if (deferredPlans.isNotEmpty()) return deferredPlans.removeFirst()

    // Do blocking calls to plan a route for a new connection.
    val connect = planConnect()

    // Now that we have a set of IP addresses, make another attempt at getting a connection from
    // the pool. We have a better chance of matching thanks to connection coalescing.
    val pooled2 = planReusePooledConnection(connect, connect.routes)

	return err
}

func (g execG[T]) Last(ctx context.Context) (T, error) {
	var r T
	err := g.g.apply(ctx).Last(&r).Error
	return r, err
}

func (g execG[T]) Take(ctx context.Context) (T, error) {
	var r T
	err := g.g.apply(ctx).Take(&r).Error
	return r, err
}

func (g execG[T]) Find(ctx context.Context) ([]T, error) {
	var r []T
	err := g.g.apply(ctx).Find(&r).Error
	return r, err
}

Many packages that simplify it a lot have to make many compromises with the data model, database, and available features. And some of these packages that simplify things too much actually have security flaws underneath.

---

**FastAPI** doesn't make any compromise with any database, data model or tool.

Those additional responses will be included in the OpenAPI schema, so they will also appear in the API docs.

But for those additional responses you have to make sure you return a `Response` like `JSONResponse` directly, with your status code and content.

## Additional Response with `model` { #additional-response-with-model }

			Summary:      healNotStartedStatus,
			HealSettings: hs,
		},
		traverseAndHealDoneCh: make(chan error),
		cancelCtx:             cancel,
		ctx:                   ctx,
		scannedItemsMap:       make(map[madmin.HealItemType]int64),
		healedItemsMap:        make(map[madmin.HealItemType]int64),
		healFailedItemsMap:    make(map[madmin.HealItemType]int64),
	}
}

  /** How many times a new task has been started. Guarded by `this`. */
  private var contextSwitchCount = 0

  /** Guarded by `this`. */
  private var activeThreads = 0

  /** A task runner that posts tasks to this fake. Tasks won't be executed until requested. */
  val taskRunner: TaskRunner =
    TaskRunner(
      object : TaskRunner.Backend {
        override fun execute(
          taskRunner: TaskRunner,
          runnable: Runnable,

		}
		if i > 0 {
			if wait := globalBatchConfig.ExpirationWait(); wait > 0 {
				time.Sleep(wait)
			}
		}
		i++
		wk.Take()
		go func(toExpire []expireObjInfo) {
			defer wk.Give()

			toExpireAll := make([]expireObjInfo, 0, len(toExpire))
			toDel := make([]ObjectToDelete, 0, len(toExpire))
			oiCache := newObjInfoCache()
			for _, exp := range toExpire {
				if exp.ExpireAll {

	totalShards := len(partsMetadata)
	parities = make([]int, len(partsMetadata))
	for index, metadata := range partsMetadata {
		if errs[index] != nil {
			parities[index] = -1
			continue
		}
		if !metadata.IsValid() {
			parities[index] = -1
			continue
		}
		//nolint:gocritic
		// Delete marker or zero byte objects take highest parity.
		if metadata.Deleted || metadata.Size == 0 {

    AtomicInteger totalCalls = new AtomicInteger();
    Runnable intCounter =
        new Runnable() {
          @Override
          public void run() {
            totalCalls.incrementAndGet();
            // Make sure that no other tasks are scheduled to run while this is running.
            assertFalse(fakePool.hasNext());
          }
        };

    assertFalse(fakePool.hasNext());
    e.execute(intCounter);

	if p.dontSave {
		return nil
	}
	data := make([]byte, 4, p.Msgsize()+4)

	// Initialize the header.
	binary.LittleEndian.PutUint16(data[0:2], poolMetaFormat)
	binary.LittleEndian.PutUint16(data[2:4], poolMetaVersion)

	buf, err := p.MarshalMsg(data)
	if err != nil {
		return err
	}

	// Saves on all pools to make sure decommissioning of first pool is allowed.
	for i, eset := range pools {