So basically selecting the right binary for one of the above cases is a heuristic with 2 inputs:

	"istio.io/istio/pilot/cmd/pilot-agent/status/ready"
	"istio.io/istio/pkg/kube/apimirror"
)

type WorkloadHealthChecker struct {
	config applicationHealthCheckConfig
	prober Prober
}

// internal field purely for convenience
type applicationHealthCheckConfig struct {
	InitialDelay   time.Duration
	ProbeTimeout   time.Duration
	CheckFrequency time.Duration
	SuccessThresh  int
	FailThresh     int
}

Used for declaring implementation dependencies for all variants of the main component (see <<sec:swift_library_api_vs_implementation,API vs implementation section>>).
This is where you should declare dependencies which are purely internal and not meant to be exposed to consumers of any variants.

`main__Variant__Implementation` (e.g. `mainDebugImplementation` and `mainReleaseImplementation`) extends `implementation`::

            }

            if (!plugin.isExtensions()
                    && artifacts.size() == 1
                    && artifacts.get(0).getFile() != null) {
                /*
                 * This is purely for backward-compat with 2.x where <extensions> consisting of a single artifact where
                 * loaded into the core and hence available to plugins, in contrast to bigger extensions that were

 * latest strategy nor a ivy instance is set, an IllegalStateException will be thrown when calling
 * accept(). Note that it can't work with latest time strategy, cause no time is known for the
 * limits of the range. Therefore only purely revision based LatestStrategy can be used.
 */
public class VersionRangeSelector extends AbstractVersionVersionSelector {
    private static final String OPEN_INC = "[";

    private static final String OPEN_EXC = "]";

Used for declaring implementation dependencies for all variants of the main component (see <<sec:cpp_library_api_vs_implementation,API vs implementation section>>).
This is where you should declare dependencies which are purely internal and not meant to be exposed to consumers of any variants.

`main__Variant__Implementation` (e.g. `mainDebugImplementation` and `mainReleaseImplementation`) extends `implementation`::

   * call cancel() and be unable to cancel the delegate.
   * There are a number of ways to solve this, none of which are very pretty, and it is currently
   * believed to be a purely theoretical problem (since the other actions should supply sufficient
   * write-barriers).
   */

  @CheckForNull @LazyInit private ListenableFuture<V> delegateRef;
  @CheckForNull @LazyInit private ScheduledFuture<?> timer;

	log.Debugf("annotating pod %s", pod.Name)
	if err := util.AnnotateEnrolledPod(s.kubeClient, &pod.ObjectMeta); err != nil {
		log.Errorf("failed to annotate pod enrollment: %v", err)
		// don't return error here, as this is purely informational.
	}
	return retErr
}

func (s *meshDataplane) RemovePodFromMesh(ctx context.Context, pod *corev1.Pod) error {
	log := log.WithLabels("ns", pod.Namespace, "name", pod.Name)

	"io/fs"
	"os"
	"slices"
)

const (
	Separator     = os.PathSeparator
	ListSeparator = os.PathListSeparator
)

// Clean returns the shortest path name equivalent to path
// by purely lexical processing. It applies the following rules
// iteratively until no further processing can be done:
//
//  1. Replace multiple [Separator] elements with a single one.

   * call cancel() and be unable to cancel the delegate.
   * There are a number of ways to solve this, none of which are very pretty, and it is currently
   * believed to be a purely theoretical problem (since the other actions should supply sufficient
   * write-barriers).
   */

  @CheckForNull @LazyInit private ListenableFuture<V> delegateRef;
  @CheckForNull @LazyInit private ScheduledFuture<?> timer;