// Testing IPV6 from MAC address func TestBridgeIpv6FromMac(t *testing.T) { if !testutils.IsRunningInContainer() { defer testutils.SetupTestOSContext(t)() } netOption := options.Generic{ netlabel.GenericData: options.Generic{ "BridgeName": "testipv6mac", "EnableICC": true, "EnableIPMasquerade": true, }, } ipamV4ConfList := []*libnetwork.IpamConf{{PreferredPool: "192.168.100.0/24", Gateway: "192.168.100.1"}} ipamV6ConfList := []*libnetwork.IpamConf{{PreferredPool: "fe90::/64", Gateway: "fe90::22"}} network, err := controller.NewNetwork(bridgeNetType, "testipv6mac", "", libnetwork.NetworkOptionGeneric(netOption), libnetwork.NetworkOptionEnableIPv6(true), libnetwork.NetworkOptionIpam(ipamapi.DefaultIPAM, "", ipamV4ConfList, ipamV6ConfList, nil), libnetwork.NetworkOptionDeferIPv6Alloc(true)) if err != nil { t.Fatal(err) } mac := net.HardwareAddr{0xaa, 0xbb, 0xcc, 0xdd, 0xee, 0xff} epOption := options.Generic{netlabel.MacAddress: mac} ep, err := network.CreateEndpoint("testep", libnetwork.EndpointOptionGeneric(epOption)) if err != nil { t.Fatal(err) } iface := ep.Info().Iface() if !bytes.Equal(iface.MacAddress(), mac) { t.Fatalf("Unexpected mac address: %v", iface.MacAddress()) } ip, expIP, _ := net.ParseCIDR("fe90::aabb:ccdd:eeff/64") expIP.IP = ip if !types.CompareIPNet(expIP, iface.AddressIPv6()) { t.Fatalf("Expected %v. Got: %v", expIP, iface.AddressIPv6()) } if err := ep.Delete(false); err != nil { t.Fatal(err) } if err := network.Delete(); err != nil { t.Fatal(err) } }
func (container *Container) buildCreateEndpointOptions(n libnetwork.Network) ([]libnetwork.EndpointOption, error) { var ( portSpecs = make(nat.PortSet) bindings = make(nat.PortMap) pbList []types.PortBinding exposeList []types.TransportPort createOptions []libnetwork.EndpointOption ) if n.Name() == "bridge" || container.NetworkSettings.IsAnonymousEndpoint { createOptions = append(createOptions, libnetwork.CreateOptionAnonymous()) } // Other configs are applicable only for the endpoint in the network // to which container was connected to on docker run. if n.Name() != container.hostConfig.NetworkMode.NetworkName() && !(n.Name() == "bridge" && container.hostConfig.NetworkMode.IsDefault()) { return createOptions, nil } if container.Config.ExposedPorts != nil { portSpecs = container.Config.ExposedPorts } if container.hostConfig.PortBindings != nil { for p, b := range container.hostConfig.PortBindings { bindings[p] = []nat.PortBinding{} for _, bb := range b { bindings[p] = append(bindings[p], nat.PortBinding{ HostIP: bb.HostIP, HostPort: bb.HostPort, }) } } } ports := make([]nat.Port, len(portSpecs)) var i int for p := range portSpecs { ports[i] = p i++ } nat.SortPortMap(ports, bindings) for _, port := range ports { expose := types.TransportPort{} expose.Proto = types.ParseProtocol(port.Proto()) expose.Port = uint16(port.Int()) exposeList = append(exposeList, expose) pb := types.PortBinding{Port: expose.Port, Proto: expose.Proto} binding := bindings[port] for i := 0; i < len(binding); i++ { pbCopy := pb.GetCopy() newP, err := nat.NewPort(nat.SplitProtoPort(binding[i].HostPort)) var portStart, portEnd int if err == nil { portStart, portEnd, err = newP.Range() } if err != nil { return nil, derr.ErrorCodeHostPort.WithArgs(binding[i].HostPort, err) } pbCopy.HostPort = uint16(portStart) pbCopy.HostPortEnd = uint16(portEnd) pbCopy.HostIP = net.ParseIP(binding[i].HostIP) pbList = append(pbList, pbCopy) } if container.hostConfig.PublishAllPorts && len(binding) == 0 { pbList = append(pbList, pb) } } createOptions = append(createOptions, libnetwork.CreateOptionPortMapping(pbList), libnetwork.CreateOptionExposedPorts(exposeList)) if container.Config.MacAddress != "" { mac, err := net.ParseMAC(container.Config.MacAddress) if err != nil { return nil, err } genericOption := options.Generic{ netlabel.MacAddress: mac, } createOptions = append(createOptions, libnetwork.EndpointOptionGeneric(genericOption)) } return createOptions, nil }
// BuildCreateEndpointOptions builds endpoint options from a given network. func (container *Container) BuildCreateEndpointOptions(n libnetwork.Network, epConfig *networktypes.EndpointSettings, sb libnetwork.Sandbox, daemonDNS []string) ([]libnetwork.EndpointOption, error) { var ( bindings = make(nat.PortMap) pbList []types.PortBinding exposeList []types.TransportPort createOptions []libnetwork.EndpointOption ) defaultNetName := runconfig.DefaultDaemonNetworkMode().NetworkName() if (!container.EnableServiceDiscoveryOnDefaultNetwork() && n.Name() == defaultNetName) || container.NetworkSettings.IsAnonymousEndpoint { createOptions = append(createOptions, libnetwork.CreateOptionAnonymous()) } if epConfig != nil { ipam := epConfig.IPAMConfig if ipam != nil && (ipam.IPv4Address != "" || ipam.IPv6Address != "" || len(ipam.LinkLocalIPs) > 0) { var ipList []net.IP for _, ips := range ipam.LinkLocalIPs { if ip := net.ParseIP(ips); ip != nil { ipList = append(ipList, ip) } } createOptions = append(createOptions, libnetwork.CreateOptionIpam(net.ParseIP(ipam.IPv4Address), net.ParseIP(ipam.IPv6Address), ipList, nil)) } for _, alias := range epConfig.Aliases { createOptions = append(createOptions, libnetwork.CreateOptionMyAlias(alias)) } } if container.NetworkSettings.Service != nil { svcCfg := container.NetworkSettings.Service var vip string if svcCfg.VirtualAddresses[n.ID()] != nil { vip = svcCfg.VirtualAddresses[n.ID()].IPv4 } var portConfigs []*libnetwork.PortConfig for _, portConfig := range svcCfg.ExposedPorts { portConfigs = append(portConfigs, &libnetwork.PortConfig{ Name: portConfig.Name, Protocol: libnetwork.PortConfig_Protocol(portConfig.Protocol), TargetPort: portConfig.TargetPort, PublishedPort: portConfig.PublishedPort, }) } createOptions = append(createOptions, libnetwork.CreateOptionService(svcCfg.Name, svcCfg.ID, net.ParseIP(vip), portConfigs, svcCfg.Aliases[n.ID()])) } if !containertypes.NetworkMode(n.Name()).IsUserDefined() { createOptions = append(createOptions, libnetwork.CreateOptionDisableResolution()) } // configs that are applicable only for the endpoint in the network // to which container was connected to on docker run. // Ideally all these network-specific endpoint configurations must be moved under // container.NetworkSettings.Networks[n.Name()] if n.Name() == container.HostConfig.NetworkMode.NetworkName() || (n.Name() == defaultNetName && container.HostConfig.NetworkMode.IsDefault()) { if container.Config.MacAddress != "" { mac, err := net.ParseMAC(container.Config.MacAddress) if err != nil { return nil, err } genericOption := options.Generic{ netlabel.MacAddress: mac, } createOptions = append(createOptions, libnetwork.EndpointOptionGeneric(genericOption)) } } // Port-mapping rules belong to the container & applicable only to non-internal networks portmaps := GetSandboxPortMapInfo(sb) if n.Info().Internal() || len(portmaps) > 0 { return createOptions, nil } if container.HostConfig.PortBindings != nil { for p, b := range container.HostConfig.PortBindings { bindings[p] = []nat.PortBinding{} for _, bb := range b { bindings[p] = append(bindings[p], nat.PortBinding{ HostIP: bb.HostIP, HostPort: bb.HostPort, }) } } } portSpecs := container.Config.ExposedPorts ports := make([]nat.Port, len(portSpecs)) var i int for p := range portSpecs { ports[i] = p i++ } nat.SortPortMap(ports, bindings) for _, port := range ports { expose := types.TransportPort{} expose.Proto = types.ParseProtocol(port.Proto()) expose.Port = uint16(port.Int()) exposeList = append(exposeList, expose) pb := types.PortBinding{Port: expose.Port, Proto: expose.Proto} binding := bindings[port] for i := 0; i < len(binding); i++ { pbCopy := pb.GetCopy() newP, err := nat.NewPort(nat.SplitProtoPort(binding[i].HostPort)) var portStart, portEnd int if err == nil { portStart, portEnd, err = newP.Range() } if err != nil { return nil, fmt.Errorf("Error parsing HostPort value(%s):%v", binding[i].HostPort, err) } pbCopy.HostPort = uint16(portStart) pbCopy.HostPortEnd = uint16(portEnd) pbCopy.HostIP = net.ParseIP(binding[i].HostIP) pbList = append(pbList, pbCopy) } if container.HostConfig.PublishAllPorts && len(binding) == 0 { pbList = append(pbList, pb) } } var dns []string if len(container.HostConfig.DNS) > 0 { dns = container.HostConfig.DNS } else if len(daemonDNS) > 0 { dns = daemonDNS } if len(dns) > 0 { createOptions = append(createOptions, libnetwork.CreateOptionDNS(dns)) } createOptions = append(createOptions, libnetwork.CreateOptionPortMapping(pbList), libnetwork.CreateOptionExposedPorts(exposeList)) return createOptions, nil }
func (container *Container) buildCreateEndpointOptions() ([]libnetwork.EndpointOption, error) { var ( portSpecs = make(nat.PortSet) bindings = make(nat.PortMap) pbList []types.PortBinding exposeList []types.TransportPort createOptions []libnetwork.EndpointOption ) if container.Config.ExposedPorts != nil { portSpecs = container.Config.ExposedPorts } if container.hostConfig.PortBindings != nil { for p, b := range container.hostConfig.PortBindings { bindings[p] = []nat.PortBinding{} for _, bb := range b { bindings[p] = append(bindings[p], nat.PortBinding{ HostIP: bb.HostIP, HostPort: bb.HostPort, }) } } } ports := make([]nat.Port, len(portSpecs)) var i int for p := range portSpecs { ports[i] = p i++ } nat.SortPortMap(ports, bindings) for _, port := range ports { expose := types.TransportPort{} expose.Proto = types.ParseProtocol(port.Proto()) expose.Port = uint16(port.Int()) exposeList = append(exposeList, expose) pb := types.PortBinding{Port: expose.Port, Proto: expose.Proto} binding := bindings[port] for i := 0; i < len(binding); i++ { pbCopy := pb.GetCopy() newP, err := nat.NewPort(nat.SplitProtoPort(binding[i].HostPort)) var portStart, portEnd int if err == nil { portStart, portEnd, err = newP.Range() } if err != nil { return nil, fmt.Errorf("Error parsing HostPort value(%s):%v", binding[i].HostPort, err) } pbCopy.HostPort = uint16(portStart) pbCopy.HostPortEnd = uint16(portEnd) pbCopy.HostIP = net.ParseIP(binding[i].HostIP) pbList = append(pbList, pbCopy) } if container.hostConfig.PublishAllPorts && len(binding) == 0 { pbList = append(pbList, pb) } } createOptions = append(createOptions, libnetwork.CreateOptionPortMapping(pbList), libnetwork.CreateOptionExposedPorts(exposeList)) if container.Config.MacAddress != "" { mac, err := net.ParseMAC(container.Config.MacAddress) if err != nil { return nil, err } genericOption := options.Generic{ netlabel.MacAddress: mac, } createOptions = append(createOptions, libnetwork.EndpointOptionGeneric(genericOption)) } return createOptions, nil }
// BuildCreateEndpointOptions builds endpoint options from a given network. func (container *Container) BuildCreateEndpointOptions(n libnetwork.Network, epConfig *network.EndpointSettings, sb libnetwork.Sandbox) ([]libnetwork.EndpointOption, error) { var ( portSpecs = make(nat.PortSet) bindings = make(nat.PortMap) pbList []types.PortBinding exposeList []types.TransportPort createOptions []libnetwork.EndpointOption ) if n.Name() == "bridge" || container.NetworkSettings.IsAnonymousEndpoint { createOptions = append(createOptions, libnetwork.CreateOptionAnonymous()) } if epConfig != nil { ipam := epConfig.IPAMConfig if ipam != nil && (ipam.IPv4Address != "" || ipam.IPv6Address != "") { createOptions = append(createOptions, libnetwork.CreateOptionIpam(net.ParseIP(ipam.IPv4Address), net.ParseIP(ipam.IPv6Address), nil)) } for _, alias := range epConfig.Aliases { createOptions = append(createOptions, libnetwork.CreateOptionMyAlias(alias)) } } if !containertypes.NetworkMode(n.Name()).IsUserDefined() { createOptions = append(createOptions, libnetwork.CreateOptionDisableResolution()) } // configs that are applicable only for the endpoint in the network // to which container was connected to on docker run. // Ideally all these network-specific endpoint configurations must be moved under // container.NetworkSettings.Networks[n.Name()] if n.Name() == container.HostConfig.NetworkMode.NetworkName() || (n.Name() == "bridge" && container.HostConfig.NetworkMode.IsDefault()) { if container.Config.MacAddress != "" { mac, err := net.ParseMAC(container.Config.MacAddress) if err != nil { return nil, err } genericOption := options.Generic{ netlabel.MacAddress: mac, } createOptions = append(createOptions, libnetwork.EndpointOptionGeneric(genericOption)) } } // Port-mapping rules belong to the container & applicable only to non-internal networks portmaps := getSandboxPortMapInfo(sb) if n.Info().Internal() || len(portmaps) > 0 { return createOptions, nil } if container.Config.ExposedPorts != nil { portSpecs = container.Config.ExposedPorts } if container.HostConfig.PortBindings != nil { for p, b := range container.HostConfig.PortBindings { bindings[p] = []nat.PortBinding{} for _, bb := range b { bindings[p] = append(bindings[p], nat.PortBinding{ HostIP: bb.HostIP, HostPort: bb.HostPort, }) } } } ports := make([]nat.Port, len(portSpecs)) var i int for p := range portSpecs { ports[i] = p i++ } nat.SortPortMap(ports, bindings) for _, port := range ports { expose := types.TransportPort{} expose.Proto = types.ParseProtocol(port.Proto()) expose.Port = uint16(port.Int()) exposeList = append(exposeList, expose) pb := types.PortBinding{Port: expose.Port, Proto: expose.Proto} binding := bindings[port] for i := 0; i < len(binding); i++ { pbCopy := pb.GetCopy() newP, err := nat.NewPort(nat.SplitProtoPort(binding[i].HostPort)) var portStart, portEnd int if err == nil { portStart, portEnd, err = newP.Range() } if err != nil { return nil, derr.ErrorCodeHostPort.WithArgs(binding[i].HostPort, err) } pbCopy.HostPort = uint16(portStart) pbCopy.HostPortEnd = uint16(portEnd) pbCopy.HostIP = net.ParseIP(binding[i].HostIP) pbList = append(pbList, pbCopy) } if container.HostConfig.PublishAllPorts && len(binding) == 0 { pbList = append(pbList, pb) } } createOptions = append(createOptions, libnetwork.CreateOptionPortMapping(pbList), libnetwork.CreateOptionExposedPorts(exposeList)) return createOptions, nil }
func (container *Container) buildCreateEndpointOptions() ([]libnetwork.EndpointOption, error) { var ( portSpecs = make(nat.PortSet) bindings = make(nat.PortMap) pbList []types.PortBinding exposeList []types.TransportPort createOptions []libnetwork.EndpointOption ) if container.Config.PortSpecs != nil { if err := migratePortMappings(container.Config, container.hostConfig); err != nil { return nil, err } container.Config.PortSpecs = nil if err := container.WriteHostConfig(); err != nil { return nil, err } } if container.Config.ExposedPorts != nil { portSpecs = container.Config.ExposedPorts } if container.hostConfig.PortBindings != nil { for p, b := range container.hostConfig.PortBindings { bindings[p] = []nat.PortBinding{} for _, bb := range b { bindings[p] = append(bindings[p], nat.PortBinding{ HostIp: bb.HostIp, HostPort: bb.HostPort, }) } } } container.NetworkSettings.PortMapping = nil ports := make([]nat.Port, len(portSpecs)) var i int for p := range portSpecs { ports[i] = p i++ } nat.SortPortMap(ports, bindings) for _, port := range ports { expose := types.TransportPort{} expose.Proto = types.ParseProtocol(port.Proto()) expose.Port = uint16(port.Int()) exposeList = append(exposeList, expose) pb := types.PortBinding{Port: expose.Port, Proto: expose.Proto} binding := bindings[port] for i := 0; i < len(binding); i++ { pbCopy := pb.GetCopy() pbCopy.HostPort = uint16(nat.Port(binding[i].HostPort).Int()) pbCopy.HostIP = net.ParseIP(binding[i].HostIp) pbList = append(pbList, pbCopy) } if container.hostConfig.PublishAllPorts && len(binding) == 0 { pbList = append(pbList, pb) } } createOptions = append(createOptions, libnetwork.CreateOptionPortMapping(pbList), libnetwork.CreateOptionExposedPorts(exposeList)) if container.Config.MacAddress != "" { mac, err := net.ParseMAC(container.Config.MacAddress) if err != nil { return nil, err } genericOption := options.Generic{ netlabel.MacAddress: mac, } createOptions = append(createOptions, libnetwork.EndpointOptionGeneric(genericOption)) } return createOptions, nil }