c.tinyAllocs = 0
	memstats.heapStats.release()

	// Update heapLive and heapScan.
	gcController.update(dHeapLive, scanAlloc)
}

// prepareForSweep flushes c if the system has entered a new sweep phase
// since c was populated. This must happen between the sweep phase
// starting and the first allocation from c.
func (c *mcache) prepareForSweep() {

        session.setAllProjects(session.getProjects());
        session.setSession(defaultSessionFactory.newSession(session));

        SessionScope sessionScope = getContainer().lookup(SessionScope.class);
        sessionScope.enter();
        sessionScope.seed(MavenSession.class, session);
        sessionScope.seed(Session.class, session.getSession());
        sessionScope.seed(InternalMavenSession.class, InternalMavenSession.from(session.getSession()));

    absl::flat_hash_set<Operation*> last_writes = GetLastWrites(resource);
    stack_down_.back()[resource] = last_writes;
  }
  Enter();
}

void SideEffectAnalysisInfo::Lateral() {
  Exit();
  Enter();
}

void SideEffectAnalysisInfo::Up() {
  Exit();
  for (const auto& [resource, last_writes] : stack_up_.back()) {
    SetLastWrites(resource, last_writes);
  }

        val testFrameworkChoice = if (descriptor.testFrameworks.size > 1) """
Select test framework:
  1: JUnit 4
  2: TestNG
  3: Spock
  4: JUnit Jupiter
Enter selection (default: JUnit 4) [1..4]
""" else ""
        val packageNameChoice = if (descriptor.supportsPackage()) "Source package (default: demo):\n" else ""
        val toolChain = when {

		return err
	}
	c.repairedPods[key] = pod.UID
	log.Infof("pod repaired")
	m.With(resultLabel.Value(resultSuccess)).Increment()
	return nil
}

// redirectRunningPod dynamically enters the provided pod, that is already running, and programs it's networking configuration.
func redirectRunningPod(pod *corev1.Pod, netns string) error {
	pi := plugin.ExtractPodInfo(pod)
	redirect, err := plugin.NewRedirect(pi)

Но в нашем случае одно и то же приложение **FastAPI** будет работать с API и аутентификацией.

Итак, рассмотрим его с этой упрощенной точки зрения:

* Пользователь вводит на фронтенде `имя пользователя` и `пароль` и нажимает `Enter`.
* Фронтенд (работающий в браузере пользователя) отправляет эти `имя пользователя` и `пароль` на определенный URL в нашем API (объявленный с помощью параметра `tokenUrl="token"`).

		gs.startCause.name = ""
		gs.startCause.resource = 0
		gs.startCause.stack = trace.NoStack
	}
	gs.executing = resource
	gs.startRunningTime = ts
}

// syscallBegin indicates that the goroutine entered a syscall on a proc.
func (gs *gState[R]) syscallBegin(ts trace.Time, resource R, stack trace.Stack) {
	gs.syscall.time = ts
	gs.syscall.stack = stack
	gs.syscall.active = true
	if gs.executing == R(noResource) {

	// then kill that thread when we are done (or rather, let Go runtime kill the thread).
	// Unfortunately, making a new thread breaks us out of the network namespace we entered previously, so we need to restore that as well
	go func() {
		chErr <- func() error {

Betrachten wir es also aus dieser vereinfachten Sicht:

* Der Benutzer gibt den `username` und das `password` im Frontend ein und drückt `Enter`.
* Das Frontend (das im Browser des Benutzers läuft) sendet diesen `username` und das `password` an eine bestimmte URL in unserer API (deklariert mit `tokenUrl="token"`).

	scannedStacks    uint64 // number of goroutines scanned by this P

	// preempt is set to indicate that this P should be enter the
	// scheduler ASAP (regardless of what G is running on it).
	preempt bool

	// gcStopTime is the nanotime timestamp that this P last entered _Pgcstop.
	gcStopTime int64

	// Padding is no longer needed. False sharing is now not a worry because p is large enough