* AssertionFailedError thrown, so that the current testcase will fail.
   */
  public void threadAssertFalse(boolean b) {
    try {
      assertFalse(b);
    } catch (AssertionFailedError t) {
      threadRecordFailure(t);
      throw t;
    }
  }

  /**
   * Just like assertNull(x), but additionally recording (using threadRecordFailure) any

   * AssertionFailedError thrown, so that the current testcase will fail.
   */
  public void threadAssertFalse(boolean b) {
    try {
      assertFalse(b);
    } catch (AssertionFailedError t) {
      threadRecordFailure(t);
      throw t;
    }
  }

  /**
   * Just like assertNull(x), but additionally recording (using threadRecordFailure) any

	if l == &debuglock || l == &paniclk || l == &raceFiniLock {
		// debuglock is only used for println/printlock(). Don't do lock
		// rank recording for it, since print/println are used when
		// printing out a lock ordering problem below.
		//
		// paniclk is only used for fatal throw/panic. Don't do lock
		// ranking recording for it, since we throw after reporting a
		// lock ordering problem. Additionally, paniclk may be taken

	if w.isCacheFullLocked() && eventTime.Sub(w.cache[w.startIndex%w.capacity].RecordTime) < eventFreshDuration {
		capacity := min(w.capacity*2, w.upperBoundCapacity)
		if capacity > w.capacity {
			w.doCacheResizeLocked(capacity)
		}
		return
	}
	if w.isCacheFullLocked() && eventTime.Sub(w.cache[(w.endIndex-w.capacity/4)%w.capacity].RecordTime) > eventFreshDuration {
		capacity := max(w.capacity/2, w.lowerBoundCapacity)

}

func (c *connMgr) addConn(conn *ZtunnelConnection) {
	log.Debug("ztunnel connected")
	c.mu.Lock()
	defer c.mu.Unlock()
	c.connectionSet[conn] = struct{}{}
	c.latestConn = conn
	ztunnelConnected.RecordInt(int64(len(c.connectionSet)))
}

func (c *connMgr) LatestConn() *ZtunnelConnection {
	c.mu.Lock()
	defer c.mu.Unlock()
	return c.latestConn
}

func (c *connMgr) deleteConn(conn *ZtunnelConnection) {

}

func loadEventWithDuration(cache *testWatchCache, count int, interval time.Duration) {
	for i := 0; i < count; i++ {
		event := &watchCacheEvent{
			Key:        fmt.Sprintf("event-%d", i+cache.startIndex),
			RecordTime: cache.clock.Now().Add(time.Duration(interval.Nanoseconds() * int64(i))),
		}
		cache.cache[(i+cache.startIndex)%cache.capacity] = event
	}
	cache.endIndex = cache.startIndex + count
}

                recordTopLevelModules(details);
            }
        }));

        // create our own metaInf which runs after mainSpec's files
        // this allows us to generate the deployment descriptor after recording all modules it contains
        CopySpecInternal metaInf = (CopySpecInternal) getMainSpec().addChild().into("META-INF");
        CopySpecInternal descriptorChild = metaInf.addChild();

	}()
	buildcfg.Experiment = *exp

	// By default, gotypesalias is not set.
	if gotypesalias != "" {
		conf.EnableAlias = gotypesalias != "0"
	}

	// Provide Config.Info with all maps so that info recording is tested.
	info := Info{
		Types:        make(map[syntax.Expr]TypeAndValue),
		Instances:    make(map[*syntax.Name]Instance),
		Defs:         make(map[*syntax.Name]Object),

	if verb == "create" {
		return authorizer.DecisionAllow, "", nil
	}

	// For any other verb, checking the existing object must have established that access
	// is allowed by recording a graph edge.
	return r.authorize(nodeName, sliceVertexType, attrs)
}

// hasPathFrom returns true if there is a directed path from the specified type/namespace/name to the specified Node

	buildcfg.Experiment = *exp

	// By default, gotypesalias is not set.
	if gotypesalias != "" {
		t.Setenv("GODEBUG", "gotypesalias="+gotypesalias)
	}

	// Provide Config.Info with all maps so that info recording is tested.
	info := Info{
		Types:        make(map[ast.Expr]TypeAndValue),
		Instances:    make(map[*ast.Ident]Instance),
		Defs:         make(map[*ast.Ident]Object),
		Uses:         make(map[*ast.Ident]Object),