// once the pod restarts (in CrashLoopBackoff), which can take some time.
	// We don't want to constantly try to apply the iptables rules, which is unneeded and will fail.
	// Instead, we track which UIDs we repaired and skip them if already repaired.
	//
	// An alternative would be to write something to the Pod (status, annotation, etc).
	// However, this requires elevated privileges we want to avoid
	if uid, f := c.repairedPods[key]; f {

apiVersion: v1
kind: Service
metadata:
  {{- if .Values.pilot.enabled }}
  # when local istiod is enabled, we can't use istiod service name to reach the remote control plane
  name: istiod{{- if .Values.revision }}-{{ .Values.revision}}{{- end }}-remote
  {{- else }}
  # when local istiod isn't enabled, we can use istiod service name to reach the remote control plane
  name: istiod{{- if .Values.revision }}-{{ .Values.revision}}{{- end }}

1. If the destination has a waypoint proxy, we must send to it to the waypoint (using HBONE).
   When we do this, we will want to preserve the original destination Service IP, as the waypoint can do a better job picking a backend pod than we can.

	switch event.Event {
	case controllers.EventAdd:
		// pod was added to our cache
		// we get here in 2 cases:
		// 1. new pod was created on our node
		// 2. we were restarted and current existing pods are added to our cache

		// We have no good way to distinguish between these two cases from here. But we don't need to!
		// Existing pods will be handled by the dataplane using `GetAmbientPods`,

  "reinvocationPolicy" .Values.sidecarInjectorWebhook.reinvocationPolicy
  "namespace" .Release.Namespace }}
{{- define "core" }}
{{- /* Kubernetes unfortunately requires a unique name for the webhook in some newer versions, so we assign
a unique prefix to each. */}}
- name: {{.Prefix}}sidecar-injector.istio.io
  clientConfig:
    {{- if .injectionURL }}
    url: "{{ .injectionURL }}"
    {{- else }}
    service:

	}
	oldest := uint64(math.MaxUint64)
	best := ""
	// We will iterate over all processes. Our goal is to find a process with the same network ID as we found above.
	// There should be 1 or 2 processes that match: the pause container should always be there, and the istio-validation *might*.
	// We want the pause container, as the istio-validation one may exit before we are done.

	}
	return len(mwhs.Items) > 0
}

// DeactivateIstioInjectionWebhook deactivates the istio-injection webhook from the given MutatingWebhookConfiguration if exists.
// used rather than just deleting the webhook since we want to keep it around after changing the default so user can later
// switch back to it. This is a hack but it is meant to cover a corner case where a user wants to migrate from a non-revisioned

	}
	return nil
}

func realDependencies() *dep.RealDependencies {
	return &dep.RealDependencies{
		CNIMode:          false, // we are in cni, but as we do the netns ourselves, we should keep this as false.
		NetworkNamespace: "",
	}
}

// Remove pod from mesh: pod is not deleted, we just want to remove it from the mesh.
func (s *NetServer) RemovePodFromMesh(ctx context.Context, pod *corev1.Pod) error {

// See the License for the specific language governing permissions and
// limitations under the License.

package constants

const (
	// In the below, we add the fwmask to ensure only that mark can match

	DNSCapturePort              = 15053
	ZtunnelInboundPort          = 15008
	ZtunnelOutboundPort         = 15001
	ZtunnelInboundPlaintextPort = 15006

	m, fds := readRequest(t, ztunClient)
	// we got am essage from ztun, so it should have observed us being connected
	mt.Assert(ztunnelConnected.Name(), nil, monitortest.Exactly(1))

	// we should get the fd to dev null. note that we can't assert the fd number
	// as the kernel may have given us a different number that refers to the same file.
	assert.Equal(t, len(fds), 1)
	// in theory we should close the fd, but it's just a test..