What are the main benefits you are looking for?

To better understand, consider the following opposing scenarios:

 * An imported build via <<ant#sec:import_ant_build,`ant.importBuild()`>>
+
This approach is quick, simple, and works for many Ant-based builds.
You end up with a build that is effectively identical to the original Ant build, except your Ant targets become Gradle tasks.
Even the dependencies between targets are retained.

[[sub:declaring_dependency_with_dynamic_version]]
== Declaring a dynamic version

Projects might adopt a more aggressive approach for consuming dependencies to modules.
For example you might want to always integrate the latest version of a dependency to consume cutting edge features at any given time.

// constants.

// conf is used to determine name resolution configuration.
type conf struct {
	netGo  bool // prefer go approach, based on build tag and GODEBUG
	netCgo bool // prefer cgo approach, based on build tag and GODEBUG

	dnsDebugLevel int // from GODEBUG

	preferCgo bool // if no explicit preference, use cgo

	goos     string   // copy of runtime.GOOS, used for testing

workspace of an IDE, a local Maven repository, or a remote Maven repository. During development in an IDE we would need layered resolution approach that would allow resolution from the workspace, then the local Maven repository and then from any number of remote Maven repositories. During development from the command line we would need a layered resolution approach that would allow resolution from the local Maven repository and then from any number of remote Maven repositories. In production the resolution...

// test, we can just look at the runtime call stack. However, bazel compiles go
// binaries with the -trimpath option so the simple approach fails however we
// can consult environment variables to derive the path.
//
// The approach taken here works for both go test and bazel on the assumption
// that if and only if trimpath is passed, we are running under bazel.
func pkgPath(t Logger) (string, error) {

        }
    }

    static final class HasMsBuild implements TestPrecondition {
        @Override
        boolean isSatisfied() {
            // Simplistic approach at detecting MSBuild by assuming Windows imply MSBuild is present
            return satisfied(UnitTestPreconditions.Windows) && notSatisfied(IsEmbeddedExecutor)
        }
    }

import okio.ByteString.Companion.toByteString

/**
 * Logs SSL keys to a log file, allowing Wireshark to decode traffic and be examined with http2
 * filter. The approach is to hook into JSSE log events for the messages between client and server
 * during handshake, and then take the agreed masterSecret from private fields of the session.
 *

----

It is a common practice to implement any custom build logic (like plugins and task types) that is more complex in nature as external classes in a standalone project. The main driver behind this approach is bundle the compiled code into a JAR file, publish it to a binary repository and reuse it across various projects.

[[sub:test-kit-classpath-injection]]
== Getting the plugin-under-test into the test build

   * #remove} to forward to this implementation.
   *
   * <p>Alternately, you may wish to override {@link #remove} with {@code keySet().remove}, assuming
   * that approach would not lead to an infinite loop.
   *
   * @since 7.0
   */
  @CheckForNull
  protected V standardRemove(@CheckForNull Object key) {
    Iterator<Entry<K, V>> entryIterator = entrySet().iterator();

          kStablehloModuleDefaultEntryFuncName);
      // TODO(b/291988976): move enforcement of this variable outside of this
      // rewrite pattern such that it's only checked once. Currently, this
      // approach results in duplicate error messages as this pattern executes
      // more than once.
      if (!IsShloMainFuncOp(main_func_op)) {
        auto error_msg =