amount.SetUnscaledBig(ub.Mul(ub, numericSuffix))
	}

	// Cap at min/max bounds.
	sign := amount.Sign()
	if sign == -1 {
		amount.Neg(amount)
	}

	// This rounds non-zero values up to the minimum representable value, under the theory that
	// if you want some resources, you should get some resources, even if you asked for way too small
	// of an amount.  Arguably, this should be inf.RoundHalfUp (normal rounding), but that would have

// So we'd prefer instead to print a calendar for 2001-2400 and reuse it
// for 2401-2800.
//
// Finally, it's convenient if the delta between the Unix epoch and
// long-ago epoch is representable by an int64 constant.
//
// These three considerations—choose an epoch as early as possible, that
// uses a year equal to 1 mod 400, and that is no more than 2⁶³ seconds

		return bad("no core type")
	case *Basic:
		if isString(typ) {
			return Typ[Int], universeRune, "", false, true // use 'rune' name
		}
		if isInteger(typ) {
			// untyped numeric constants may be representable as integer values
			if allowVersion != nil && !allowVersion(go1_22) {
				return bad("requires go1.22 or later")
			}
			return orig, nil, "", false, true
		}
	case *Array:

	fail32("neg", neg32_ssa, c, d, -7)

	// denorm-squared should underflow to zero.
	fail32("*", mul32_ssa, tiny, tiny, 0)

	// but should not underflow in float and in fact is exactly representable.
	fail64("*", mul64_ssa, dtiny, dtiny, 1.9636373861190906e-90)

	// Intended to create register pressure which forces
	// asymmetric op into different code paths.

		}
	}

	return n
}

// indexlit implements typechecking of untyped values as
// array/slice indexes. It is almost equivalent to DefaultLit
// but also accepts untyped numeric values representable as
// value of type int (see also checkmake for comparison).
// The result of indexlit MUST be assigned back to n, e.g.
//
//	n.Left = indexlit(n.Left)
func indexlit(n ir.Node) ir.Node {

   * charset} parameter will be present on the new instance regardless of the number set on this
   * one.
   *
   * <p>If a charset must be specified that is not supported on this JVM (and thus is not
   * representable as a {@link Charset} instance), use {@link #withParameter}.
   */
  public MediaType withCharset(Charset charset) {
    checkNotNull(charset);
    MediaType withCharset = withParameter(CHARSET_ATTRIBUTE, charset.name());

   * charset} parameter will be present on the new instance regardless of the number set on this
   * one.
   *
   * <p>If a charset must be specified that is not supported on this JVM (and thus is not
   * representable as a {@link Charset} instance), use {@link #withParameter}.
   */
  public MediaType withCharset(Charset charset) {
    checkNotNull(charset);
    MediaType withCharset = withParameter(CHARSET_ATTRIBUTE, charset.name());

		}
	}
}

func TestScanOverflow(t *testing.T) {
	// different machines and different types report errors with different strings.
	re := regexp.MustCompile("overflow|too large|out of range|not representable")
	for _, test := range overflowTests {
		_, err := Sscan(test.text, test.in)
		if err == nil {
			t.Errorf("expected overflow scanning %q", test.text)
			continue
		}
		if !re.MatchString(err.Error()) {

	// See issue 36399 and 36400.
	// Encodings of +inf, -inf, and -0 are fine.
	{name: "Const32F", aux: "Float32"}, // value is math.Float64frombits(uint64(auxint)) and is exactly representable as float 32
	{name: "Const64F", aux: "Float64"}, // value is math.Float64frombits(uint64(auxint))
	{name: "ConstInterface"},           // nil interface
	{name: "ConstSlice"},               // nil slice

// number, and returns it. It's a helper function for float32 and complex64.
// It returns a float64 because that's what reflection needs, but its return
// value is known to be accurately representable in a float32.
func float32FromBits(u uint64, ovfl error) float64 {
	v := float64FromBits(u)
	av := v
	if av < 0 {
		av = -av
	}
	// +Inf is OK in both 32- and 64-bit floats. Underflow is always OK.