.ask() == 1
    }

    def "always returns default for int question"() {
        expect:
        userInputHandler.askIntQuestion('Enter something', 1, 2) == 2
    }

    def "always returns default for text question"() {
        expect:
        userInputHandler.askQuestion('Enter something', 'ok') == 'ok'
    }

For the other questions, press enter to use the default values.

The output will look like this:

[listing.terminal.sample-command,user-inputs="${componentTypeIndex.raw}|${languageIndex.raw}|1|||"]
----
\$ gradle init

Select type of project to generate:
  1: basic
  2: application
  3: library
  4: Gradle plugin
Enter selection (default: basic) [1..4] ${componentTypeIndex.raw}

	"internal/trace/event/go122"
	testgen "internal/trace/internal/testgen/go122"
)

func main() {
	testgen.Main(gen)
}

func gen(t *testgen.Trace) {
	g := t.Generation(1)

	// One goroutine enters a syscall.
	b0 := g.Batch(trace.ThreadID(0), 0)
	b0.Event("ProcStatus", trace.ProcID(0), go122.ProcRunning)
	b0.Event("GoStatus", trace.GoID(1), trace.ThreadID(0), go122.GoRunning)

// satisfied, it adjusts the signal context to make it look like the
// signaled thread just called asyncPreempt and resumes the thread.
// asyncPreempt spills all registers and enters the scheduler.
//
// (An alternative would be to preempt in the signal handler itself.
// This would let the OS save and restore the register state and the
// runtime would only need to know how to extract potentially

            builder.append(i + 1);
            builder.append(": ");
            builder.append(options.get(i));
            builder.append(TextUtil.getPlatformLineSeparator());
        }
        builder.append("Enter selection (default: ");
        builder.append(options.get(defaultOption));
        builder.append(") [1..");
        builder.append(options.size());
        builder.append("] ");
        return builder.toString();
    }

    %2:2 = tf_executor.Enter %1#0 frame "while/while_context" parallel_iterations 10 : (tensor<!tf_type.int32ref>) -> (tensor<*x!tf_type.int32ref>, !tf_executor.control) {device = "", T = "tfdtype$DT_INT32"} loc("while/Enter")
    %3:3 = tf_executor.Merge %2#0, %0#0 : tensor<*x!tf_type.int32ref> {device = "", N = 2, T = "tfdtype$DT_INT32"} loc("while/Merge")

	"internal/trace/event/go122"
	testgen "internal/trace/internal/testgen/go122"
)

func main() {
	testgen.Main(gen)
}

func gen(t *testgen.Trace) {
	g := t.Generation(1)

	// One goroutine enters a syscall, grabs a P, and starts running.
	b0 := g.Batch(trace.ThreadID(0), 0)
	b0.Event("ProcStatus", trace.ProcID(1), go122.ProcIdle)
	b0.Event("ProcStatus", trace.ProcID(0), go122.ProcRunning)

	"internal/trace/event/go122"
	testgen "internal/trace/internal/testgen/go122"
)

func main() {
	testgen.Main(gen)
}

func gen(t *testgen.Trace) {
	g := t.Generation(1)

	// One goroutine enters a syscall.
	b0 := g.Batch(trace.ThreadID(0), 0)
	b0.Event("ProcStatus", trace.ProcID(0), go122.ProcRunning)
	b0.Event("GoStatus", trace.GoID(1), trace.ThreadID(0), go122.GoRunning)

	"internal/trace/event/go122"
	testgen "internal/trace/internal/testgen/go122"
)

func main() {
	testgen.Main(gen)
}

func gen(t *testgen.Trace) {
	g := t.Generation(1)

	// One goroutine enters a syscall, grabs a P, and starts running.
	b0 := g.Batch(trace.ThreadID(0), 0)
	b0.Event("ProcStatus", trace.ProcID(1), go122.ProcIdle)
	b0.Event("ProcStatus", trace.ProcID(0), go122.ProcRunning)

The output with correct credentials will be:
=====
[.sample-command]
----
> Task :login
Enter userame:
Enter password:
Welcome, secret-user!

> Task :doAuthenticated
doAuthenticated

BUILD SUCCESSFUL in 496ms
2 actionable tasks: 2 executed
----