loop2:	ROUND2(Ra, Rb, Rc, Rd, Re)
	ROUND2(Re, Ra, Rb, Rc, Rd)
	ROUND2(Rd, Re, Ra, Rb, Rc)
	ROUND2(Rc, Rd, Re, Ra, Rb)
	ROUND2(Rb, Rc, Rd, Re, Ra)
	SUB.S	$1, Rctr
	BNE	loop2

	MOVW	$0x8F1BBCDC, Rconst
	MOVW	$4, Rctr
loop3:	ROUND3(Ra, Rb, Rc, Rd, Re)
	ROUND3(Re, Ra, Rb, Rc, Rd)
	ROUND3(Rd, Re, Ra, Rb, Rc)
	ROUND3(Rc, Rd, Re, Ra, Rb)
	ROUND3(Rb, Rc, Rd, Re, Ra)
	SUB.S	$1, Rctr
	BNE	loop3

	ROUND2(BX, CX, DX, BP, AX, 39)

	ROUND3(AX, BX, CX, DX, BP, 40)
	ROUND3(BP, AX, BX, CX, DX, 41)
	ROUND3(DX, BP, AX, BX, CX, 42)
	ROUND3(CX, DX, BP, AX, BX, 43)
	ROUND3(BX, CX, DX, BP, AX, 44)
	ROUND3(AX, BX, CX, DX, BP, 45)
	ROUND3(BP, AX, BX, CX, DX, 46)
	ROUND3(DX, BP, AX, BX, CX, 47)
	ROUND3(CX, DX, BP, AX, BX, 48)
	ROUND3(BX, CX, DX, BP, AX, 49)
	ROUND3(AX, BX, CX, DX, BP, 50)
	ROUND3(BP, AX, BX, CX, DX, 51)

		expectedResult   bool
		expectedError    error
	}
	tests := []struct {
		testName string
		rounds   []testCase
	}{
		{
			testName: "Disabled - default disabled",
			rounds:   []testCase{{expectedResult: false}},
		},
		{
			testName: "Enabled - supported versions bound",
			rounds: []testCase{
				{endpointsVersion: []mockEndpointVersion{
					{Version: "3.4.31", Endpoint: "localhost:2390"}},

	c := aesCipherGCM{aesCipherAsm{aesCipher{l: uint8(len(key) + 28)}}}
	var rounds int
	switch len(key) {
	case 128 / 8:
		rounds = 10
	case 192 / 8:
		rounds = 12
	case 256 / 8:
		rounds = 14
	default:
		return nil, KeySizeError(len(key))
	}

	expandKeyAsm(rounds, &key[0], &c.enc[0], &c.dec[0])
	if supportsAES && supportsGFMUL {
		return &c, nil
	}

	_ = src[15] // early bounds check
	s0 := byteorder.BeUint32(src[0:4])
	s1 := byteorder.BeUint32(src[4:8])
	s2 := byteorder.BeUint32(src[8:12])
	s3 := byteorder.BeUint32(src[12:16])

	// First round just XORs input with key.
	s0 ^= xk[0]
	s1 ^= xk[1]
	s2 ^= xk[2]
	s3 ^= xk[3]

	// Middle rounds shuffle using tables.
	// Number of rounds is set by length of expanded key.

// license that can be found in the LICENSE file.

package strconv

// FormatComplex converts the complex number c to a string of the
// form (a+bi) where a and b are the real and imaginary parts,
// formatted according to the format fmt and precision prec.
//
// The format fmt and precision prec have the same meaning as in [FormatFloat].
// It rounds the result assuming that the original was obtained from a complex

  queue: TaskQueue,
  message: String,
) {
  fine("${queue.name} ${String.format("%-22s", message)}: ${task.name}")
}

/**
 * Returns a duration in the nearest whole-number units like "999 µs" or "  1 s ". This rounds 0.5
 * units away from 0 and 0.499 towards 0. The smallest unit this returns is "µs"; the largest unit
 * it returns is "s". For values in [-499..499] this returns "  0 µs".
 *

// implementation outline, the notation now() is used to mean reading
// the virtual clock. In the original paper’s terms, "R(t)" is the
// number of "rounds" that have been completed at real time t ---
// where a round consists of virtually transmitting one bit from every
// non-empty queue in the router (regardless of which queue holds the
// packet that is really being transmitted at the moment); in this

	if len(base) != len(snapshot) {
		panic(fmt.Sprintf("the number of coverage bits changed: before=%d, after=%d", len(base), len(snapshot)))
	}
	found := false
	for i := range snapshot {
		if snapshot[i]&^base[i] != 0 {
			found = true
			break
		}
	}
	if !found {
		return nil
	}
	diff := make([]byte, len(snapshot))
	for i := range diff {
		diff[i] = snapshot[i] &^ base[i]
	}
	return diff
}

			T.AddMethod(m)
		}

		// check method order
		if i == 0 {
			// first round: collect methods in given order
			methods = make([]string, T.NumMethods())
			for j := range methods {
				methods[j] = T.Method(j).Name()
			}
		} else {
			// successive rounds: methods must appear in the same order
			if got := T.NumMethods(); got != len(methods) {