j.Type = strategyTypes[c.Rand.Intn(len(strategyTypes))]
			if j.Type != apps.RollingUpdateDeploymentStrategyType {
				j.RollingUpdate = nil
			} else {
				rollingUpdate := apps.RollingUpdateDeployment{}
				if c.RandBool() {
					rollingUpdate.MaxUnavailable = intstr.FromInt32(c.Rand.Int31())
					rollingUpdate.MaxSurge = intstr.FromInt32(c.Rand.Int31())
				} else {

// license that can be found in the LICENSE file.

// Test integer division by constants.

package main

import "math/rand"

const Count = 1e5

func i64rand() int64 {
	for {
		a := int64(rand.Uint32())
		a = (a << 32) | int64(rand.Uint32())
		a >>= uint(rand.Intn(64))
		if -a != a {
			return a
		}
	}
	return 0 // impossible
}

func i64test(a, b, c int64) {
	d := a / c

	// uniformly at random from the interval [T, T+fuzz]; the upper
	// bound is exclusive iff fuzz is non-zero.
	fuzz time.Duration

	// rand is the random number generator to use in fuzzing
	rand *rand.Rand
}

var _ eventclock.Interface = &Fake{}

type eventWaiterHeap []eventWaiter

var _ heap.Interface = (*eventWaiterHeap)(nil)

type eventWaiter struct {

// license that can be found in the LICENSE file.

package rand_test

import (
	"bytes"
	"crypto/rand"
	"fmt"
)

// This example reads 10 cryptographically secure pseudorandom numbers from
// rand.Reader and writes them to a byte slice.
func ExampleRead() {
	c := 10
	b := make([]byte, c)
	_, err := rand.Read(b)
	if err != nil {
		fmt.Println("error:", err)
		return
	}

package ecdsa_test

import (
	"crypto/ecdsa"
	"crypto/elliptic"
	"crypto/rand"
	"crypto/sha256"
	"fmt"
)

func Example() {
	privateKey, err := ecdsa.GenerateKey(elliptic.P256(), rand.Reader)
	if err != nil {
		panic(err)
	}

	msg := "hello, world"
	hash := sha256.Sum256([]byte(msg))

	sig, err := ecdsa.SignASN1(rand.Reader, privateKey, hash[:])
	if err != nil {
		panic(err)
	}

// This file implements a GCD benchmark.
// Usage: go test math/big -test.bench GCD

package big

import (
	"math/rand"
	"testing"
)

// randInt returns a pseudo-random Int in the range [1<<(size-1), (1<<size) - 1]
func randInt(r *rand.Rand, size uint) *Int {
	n := new(Int).Lsh(intOne, size-1)
	x := new(Int).Rand(r, n)
	return x.Add(x, n) // make sure result > 1<<(size-1)
}

func runGCD(b *testing.B, aSize, bSize uint) {

{{ define "header" }}
<header>
    <nav class="navbar navbar-expand-xs navbar-dark fixed-top bg-dark justify-content-between">
        <a class="navbar-brand" href="/">
            <span class="logo">
                <svg viewBox="0 0 300 300">
                    <circle cx="150" cy="150" r="150" stroke-width="2" />
                    <polygon points="65,240 225,240 125,270"/>
                    <polygon points="65,230 125,220 125,110"/>

		return generateNISTEC(p224(), rand)
	case elliptic.P256().Params():
		return generateNISTEC(p256(), rand)
	case elliptic.P384().Params():
		return generateNISTEC(p384(), rand)
	case elliptic.P521().Params():
		return generateNISTEC(p521(), rand)
	default:
		return generateLegacy(c, rand)
	}
}

func generateNISTEC[Point nistPoint[Point]](c *nistCurve[Point], rand io.Reader) (*PrivateKey, error) {

data/huffman-pi.wb.expect-noinput", "src/compress/flate/testdata/huffman-rand-1k.dyn.expect", "src/compress/flate/testdata/huffman-rand-1k.dyn.expect-noinput", "src/compress/flate/testdata/huffman-rand-1k.golden", "src/compress/flate/testdata/huffman-rand-1k.in", "src/compress/flate/testdata/huffman-rand-1k.wb.expect", "src/compress/flate/testdata/huffman-rand-1k.wb.expect-noinput", "src/compress/flate/testdata/huffman-rand-limit.dyn.expect", "src/compress/flate/testdata/huffman-rand-limit.dyn.expect-noinput",...

	}

	b.ResetTimer()

	b.SetParallelism(256)
	b.RunParallel(func(pb *testing.PB) {
		rand := rand.New(rand.NewSource(rand.Int63()))
		for pb.Next() {
			i := rand.Int31()
			key := keys[i%numKeys]
			_, ok := cache.Get(key)
			if ok {
				// compare lower bits of sampled i to decide whether we should evict.
				if rand.Float64() < prob {
					cache.Delete(key)
				}
			} else {