import org.gradle.tooling.GradleConnector
import org.gradle.tooling.ProjectConnection
import org.gradle.tooling.model.GradleProject

class CancellationCrossVersionSpec extends CancellationSpec {

    def "can cancel build during settings phase"() {
        setupCancelInSettingsBuild()

        def cancel = GradleConnector.newCancellationTokenSource()
        def sync = server.expectAndBlock("registered")

    for misconfigured server first protocols rather than failing fast.

    This timeout has been disabled by default. This has the following impacts:

    - Non "server first" protocols will no longer have a risk of telemetry or traffic failures during slow connections

        result.output =~ /Received \d+ file system events during the current build while watching \d+ locations/
        result.output =~ /Virtual file system retains information about \d+ files, \d+ directories and \d+ missing files until next build/
        result.output =~ /VFS> Statistics during current build:/
        result.output =~ /VFS> > Stat: Executed stat\(\) x .*. getUnixMode\(\) x .*/

// identical.
func identicalInstance(xorig Type, xargs []Type, yorig Type, yargs []Type) bool {
	if len(xargs) != len(yargs) {
		return false
	}

	for i, xa := range xargs {
		if !Identical(xa, yargs[i]) {
			return false
		}
	}

	return Identical(xorig, yorig)
}

// Default returns the default "typed" type for an "untyped" type;

    /**
     * Gets the dependency configuration for which to declare runtime-only dependencies.
     * Dependencies declared on this configuration are present only during runtime, are not
     * present during compilation, and are not exposed as part of the feature's API variant.
     *
     * @return The {@code runtimeOnly} configuration.
     */
    Configuration getRuntimeOnlyConfiguration();

    /**

func f() *Buffer { return nil }

func g() Reader {
	// implicit interface conversion in assignment during return
	return f()
}

func h() (b *Buffer, ok bool) { return }

func i() (r Reader, ok bool) {
	// implicit interface conversion in multi-assignment during return
	return h()
}

func fmter() (s string, i int, t string) { return "%#x %q", 100, "hello" }

func main() {
	b := g()
	bb, ok := b.(*Buffer)

import java.io.FilterReader


/**
 * Adds a content filter to be used during the copy.
 *
 * @see [CopySpec.filter]
 */
inline fun <reified T : FilterReader> CopySpec.filter(vararg properties: Pair<String, Any?>) =
    filter(mapOf(*properties), T::class.java)


/**
 * Adds a content filter to be used during the copy.
 *
 * @see [CopySpec.filter]
 */

 * Note that this implementation currently retains strong references to keys and values during the whole lifetime of a build session.
 *
 * Uses a simple algorithm to collect unused values, by retaining strong references to all keys and values used during the current build session, and the previous build session.
 * All other values are referenced only by weak or soft references, allowing them to be collected.

     * the list denotes the model on which the model builder was originally invoked. The last identifier will always be
     * an empty string that by definition denotes the super POM.
     *
     * @return The model identifiers from the lineage of models, never {@code null}.
     */
    List<String> getModelIds();

    /**
     *
     * @return the file model
     * @since 4.0.0
     */
    Model getFileModel();

Any direct modification or reading of another project's object creates coupling between the projects.
Coupling during configuration can result in flawed build outcomes when using 'configuration on demand', while coupling during execution can affect parallel execution.

One common source of coupling is configuration injection, such as using `allprojects{}` or `subprojects{}` in build scripts.