return false
		}
	}
	return true
}

func (s *Server) ExportAllConnsByState() map[ConnState]int {
	states := map[ConnState]int{}
	s.mu.Lock()
	defer s.mu.Unlock()
	for c := range s.activeConn {
		st, _ := c.getState()
		states[st] += 1
	}
	return states
}

func (r *Request) WithT(t *testing.T) *Request {
	return r.WithContext(context.WithValue(r.Context(), tLogKey{}, t.Logf))
}

    // `as_result` is true or index-th operand if `as_result` is false. The
    // state is immutable if the type is a quantized type. Returns the index of
    // this new state in the state vector.
    int InitializeState(quantfork::QuantizeRegionOp op, int index,
                        bool as_result);

    // Sets the state of the index-th operand of the op. If this operand is

  message QuantParams {
    // The tensor name has the following convention:
    //     tensor_name := op_name | op_name  ’:’  port_number.
    // If the op has only one port, op_name can be used.
    // If the op has internal states, such as fused LSTM, the port_number should
    // follow a predefined convention.
    oneof name_oneof {
      string name = 1;

      // An regex can be used to match multiple tensors.
      string name_regex = 2;

		if c.delim == delimNone {
			st := c.state
			// Use RCDATA instead of parsing into JS or CSS styles.
			if c.element != elementNone && !isInTag(st) {
				st = stateRCDATA
			}
			d, nread := transitionFunc[st](c, s[i:])
			i1 := i + nread
			if c.state == stateText || c.state == stateRCDATA {
				// Emit text up to the start of the tag or comment.
				j := i1
				if d.state != c.state {

     *
     * FINISHED - All locks were acquired, release the state lock
     * FAILED - One or more locks were not acquired, roll back any locks that were acquired and release the state lock
     * RETRY - One or more locks were not acquired, roll back any locks that were acquired and block waiting for the
     * state to change, then run the transform again
     *
     * @return true if the lock state changes finished successfully, otherwise false.
     */

	metricCollector := &totalPluginsCollector{asw: asw, dsw: dsw}

	// Check if getPluginCount returns correct data
	count := metricCollector.getPluginCount()
	if len(count) != 2 {
		t.Errorf("getPluginCount failed. Expected <2> states, got <%d>", len(count))
	}

	dswCount, ok := count["desired_state_of_world"]
	if !ok {
		t.Errorf("getPluginCount failed. Expected <desired_state_of_world>, got nothing")
	}

final class DirectExecutorService extends AbstractListeningExecutorService {

  /** Lock used whenever accessing the state variables (runningTasks, shutdown) of the executor */
  private final Object lock = new Object();

  /*
   * Conceptually, these two variables describe the executor being in
   * one of three states:
   *   - Active: shutdown == false
   *   - Shutdown: runningTasks > 0 and shutdown == true

	if !ok && globalTimestampIsNewer {
		// Status is not cached, but the global timestamp is newer than
		// minTime, return the default status.
		return makeDefaultData(id)
	}
	if ok && (d.modified.After(minTime) || globalTimestampIsNewer) {
		// Status is cached, return status if either of the following is true.
		//   * status was modified after minTime

# same possible root states, but in a different order from the eager case.)
#
# TODO(bcmills): if we retained the upgrades on w, x, and y (since they are
# lexical prefixes for unresolved packages w, x, and y, respectively), then 'go
# mod tidy -e' itself would become stable and no longer cycle through states.

cp go.mod.orig go.mod
go mod edit -go=1.17 go.mod
cp go.mod go.mod.117

	// Notify receiver that queue has new bit.
Send:
	for {
		switch sig.state.Load() {
		default:
			throw("sigsend: inconsistent state")
		case sigIdle:
			if sig.state.CompareAndSwap(sigIdle, sigSending) {
				break Send
			}
		case sigSending:
			// notification already pending
			break Send
		case sigReceiving:
			if sig.state.CompareAndSwap(sigReceiving, sigIdle) {
				if GOOS == "darwin" || GOOS == "ios" {