const float max_value,
                                      const float bin_width) {
  const float lower_bound = CalculateLowerBound(min_value, bin_width);
  return std::ceil((max_value - lower_bound) / bin_width);
}

TEST(CalibrationParametersTest, CalculateBinWidthSmallerThanOne) {
  float bin_width = CalculateBinWidth(/*min_value=*/0.0, /*max_value=*/25.0,

     */
    public static String encode(byte[] bytes) {
        int length = bytes.length;
        if (length == 0) return "";
        StringBuffer buffer =
                new StringBuffer((int) Math.ceil((double) length / 3d) * 4);
        int remainder = length % 3;
        length -= remainder;
        int block;
        int i = 0;
        while (i < length) {

	}
	value, isPercent, err := getIntOrPercentValueSafely(intOrPercent)
	if err != nil {
		return 0, fmt.Errorf("invalid value for IntOrString: %v", err)
	}
	if isPercent {
		if roundUp {
			value = int(math.Ceil(float64(value) * (float64(total)) / 100))
		} else {
			value = int(math.Floor(float64(value) * (float64(total)) / 100))
		}
	}
	return value, nil
}

// GetValueFromIntOrPercent was deprecated in favor of

	}

	configuredPartSize := minPartSize
	// Use floats for part size for all calculations to avoid
	// overflows during float64 to int64 conversions.
	partSizeFlt := float64(objectSize / maxPartsCount)
	partSizeFlt = math.Ceil(partSizeFlt/float64(configuredPartSize)) * float64(configuredPartSize)

	// Part size.
	partSize = int64(partSizeFlt)
	if partSize == 0 {
		return minPartSize, nil
	}
	return partSize, nil
}

      CalculateBinWidth(min, max, histogram.size());
  const float collected_lower_bound =
      CalculateLowerBound(min, collected_bin_width);
  const float collected_upper_bound =
      std::ceil(max / collected_bin_width) * collected_bin_width;

  // When histogram is not initialized.
  if (hist_freq_.empty()) {
    bin_width_ = collected_bin_width;
    lower_bound_ = collected_lower_bound;
  }

	// Output: 0.00
}

func ExampleSqrt() {
	const (
		a = 3
		b = 4
	)
	c := math.Sqrt(a*a + b*b)
	fmt.Printf("%.1f", c)
	// Output: 5.0
}

func ExampleCeil() {
	c := math.Ceil(1.49)
	fmt.Printf("%.1f", c)
	// Output: 2.0
}

func ExampleFloor() {
	c := math.Floor(1.51)
	fmt.Printf("%.1f", c)
	// Output: 1.0
}

func ExamplePow() {
	c := math.Pow(2, 3)

}

// numDesiredSlices calculates the number of EndpointSlices that would exist
// with ideal endpoint distribution.
func numDesiredSlices(numEndpoints, maxPerSlice int) int {
	return int(math.Ceil(float64(numEndpoints) / float64(maxPerSlice)))

// to a hand of the given size.  The result is meaningful only if
// 1 <= handSize <= deckSize <= 1<<26.
func RequiredEntropyBits(deckSize, handSize int) int {
	return int(math.Ceil(math.Log2(float64(deckSize)) * float64(handSize)))
}

// Dealer contains some necessary parameters and provides some methods for shuffle sharding.
// Dealer is thread-safe.
type Dealer struct {
	deckSize int

		}
	}
}

func TestCeil(t *testing.T) {
	for i := 0; i < len(vf); i++ {
		if f := Ceil(vf[i]); !alike(ceil[i], f) {
			t.Errorf("Ceil(%g) = %g, want %g", vf[i], f, ceil[i])
		}
	}
	for i := 0; i < len(vfceilSC); i++ {
		if f := Ceil(vfceilSC[i]); !alike(ceilSC[i], f) {
			t.Errorf("Ceil(%g) = %g, want %g", vfceilSC[i], f, ceilSC[i])
		}
	}
}

func TestCopysign(t *testing.T) {

		//   events are equal and try to estimate the cost of a single event based on
		//   some historical data about size of events.
		finalSeats = uint64(math.Ceil(float64(watchCount) / e.config.WatchesPerSeat))
		finalWork := SeatsTimesDuration(float64(finalSeats), e.config.eventAdditionalDuration())

		// While processing individual events is highly parallel,