* provides support.
   */
  QUIC("quic"),

  /**
   * HTTP/3 is the third and upcoming major version of the Hypertext Transfer Protocol used to
   * exchange information. HTTP/3 runs over QUIC, which is published as RFC 9000.
   *
   * HTTP/3 is not natively supported by OkHttp, but provided to allow a theoretical interceptor
   * that provides support.
   */

                                    std::vector<Tensor>* x_datas,
                                    JAC_T* max_error) {
  // Initialize theoretical Jacobians to zeros.
  std::vector<Tensor> jacobian_ts;
  InitJacobians<X_T, Y_T, JAC_T>(xs, x_shapes, y_shapes, &jacobian_ts);

  // Compute theoretical Jacobian.
  TF_RETURN_IF_ERROR((ComputeTheoreticalJacobianTranspose<X_T, Y_T, JAC_T>(

.Dependencies management at a glance
image::dependency-management-resolution.png[]

Gradle has built-in support for dependency management.

Let's explore the main concepts with the help of a theoretical but common project:

* This project builds Java source code.
* Some Java source files import classes from the link:https://github.com/google/guava[Google Guava] library.

Gradle offers <<declaring_dependencies.adoc#sub:project_dependencies,project dependencies>> for this.

[[sec:project_jar_dependencies]]
== Depending on another project

Let's explore a theoretical multi-project build with the following layout:

[.multi-language-sample]
=====
[source, kotlin]
----
.
├── api
│   ├── src
│   │   └──...
│   └── build.gradle.kts
├── services

    the op's inputs and calling `RunTest` (`RunTest` uses a
    [gradient checker](https://github.com/tensorflow/tensorflow/blob/master/tensorflow/cc/framework/gradient_checker.cc)
    to verify that the theoretical gradient matches the numeric gradient). For
    example:

    ```
    TEST_F(ArrayGradTest, IdentityGrad) {
      TensorShape shape({5, 2});
      auto x = Placeholder(scope_, DT_FLOAT, Placeholder::Shape(shape));

		c.ProxyUID = userID
	}

	// For TPROXY as its uid and gid are same.
	if c.ProxyGID == "" {
		c.ProxyGID = c.ProxyUID
	}
	// Lookup DNS nameservers. We only do this if DNS is enabled in case of some obscure theoretical
	// case where reading /etc/resolv.conf could fail.
	// If capture all DNS option is enabled, we don't need to read from the dns resolve conf. All
	// traffic to port 53 will be captured.

== Fully cached builds

The most straightforward way to get a feel for what the cache can do for you is to measure the difference between a non-cached build and a _fully cached_ build. This will give you the theoretical limit of how fast builds with the cache can get, if everything you're trying to build has already been built. The easiest way to measure this is using the local cache:

// the underlying io.Reader and the remaining amount of bytes if the assertion succeeds,
// otherwise it just returns the original io.Reader and the theoretical unlimited remaining amount of bytes.
func tryLimitedReader(r io.Reader) (*io.LimitedReader, io.Reader, int64) {
	var remain int64 = 1<<63 - 1 // by default, copy until EOF

	lr, ok := r.(*io.LimitedReader)
	if !ok {

   * call cancel() and be unable to cancel the delegate.
   * There are a number of ways to solve this, none of which are very pretty, and it is currently
   * believed to be a purely theoretical problem (since the other actions should supply sufficient
   * write-barriers).
   */

  @CheckForNull @LazyInit private ListenableFuture<V> delegateRef;
  @CheckForNull @LazyInit private ScheduledFuture<?> timer;

	if err != nil {
		return err
	}

	c.HostIP = hostIP
	c.EnableIPv6 = isIPv6

	// Lookup DNS nameservers. We only do this if DNS is enabled in case of some obscure theoretical
	// case where reading /etc/resolv.conf could fail.
	// If capture all DNS option is enabled, we don't need to read from the dns resolve conf. All
	// traffic to port 53 will be captured.