// should not result in any allocations.
// This can be used to reset the underlying []byte of an existing Buffer.
func TestNewBufferShallow(t *testing.T) {
	testenv.SkipIfOptimizationOff(t)
	n := testing.AllocsPerRun(1000, func() {
		buf = *NewBuffer(testBytes)
	})
	if n > 0 {
		t.Errorf("allocations occurred while shallow copying")
	}
	check(t, "NewBuffer", &buf, testString)

func (e *P224Element) Set(t *P224Element) *P224Element {
	e.x = t.x
	return e
}

// Bytes returns the 28-byte big-endian encoding of e.
func (e *P224Element) Bytes() []byte {
	// This function is outlined to make the allocations inline in the caller
	// rather than happen on the heap.
	var out [p224ElementLen]byte
	return e.bytes(&out)
}

func (e *P224Element) bytes(out *[p224ElementLen]byte) []byte {

// are preferred.
func mergePermutation(defaultAffinity bitmask.BitMask, permutation []TopologyHint) TopologyHint {
	// Get the NUMANodeAffinity from each hint in the permutation and see if any
	// of them encode unpreferred allocations.
	preferred := true
	var numaAffinities []bitmask.BitMask
	for _, hint := range permutation {
		// Only consider hints that have an actual NUMANodeAffinity set.
		if hint.NUMANodeAffinity != nil {

	workers    = 5
)

// Repair is a controller loop that examines all service ClusterIP allocations and logs any errors,
// and then creates the accurate list of IPAddresses objects with all allocated ClusterIPs.
//
// Handles:
// * Duplicate ClusterIP assignments caused by operator action or undetected race conditions
// * Allocations to services that were not actually created due to a crash or powerloss

	}

	if Verify(publicKey, msg, sig) {
		t.Fatal("non-canonical signature accepted")
	}
}

func TestAllocations(t *testing.T) {
	if boring.Enabled {
		t.Skip("skipping allocations test with BoringCrypto")
	}
	testenv.SkipIfOptimizationOff(t)

	if allocs := testing.AllocsPerRun(100, func() {
		seed := make([]byte, SeedSize)
		message := []byte("Hello, world!")

	"istio.io/istio/pkg/slices"
)

// Set is an immutable set optimized for *small number of items*. For general purposes, Sets is likely better
//
// *Set construction*: sets is roughly 1kb allocations per 250 items. smallsets is 0.
// *Contains* sets is O(1). smallsets is O(logn). smallsets is typically faster up to about 5 elements.
//
//	At 1000 items, it is roughly 5x slower (30ns vs 5ns).

   * `allocations.size() < allocationLimit` then new streams can be created on this connection.
   */
  internal var allocationLimit = 1
    private set

  /** Current calls carried by this connection. */
  val calls = mutableListOf<Reference<RealCall>>()

  /** Timestamp when `allocations.size()` reached zero. Also assigned upon initial connection. */

func (e *P384Element) Set(t *P384Element) *P384Element {
	e.x = t.x
	return e
}

// Bytes returns the 48-byte big-endian encoding of e.
func (e *P384Element) Bytes() []byte {
	// This function is outlined to make the allocations inline in the caller
	// rather than happen on the heap.
	var out [p384ElementLen]byte
	return e.bytes(&out)
}

func (e *P384Element) bytes(out *[p384ElementLen]byte) []byte {

func (e *P521Element) Set(t *P521Element) *P521Element {
	e.x = t.x
	return e
}

// Bytes returns the 66-byte big-endian encoding of e.
func (e *P521Element) Bytes() []byte {
	// This function is outlined to make the allocations inline in the caller
	// rather than happen on the heap.
	var out [p521ElementLen]byte
	return e.bytes(&out)
}

func (e *P521Element) bytes(out *[p521ElementLen]byte) []byte {

// SEC 1, Version 2.0, Section 2.3.3. Note that the encoding of the point at
// infinity is shorter than all other encodings.
func (p *{{.P}}Point) Bytes() []byte {
	// This function is outlined to make the allocations inline in the caller
	// rather than happen on the heap.
	var out [1+2*{{.p}}ElementLength]byte
	return p.bytes(&out)
}

func (p *{{.P}}Point) bytes(out *[1+2*{{.p}}ElementLength]byte) []byte {