println "root: " + doSomethingElse(10)
"""
        file("child1/build.gradle") << """
println "child: " + doSomething(11)
println "child: " + doSomethingElse(11)
"""

        expect:
        // Invoke twice to exercise script caching
        succeeds()
        outputContains("root: {10}")
        outputContains("root: [10]")
        outputContains("child: {11}")
        outputContains("child: [11]")

        and:

* Run the build and view the test report
* Customize the Jar files the build produces

Now you could complete this exercise by trying to compile some ${language.raw} code that uses the library you just built.

== Next steps

Building a library is just one aspect of reusing code across project boundaries.
From here, you may be interested in:

 - link:{userManualPath}/building_java_projects.html[Building Java & JVM projects]

		evalExecutingMetrics:        true,
		clk:                         clk,
		counter:                     counter,
		seatDemandIntegratorSubject: seatDemandIntegratorSubject,
	}.exercise(t)
}

// TestWindup exercises a scenario with the windup problem.
// That is, a flow that can not use all the seats that it is allocated
// for a while.  During that time, the queues that serve that flow

		panic("testLargeOffset: address mismatch")
	}
}

func main() {
	testLoop()

	// SSA rules commonly merge offsets into addresses. These
	// tests access global data in different ways to try
	// and exercise different SSA rules.
	testMediumOffset()
	testLargeOffset()

	debug.SetGCPercent(-1)
	// Out of an abundance of caution, also make sure that there are
	// no GCs actively in progress.
	runtime.GC()

	// Run badLR1 on its own stack to minimize the stack size and
	// exercise the stack bounds logic in the hex dump.
	go badLR1()
	select {}
}

//go:noinline
func badLR1() {
	// We need two frames on LR machines because we'll smash this
	// frame's saved LR.
	badLR2(0)
}

func init() {
	userImplemented = false
	groupImplemented = false
	groupListImplemented = false
}

var (
	// unused variables (in this implementation)
	// modified during test to exercise code paths in the cgo implementation.
	userBuffer  = 0
	groupBuffer = 0
)

func current() (*User, error) {
	ubytes, err := os.ReadFile("/dev/user")
	if err != nil {
		return nil, fmt.Errorf("user: %s", err)

			t.Error(err)
		}
	}

	// Set up 10 watchers for custom resource.
	// We can't exercise them in a loop the same way as get requests, as watchcache
	// can reject them with 429 and Retry-After: 1 if it is uninitialized and even
	// though 429 is automatically retried, with frequent watchcache terminations and

        when:
        fails(":compileGroovy")

        then:
        // If the joint compilation is working correctly, we should exercise the JdkJavaCompiler and we should have detailed problems events
        verifyAll(receivedProblem(0)) {
            fqid == 'compilation:java:java-compilation-error'
            details == "';' expected"
        }

package user

import (
	"fmt"
	"os"
	"runtime"
	"strconv"
)

var (
	// unused variables (in this implementation)
	// modified during test to exercise code paths in the cgo implementation.
	userBuffer  = 0
	groupBuffer = 0
)

func current() (*User, error) {
	uid := currentUID()
	// $USER and /etc/passwd may disagree; prefer the latter if we can get it.

import (
	. "runtime"
	"syscall"
	"testing"
	"time"
	"unsafe"
)

var pid, tid int

func init() {
	// Record pid and tid of init thread for use during test.
	// The call to LockOSThread is just to exercise it;
	// we can't test that it does anything.
	// Instead we're testing that the conditions are good
	// for how it is used in init (must be on main thread).
	pid, tid = syscall.Getpid(), syscall.Gettid()
	LockOSThread()