}
		return items.Interface(), nil
	case reflect.Slice:
		return items.Addr().Interface(), nil
	default:
		return nil, errExpectSliceItems
	}
}

// EachListItem invokes fn on each runtime.Object in the list. Any error immediately terminates
// the loop.
//
// If items passed to fn are retained for different durations, and you want to avoid

        }),
        /**
         * Renames the Closure's original `doCall` method and adds a wrapper method that invokes the original one.
         */
        RENAME_ORIGINAL_DO_CALL("doCall", null, false, (clazz, methodData) -> {
            // A Closure implementation may have an abstract doCall method. It makes no sense to rewrite that.

func (fd *FD) WriteOnce(p []byte) (int, error) {
	if err := fd.writeLock(); err != nil {
		return 0, err
	}
	defer fd.writeUnlock()
	return ignoringEINTRIO(syscall.Write, fd.Sysfd, p)
}

// RawRead invokes the user-defined function f for a read operation.
func (fd *FD) RawRead(f func(uintptr) bool) error {
	if err := fd.readLock(); err != nil {
		return err
	}
	defer fd.readUnlock()

// ContainerVisitor is called with each container spec, and returns true
// if visiting should continue.
type ContainerVisitor func(container *api.Container, containerType ContainerType) (shouldContinue bool)

// VisitContainers invokes the visitor function with a pointer to every container
// spec in the given pod spec with type set in mask. If visitor returns false,
// visiting is short-circuited. VisitContainers returns true if visiting completes,

If the non-Go code starts a new thread, changes the signal mask, and
then invokes a Go function in that thread, the Go runtime will
automatically unblock certain signals: the synchronous signals,
SIGILL, SIGTRAP, SIGSTKFLT, SIGCHLD, SIGPROF, SIGCANCEL, and
SIGSETXID. When the Go function returns, the non-Go signal mask will
be restored.

If the Go signal handler is invoked on a non-Go thread not running Go

file containing it. Then it invokes the host linker (usually gcc) to
combine the go.o object file and any supporting non-Go code into a
final executable. External linking avoids the dynamic library
requirement but introduces a requirement that the host linker be
present to create such a binary.

Most builds both compile source code and invoke the linker to create a

=====

== Step 2. Understanding the Gradle Wrapper
The Gradle Wrapper is the preferred way of starting a Gradle build.
The Wrapper downloads (if needed) and then invokes a specific version of Gradle declared in the build.

In your newly created project, take a look at the files used by the Gradle Wrapper first.

        assertNotNull(classUnderTest.getGreeting(), "app should have a greeting");
    }
}
----

The generated test class has a single _JUnit Jupiter_ test.
The test instantiates the `App` class, invokes a method on it, and checks that it returns the expected value.

== Step 5. Run the App

The Application plugin, which was automatically added by `gradle init`, facilitates creating an executable JVM application:

 * correctly, calls must be chained as illustrated above.
 *
 * <p>Performance note: Even though the {@code ComparisonChain} caller always invokes its {@code
 * compare} methods unconditionally, the {@code ComparisonChain} implementation stops calling its
 * inputs' {@link Comparable#compareTo compareTo} and {@link Comparator#compare compare} methods as

	// can be made on the basis of those rules that are found.
	RulesFor(user user.Info, namespace string) ([]rbacv1.PolicyRule, error)

	// VisitRulesFor invokes visitor() with each rule that applies to a given user in a given namespace, and each error encountered resolving those rules.
	// If visitor() returns false, visiting is short-circuited.