//
// There are three ways a method of a reachable type can be invoked:
//
//  1. direct call
//  2. through a reachable interface type
//  3. reflect.Value.Method (or MethodByName), or reflect.Type.Method
//     (or MethodByName)
//
// The first case is handled by the flood fill, a directly called method
// is marked as reachable.
//
// The second case is handled by decomposing all reachable interface

weakly-pointed-to object becomes eligible for reclamation by the garbage
collector.
More specifically, weak pointers become nil as soon as the garbage collector
identifies that the object is unreachable, before it is made reachable
again by a finalizer.
In terms of the C# language, these semantics are roughly equivalent to the
the semantics of "short" weak references.

	}
	// Force stack movement, unless the stack is already poisoned.
	if gp.stackguard0 < stackPoisonMin {
		gp.stackguard0 = stackForceMove
	}
}

// debugPinnerKeepUnpin is used to make runtime.(*Pinner).Unpin reachable.
var debugPinnerKeepUnpin bool = false

// debugPinnerV1 returns a new Pinner that pins itself. This function can be
// used by debuggers to easily obtain a Pinner that will not be garbage

		t.Fatalf("error to get the server 2 port: %v", err)
	}

	// Server 1 should be reachable, since it is not closed.
	if !isTCPReachable(host, port1) {
		t.Fatal("server 1 is unreachable")
	}

	// After closing server 2, server 2 should not be reachable
	server2.httpServer.Close()
	if isTCPReachable(host, port2) {
		t.Fatal("server 2 is reachable")
	}
}

func TestSubmitCSR(t *testing.T) {

//
// A finalizer may run as soon as an object becomes unreachable.
// In order to use finalizers correctly, the program must ensure that
// the object is reachable until it is no longer required.
// Objects stored in global variables, or that can be found by tracing
// pointers from a global variable, are reachable. A function argument or
// receiver may become unreachable at the last point where the function

	}).GetMatches(to)
}

// ReachableDestinations filters out known-unreachable destinations given a source.
// - from a naked pod, we can't reach cross-network endpoints or VMs
// - we can't reach cross-cluster headless endpoints
// - from an injected Pod, only non-naked cross-network endpoints are reachable
var ReachableDestinations CombinationFilter = func(from echo.Instance, to echo.Instances) echo.Instances {

			// Check if the endpoint is directly reachable. It's considered directly reachable if
			// the endpoint is either on the local network or on a remote network that can be reached
			// directly from the local network.
			if b.proxy.InNetwork(epNetwork) || len(gateways) == 0 {
				// The endpoint is directly reachable - just add it.
				// If there is no gateway, the address must not be empty

    const Graph& graph, const FunctionLibraryDefinition* function_library,
    const std::function<bool(const Graph& graph)>& predicate) {
  if (predicate(graph)) {
    return success();
  }

  // Check if any reachable functions from the graph has the target attribute.
  GraphDef graph_def;
  graph.ToGraphDef(&graph_def);
  if (!function_library) return failure();
  for (const std::string& func_name :

		return
	}
	writeResponse(w, http.StatusOK, nil, mimeNone)
}

// ReadinessCheckHandler checks whether MinIO is up and ready to serve requests.
// It also checks whether the KMS is available and whether etcd is reachable,
// if configured.
func ReadinessCheckHandler(w http.ResponseWriter, r *http.Request) {
	if objLayer := newObjectLayerFn(); objLayer == nil {

    // the index doesn't cover classfiles from compiler output,
    // so the lowering fails.
    //
    // To solve the problem, we need to find all delegated properties with inline accessors
    // reachable from files that will be compiled, and include files these inline accessors
    // to the set of files that will be compiled (and do the same for these files recursively).