t.Parallel()
		p := NewPushQueue()
		defer p.ShutDown()
		p.Enqueue(proxies[0], &model.PushRequest{})
		p.Enqueue(proxies[1], &model.PushRequest{})

		ExpectDequeue(t, p, proxies[0])
		ExpectDequeue(t, p, proxies[1])
	})

	t.Run("remove too many", func(t *testing.T) {
		t.Parallel()
		p := NewPushQueue()
		defer p.ShutDown()

		p.Enqueue(proxies[0], &model.PushRequest{})

		ExpectDequeue(t, p, proxies[0])

//
// This is implemented as a doubly-linked list queue of poolDequeues
// where each dequeue is double the size of the previous one. Once a
// dequeue fills up, this allocates a new one and only ever pushes to
// the latest dequeue. Pops happen from the other end of the list and
// once a dequeue is exhausted, it gets removed from the list.
type poolChain struct {

		if v == locked {
			if atomic.Casuintptr(&l.key, locked, 0) {
				break
			}
		} else {
			// Other M's are waiting for the lock.
			// Dequeue an M.
			mp = muintptr(v &^ locked).ptr()
			if atomic.Casuintptr(&l.key, v, uintptr(mp.nextwaitm)) {
				// Dequeued an M.  Wake it.
				semawakeup(mp)
				break
			}
		}
	}
	gp.m.mLockProfile.recordUnlock(l)
	gp.m.locks--
	if gp.m.locks < 0 {

			ObjectTransform: kubelib.StripNodeUnusedFields,
		}),
	}
	c.queue = controllers.NewQueue("ingress status",
		controllers.WithReconciler(c.Reconcile),
		controllers.WithMaxAttempts(5))

	// For any ingress change, enqueue it - we may need to update the status.
	c.ingresses.AddEventHandler(controllers.ObjectHandler(c.queue.AddObject))

	key, quit := rv.queue.Get()
	if quit {
		return false
	}
	defer rv.queue.Done(key)

	err := rv.sync(ctx, key)
	if err == nil {
		rv.queue.Forget(key)
		return true
	}

	klog.FromContext(ctx).V(2).Info("Error syncing SVM resource, retrying", "svm", key, "err", err)
	rv.queue.AddRateLimited(key)

	return true
}

	key, quit := svmc.queue.Get()
	if quit {
		return false
	}
	defer svmc.queue.Done(key)

	err := svmc.sync(ctx, key)
	if err == nil {
		svmc.queue.Forget(key)
		return true
	}

	klog.FromContext(ctx).V(2).Info("Error syncing SVM resource, retrying", "svm", key, "err", err)
	svmc.queue.AddRateLimited(key)

	return true
}

name: 'Requeue stale team-triage items'
on:
  schedule:
    # Execute every day at 00:05 to avoid conflicts with other workflows
    - cron: '5 0 * * *'

permissions: {}

jobs:
  requeue:
    permissions:
      issues: write
      pull-requests: write
    runs-on: ubuntu-latest
    steps:
      - uses: actions/stale@v9
        with:
          operations-per-run: 50
          remove-stale-when-updated: false

# Corps de la requête

Quand vous avez besoin d'envoyer de la donnée depuis un client (comme un navigateur) vers votre API, vous l'envoyez en tant que **corps de requête**.

Le corps d'une **requête** est de la donnée envoyée par le client à votre API. Le corps d'une **réponse** est la donnée envoyée par votre API au client.

Votre API aura presque toujours à envoyer un corps de **réponse**. Mais un client n'a pas toujours à envoyer un corps de **requête**.

      }

      override fun writeTo(sink: BufferedSink) {
        sink.writeUtf8("<element/>")
        sink.flush()
      }
    }

    server.enqueue(MockResponse(code = 201))
    server.enqueue(MockResponse(code = 204))
    server.enqueue(MockResponse(code = 204))

    val endpointUrl = server.url("/endpoint")

    var request =
      Request.Builder()
        .url(endpointUrl)

    server!!.enqueue(MockResponse())
    assertSuccessfulEventOrder()
  }

  @Test
  @Throws(IOException::class)
  fun multipleDnsLookupsForSingleCall() {
    server!!.enqueue(
      MockResponse(
        code = 301,
        headers = headersOf("Location", "http://www.fakeurl:" + server!!.port),
      ),
    )
    server!!.enqueue(MockResponse())
    val dns = FakeDns()