taskFaker.sleep(100.µs)
      log += "red:finishing@${taskFaker.nanoTime}"
    }
    assertThat(taskFaker.executeCallCount).isEqualTo(1)

    // Enqueueing the blue task doesn't start a thread because the red one is still starting.
    blueQueue.execute("blue task") {
      log += "blue:starting@${taskFaker.nanoTime}"
      taskFaker.sleep(100.µs)
      log += "blue:finishing@${taskFaker.nanoTime}"
    }

    assertTrue(Double.isNaN(DoubleMath.log2(Double.NEGATIVE_INFINITY)));
    assertTrue(Double.isNaN(DoubleMath.log2(Double.NaN)));
  }

  @GwtIncompatible // StrictMath
  @SuppressWarnings("strictfp") // Guava still supports Java 8
  private strictfp double trueLog2(double d) {
    double trueLog2 = StrictMath.log(d) / StrictMath.log(2);
    // increment until it's >= the true value
    while (StrictMath.pow(2.0, trueLog2) < d) {

#### `Hero` - o *modelo de tabela* { #hero-the-table-model }

Em seguida, vamos criar `Hero`, o verdadeiro *modelo de tabela*, com os **campos extras** que nem sempre estão nos outros modelos:

* `id`
* `secret_name`

Como `Hero` herda de `HeroBase`, ele **também** tem os **campos** declarados em `HeroBase`, então todos os campos para `Hero` são:

* `id`
* `name`
* `age`

     * operation on the input stream, we might as will pull that
     * common functionality into the superclass and read wordCount
     * and byteCount worth of data.
     *
     * We will still use the readXxxWireFormat return values to
     * indicate how many bytes(note: readParameterWordsWireFormat
     * returns bytes read and not the number of words(but the
     * wordCount member DOES store the number of words)) we

    return Modifier.isStatic(getModifiers());
  }

  /**
   * Returns {@code true} if this method is final, per {@code Modifier.isFinal(getModifiers())}.
   *
   * <p>Note that a method may still be effectively "final", or non-overridable when it has no
   * {@code final} keyword. For example, it could be private, or it could be declared by a final

		return nil, &NetworkError{Err: ErrClientClosed}
	case offline:
		// client offline, return last error captured.
		return nil, &NetworkError{Err: c.LastError()}
	}

	// client is still connected, attempt the request.

	// Shallow copy. We don't modify the *UserInfo, if set.
	// All other fields are copied.
	u := *c.url
	u.Path = path.Join(u.Path, rpcMethod)
	u.RawQuery = values.Encode()

    // The waiter queue should be waiter2->waiter1

    // This should wake up waiter1 and cause the waiter1 node to be removed.
    waiter1.interrupt();

    waiter1.join();
    waiter2.awaitWaiting(); // should still be blocked

    LockSupport.unpark(waiter2); // spurious wakeup
    waiter2.awaitWaiting(); // should eventually re-park

    future.set(null);
    waiter2.join();
  }

Por lo tanto, el ladrón no podrá intentar usar esa contraseña en otro sistema (como muchos usuarios usan la misma contraseña en todas partes, esto sería peligroso).

## Instalar `pwdlib` { #install-pwdlib }

pwdlib es un gran paquete de Python para manejar hashes de contraseñas.

Soporta muchos algoritmos de hashing seguros y utilidades para trabajar con ellos.

    }

    /**
     * Copy packaged and attached artifacts from this project to the
     * project local repository.
     * This allows a subsequent build to resume while still being able
     * to locate attached artifacts.
     *
     * @param project the project to copy artifacts from
     */
    private void installIntoProjectLocalRepository(MavenProject project) {

Para aprender o básico de HTTPS do ponto de vista do consumidor, verifique <a href="https://howhttps.works/" class="external-link" target="_blank">https://howhttps.works/</a>.

Agora, a partir de uma perspectiva do desenvolvedor, aqui estão algumas coisas para ter em mente ao pensar em HTTPS:

* Para HTTPS, o servidor precisa ter "certificados" gerados por um terceiro.
    * Esses certificados são na verdade adquiridos de um terceiro, eles não são simplesmente "gerados".