var creationsSucceeded, creationsFailed int32 = 0, 0

		// Batch the pod creates. Batch sizes start at SlowStartInitialBatchSize
		// and double with each successful iteration in a kind of "slow start".
		// This handles attempts to start large numbers of pods that would
		// likely all fail with the same error. For example a project with a

        assertTaskReadyAndNoMoreToStart(finalizer)
        assertAllWorkComplete()
    }

    def "finalizer of multiple tasks and its dependencies run after the last task to be finalized when some do not start"() {
        given:
        Task finalizerDep = task("finalizerDep", type: Async)
        Task finalizer = task("finalizer", type: Async, dependsOn: [finalizerDep])

	// we need to keep track of whether it was set at the *start* of the sync.
	tryPartialSync := !proxier.needFullSync

	// Keep track of how long syncs take.
	start := time.Now()
	defer func() {
		metrics.SyncProxyRulesLatency.Observe(metrics.SinceInSeconds(start))
		if tryPartialSync {
			metrics.SyncPartialProxyRulesLatency.Observe(metrics.SinceInSeconds(start))
		} else {

	CS5                               = 0x0
	CS6                               = 0x100
	CS7                               = 0x200
	CS8                               = 0x300
	CSIZE                             = 0x300
	CSTART                            = 0x11
	CSTATUS                           = 0x14
	CSTOP                             = 0x13
	CSTOPB                            = 0x400
	CSUSP                             = 0x1a

}

func startKubelet(k kubelet.Bootstrap, podCfg *config.PodConfig, kubeCfg *kubeletconfiginternal.KubeletConfiguration, kubeDeps *kubelet.Dependencies, enableServer bool) {
	// start the kubelet
	go k.Run(podCfg.Updates())

	// start the kubelet server
	if enableServer {
		go k.ListenAndServe(kubeCfg, kubeDeps.TLSOptions, kubeDeps.Auth, kubeDeps.TracerProvider)
	}
	if kubeCfg.ReadOnlyPort > 0 {

				},
			},
			errs: field.ErrorList{
				field.Invalid(specPath.Child("signerName"), "", `validating label "": a lowercase RFC 1123 subdomain must consist of lower case alphanumeric characters, '-' or '.', and must start and end with an alphanumeric character (e.g. 'example.com', regex used for validation is '[a-z0-9]([-a-z0-9]*[a-z0-9])?(\.[a-z0-9]([-a-z0-9]*[a-z0-9])?)*')`),
			},
		},
		"signerName path component ends with a symbol": {

		return
	}

	// Increment mp.locks when allocating. We are called within gcStart,
	// and thus must not trigger another gcStart via an allocation. gcStart
	// bails when allocating with locks held, so simulate that for these
	// allocations.
	//
	// TODO(prattmic): cleanup gcStart to use a more explicit "in gcStart"
	// check for bailing.
	mp := acquirem()
	ready := make(chan struct{}, 1)
	releasem(mp)

              conf 'start:start:1.0'
            }
        '''

        and:
        "align the 'org' group only"()

        when:
        expectAlignment {
            module('start') group('start') alignsTo('1.0')
            module('foo') tries('1.0') alignsTo('1.1') byVirtualPlatform()
            module('bar') tries('1.0') alignsTo('1.1') byVirtualPlatform()
        }

	"regexp"
	"runtime"
	"strconv"
	"strings"
	"testing"
	"testing/fstest"
	"time"
)

const (
	testFile    = "testdata/file"
	testFileLen = 11
)

type wantRange struct {
	start, end int64 // range [start,end)
}

var ServeFileRangeTests = []struct {
	r      string
	code   int
	ranges []wantRange
}{
	{r: "", code: StatusOK},
	{r: "bytes=0-4", code: StatusPartialContent, ranges: []wantRange{{0, 5}}},

	CS5                               = 0x0
	CS6                               = 0x100
	CS7                               = 0x200
	CS8                               = 0x300
	CSIZE                             = 0x300
	CSTART                            = 0x11
	CSTATUS                           = 0x14
	CSTOP                             = 0x13
	CSTOPB                            = 0x400
	CSUSP                             = 0x1a