}

	assert.ElementsMatch(t, certConfig.AltNames.DNSNames, csr.DNSNames, "dns names not equal")

	assert.Len(t, csr.IPAddresses, len(certConfig.AltNames.IPs))

	for i, ip := range csr.IPAddresses {
		if !ip.Equal(certConfig.AltNames.IPs[i]) {
			t.Errorf("[%d]: %v != %v", i, ip, certConfig.AltNames.IPs[i])
		}
	}
}

				NetworksWatcher: mesh.NewFixedNetworksWatcher(&meshconfig.MeshNetworks{
					Networks: createGateways(numNetworks),
				}),
			})
			proxy := &model.Proxy{
				Type:            model.SidecarProxy,
				IPAddresses:     []string{"10.3.3.3"},
				ID:              "random",
				ConfigNamespace: "default",
				Metadata:        &model.NodeMetadata{},
			}
			push := s.PushContext()
			proxy.SetSidecarScope(push)

        }
        return def;
    }

    /**
     * Retrieve an array of <tt>InetAddress</tt> created from a property
     * value containting a <tt>delim</tt> separated list of hostnames and/or
     * ipaddresses.
     */

    public static InetAddress[] getInetAddressArray( String key, String delim, InetAddress[] def ) {
        String p = getProperty( key );
        if( p != null ) {

// on the nodes. Since each allocator doesn't stored the IPAddresses because it reads
// them from the informer cache, it is cheap to create and delete IP Allocators.
// MetaAllocator forwards the request to any of the internal allocators that has free
// addresses.

// MetaAllocator implements current allocator interface using
// ServiceCIDR and IPAddress API objects.
type MetaAllocator struct {

			},
			cidrSynced: deletingServiceCIDR.Name,
			actions:    [][]string{},
		},
		{
			name: "service CIDR being deleted with IPv4 addresses should update the status",
			cidrs: []*networkingapiv1alpha1.ServiceCIDR{
				deletedServiceCIDR,
			},
			ips: []*networkingapiv1alpha1.IPAddress{
				makeIPAddress("192.168.0.1"),
			},
			cidrSynced: deletedServiceCIDR.Name,

serviceCluster: istio-ingressgateway
statNameLength: 189
statusPort: 15020
tracing:
  zipkin:
    address: zipkin.istio-system:9411

	)

	type Case struct {
		name    string
		proxy   *model.Proxy
		configs sets.Set[model.ConfigKey]
		want    bool
	}

	sidecar := &model.Proxy{
		Type: model.SidecarProxy, IPAddresses: []string{"127.0.0.1"}, Metadata: &model.NodeMetadata{},
		SidecarScope: &model.SidecarScope{Name: generalName, Namespace: nsName},
	}
	gateway := &model.Proxy{
		Type:            model.Router,
		ConfigNamespace: nsName,

	// Let initial updates settle
	s.EnsureSynced(t)

	adscConn := s.Connect(&model.Proxy{Locality: util.ConvertLocality(asdcLocality), IPAddresses: []string{"10.10.10.10"}}, nil, watchAll)
	adscConn2 := s.Connect(&model.Proxy{Locality: util.ConvertLocality(asdc2Locality), IPAddresses: []string{"10.10.10.11"}}, nil, watchAll)

	t.Run("TCPEndpoints", func(t *testing.T) {
		testTCPEndpoints("127.0.0.1", adscConn, t)
	})

			return pod
		}
	}

	// only need to fetch the corresponding pod through the first IP, although there are multiple IP scenarios,
	// because multiple ips belong to the same pod
	proxyIP := proxy.IPAddresses[0]
	// just in case the proxy ID is bad formatted
	pods := pc.getPodsByIP(proxyIP)
	switch len(pods) {
	case 0:
		return nil
	case 1:
		return pods[0]
	default:

		Subject: pkix.Name{
			CommonName:   "test-common-name",
			Organization: testCertOrganization,
		},
		ExtKeyUsage: []x509.ExtKeyUsage{x509.ExtKeyUsageClientAuth},
		DNSNames:    []string{"test-domain.space"},
		IPAddresses: []net.IP{netutils.ParseIPSloppy("10.100.0.1")},
	}

	cfg := certToConfig(cert)

	if cfg.CommonName != expectedConfig.CommonName {