}

// find finds obj within type T, returning the path to it, or nil if not found.
//
// The seen map is used to short circuit cycles through type parameters. If
// nil, it will be allocated as necessary.
func find(obj types.Object, T types.Type, path []byte, seen map[*types.TypeName]bool) []byte {
	switch T := T.(type) {
	case *aliases.Alias:

		serviceAccounts: nil,
		serviceTargets:  cb.serviceTargets,
		istioMtlsSni:    "",
		clusterMode:     DefaultClusterMode,
		direction:       model.TrafficDirectionInbound,
	}
	// When users specify circuit breakers, they need to be set on the receiver end
	// (server side) as well as client side, so that the server has enough capacity
	// (not the defaults) to handle the increased traffic volume

	// the stack and we have return PCs anyway.
	frames := runtime.CallersFrames([]uintptr{addr})
	frame, more := frames.Next()
	if frame.Function == "runtime.goexit" {
		// Short-circuit if we see runtime.goexit so the loop
		// below doesn't allocate a useless empty location.
		return nil, 0
	}

	symbolizeResult := lookupTried

// their expansion. Via the pidgeonhole principle, this guarantees that in the
// presence of a cycle of named types, expansion will eventually find an
// existing instance in the Context and short-circuit the expansion.
//
// Once an instance is complete, we can nil out this shared Context to unpin
// memory, though this Context may still be held by other incomplete instances
// in its "lineage".

// We will resolve www.google.com.ns1.svc.cluster.local with a CNAME record pointing to www.google.com.
// which will cause the client's resolver to automatically resolve www.google.com. , and short circuit the lengthy
// search process down to just two DNS queries. This will eliminate unnecessary upstream DNS queries from the
// agent, reduce load on DNS servers and improve overall latency. This idea was borrowed and adapted from

	l := strings.Split(name, "_")
	if n := len(l); n > 0 && l[n-1] == "test" {
		l = l[:n-1]
	}
	n := len(l)
	if n >= 2 && knownOS[l[n-2]] && knownArch[l[n-1]] {
		if allTags != nil {
			// In case we short-circuit on l[n-1].
			allTags[l[n-2]] = true
		}
		return ctxt.matchTag(l[n-1], allTags) && ctxt.matchTag(l[n-2], allTags)
	}
	if n >= 1 && (knownOS[l[n-1]] || knownArch[l[n-1]]) {
		return ctxt.matchTag(l[n-1], allTags)

// their expansion. Via the pidgeonhole principle, this guarantees that in the
// presence of a cycle of named types, expansion will eventually find an
// existing instance in the Context and short-circuit the expansion.
//
// Once an instance is complete, we can nil out this shared Context to unpin
// memory, though this Context may still be held by other incomplete instances
// in its "lineage".

	{"or", "{{or 0 0}} {{or 1 0}} {{or 0 true}} {{or 1 1}}", "0 1 true 1", nil, true},
	{"or short-circuit", "{{or 0 1 (die)}}", "1", nil, true},
	{"and short-circuit", "{{and 1 0 (die)}}", "0", nil, true},
	{"or short-circuit2", "{{or 0 0 (die)}}", "", nil, false},
	{"and short-circuit2", "{{and 1 1 (die)}}", "", nil, false},
	{"and pipe-true", "{{1 | and 1}}", "1", nil, true},

		return &status, err
	}

	updateStatus(&status, set.Spec.MinReadySeconds, currentRevision, updateRevision, replicas, condemned)

	// for the OnDelete strategy we short circuit. Pods will be updated when they are manually deleted.
	if set.Spec.UpdateStrategy.Type == apps.OnDeleteStatefulSetStrategyType {
		return &status, nil
	}

	}
	if len(tags.List) == 0 {
		return false, nil
	}

	// NOTE: r.stat is very careful not to fetch commits that we shouldn't know
	// about, like rejected GitHub pull requests, so don't try to short-circuit
	// that here.
	if _, err = r.stat(ctx, rev); err != nil {
		return false, err
	}

	// Now fetch history so that git can search for a path.
	unlock, err := r.mu.Lock()
	if err != nil {