}
        }
    }

    @Override
    protected void doDisconnect(final boolean hard) throws IOException {
        final ListIterator iter = sessions.listIterator();
        try {
            while (iter.hasNext()) {
                final SmbSession ssn = (SmbSession) iter.next();
                ssn.logoff(hard);
            }
            socket.shutdownOutput();
            out.close();

	return tillOffset
}

// erasureSelfTest performs a self-test to ensure that erasure
// algorithms compute expected erasure codes. If any algorithm
// produces an incorrect value it fails with a hard error.
//
// erasureSelfTest tries to catch any issue in the erasure implementation
// early instead of silently corrupting data.
func erasureSelfTest() {
	// Approx runtime ~1ms
	var testConfigs [][2]uint8

            }
        }
    }

    protected synchronized void doDisconnect(final boolean hard) throws IOException {
        doDisconnect(hard, false);
    }

    @Override
    protected synchronized boolean doDisconnect(final boolean hard, final boolean inUse) throws IOException {
        final ListIterator<SmbSessionImpl> iter = this.sessions.listIterator();

   */
  /*
   * The new array contains nulls, even if the old array did not. If we wanted to be accurate, we
   * would declare a return type of `@Nullable T[]`. However, we've decided not to think too hard
   * about arrays for now, as they're a mess.
   */
  public static <T extends @Nullable Object> T[] newArray(T[] reference, int length) {
    T[] empty = reference.length == 0 ? reference : Arrays.copyOf(reference, 0);

   * world. Figure out what sort of space-time tradeoff we're actually going to get here with the
   * *Map variants. This class is particularly hard to benchmark, because the benefit is not only in
   * less allocation, but also having the GC do less work to scan the heap because of fewer
   * references, which is particularly hard to quantify.
   */

  /** Creates an empty {@code CompactHashMap} instance. */

Vous pouvez ensuite donner ce jeton directement à un utilisateur ou à un tiers, pour interagir avec votre API avec un ensemble de restrictions.

Vous pouvez apprendre à les utiliser et comment ils sont intégrés à **FastAPI** plus tard dans le **Guide de l'utilisateur avancé**.

## Récapitulatif { #recap }

Avec ce que vous avez vu jusqu'à présent, vous pouvez configurer une application **FastAPI** sécurisée en utilisant des standards comme OAuth2 et JWT.

			Name:     "sticky.txt",
			Mode:     0600 | c_ISVTX,
			Size:     7,
			ModTime:  time.Unix(1360602540, 0),
			Typeflag: TypeReg,
		},
		fm: 0600 | fs.ModeSticky,
	}, {
		// hard link.
		h: &Header{
			Name:     "hard.txt",
			Mode:     0644,
			Size:     0,
			Linkname: "file.txt",
			ModTime:  time.Unix(1360600916, 0),
			Typeflag: TypeLink,
		},
		fm: 0644,
	}, {
		// More information.

/// tip | Astuce

Ici nous utilisons `Query()` parce qu’il s’agit d’un **paramètre de requête**. Plus tard nous verrons d’autres comme `Path()`, `Body()`, `Header()` et `Cookie()`, qui acceptent également les mêmes arguments que `Query()`.

///

FastAPI va maintenant :

The Gradle codebase has evolved over time and has a mixture of simple getter/setter methods, Provider API and things in between.  It can be hard to follow best practices because Gradle provided types are reused in unexpected ways and extended by third party plugins.

       * It's theoretically possible for Reference.reachabilityFence to exist under older VMs but
       * not work. (Under Android in particular, we really should check the API Level instead of
       * probing for methods....) But it's hard to imagine how reachabilityFence in particular could
       * exist but throw, so we propagate anything that's thrown, presumably an unchecked Exception
       * or Error.
       */
      throwIfUnchecked(e.getCause());