var (
		frame    unsafe.Pointer
		framecap uintptr
		argRegs  int
	)

	gp := getg()
	lock(&finlock)
	fing = gp
	unlock(&finlock)

	for {
		lock(&finlock)
		fb := finq
		finq = nil
		if fb == nil {
			gopark(finalizercommit, unsafe.Pointer(&finlock), waitReasonFinalizerWait, traceBlockSystemGoroutine, 1)
			continue
		}
		argRegs = intArgRegs
		unlock(&finlock)
		if raceenabled {

// The arguments get mapped to JavaScript values according to the ValueOf function.
func (v Value) Call(m string, args ...any) Value {
	argVals, argRefs := makeArgSlices(len(args))
	storeArgs(args, argVals, argRefs)
	res, ok := valueCall(v.ref, m, argRefs)
	runtime.KeepAlive(v)
	runtime.KeepAlive(argVals)
	if !ok {
		if vType := v.Type(); !vType.isObject() { // check here to avoid overhead in success case

		auxBase := b.NewValue2A(v.Pos, OpLocalAddr, types.NewPtr(auxType), aux.NameOfResult(i), x.sp, mem)
		auxOffset := int64(0)
		aRegs := aux.RegsOfResult(int64(j))
		if a.Op == OpDereference {
			a.Op = OpLoad
		}
		var rc registerCursor
		var result *[]*Value
		if len(aRegs) > 0 {
			result = &allResults
		} else {
			if a.Op == OpLoad && a.Args[0].Op == OpLocalAddr {
				addr := a.Args[0]

@ElementTypesAreNonnullByDefault
enum BloomFilterStrategies implements BloomFilter.Strategy {
  /**
   * See "Less Hashing, Same Performance: Building a Better Bloom Filter" by Adam Kirsch and Michael
   * Mitzenmacher. The paper argues that this trick doesn't significantly deteriorate the
   * performance of a Bloom filter (yet only needs two 32bit hash functions).
   */
  MURMUR128_MITZ_32() {
    @Override

@ElementTypesAreNonnullByDefault
enum BloomFilterStrategies implements BloomFilter.Strategy {
  /**
   * See "Less Hashing, Same Performance: Building a Better Bloom Filter" by Adam Kirsch and Michael
   * Mitzenmacher. The paper argues that this trick doesn't significantly deteriorate the
   * performance of a Bloom filter (yet only needs two 32bit hash functions).
   */
  MURMUR128_MITZ_32() {
    @Override

	{0,  1},
	{2,  1},
	{15, 1},
	{16, 1},
	// For greater than 16 arguments, we expect 3 alloction:
	// - makeValue: new(ref)
	// - makeArgSlices: argVals = make([]Value, size)
	// - makeArgSlices: argRefs = make([]ref, size)
	{17, 3},
	{32, 3},
	{42, 3},
}

// TestCallAllocations ensures the correct allocation profile for Value.Call
func TestCallAllocations(t *testing.T) {
	for _, test := range allocTests {

arrive at the idea of doing those exact calculations. Nowhere is it mentioned
that this test extends the 2-by-1 guess into a 3-by-2 guess. The proof of the
Good Guess Guarantee is only for the 2-by-1 guess and argues by contradiction,
making it difficult to understand how modifications like adding another digit
or adjusting the quotient range affects the overall bound.

	b.Values = b.Values[:0]
	idx := 0

	// Clobber pointer slots in all dead variables at entry.
	if b == lv.f.Entry {
		for len(oldSched) > 0 && len(oldSched[0].Args) == 0 {
			// Skip argless ops. We need to skip at least
			// the lowered ClosurePtr op, because it
			// really wants to be first. This will also
			// skip ops like InitMem and SP, which are ok.
			b.Values = append(b.Values, oldSched[0])