mass += area
			l, u, ok := mud.approxInvCumulativeSum()
			inv, ok2 := mud.invCumulativeSum(trackMass)

			if mass < trackMass {
				if ok {
					t.Errorf("approx(%g) = [%g, %g), but mass = %g", trackMass, l, u, mass)
				}
				if ok2 {
					t.Errorf("exact(%g) = %g, but mass = %g", trackMass, inv, mass)
				}
			} else {
				if !ok {
					t.Errorf("approx(%g) failed, but mass = %g", trackMass, mass)
				}

	fmt.Println("By name:", planets)

	By(mass).Sort(planets)
	fmt.Println("By mass:", planets)

	By(distance).Sort(planets)
	fmt.Println("By distance:", planets)

	By(decreasingDistance).Sort(planets)
	fmt.Println("By decreasing distance:", planets)

	// Output: By name: [{Earth 1 1} {Mars 0.107 1.5} {Mercury 0.055 0.4} {Venus 0.815 0.7}]
	// By mass: [{Mercury 0.055 0.4} {Mars 0.107 1.5} {Venus 0.815 0.7} {Earth 1 1}]

		}
	}
}

// setTrackMass sets the mass to track the inverse cumulative sum for.
//
// Specifically, mass is a cumulative duration, and the mutator
// utilization bounds for this duration can be queried using
// approxInvCumulativeSum.
func (d *mud) setTrackMass(mass float64) {
	d.trackMass = mass

	// Find the bucket currently containing trackMass by computing
	// the cumulative sum.
	sum := 0.0

		if q > maxQ {
			maxQ = q
		}
	}
	// The distribution's mass is in units of time (it's not
	// normalized because this would make it more annoying to
	// account for future contributions of unrefined bands). The
	// total final mass will be the duration of the trace itself
	// minus the window size. Using this, we can compute the mass
	// corresponding to quantile maxQ.
	var duration int64

	// for each binary place) but we allow the digits to grow in
	// magnitude up to 2^{w-1} so that the nonzero digits are as
	// sparse as possible.  Intuitively, this "condenses" the
	// "mass" of the scalar onto sparse coefficients (meaning
	// fewer additions).

	basepointNafTable := basepointNafTable()
	var aTable nafLookupTable5
	aTable.FromP3(A)

of uniqueness over space and time and are computationally difficult to guess. They are globally unique identifiers which can be locally generated without contacting a global registration authority. UUIDs are intended as unique identifiers for both mass tagging objects with an extremely short lifetime and to reliably identifying very persistent objects across a network.

When you PUT an object in a versioning-enabled bucket, the noncurrent version is not overwritten. The following figure shows...

	"math"
	"math/bits"
)

// Mask allows filtering by a bitset mask.
type Mask uint64

const (
	// MaskAll is the mask for all entries.
	MaskAll Mask = math.MaxUint64
)

// MaskFromMaskable extracts mask from an interface.
func MaskFromMaskable(m Maskable) Mask {
	return Mask(m.Mask())
}

// Contains returns whether *all* flags in other is present in t.
func (t Mask) Contains(other Mask) bool {
	return t&other == other

     * @return 指定されたキーと値を持つ{@link HashMap}を構築するための{@literal Maps}
     */
    public static <KEY, VALUE> Maps<KEY, VALUE> hashMap(final KEY key, final VALUE value) {
        return new Maps<>(new HashMap<KEY, VALUE>()).$(key, value);
    }

    /**
     * 指定されたキーと値を持つ{@link Hashtable}を構築するための{@literal Maps}を返します。
     *
     * @param <KEY>
     *            <code>Map</code>のキーの型
     * @param <VALUE>

// See the License for the specific language governing permissions and
// limitations under the License.

package maps

import "maps" // nolint: depguard

// Equal reports whether two maps contain the same key/value pairs.
// Values are compared using ==.
func Equal[M1, M2 ~map[K]V, K, V comparable](m1 M1, m2 M2) bool {
	return maps.Equal(m1, m2)
}

// Clone returns a copy of the map.

// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.

// Package maps defines various functions useful with maps of any type.
package maps

import (
	_ "unsafe"
)

// Equal reports whether two maps contain the same key/value pairs.
// Values are compared using ==.
func Equal[M1, M2 ~map[K]V, K, V comparable](m1 M1, m2 M2) bool {
	if len(m1) != len(m2) {