if (pointer instanceof Lifecycle.DependenciesPointer) {
                        // For dependencies: ensure current project's phase starts after dependency's phase completes
                        // Example: project's compile starts after dependency's package completes
                        // TODO: String scope = ((Lifecycle.DependenciesPointer) pointer).scope();
                        projects.get(project)

   * {@code null}; it may either return a non-null value or throw an exception.
   *
   * <p>No observable state associated with this cache is modified until loading completes.
   *
   * @throws ExecutionException if a checked exception was thrown while loading the value
   * @throws UncheckedExecutionException if an unchecked exception was thrown while loading the
   *     value

    // But they disappear when the edit completes.
    sink0.close()
    editor.commit()
    assertThat(readFileOrNull(getCleanFile("k1", 0))).isNull()
    assertThat(readFileOrNull(getDirtyFile("k1", 0))).isNull()
  }

  @Test
  fun `close with completed zombie write`() {
    val afterRemoveCleanFileContents = if (windows) "a" else null

			}
		}
	}
	in.Error("recursive macro invocation")
	return 0
}

func (in *Input) Text() string {
	return in.text
}

// hash processes a # preprocessor directive. It reports whether it completes.
func (in *Input) hash() bool {
	// We have a '#'; it must be followed by a known word (define, include, etc.).
	tok := in.Stack.Next()
	if tok != scanner.Ident {
		in.expectText("expected identifier after '#'")
	}

   * value. This is usually incremented in conjunction with {@code missCount}, though {@code
   * missCount} is also incremented when cache loading completes successfully (see {@link
   * #loadSuccessCount}). Multiple concurrent misses for the same key will result in a single load
   * operation. This may be incremented not in conjunction with {@code missCount} if the load occurs

   * value. This is usually incremented in conjunction with {@code missCount}, though {@code
   * missCount} is also incremented when cache loading completes successfully (see {@link
   * #loadSuccessCount}). Multiple concurrent misses for the same key will result in a single load
   * operation. This may be incremented not in conjunction with {@code missCount} if the load occurs

    }

    return e
  }

  /**
   * Complete this call. This should be called once these properties are all false:
   * [requestBodyOpen], [responseBodyOpen], [socketSinkOpen], [socketSourceOpen], and
   * [expectMoreExchanges].
   *
   * This will release the connection if it is still held.
   *
   * It will also notify the listener that the call completed; either successfully or
   * unsuccessfully.
   *

  /**
   * Adds each member of {@code elements} as a candidate for the top {@code k} elements. This
   * operation takes amortized linear time in the length of {@code elements}. The iterator is
   * consumed after this operation completes.
   *
   * <p>If all input data to this {@code TopKSelector} is in a single {@code Iterator}, prefer
   * {@link Ordering#leastOf(Iterator, int)}, which provides a simpler API for that use case.
   */

Then, using the certificate, the client and the TLS Termination Proxy **decide how to encrypt** the rest of the **TCP communication**. This completes the **TLS Handshake** part.

After this, the client and the server have an **encrypted TCP connection**, this is what TLS provides. And then they can use that connection to start the actual **HTTP communication**.

  @Test
  fun thirdPlanAlreadyConnected() {
    val plan0 = routePlanner.addPlan()
    plan0.tcpConnectDelayNanos = 520.ms
    val plan1 = routePlanner.addPlan()
    plan1.tcpConnectDelayNanos = 260.ms // Connect completes at 510 ms.
    val plan2 = routePlanner.addPlan()
    plan2.connectState = TLS_CONNECTED

    taskRunner.newQueue().execute("connect") {
      val result0 = finder.find()