}

    @Override
    double coolDownIntervalMicros() {
      return warmupPeriodMicros / maxPermits;
    }
  }

  /**
   * This implements a "bursty" RateLimiter, where storedPermits are translated to zero throttling.
   * The maximum number of permits that can be saved (when the RateLimiter is unused) is defined in

    }

    @Override
    double coolDownIntervalMicros() {
      return warmupPeriodMicros / maxPermits;
    }
  }

  /**
   * This implements a "bursty" RateLimiter, where storedPermits are translated to zero throttling.
   * The maximum number of permits that can be saved (when the RateLimiter is unused) is defined in

	fs.Int32Var(&c.RegistryBurst, "registry-burst", c.RegistryBurst, "Maximum size of a bursty pulls, temporarily allows pulls to burst to this number, while still not exceeding registry-qps. Only used if --registry-qps > 0")
	fs.Int32Var(&c.EventRecordQPS, "event-qps", c.EventRecordQPS, "QPS to limit event creations. The number must be >= 0. If 0 will use DefaultQPS: 5.")

	// registryBurst is the maximum size of bursty pulls, temporarily allows
	// pulls to burst to this number, while still not exceeding registryPullQPS.
	// Only used if registryPullQPS > 0.
	RegistryBurst int32
	// eventRecordQPS is the maximum event creations per second. If 0, there
	// is no limit enforced.
	EventRecordQPS int32
	// eventBurst is the maximum size of a burst of event creations, temporarily

// take them internally.
//
// Runs of the function will have at least minInterval between them (from
// completion to next start), except that up to bursts may be allowed.  Burst
// runs are "accumulated" over time, one per minInterval up to burstRuns total.
// This can be used, for example, to mitigate the impact of expensive operations

      int oneSecWorthOfWork = rate;
      stopwatch.sleepMillis(rate * 1000);
      limiter.setRate(rate);
      long burst = measureTotalTimeMillis(limiter, oneSecWorthOfWork, new Random());
      // we allow one second worth of work to go in a burst (i.e. take less than a second)
      assertTrue(burst <= 1000);
      long afterBurst = measureTotalTimeMillis(limiter, oneSecWorthOfWork, new Random());

      int oneSecWorthOfWork = rate;
      stopwatch.sleepMillis(rate * 1000);
      limiter.setRate(rate);
      long burst = measureTotalTimeMillis(limiter, oneSecWorthOfWork, new Random());
      // we allow one second worth of work to go in a burst (i.e. take less than a second)
      assertTrue(burst <= 1000);
      long afterBurst = measureTotalTimeMillis(limiter, oneSecWorthOfWork, new Random());

		config: eventratelimitapi.Configuration{
			Limits: []eventratelimitapi.Limit{{
				Type:  "Server",
				Burst: 5,
				QPS:   1,
			}, {
				Type:      "Namespace",
				Burst:     10,
				QPS:       2,
				CacheSize: 100,
			}, {
				Type:      "SourceAndObject",
				Burst:     25,
				QPS:       10,
				CacheSize: 1000,
			}},
		},
		expectedResult: true,
	}, {

	// type of limit. The qps and burst fields are used together to determine if
	// a particular event query is accepted. The qps determines how many queries
	// are accepted once the burst amount of queries has been exhausted.
	QPS int32 `json:"qps"`

	// burst is the burst number of event queries that are allowed for this type
	// of limit. The qps and burst fields are used together to determine if a

// If config's RateLimiter is not set and QPS and Burst are acceptable,
// NewForConfigAndClient will generate a rate-limiter in configShallowCopy.
func NewForConfigAndClient(c *rest.Config, httpClient *http.Client) (*Clientset, error) {
	configShallowCopy := *c
	if configShallowCopy.RateLimiter == nil && configShallowCopy.QPS > 0 {
		if configShallowCopy.Burst <= 0 {