if len(g.vertices[v.vertexType][v.namespace]) == 0 {
		delete(g.vertices[v.vertexType], v.namespace)
	}
}

// must be called under write lock
// recomputeDestinationIndex_locked recomputes the index of destination ids for the specified vertex
func (g *Graph) recomputeDestinationIndex_locked(n graph.Node) {
	// don't maintain indices for nodes with few edges
	edgeCount := g.graph.Degree(n)

		sa[0] = 0
		return
	}

	// Establish slices indexed by text character
	// holding character frequency and bucket-sort offsets.
	// If there's only enough tmp for one slice,
	// we make it the bucket offsets and recompute
	// the character frequency each time we need it.
	var freq, bucket []int64
	if len(tmp) >= 2*textMax {
		freq, bucket = tmp[:textMax], tmp[textMax:2*textMax]
		freq[0] = -1 // mark as uninitialized
	} else {

// bits set to 10.
func RuneStart(b byte) bool { return b&0xC0 != 0x80 }

// Valid reports whether p consists entirely of valid UTF-8-encoded runes.
func Valid(p []byte) bool {
	// This optimization avoids the need to recompute the capacity
	// when generating code for p[8:], bringing it to parity with
	// ValidString, which was 20% faster on long ASCII strings.
	p = p[:len(p):len(p)]

	add(t, dc.podStore, pod)
	dc.sync(ctx, pdbName)

	ps.VerifyDisruptionAllowed(t, pdbName, 0)
	verifyEventEmitted(t, dc, "UnmanagedPods")

}

// Verify that an integer MaxUnavailable will recompute allowed disruptions when the scale of
// the selected pod's controller is modified.
func TestIntegerMaxUnavailableWithScaling(t *testing.T) {
	_, ctx := ktesting.NewTestContext(t)
	dc, ps := newFakeDisruptionController(ctx)

		{"NewCipher", Func, 0},
	},
	"crypto/rsa": {
		{"(*PSSOptions).HashFunc", Method, 4},
		{"(*PrivateKey).Decrypt", Method, 5},
		{"(*PrivateKey).Equal", Method, 15},
		{"(*PrivateKey).Precompute", Method, 0},
		{"(*PrivateKey).Public", Method, 4},
		{"(*PrivateKey).Sign", Method, 4},
		{"(*PrivateKey).Size", Method, 11},
		{"(*PrivateKey).Validate", Method, 0},
		{"(*PublicKey).Equal", Method, 15},

		// and at least one summary is guaranteed to change.
		//
		// We can't assume a contiguous allocation happened, so walk over
		// every chunk in the range and manually recompute the summary.
		summary := p.summary[len(p.summary)-1]
		for c := sc; c <= ec; c++ {
			summary[c] = p.chunkOf(c).summarize()
		}
	}

	// Walk up the radix tree and update the summaries appropriately.

		return nil, errors.New("invalid scalar length")
	}
	tables := p.generatorTable()

	// This is also a scalar multiplication with a four-bit window like in
	// ScalarMult, but in this case the doublings are precomputed. The value
	// [windowValue]G added at iteration k would normally get doubled
	// (totIterations-k)×4 times, but with a larger precomputation we can
	// instead add [2^((totIterations-k)×4)][windowValue]G and avoid the

			benchName := benchmarkName(b.name, procs)

			// If it's chatty, we've already printed this information.
			if b.chatty == nil {
				fmt.Fprintf(b.w, "%-*s\t", ctx.maxLen, benchName)
			}
			// Recompute the running time for all but the first iteration.
			if i > 0 || j > 0 {
				b = &B{
					common: common{
						signal: make(chan bool),
						name:   b.name,
						w:      b.w,
						chatty: b.chatty,

				"tls.key": []byte("SGVsbG8gd29ybGQK"),
			},
		},
	}
)

func init() {
	features.EnableAlphaGatewayAPI = true
	features.EnableAmbientWaypoints = true
	// Recompute with ambient enabled
	classInfos = getClassInfos()
	builtinClasses = getBuiltinClasses()
}

func TestConvertResources(t *testing.T) {
	validator := crdvalidation.NewIstioValidator(t)
	cases := []struct {

		return nil, errors.New("invalid scalar length")
	}
	tables := p.generatorTable()

	// This is also a scalar multiplication with a four-bit window like in
	// ScalarMult, but in this case the doublings are precomputed. The value
	// [windowValue]G added at iteration k would normally get doubled
	// (totIterations-k)×4 times, but with a larger precomputation we can
	// instead add [2^((totIterations-k)×4)][windowValue]G and avoid the