///

```Python hl_lines="19"
{!> ../../docs_src/dependencies/tutorial004.py!}
```

////

...e o **FastAPI** saberá o que fazer.

/// tip | "Dica"

Se isso parece mais confuso do que útil, não utilize, você não *precisa* disso.

É apenas um atalho. Por que o **FastAPI** se preocupa em ajudar a minimizar a repetição de código.

Y tienes que esperar 🕙 en la fila durante mucho tiempo o perderás tu turno.

Probablemente no querrás llevar contigo a la persona que te gusta 😍 a hacer encargos al banco 🏦.

### Conclusión de las Hamburguesa

En este escenario de "hamburguesas de comida rápida con tu pareja", debido a que hay mucha espera 🕙, tiene mucho más sentido tener un sistema con concurrencia ⏸🔀⏯.

			pods = append(pods, pod)
		}
	}
	return pods
}

// EnqueueNamespace takes a Namespace and enqueues all Pod objects that make need an update
// TODO it is sort of pointless/confusing/implicit to populate Old and New with the same reference here
func (s *InformerHandlers) enqueueNamespace(o controllers.Object) {
	namespace := o.GetName()
	labels := o.GetLabels()

Et vous deviez attendre 🕙 dans la file pendant un long moment ou vous perdiez votre place.

Vous n'auriez donc probablement pas envie d'amener votre crush 😍 avec vous à la banque 🏦.

#### Conclusion

Dans ce scénario des "burgers du fast-food avec votre crush", comme il y a beaucoup d'attente 🕙, il est très logique d'avoir un système concurrent ⏸🔀⏯.

Et c'est le cas pour la plupart des applications web.

And you have to wait 🕙 in the line for a long time or you lose your turn.

You probably wouldn't want to take your crush 😍 with you to run errands at the bank 🏦.

### Burger Conclusion

In this scenario of "fast food burgers with your crush", as there is a lot of waiting 🕙, it makes a lot more sense to have a concurrent system ⏸🔀⏯.

This is the case for most of the web applications.

   * started with STX and transmitted as an entity.
   *
   * @since 8.0
   */
  public static final byte ETX = 3;

  /**
   * End of Transmission: A communication control character used to indicate the conclusion of a
   * transmission, which may have contained one or more texts and any associated headings.
   *
   * @since 8.0
   */
  public static final byte EOT = 4;

  /**

As a result, they do not go through `PushContext`, and changes do not trigger a `PushContext` recomputation. Instead, the current state is incrementally computed based on events from `ServiceDiscovery`.

#### Conclusion

Overall, the high level config ingestion flow:

```mermaid
graph TD
    sd(Service Discovery)
    cs(ConfigStore)
    ep(Endpoints)
    pc(PushContext)
    sd-->pc
    cs-->pc
    sd-->ep

It will have a property `scopes` with a list containing all the scopes required by itself and all the dependencies that use this as a sub-dependency. That means, all the "dependants"... this might sound confusing, it is explained again later below.

The `security_scopes` object (of class `SecurityScopes`) also provides a `scope_str` attribute with a single string, containing those scopes separated by spaces (we are going to use it).

because the potential added read will not affect any existing concurrent reads or writes.
On the other hand, the rewrite would not be valid in a source-to-source translator.
</p>

<h2 id="conclusion">Conclusion</h2>

<p>
Go programmers writing data-race-free programs can rely on
sequentially consistent execution of those programs,
just as in essentially all other modern programming languages.
</p>

<p>

    } else {
      Cut<C> newLower = (lowerCmp >= 0) ? lowerBound : connectedRange.lowerBound;
      Cut<C> newUpper = (upperCmp <= 0) ? upperBound : connectedRange.upperBound;

      // create() would catch this, but give a confusing error message
      checkArgument(
          newLower.compareTo(newUpper) <= 0,
          "intersection is undefined for disconnected ranges %s and %s",
          this,
          connectedRange);