},
						},
					},
					PortNames: map[int32]model.ServicePortName{
						// Not a named port
						80: {PortName: "80"},
						// Named port found in WE
						81: {PortName: "81", TargetPortName: "81-target"},
						// Named port target found in WE
						82: {PortName: "82", TargetPortName: "82-target"},
						// Named port not found in WE
						83: {PortName: "83", TargetPortName: "83-target"},
					},

				// ServiceEntry has no explicit named targetPorts; targetPort only allows a number
				// Instead, there is name matching between the port names
				if named, f := svc.PortNames[int32(port.ServicePort)]; f {
					// get port name or target port
					tv, ok := p.Ports[named.PortName]
					if ok {
						// if we match one, override it. Otherwise, use the service port
						targetPort = tv
					} else if targetPort == 0 {

}

type ServicePortName struct {
	PortName       string
	TargetPortName string
}

type ServiceInfo struct {
	*workloadapi.Service
	// LabelSelectors for the Service. Note these are only used internally, not sent over XDS
	LabelSelector
	// PortNames provides a mapping of ServicePort -> port names. Note these are only used internally, not sent over XDS
	PortNames map[int32]ServicePortName

			if port.Name == nil {
				klog.ErrorS(nil, "Ignoring port with nil name", "portName", port.Name)
				continue
			}
			// TODO: handle nil ports to mean "all"
			if port.Port == nil || *port.Port == int32(0) {
				klog.ErrorS(nil, "Ignoring invalid endpoint port", "portName", *port.Name)
				continue
			}

			svcPortName := ServicePortName{
				NamespacedName: serviceNN,

	}

	// This is a gateway. Get all the fields in the gateway's RDS route name
	routePortNumber, portName, gateway := model.ParseGatewayRDSRouteName(rc.Name)
	if rMatch.PortNumber != 0 && !anyPortMatches(portMap, routePortNumber, int(rMatch.PortNumber)) {
		return false
	}
	if rMatch.PortName != "" && rMatch.PortName != portName {
		return false
	}
	if rMatch.Gateway != "" && rMatch.Gateway != gateway {
		return false
	}

        val ktFile: KtFile = ktFileStub.psi
        addToFacadeFileMap(ktFile)

        val partNames = ktFileStub.facadePartSimpleNames
        if (partNames != null) {
            val packageFqName = ktFileStub.getPackageFqName()
            for (partName in partNames) {
                val multiFileClassPartFqName: FqName = packageFqName.child(Name.identifier(partName))

// (https.<portNumber>.<portName>.<gatewayName>.<namespace>) so that when a RDS request comes in, we serve the virtual
// hosts and associated routes for that server.
//
// Note that the common case is one where multiple servers are exposed under a single multi-SAN cert on a single port.
// In this case, we have a single https.<portNumber>.<portName>.<gatewayName>.<namespace> RDS for the HTTPS server.

    network: external
  ports:
  - number: 80
    name: http
  resolution: DNS
`
)

// TestCase represents what is being tested
type TestCase struct {
	Name     string
	PortName string
	HTTP2    bool
	Host     string
	Expected Expected
}

// Expected contains the metric and query to run against
// prometheus to validate that expected telemetry information was gathered;

			for _, port := range slice.Ports {
				var portNum int32
				if port.Port != nil {
					portNum = *port.Port
				}
				var portName string
				if port.Name != nil {
					portName = *port.Name
				}

				istioEndpoint := builder.buildIstioEndpoint(a, portNum, portName, discoverabilityPolicy, healthStatus)
				endpoints = append(endpoints, istioEndpoint)
			}
		}
	}

	sidecarScope := proxy.SidecarScope
	for _, ingressListener := range sidecarScope.Sidecar.Ingress {
		// LDS would have setup the inbound clusters
		// as inbound|portNumber|portName|Hostname[or]SidecarScopeID
		listenPort := &model.Port{
			Port:     int(ingressListener.Port.Number),
			Protocol: protocol.Parse(ingressListener.Port.Protocol),
			Name:     ingressListener.Port.Name,
		}