}

	// from src/runtime/softfloat64.go:234
	{
		var gm uint64
		var shift uint
		_ = gm & (1<<shift - 1)
	}

	// from src/strconv/atof.go:326
	{
		var mant uint64
		var mantbits uint
		if mant == 2<<mantbits {}
	}

	// from src/route_bsd.go:82
	{
		var Addrs int32
		const rtaRtMask = 1
		var i uint
		if Addrs&rtaRtMask&(1<<i) == 0 {}
	}

		t.Errorf("arithConstShift_ssa(1) failed, wanted %d got %d", want, got)
	}
}

// overflowConstShift_ssa verifies that constant folding for shift
// doesn't wrap (i.e. x << MAX_INT << 1 doesn't get folded to x << 0).
//
//go:noinline
func overflowConstShift64_ssa(x int64) int64 {
	return x << uint64(0xffffffffffffffff) << uint64(1)
}

//go:noinline

		t.Errorf("failed to generate key")
	}
	testKeyBasics(t, priv)
}

func TestNPrimeKeyGeneration(t *testing.T) {
	primeSize := 64
	maxN := 24
	if testing.Short() {
		primeSize = 16
		maxN = 16
	}
	// Test that generation of N-prime keys works for N > 4.
	for n := 5; n < maxN; n++ {
		priv, err := GenerateMultiPrimeKey(rand.Reader, n, 64+n*primeSize)
		if err == nil {
			testKeyBasics(t, priv)
		} else {

	// conversion to avoid precise but possibly slow Float
	// formatting.
	// f = mant * 2**exp
	var mant big.Float
	exp := f.MantExp(&mant) // 0.5 <= |mant| < 1.0

	// approximate float64 mantissa m and decimal exponent d
	// f ~ m * 10**d
	m, _ := mant.Float64()                     // 0.5 <= |m| < 1.0
	d := float64(exp) * (math.Ln2 / math.Ln10) // log_10(2)

// would exceed math.MaxUint, in which case math.MaxUint is returned.
func multiplyWithOverflowGuard(baseCost, cardinality uint64) uint64 {
	if baseCost == 0 {
		// an empty rule can return 0, so guard for that here
		return 0
	} else if math.MaxUint/baseCost < cardinality {
		return math.MaxUint
	}
	return baseCost * cardinality
}

		{"Log2E", Const, 0},
		{"Logb", Func, 0},
		{"Max", Func, 0},
		{"MaxFloat32", Const, 0},
		{"MaxFloat64", Const, 0},
		{"MaxInt", Const, 17},
		{"MaxInt16", Const, 0},
		{"MaxInt32", Const, 0},
		{"MaxInt64", Const, 0},
		{"MaxInt8", Const, 0},
		{"MaxUint", Const, 17},
		{"MaxUint16", Const, 0},
		{"MaxUint32", Const, 0},
		{"MaxUint64", Const, 0},
		{"MaxUint8", Const, 0},

  -Z int
    	an int that defaults to zero
  -ZP0 value
    	a flag whose String method panics when it is zero
  -ZP1 value
    	a flag whose String method panics when it is zero
  -maxT timeout
    	set timeout for dial

panic calling String method on zero flag_test.zeroPanicker for flag ZP0: panic!
panic calling String method on zero flag_test.zeroPanicker for flag ZP1: panic!
`

		minValue = int64(float64(minValue) * r)
		maxValue = int64(float64(maxValue) * r)
	}

	_, minUnit := measurement.Scale(minValue, o.SampleUnit, "minimum")
	_, maxUnit := measurement.Scale(maxValue, o.SampleUnit, "minimum")

	unit := minUnit
	if minUnit != maxUnit && minValue*100 < maxValue && o.OutputFormat != Callgrind {
		// Minimum and maximum values have different units. Scale

          /*scale=*/bound / -llvm::minIntN(tensor_property.number_of_bits),
          /*zeroPoint=*/0, llvm::minIntN(tensor_property.number_of_bits),
          llvm::maxIntN(tensor_property.number_of_bits));
    } else {
      // int16 uses range [-32767, 32767]
      if (tensor_property.number_of_bits == 16) {
        max = std::max(std::abs(min), std::abs(max));
        min = -max;

		// Unfortunately, that's complicated to do in general (mostly for x86
		// and s930x, but other archs have non-standard instruction lengths also).
		// Opt to print 16 bytes, which covers most instructions.
		const maxN = 16
		n := uintptr(maxN)
		// We have to be careful, though. If we're near the end of
		// a page and the following page isn't mapped, we could
		// segfault. So make sure we don't straddle a page (even though