}
				if !err.Timeout() && !err.Temporary() {
					qstats.other++
				}
			default:
				qstats.failed++
				qstats.unknown++
			}
		}
	}

	// A high volume of DNS queries for sub-domain of golang.org
	// would be coordinated by authoritative or recursive server,
	// or stub resolver which implements query-response rate
	// limitation, so we can expect some query successes and more

			continue
		}
		client := client
		ng.Go(ctx, func() error {
			return client.CommitBinary(ctx)
		}, idx, *client.host)
	}
	return ng.Wait()
}

// SignalConfigReload reloads requested sub-system on a remote peer dynamically.
func (sys *NotificationSys) SignalConfigReload(subSys string) []NotificationPeerErr {
	ng := WithNPeers(len(sys.peerClients))
	for idx, client := range sys.peerClients {
		if client == nil {

	return min(n, maxNewlines)
}

func mayCombine(prev token.Token, next byte) (b bool) {
	switch prev {
	case token.INT:
		b = next == '.' // 1.
	case token.ADD:
		b = next == '+' // ++
	case token.SUB:
		b = next == '-' // --
	case token.QUO:
		b = next == '*' // /*
	case token.LSS:
		b = next == '-' || next == '<' // <- or <<
	case token.AND:
		b = next == '&' || next == '^' // && or &^
	}
	return

Burnikel and Ziegler's “Fast Recursive Division” introduced the key insight of
implementing division by an n-digit divisor using recursive calls to division
by an n/2-digit divisor, relying on Karatsuba multiplication to yield a
sub-quadratic run time. However, the presentation decisions are made almost
entirely for the purpose of simplifying the run-time analysis, rather than
simplifying the presentation. Instead of a single algorithm that loops over

		return
	}
	releaseInfo := r.Form.Get(peerRESTReleaseInfo)

	lrTime, err := releaseInfoToReleaseTime(releaseInfo)
	if err != nil {
		s.writeErrorResponse(w, err)
		return
	}

	if lrTime.Sub(currentReleaseTime) <= 0 {
		s.writeErrorResponse(w, fmt.Errorf("server is already running the latest version: %s", Version))
		return
	}

	zr, err := zstd.NewReader(r.Body)
	if err != nil {

			} else if !subPathExists {
				// Create the sub path now because if it's auto-created later when referenced, it may have an
				// incorrect ownership and mode. For example, the sub path directory must have at least g+rwx
				// when the pod specifies an fsGroup, and if the directory is not created here, Docker will

	logger := klog.FromContext(ctx)
	startTime := dsc.failedPodsBackoff.Clock.Now()

	defer func() {
		logger.V(4).Info("Finished syncing daemon set", "daemonset", key, "time", dsc.failedPodsBackoff.Clock.Now().Sub(startTime))
	}()

	namespace, name, err := cache.SplitMetaNamespaceKey(key)
	if err != nil {
		return err
	}
	ds, err := dsc.dsLister.DaemonSets(namespace).Get(name)
	if apierrors.IsNotFound(err) {

				idleClosing = int64(len(closing))
				db.maxIdleTimeClosed += idleClosing
				break
			}
		}

		if len(db.freeConn) > 0 {
			c := db.freeConn[0]
			if d2 := c.returnedAt.Sub(idleSince); d2 < d {
				// Ensure idle connections are cleaned up as soon as
				// possible.
				d = d2
			}
		}
	}

	if db.maxLifetime > 0 {
		expiredSince := nowFunc().Add(-db.maxLifetime)

			log.Fatalf("cannot parse time log line %q: %v", s, err)
		}
		timeLogStart = t
		timeLogFile = f
	}
	t := time.Now()
	fmt.Fprintf(timeLogFile, "%s %+.1fs %s %s\n", t.Format(time.UnixDate), t.Sub(timeLogStart).Seconds(), op, name)
}

// toolenv returns the environment to use when building commands in cmd.
//
// This is a function instead of a variable because the exact toolenv depends

	69,  // 186: v1alpha1.IntOrString.strVal:type_name -> google.protobuf.StringValue
	187, // [187:187] is the sub-list for method output_type
	187, // [187:187] is the sub-list for method input_type
	187, // [187:187] is the sub-list for extension type_name
	187, // [187:187] is the sub-list for extension extendee
	0,   // [0:187] is the sub-list for field type_name
}

func init() { file_pkg_apis_istio_v1alpha1_values_types_proto_init() }