if enc.err != nil {
			return
		}
		// If the type info has still not been transmitted, it means we have
		// a singleton basic type (int, []byte etc.) at top level. We don't
		// need to send the type info but we do need to update enc.sent.
		if !sent {
			info, err := getTypeInfo(ut)
			if err != nil {
				enc.setError(err)
				return
			}
			enc.sent[rt] = info.id
		}
	}
}

// Keep workload that we can't find in the fd cache. This can only be sent before SnapshotSent is sent
// to signal ztunnel to not delete the workload if it has it.
message KeepWorkload {
  string uid = 1;
}

// Delete a workload from the ztunnel. Ztunnel should shutdown the workload's proxy.
message DelWorkload {
  string uid = 2;
}

// Let ztunnel know that a full snapshot was sent. Ztunnel should reconcile its internal state

	runtime.SetFinalizer(r, r.finalize)
	return s, r
}

// A sender is used to send values to a Receiver.
type Sender[T any] struct {
	values chan<- T
	done <-chan bool
}

// Send sends a value to the receiver. It returns whether any more
// values may be sent; if it returns false the value was not sent.
func (s *Sender[T]) Send(v T) bool {
	select {
	case s.values <- v:
		return true
	case <-s.done:
		return false

// byte indicating the channel number (zero indexed) the message was sent on. Messages in both
// directions should prefix their messages with this channel byte. Used for remote execution,
// the channel numbers are by convention defined to match the POSIX file-descriptors assigned
// to STDIN, STDOUT, and STDERR (0, 1, and 2). No other conversion is performed on the raw
// subprotocol - writes are sent as they are received by the server.
//

			}
		}()
	}
}

// ZDS protocol is very simple, for every message sent, and ack is sent.
// the ack only has temporal correlation (i.e. it is the first and only ack msg after the message was sent)
// All this to say, that we want to make sure that message to ztunnel are sent from a single goroutine
// so we don't mix messages and acks.
// nolint: unparam

    taskFaker.runTasks()
    assertThat(client.closed).isTrue()
    server.listener.assertExhausted() // Client should not have sent second close.
    client.listener.assertExhausted() // Server should not have sent second close.
  }

  @Test
  fun serverCloseBreaksReadMessageLoop() {
    server.webSocket!!.send("Hello!")
    server.webSocket!!.close(1000, "Bye!")
    assertThat(client.processNextFrame()).isTrue()

                        logger.debug("Sent {} to {}.", body, url);
                    }
                } else {
                    logger.warn("Failed to send {} to {}. HTTP Status is {}. {}", body, url, response.getHttpStatusCode(),
                            response.getContentAsString());
                }
            } catch (final IOException e) {
                logger.warn("Failed to send {} to {}.", body, url, e);
            }

	// allowWatchBookmarks requests watch events with type "BOOKMARK".
	// Servers that do not implement bookmarks may ignore this flag and
	// bookmarks are sent at the server's discretion. Clients should not
	// assume bookmarks are returned at any specific interval, nor may they
	// assume the server will send any BOOKMARK event during a session.
	// If this is not a watch, this field is ignored.
	// If the feature gate WatchBookmarks is not enabled in apiserver,

)

// The WebSocket subprotocol "binary.k8s.io" will only send messages to the
// client and ignore messages sent to the server. The received messages are
// the exact bytes written to the stream. Zero byte messages are possible.
const binaryWebSocketProtocol = "binary.k8s.io"

// The WebSocket subprotocol "base64.binary.k8s.io" will only send messages to the
// client and ignore messages sent to the server. The received messages are

Filippo Valsorda <******@****.***> 1684886145 +0200