// Raising this number slows the worst-case contains behavior, speeds up hashFloodingDetected,
    // and reduces the false-positive probability.
    static final int MAX_RUN_MULTIPLIER = 13;

    /**
     * Checks the whole hash table for poor hash distribution. Takes O(n) in the worst case, O(n /
     * log n) on average.
     *

			c1.SetWriteDeadline(aLongTimeAgo)
		}()
		go func() {
			defer wg.Done()
			c1.LocalAddr()
		}()
		go func() {
			defer wg.Done()
			c1.RemoteAddr()
		}()
	}
	wg.Wait() // At worst, the deadline is set 10ms into the future

	resyncConn(t, c1)
	testRoundtrip(t, c1)
}

// checkForTimeoutError checks that the error satisfies the Error interface
// and that Timeout returns true.

		// Given that client is closed on shutdown we hold the lock for
		// the entire period of healthcheck call to ensure that client will
		// not be closed during healthcheck.
		// Given that healthchecks has a 2s timeout, worst case of blocking
		// shutdown for additional 2s seems acceptable.
		lock.RLock()
		defer lock.RUnlock()

		if clientErr != nil {
			return clientErr
		}
		if limiter.Allow() == false {

	// performed the write barrier but before we perform the
	// memory copy. This safe because the write performed by that
	// other goroutine must also be accompanied by a write
	// barrier, so at worst we've unnecessarily greyed the old
	// pointer that was in src.
	memmove(dst, src, typ.Size_)
	if goexperiment.CgoCheck2 {
		cgoCheckMemmove2(typ, dst, src, 0, typ.Size_)
	}
}

		c1.OnDisconnect(p1conn1)
		// stop processing the delayed close queue in c1, forces using periodic cleanup
		close(stop1)
		stopped1 = true
		// unfortunately, this retry at worst could be twice as long as the sweep interval
		retry.UntilSuccessOrFail(t, func() error {
			return checkNoEntry(store, wgA, p)
		}, retry.Timeout(time.Until(time.Now().Add(21*features.WorkloadEntryCleanupGracePeriod))))
	})

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

// This file implements conversion from old (Go 1.11–Go 1.21) traces to the Go
// 1.22 format.
//
// Most events have direct equivalents in 1.22, at worst requiring arguments to
// be reordered. Some events, such as GoWaiting need to look ahead for follow-up
// events to determine the correct translation. GoSyscall, which is an
// instantaneous event, gets turned into a 1 ns long pair of

kubectl=kubectl
linux_deployment_timeout=60
windows_deployment_timeout=600
output_file=/tmp/k8s-smoke-test.out

function check_windows_nodes_are_ready {
  # kubectl filtering is the worst.
  statuses=$(${kubectl} get nodes -l kubernetes.io/os=windows \
    -o jsonpath='{.items[*].status.conditions[?(@.type=="Ready")].status}')
  for status in $statuses; do
    if [[ $status == "False" ]]; then

	// and the DEK/seed generation logic behave.  In particular, the positive
	// interval and max TTL are closely related as the difference between
	// these values defines the worst case window in which the write DEK/seed
	// could expire due to the plugin going into an error state.  The
	// worst case window divided by the negative interval defines the
	// minimum amount of times the server will attempt to return to a

		// It's possible that we're missing time because we crossed a
		// 2^(64-limiterEventBits) boundary between the start and end.
		// In this case, we're dropping that information. This is OK because
		// at worst it'll cause a transient hiccup that will quickly resolve
		// itself as all new timestamps begin on the other side of the boundary.
		// Such a hiccup should be incredibly rare.
		return
	}
	// Account for the event.

   *       simply switch over to use the JDK implementation wholesale if probable hash flooding is
   *       detected, sacrificing the compactness guarantee in very rare cases in exchange for much
   *       more reliable worst-case behavior.
   *   <li>null, if no entries have yet been added to the map
   * </ul>
   */
  @CheckForNull private transient Object table;

  /**