// implement [encoding.TextUnmarshaler].
//
// If the JSON-encoded data contain a syntax error, Unmarshal returns a [SyntaxError].
//
// If a JSON value is not appropriate for a given target type,
// or if a JSON number overflows the target type, Unmarshal
// skips that field and completes the unmarshaling as best it can.
// If no more serious errors are encountered, Unmarshal returns
// an [UnmarshalTypeError] describing the earliest such error. In any

	// TruncatedFloat occurs when a float constant is truncated to an integer
	// value.
	//
	// Example:
	//  var _ int = 98.6
	TruncatedFloat

	// NumericOverflow occurs when a numeric constant overflows its target type.
	//
	// Example:
	//  var x int8 = 1000
	NumericOverflow

	// UndefinedOp occurs when an operator is not defined for the type(s) used
	// in an operation.
	//
	// Example:

func (p *Parser) positiveAtoi(str string) int64 {
	value, err := strconv.ParseInt(str, 0, 64)
	if err != nil {
		p.errorf("%s", err)
	}
	if value < 0 {
		p.errorf("%s overflows int64", str)
	}
	return value
}

func (p *Parser) atoi(str string) uint64 {
	value, err := strconv.ParseUint(str, 0, 64)
	if err != nil {
		p.errorf("%s", err)
	}
	return value
}

	}
}

// Issue #40430: Test that if maxMemory for ParseMultipartForm when combined with
// the payload size and the internal leeway buffer size of 10MiB overflows, that we
// correctly return an error.
func TestMaxInt64ForMultipartFormMaxMemoryOverflow(t *testing.T) {
	run(t, testMaxInt64ForMultipartFormMaxMemoryOverflow)
}

	Inf(+1),
	Inf(-1),
	0,
	NaN(),
	NaN(),
	NaN(),
}

var vfexpSC = []float64{
	Inf(-1),
	-2000,
	2000,
	Inf(1),
	NaN(),
	// smallest float64 that overflows Exp(x)
	7.097827128933841e+02,
	// Issue 18912
	1.48852223e+09,
	1.4885222e+09,
	1,
	// near zero
	3.725290298461915e-09,
	// denormal
	-740,
}
var expSC = []float64{
	0,

				//
				// This is always correct, even in case of overflow.
				//
				// If the initial fact is x+delta >= w instead, the derived conditions are:
				//    if min<max: min <= x AND x <= max
				//    if min>max: min <= x OR  x <= max
				//
				// Notice the conditions for max are still <=, as they handle overflows.
				var min, max int64
				var vmin, vmax *Value
				switch x.Type.Size() {

		r = -r
		if lessThanHalf(r, m) {
			return d + r
		}
		if d1 := d - m + r; d1 < d {
			return d1
		}
		return minDuration // overflow
	}
	if lessThanHalf(r, m) {
		return d - r
	}
	if d1 := d + m - r; d1 > d {
		return d1
	}
	return maxDuration // overflow
}

// Abs returns the absolute value of d.
// As a special case, [math.MinInt64] is converted to [math.MaxInt64].

		return Trace{}, errors.New("no EvFrequency event")
	}

	if events.Len() > 0 {
		// Translate cpu ticks to real time.
		minTs := events.Ptr(0).Ts
		// Use floating point to avoid integer overflows.
		freq := 1e9 / float64(p.ticksPerSec)
		for i := 0; i < events.Len(); i++ {
			ev := events.Ptr(i)
			ev.Ts = Timestamp(float64(ev.Ts-minTs) * freq)
			// Move timers and syscalls to separate fake Ps.

  }

  /**
   * Any object can be the result of a Future, and not every object has a reasonable toString()
   * implementation. Using a reconstruction of the default Object.toString() prevents OOMs and stack
   * overflows, and helps avoid sensitive data inadvertently ending up in exception messages.
   */
  private void appendResultObject(StringBuilder builder, @CheckForNull Object o) {
    if (o == null) {
      builder.append("null");

  }

  /**
   * Any object can be the result of a Future, and not every object has a reasonable toString()
   * implementation. Using a reconstruction of the default Object.toString() prevents OOMs and stack
   * overflows, and helps avoid sensitive data inadvertently ending up in exception messages.
   */
  private void appendResultObject(StringBuilder builder, @CheckForNull Object o) {
    if (o == null) {
      builder.append("null");