}
	// Fast path for slices of size 0 and 1. Nothing to swap.
	switch v.Len() {
	case 0:
		return func(i, j int) { panic("reflect: slice index out of range") }
	case 1:
		return func(i, j int) {
			if i != 0 || j != 0 {
				panic("reflect: slice index out of range")
			}
		}
	}

	typ := v.Type().Elem().common()
	size := typ.Size()
	hasPtr := typ.Pointers()

	return typ
}

// Obj returns the type name for the type parameter t.
func (t *TypeParam) Obj() *TypeName { return t.obj }

// Index returns the index of the type param within its param list, or -1 if
// the type parameter has not yet been bound to a type.
func (t *TypeParam) Index() int {
	return t.index
}

// Constraint returns the type constraint specified for t.
func (t *TypeParam) Constraint() Type {
	return t.bound
}

	return defaultPlugins
}

type pluginIndex struct {
	index  int
	plugin v1.Plugin
}

func mergePluginSet(logger klog.Logger, defaultPluginSet, customPluginSet v1.PluginSet) v1.PluginSet {
	disabledPlugins := sets.New[string]()
	enabledCustomPlugins := make(map[string]pluginIndex)
	// replacedPluginIndex is a set of index of plugins, which have replaced the default plugins.

	// always a "call PC" (not a "return PC"). This is 0 when the iterator is
	// exhausted.
	pc uintptr

	// index is the index of the current record in inlTree, or -1 if we are in
	// the outermost function.
	index int32
}

// newInlineUnwinder creates an inlineUnwinder initially set to the inner-most
// inlined frame at PC. PC should be a "call PC" (not a "return PC").
//

)

// UnpackIndexExpr extracts data from AST nodes that represent index
// expressions.
//
// For an ast.IndexExpr, the resulting indices slice will contain exactly one
// index expression. For an ast.IndexListExpr (go1.18+), it may have a variable
// number of index expressions.
//
// For nodes that don't represent index expressions, the first return value of
// UnpackIndexExpr will be nil.

		if err != nil {
			log.Errorf("In-cluster analysis has failed: %s", err)
			return
		}
		// reorganize messages to map
		index := map[status.Resource]diag.Messages{}
		for _, m := range res.Messages {
			key := status.ResourceFromMetadata(m.Resource.Metadata)
			index[key] = append(index[key], m)
		}
		// if we previously had a message that has been removed, ensure it is removed

		if err != nil {
			return err
		}
		if i >= n {
			return errors.New("index overflow")
		}
		if capidxbit(rights.Rights[i]) != capidxbit(right) {
			return errors.New("index mismatch")
		}
		rights.Rights[i] |= right
		if capidxbit(rights.Rights[i]) != capidxbit(right) {
			return errors.New("index mismatch (after assign)")
		}
	}

	return nil
}

// External code calls into callbackasm at an offset corresponding
// to the callback index. Callbackasm is a table of MOV and B instructions.
// The MOV instruction loads R12 with the callback index, and the
// B instruction branches to callbackasm1.
// callbackasm1 takes the callback index from R12 and
// indexes into an array that stores information about each callback.

	}

	g := e.NewGroup()
	for index := 0; index < cfg.count; index++ {
		index := index
		workFn := func() error {
			st := time.Now()
			resp, err := doReq(ctx, cfg, index)
			if err != nil {
				fwLog.Debugf("request failed: %v", err)
				return err
			}
			fwLog.Debugf("got resp: %v", resp)

			responsesMu.Lock()
			responses[index] = resp
			responseTimes[index] = time.Since(st)

	if err != nil {
		return nil, err
	}
	msgs, err := route.ParseRIB(syscall.NET_RT_IFMALIST, rib)
	if err != nil {
		return nil, err
	}
	ifmat := make([]Addr, 0, len(msgs))
	for _, m := range msgs {
		switch m := m.(type) {
		case *route.InterfaceMulticastAddrMessage:
			if ifi.Index != m.Index {
				continue
			}
			var ip IP