{"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},

	}
	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",
	},
	{

	// 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)

limitations under the License.
*/

package options

import (
	"github.com/spf13/pflag"

	"k8s.io/component-base/cli/globalflag"

	// ensure libs have a chance to globally register their flags
	_ "k8s.io/apiserver/pkg/admission"
)

// AddCustomGlobalFlags explicitly registers flags that internal packages register

	}

	procs := runtime.GOMAXPROCS(-1)
	sink = make([][]byte, procs)

	for i := 0; i < procs; i++ {
		i := i
		go func() {
			for {
				sink[i] = make([]byte, 4<<10)
			}
		}()
	}
	// Increase the chance that we end up starting and stopping
	// mid-GC by only starting to trace after a few milliseconds.
	time.Sleep(5 * time.Millisecond)

	// Start tracing.
	if err := trace.Start(os.Stdout); err != nil {