ENOTDIR     = syscall.Errno(0x14)
	ENOTTY      = syscall.Errno(0x19)
	ENXIO       = syscall.Errno(0x6)
	EPERM       = syscall.Errno(0x1)
	EPIPE       = syscall.Errno(0x20)
	ERANGE      = syscall.Errno(0x22)
	EROFS       = syscall.Errno(0x1e)
	ESPIPE      = syscall.Errno(0x1d)
	ESRCH       = syscall.Errno(0x3)
	ETXTBSY     = syscall.Errno(0x1a)
	EWOULDBLOCK = syscall.Errno(0xb)

  interface ValueReference<K, V> {
    /** Returns the value. Does not block or throw exceptions. */
    @CheckForNull
    V get();

    /**
     * Waits for a value that may still be loading. Unlike get(), this method can block (in the case
     * of FutureValueReference).
     *
     * @throws ExecutionException if the loading thread throws an exception
     * @throws ExecutionError if the loading thread throws an error

  interface ValueReference<K, V> {
    /** Returns the value. Does not block or throw exceptions. */
    @CheckForNull
    V get();

    /**
     * Waits for a value that may still be loading. Unlike get(), this method can block (in the case
     * of FutureValueReference).
     *
     * @throws ExecutionException if the loading thread throws an exception
     * @throws ExecutionError if the loading thread throws an error

	return Value{typ.Common(), unsafe.Pointer(&x), fl}
}

// String returns the string v's underlying value, as a string.
// String is a special case because of Go's String method convention.
// Unlike the other getters, it does not panic if v's Kind is not [String].
// Instead, it returns a string of the form "<T value>" where T is v's type.
// The fmt package treats Values specially. It does not call their String

</pre>

<pre>
i, j := 0, 10
f := func() int { return 7 }
ch := make(chan int)
r, w, _ := os.Pipe()  // os.Pipe() returns a connected pair of Files and an error, if any
_, y, _ := coord(p)   // coord() returns three values; only interested in y coordinate
</pre>

<p>
Unlike regular variable declarations, a short variable declaration may <i>redeclare</i>

  # Turn off kernel memory cgroup notification.
  flags+=" --kernel-memcg-notification=false"

  WINDOWS_CONTAINER_RUNTIME_ENDPOINT=${KUBE_WINDOWS_CONTAINER_RUNTIME_ENDPOINT:-npipe:////./pipe/containerd-containerd}
  flags+=" --container-runtime-endpoint=${WINDOWS_CONTAINER_RUNTIME_ENDPOINT}"

  # If ENABLE_AUTH_PROVIDER_GCP is set to true, kubelet is enabled to use out-of-tree auth

	// execute the HTTP request for object upload.
	response, err = s.client.Do(request)
	c.Assert(err, nil)
	c.Assert(response.StatusCode, http.StatusOK)

	objectName2 := "testObject2"
	// Unlike the actual PUT object request, the request to Copy Object doesn't contain request body,
	// empty body with the "X-Amz-Copy-Source" header pointing to the object to copies it in the backend.

		if p1 == nil || p1.ImportPath == "" || a1.built == "" {
			continue
		}
		fmt.Fprintf(&icfg, "packagefile %s=%s\n", p1.ImportPath, a1.built)
	}

	// Prepare Go embed config if needed.
	// Unlike the import config, it's okay for the embed config to be empty.
	var embedcfg []byte
	if len(p.Internal.Embed) > 0 {
		var embed struct {
			Patterns map[string][]string
			Files    map[string]string
		}

  fi
}

function reset-motd {
  # kubelet is installed both on the master and nodes, and the version is easy to parse (unlike kubectl)
  local -r version="$("${KUBE_HOME}"/bin/kubelet --version=true | cut -f2 -d " ")"
  # This logic grabs either a release tag (v1.2.1 or v1.2.1-alpha.1),
  # or the git hash that's in the build info.

// configuration for. Once this method returns without error, any remaining local state can be safely
// cleaned up by background processes in each subsystem. Unlike syncTerminatingPod, we lack
// knowledge of the full pod spec and so cannot perform lifecycle related operations, only ensure
// that the remnant of the running pod is terminated and allow garbage collection to proceed. We do