Abstract: A method performed by a WTRU may comprise receiving context information from infrastructure equipment and selecting a SLAP quadrant for MAC address allocation. The selecting may be based on the context information received from the infrastructure equipment, which may be a bootstrapping server for the WTRU. The method may further comprise transmitting, to a DHCP server, a DHCP message indicating the selected SLAP quadrant. In response to the transmitted DHCP message, a MAC address may be received and configured to the WTRU. Context information includes, but is not limited to, a number of nodes in a network, a type of network deployment, a type of network, a mobility configuration, a type of device management, a battery lifetime, a location or privacy configuration.

Abstract: Systems, methods, and instrumentalities are described for a wireless transmit/receive unit (WTRU), comprising a memory, and a processor to execute instructions from the memory, wherein the processor is configured to access a non-3rd Generation Partnership Project (3GPP) Access Network (AN), establish a link with a Non-3GPP Interworking Function (N3IWF) via the non-3GPP AN, request information from the N3IWF about network slicing capabilities of a 3GPP Radio Access Network (RAN), receive information from the N3IWF about network slicing capabilities of the 3GPP RAN, and determine whether to register with the 3GPP RAN based upon the network slicing capabilities of the 3GPP RAN. Systems, methods, and instrumentalities are described for sending information about network slicing capabilities of a 3GPP RAN to a N3IWF, establishing a link between a WTRU operating on a non-3GPP AN and the N3IWF via the non-3GPP AN, and sending information from the N3IWF to the WTRU about network slicing capabilities of the 3GPP RAN.

Abstract: A method implemented by a wireless transmit/receive unit includes transmitting a first request message for requesting a list of applications available to the wireless transmit/receive unit in a multi-access edge computing system and receiving a first response message indicating the list of available applications, and, for at least one application, any of a supported latency, a supported bandwidth, a supported reliability, a supported jitter and a supported path redundancy A second request message is transited indicating any of a requested latency, a requested bandwidth, a requested reliability, a requested jitter and a requested path redundancy, based on any of the indicated supported latency, the indicated supported bandwidth, the indicated supported reliability, the indicated supported jitter and the indicated supported path redundancy. A second response message is received indicating any of a provided latency, a provided bandwidth, a provided reliability, a provided jitter and a provided path redundancy.

Abstract: A method performed by a WTRU may comprise receiving context information from infrastructure equipment and selecting a SLAP quadrant for MAC address allocation. The selecting may be based on the context information received from the infrastructure equipment, which may be a bootstrapping server for the WTRU. The method may further comprise transmitting, to a DHCP server, a DHCP message indicating the selected SLAP quadrant. In response to the transmitted DHCP message, a MAC address may be received and configured to the WTRU. Context information includes, but is not limited to, a number of nodes in a network, a type of network deployment, a type of network, a mobility configuration, a type of device management, a battery lifetime, a location or privacy configuration.

Abstract: Systems, methods, and instrumentalities are described for a wireless transmit/receive unit (WTRU), comprising a memory, and a processor to execute instructions from the memory, wherein the processor is configured to access a non-3rd Generation Partnership Project (3GPP) Access Network (AN), establish a link with a Non-3GPP Interworking Function (N3IWF) via the non-3GPP AN, request information from the N3IWF about network slicing capabilities of a 3GPP Radio Access Network (RAN), receive information from the N3IWF about network slicing capabilities of the 3GPP RAN, and determine whether to register with the 3GPP RAN based upon the network slicing capabilities of the 3GPP RAN. Systems, methods, and instrumentalities are described for sending information about network slicing capabilities of a 3GPP RAN to a N3IWF, establishing a link between a WTRU operating on a non-3GPP AN and the N3IWF via the non-3GPP AN, and sending information from the N3IWF to the WTRU about network slicing capabilities of the 3GPP RAN.

Abstract: Methods, apparatus, systems, architectures and interfaces for a Multi-access Edge Computing (MEC) host providing a MEC platform, including a reliable and available wireless (RAW) control entity, are provided. A method may include any of: generating MEC application information associated with a MEC-to-RAW request according to information indicating a MEC application; transmitting, to another network entity, the MEC-to-RAW request including the MEC application information; and receiving, from the other network entity, a MEC-to-RAW response including information indicating any of: (1) a wireless communication network path, and (2) RAW control information associated with the wireless communication network path.

Abstract: Methods and apparatuses are described for dynamic medium access control (MAC) address distribution in a wireless network. A station (STA) may receive, from an access point (AP), a frame that includes an indicator indicating at least one MAC address type or MAC address policy supported by an extended service set (ESS) associated with the AP. The indicator may comprise an 8 bit bitmap. The STA may then transmit, to the AP, a request message that includes MAC Address Assignment Protocol information determined based on the at least one MAC address type or MAC address policy. The STA may receive a response message that includes a local medium access control (MAC) address assigned based on the MAC Address Assignment Protocol information. The STA may transmit, to the AP, an association request frame with the local MAC address.

Abstract: Methods and apparatus for performing local lifecycle management with distributed Service Function Chaining (SFC) control are disclosed. In an example, a method for wireless communications includes determining, in a Service Function Chain, that a first SFC controller of a set of SFC controllers is a primary SFC controller, determining whether at least one trigger condition is satisfied, and selecting, from the set of SFC controllers, a second SFC controller as the primary SFC controller to substitute the first SFC controller based on the at least one trigger condition being satisfied.

Abstract: Methods and apparatuses are described for dynamic medium access control (MAC) address distribution in a wireless network. A station (STA) may receive, from an access point (AP), a frame that includes an indicator indicating at least one MAC address type or MAC address policy supported by an extended service set (ESS) associated with the AP. The indicator may comprise an 8 bit bitmap. The STA may then transmit, to the AP, a request message that includes MAC Address Assignment Protocol information determined based on the at least one MAC address type or MAC address policy. The STA may receive a response message that includes a local medium access control (MAC) address assigned based on the MAC Address Assignment Protocol information. The STA may transmit, to the AP, an association request frame with the local MAC address.

Abstract: A method performed by a WTRU may comprise receiving context information from infrastructure equipment and selecting a SLAP quadrant for MAC address allocation. The selecting may be based on the context information received from the infrastructure equipment, which may be a bootstrapping server for the WTRU. The method may further comprise transmitting, to a DHCP server, a DHCP message indicating the selected SLAP quadrant. In response to the transmitted DHCP message, a MAC address may be received and configured to the WTRU. Context information includes, but is not limited to, a number of nodes in a network, a type of network deployment, a type of network, a mobility configuration, a type of device management, a battery lifetime, a location or privacy configuration.

Abstract: Systems, methods, and instrumentalities are described for a wireless transmit/receive unit (WTRU), comprising a memory, and a processor to execute instructions from the memory, wherein the processor is configured to access a non-3rd Generation Partnership Project (3GPP) Access Network (AN), establish a link with a Non-3GPP Interworking Function (N3IWF) via the non-3GPP AN, request information from the N3IWF about network slicing capabilities of a 3GPP Radio Access Network (RAN), receive information from the N3IWF about network slicing capabilities of the 3GPP RAN, and determine whether to register with the 3GPP RAN based upon the network slicing capabilities of the 3GPP RAN. Systems, methods, and instrumentalities are described for sending information about network slicing capabilities of a 3GPP RAN to a N3IWF, establishing a link between a WTRU operating on a non-3GPP AN and the N3IWF via the non-3GPP AN, and sending information from the N3IWF to the WTRU about network slicing capabilities of the 3GPP RAN.

Abstract: A method and apparatus are provided to enable or aid network-controlled selection of an IP address (and anchor) to be used by a WTRU on an application/service basis. In one example, a method is provided for a WTRU to establish a link with a gateway, transmit a query related to a selected application via the gateway, receive an advertisement for an internet protocol (IP) address, and use the IP address to communicate via the gateway with respect to the selected application. It may be assumed that there are more than one possible IP address/anchor available for the WTRU to use, as it might be the case in a mobility environment, in which an operator can provide addresses with different mobility capabilities.

Abstract: Systems, methods, and instrumentalities are described for a wireless transmit/receive unit (WTRU), comprising a memory, and a processor to execute instructions from the memory, wherein the processor is configured to access a non-3rd Generation Partnership Project (3GPP) Access Network (AN), establish a link with a Non-3GPP Interworking Function (N3IWF) via the non-3GPP AN, request information from the N3IWF about network slicing capabilities of a 3GPP Radio Access Network (RAN), receive information from the N3IWF about network slicing capabilities of the 3GPP RAN, and determine whether to register with the 3GPP RAN based upon the network slicing capabilities of the 3GPP RAN. Systems, methods, and instrumentalities are described for sending information about network slicing capabilities of a 3GPP RAN to a N3IWF, establishing a link between a WTRU operating on a non-3GPP AN and the N3IWF via the non-3GPP AN, and sending information from the N3IWF to the WTRU about network slicing capabilities of the 3GPP RAN.

Abstract: A method and apparatus are provided to enable or aid network-controlled selection of an IP address (and anchor) to be used by a WTRU on an application/service basis. In one example, a method is provided for a WTRU to establish a link with a gateway, transmit a query related to a selected application via the gateway, receive an advertisement for an internet protocol (IP) address, and use the IP address to communicate via the gateway with respect to the selected application. It may be assumed that there are more than one possible IP address/anchor available for the WTRU to use, as it might be the case in a mobility environment, in which an operator can provide addresses with different mobility capabilities.

Abstract: Methods and apparatuses are described for dynamic medium access control (MAC) address distribution in a wireless network. A station (STA) may receive, from an access point (AP), a frame that includes an indicator indicating at least one MAC address type or MAC address policy supported by an extended service set (ESS) associated with the AP. The indicator may comprise an 8 bit bitmap. The STA may then transmit, to the AP, a request message that includes MAC Address Assignment Protocol information determined based on the at least one MAC address type or MAC address policy. The STA may receive a response message that includes a local medium access control (MAC) address assigned based on the MAC Address Assignment Protocol information. The STA may transmit, to the AP, an association request frame with the local MAC address.

Abstract: A method for use in a wireless transmit/receive unit (WTRU), the method comprising: selecting a privacy profile, wherein the privacy profile includes privacy and security settings for each layer of a protocol stack of the WTRU, wherein the privacy and security settings include at least one of using anonymous dynamic host configuration protocol (DHCP) signaling parameters, the anonymous DHCP signaling parameters include a hostname, using a random medium access control (MAC) address, or using a random Internet protocol (IP) address; and instructing each layer of the protocol stack of the WTRU with the privacy and security settings based on the selected privacy profile.

Abstract: Systems, methods, and instrumentalities are described for a wireless transmit/receive unit (WTRU), comprising a memory, and a processor to execute instructions from the memory, wherein the processor is configured to access a non-3rd Generation Partnership Project (3GPP) Access Network (AN), establish a link with a Non-3GPP Interworking Function (N3IWF) via the non-3GPP AN, request information from the N3IWF about network slicing capabilities of a 3GPP Radio Access Network (RAN), receive information from the N3IWF about network slicing capabilities of the 3GPP RAN, and determine whether to register with the 3GPP RAN based upon the network slicing capabilities of the 3GPP RAN. Systems, methods, and instrumentalities are described for sending information about network slicing capabilities of a 3GPP RAN to a N3IWF, establishing a link between a WTRU operating on a non-3GPP AN and the N3IWF via the non-3GPP AN, and sending information from the N3IWF to the WTRU about network slicing capabilities of the 3GPP RAN.

Abstract: A method and apparatus are described for supporting advanced distributed and dynamic mobility management (DMM) features with multiple flows anchored at different gateways. A software defined networking (SDN) controller may support the attachment of a wireless transmit/receive unit (WTRU) to a network. The SDN controller may receive initial attachment signaling from a point of attachment (PoA) indicating that the WTRU initially attached to the network. The anchor node may be a distributed gateway (D-GW). The SDN controller may select an anchor node to serve the WTRU Internet protocol (IP) flow traffic. Initial attachment signaling, intra-anchor node handover, inter-anchor node handover, new anchor node allocation and inter-domain mobility across virtualized operators are also described.

Abstract: A method and apparatus are described for supporting advanced distributed and dynamic mobility management (DMM) features with multiple flows anchored at different gateways. A software defined networking (SDN) controller may support the attachment of a wireless transmit/receive unit (WTRU) to a network. The SDN controller may receive initial attachment signaling from a point of attachment (PoA) indicating that the WTRU initially attached to the network. The anchor node may be a distributed gateway (D-GW). The SDN controller may select an anchor node to serve the WTRU Internet protocol (IP) flow traffic. Initial attachment signaling, intra-anchor node handover, inter-anchor node handover, new anchor node allocation and inter-domain mobility across virtualized operators are also described.

Abstract: Methods, apparatus and systems may support distributed and dynamic mobility management features, including for nodes, functions and interfaces. A distributed gateway (D-GW), which may be a logical entity, may implement functionality of a PDN gateway (PGW) along with additional functionality that may support distributed mobility management (DMM). Additionally, methods, apparatus, and systems may support detecting and discovering capabilities that may be used to support dynamic IP mobility features on mobile node and networks.