ctx, cancel := context.WithTimeout(ctx, ds.Timeouts.RefreshCall)
			defer cancel()

			refreshed, err := c.Refresh(ctx, args)
			if err != nil {
				ch <- refreshResult{offline: true}
				log("dsync: Unable to call Refresh failed with %s for %#v at %s\n", err, args, c)
			} else {
				ch <- refreshResult{refreshed: refreshed}
				log("dsync: Refresh returned false for %#v at %s\n", args, c)
			}
		}(index, c)
	}

    }

    boolean isBuildFailed() {
        return teamCityExecutions.every { it.isBuildFailed() } && currentExecutions.empty
    }

    boolean isRegressed() {
        return teamCityExecutions.every { it.isBuildFailed() } && !currentExecutions.empty
    }

    boolean isSuccessful() {
        return teamCityExecutions.every { it.isSuccessful() }
    }

	"k8s.io/utils/clock"
)

const (
	refreshPerSecond = 50 * time.Millisecond
	maxBudget        = 100 * time.Millisecond
)

// timeBudget implements a budget of time that you can use and is
// periodically being refreshed. The pattern to use it is:
//
//	budget := newTimeBudget(...)
//	...
//	timeout := budget.takeAvailable()
//	// Now you can spend at most timeout on doing stuff
//	...

        if (progressedSize < 0L) {
            throw new IllegalArgumentException("progressed file size cannot be negative: " + size);
        }
        if (size >= 0 && progressedSize > size) {
            throw new IllegalArgumentException(
                    "progressed file size cannot be greater than size: " + progressedSize + " > " + size);
        }

			// was successfully deployed. If the condition already exists, we ignore this update.
			msg := fmt.Sprintf("Deployment %q has successfully progressed.", d.Name)
			if newRS != nil {
				msg = fmt.Sprintf("ReplicaSet %q has successfully progressed.", newRS.Name)
			}
			condition := util.NewDeploymentCondition(apps.DeploymentProgressing, v1.ConditionTrue, util.NewRSAvailableReason, msg)

        executionDataProvider.getReportScenarios()
            .forEach(scenario -> {
                if (scenario.isBuildFailed()) {
                    failureCollector.scenarioFailed();
                } else if (scenario.isRegressed()) {
                    Set<PerformanceFlakinessDataProvider.ScenarioRegressionResult> regressionResults = scenario.getCurrentExecutions().stream()

			Name:           "legacy_tokens_total",
			Help:           "Cumulative legacy service account tokens used",
			StabilityLevel: metrics.ALPHA,
		},
	)

	// StaleTokensTotal is the number of stale projected tokens not refreshed on
	// client side.
	staleTokensTotal = metrics.NewCounter(
		&metrics.CounterOpts{
			Subsystem:      kubeServiceAccountSubsystem,
			Name:           "stale_tokens_total",

	lockNotFound bool

	// Set to true if you want peers servers to do not respond
	responseDelay int64
}

func (l *lockServer) setRefreshReply(refreshed bool) {
	l.mutex.Lock()
	defer l.mutex.Unlock()
	l.lockNotFound = !refreshed
}

func (l *lockServer) setResponseDelay(responseDelay time.Duration) {
	atomic.StoreInt64(&l.responseDelay, int64(responseDelay))
}

/// Regression API constants.

/// Regression inputs.
static constexpr char kRegressInputs[] = "inputs";

/// Regression method name used in a SignatureDef.
static constexpr char kRegressMethodName[] = "tensorflow/serving/regress";

/// Regression outputs.
static constexpr char kRegressOutputs[] = "outputs";

////////////////////////////////////////////////////////////////////////////////

}  // namespace tensorflow

type runtimeCache struct {
	sync.Mutex
	// The underlying container runtime used to update the cache.
	getter podsGetter
	// The interval after which the cache should be refreshed.
	cachePeriod time.Duration
	// Last time when cache was updated.
	cacheTime time.Time
	// The content of the cache.
	pods []*Pod
}

// GetPods returns the cached pods if they are not outdated; otherwise, it