf+0i):inf",
	},
	{
		map[bool]string{true: "true", false: "false"},
		"false:false true:true",
	},
	{
		chanMap(),
		"CHAN0:0 CHAN1:1 CHAN2:2",
	},
	{
		pointerMap(),
		"PTR0:0 PTR1:1 PTR2:2",
	},
	{
		unsafePointerMap(),
		"UNSAFEPTR0:0 UNSAFEPTR1:1 UNSAFEPTR2:2",
	},
	{

apiVersion: release-notes/v2
kind: feature
area: extensibility
issue: []
releaseNotes:
  - |
    **Improved** Use tag-stripped URL + checksum as a Wasm module cachekey, and the tagged URL is separately cached. 
    This may increase the chance of cache hit (e.g., trying to find the same image with both of the tagged and digest URLs.)

	// taking into consideration the number of addresses of each allocator.
	// Per example, if we have allocator A and B with 256 and 1024 possible
	// addresses each, the chances to get B has to be 4 times the chances to
	// get A so we can spread the load of IPs randomly.
	// However, we need to validate the best strategy before going to Beta.
	isIPv6 := c.ipFamily == api.IPFamily(v1.IPv6Protocol)