Abstract: There is provided a method for handling execution of a service in a network. The method is performed by a first network node. The first network node is a first network function (NF) node of a service consumer or a first service communication proxy (SCP) node that is configured to operate as an SCP between the first NF node and second NF nodes of a service producer for providing the service. The method is performed in response to an event that signals that the service is to be executed. The method comprises, if a first configuration criterion of the first NF node and/or a second configuration criterion of at least one of the second NF nodes is met, identifying (102) that network traffic for executing the service is to be distributed among the second NF nodes according to a capacity of one or more of the second NF nodes.

Abstract: There is provided a method for a fifth generation network. The method is performed by a first network function (NF) node of a service consumer or a first service communication proxy (SCP) node that is configured to operate as an SCP between the first NF node and one or more second NF nodes of a service producer. A message is received (102) from a second network node. The message comprises an indication that a second NF node is under testing in the network. The indication signals that the second NF node is a candidate for selection when selecting at least one second NF node towards which network traffic is to be transmitted, and/or the message comprises load information for the second NF node and the indication signals that the load information is representative of a predefined amount of network traffic that the second NF node is required to receive.

Abstract: An aspect provides a method by user plane function (UPF) in a core network (CN) of a communication network for registering the UPF at a network repository function (NRF) of the CN. The UPF is to selectively route uplink data traffic in one or more data sessions from a user equipment (UE) to one of a plurality of session anchor network functions (NFs). The method by the UPF comprises sending (1701) a registration request to the NRF. The registration request comprises registration information comprising an indication of a type of filter supported by the UPF to selectively route uplink data traffic from a UE to a particular session anchor NF. The type of filter relates to an application identity; and an indication of a value for the indicated type of filter.

Abstract: Embodiments of a method in a radio access node and a corresponding radio access node are disclosed. The method comprises: sending, to a mobility function entity, first information indicative of a tracking area(s) and a network slice(s) supported by the radio access node; and receiving, from the mobility function entity, second information indicative of a network slice(s) that are: (a) supported by the radio access node and the mobility function entity and (b) permitted by one or more network policies, for each of at least one of the tracking area(s) supported by the radio access node; or (a) supported by the mobility function entity and (b) permitted by one or more network policies, for each of at least one of the tracking area(s) supported by the radio access node. Embodiments of a method in a mobility function entity and a corresponding mobility function entity are also disclosed.

Abstract: There is provided a method for handling a service request. The method is performed by a first service communication proxy (SCP) node. In response to receiving a first request from a first Network Function (NF) node for a further NF node to provide a first service, the first SCP node selects (102) a second NF node to provide the first service and stores (104) an identifier of the second NF node. The first SCP node also initiates transmission (106) towards the second NF node of the first request. In response to receiving, from the second NF node, a first response, the first SCP node stores (108) location information of the second NF node. The location information of the second NF node is stored in association with the identifier of the second NF node. The first SCP node also initiates transmission (110) of the first response towards the first NF node.

Abstract: The present disclosure relates to a method performed by a core network node for enabling handling of data packets in a wireless communication system. The core network node identifies a potentially malicious service data flow associated with a communication device. The core network node assigns, to the potentially malicious service data flow, an identifier value to an identifier. The identifier value indicates that data packets associated with the potentially malicious service data flow should be handled according to a packet handling rule for potentially malicious data packets. The core network node provides an identifier comprising the identifier value towards the communication device towards at least one of an access node that serves the communication device in the access network, and a second core network node that processes data packets to and from the communication device.

Abstract: The present disclosure provides methods, entities and computer readable storage media for routing path discovery. The method at a first entity includes: transmitting, to a second entity, a request message for aggregated routing related information; and receiving, from the second entity, a response message comprising the aggregated routing related information.

Abstract: There is provided a method for handling a service request. The method is performed by a first service communication proxy (SCP) node. In response to receiving a first request from a first Network Function (NF) node for a further NF node to provide a first service, the first SCP node selects (102) a second NF node to provide the first service and stores (104) an identifier of the second NF node. The first SCP node also initiates transmission (106) towards the second NF node of the first request. In response to receiving, from the second NF node, a first response, the first SCP node stores (108) location information of the second NF node. The location information of the second NF node is stored in association with the identifier of the second NF node. The first SCP node also initiates transmission (110) of the first response towards the first NF node.

Abstract: Methods and apparatus in a network node are provided. In an example, a method in a network node in a network is provided. The method comprises sending, to a network data management function, information identifying an association between a Network Data Analytics Function (NWDAF) and (i) a first network function in the network, and/or (ii) a User Equipment (UE) in the network.

Abstract: The present disclosure relates to a method performed by a core network node for enabling handling of data packets in a wireless communication system. The core network node identifies a potentially malicious service data flow associated with a communication device. The core network node assigns, to the potentially malicious service data flow, an identifier value to an identifier. The identifier value indicates that data packets associated with the potentially malicious service data flow should be handled according to a packet handling rule for potentially malicious data packets. The core network node provides an identifier comprising the identifier value towards the communication device towards at least one of an access node that serves the communication device in the access network, and a second core network node that processes data packets to and from the communication device.

Abstract: An aspect provides a method by user plane function (UPF) in a core network (CN) of a communication network for registering the UPF at a network repository function (NRF) of the CN. The UPF is to selectively route uplink data traffic in one or more data sessions from a user equipment (UE) to one of a plurality of session anchor network functions (NFs). The method by the UPF comprises sending (1701) a registration request to the NRF. The registration request comprises registration information comprising an indication of a type of filter supported by the UPF to selectively route uplink data traffic from a UE to a particular session anchor NF. The type of filter relates to an application identity; and an indication of a value for the indicated type of filter.

Abstract: According to certain embodiments, a method by a first network node operating as a Radio Access Network (RAN) node for dynamic scheduling prioritization for live uplink streaming includes receiving at least one priority level. Based on the at least one priority level, an expected quality level is determined. The expected quality level is defined as a Quality of Service (QoS) of a QoS flow being scheduled with a service quality above a minimum quality level and below a maximum quality level. A current service quality for a plurality of QoS flows is determined. Based on the combined current service quality and the expected quality level, a scheduling priority for assigning resources to a plurality of QoS flows is determined.

Abstract: Embodiments of a method in a radio access node and a corresponding radio access node are disclosed. The method comprises: sending, to a mobility function entity, first information indicative of a tracking area(s) and a network slice(s) supported by the radio access node; and receiving, from the mobility function entity, second information indicative of a network slice(s) that are: (a) supported by the radio access node and the mobility function entity and (b) permitted by one or more network policies, for each of at least one of the tracking area(s) supported by the radio access node; or (a) supported by the mobility function entity and (b) permitted by one or more network policies, for each of at least one of the tracking area(s) supported by the radio access node. Embodiments of a method in a mobility function entity and a corresponding mobility function entity are also disclosed.

Abstract: Embodiments of a method in a radio access node and a corresponding radio access node are disclosed. The method comprises: sending, to a mobility function entity, first information indicative of a tracking area(s) and a network slice(s) supported by the radio access node; and receiving, from the mobility function entity, second information indicative of a network slice(s) that are: (a) supported by the radio access node and the mobility function entity and (b) permitted by one or more network policies, for each of at least one of the tracking area(s) supported by the radio access node; or (a) supported by the mobility function entity and (b) permitted by one or more network policies, for each of at least one of the tracking area(s) supported by the radio access node. Embodiments of a method in a mobility function entity and a corresponding mobility function entity are also disclosed.

Abstract: A technique for providing reliable wireless communication between a robot (104) and a robot controller (102) in a cloud robotics system is disclosed. A method implementation of the technique is performed by a primary connectivity component (106) supporting multipath transmission over a plurality of wireless transmission paths to establish connectivity between the robot (104) and the robot controller (102). The method comprises triggering determining (S402) a robot sensitivity value indicating a degree of operation sensitivity of the robot (104) to a transmission failure between the robot (104) and the robot controller (102), and triggering configuring (S404) use of one or more of the plurality of wireless transmission paths for communication between the robot (104) and the robot controller (102) depending on the determined robot sensitivity value.

Abstract: According to one aspect of the present disclosure, a method of paging policy differentiation in a 5G telecommunications network is provided. A User Plane Function (UPF) receives downlink data for a target User Equipment (UE), and provides a data notification to a Session Management Function (SMF), the data notification comprising a Quality of Service (QoS) indicator, which the SMF uses to determine QoS Information (QoSI) that is sent to an Access Management Function (AMF). The AMF determines whether a paging policy selection should be performed by the AMF or by a Radio Access Node (RAN) that serves the target UE: if by the AMF, the AMF selects a paging policy based on the QoSI and sends a paging message to the RAN, which pages the UE; if by the RAN, the AMF provides paging policy information to the RAN, which selects a paging policy and pages the UE accordingly.

Abstract: According to certain embodiments, a method by a first network node operating as a Radio Access Network (RAN) node for dynamic scheduling prioritization for live uplink streaming includes receiving at least one priority level. Based on the at least one priority level, an expected quality level is determined. The expected quality level is defined as a Quality of Service (QoS) of a QoS flow being scheduled with a service quality above a minimum quality level and below a maximum quality level. A current service quality for a plurality of QoS flows is determined. Based on the combined current service quality and the expected quality level, a scheduling priority for assigning resources to a plurality of QoS flows is determined.

Abstract: The invention relates to methods and devices establishing connection for packet data transfer of a wireless communication device and methods and devices for of enabling handover of a wireless communication device. In an aspect of the invention, a method performed by a wireless communication device (101, 201) of enabling establishing of connection for packet data transfer is provided. The method comprises transmitting (S108, S206), to a mobility management node (103, 203), during the establishment of said connection, an identifier of the established connection, and a Single Network Slice Selection Assistance Information (S-NSSAI) associated with the established connection.

Abstract: A technique for providing reliable wireless communication between a robot (104) and a robot controller (102) in a cloud robotics system is disclosed. A method implementation of the technique is performed by a primary connectivity component (106) supporting multipath transmission over a plurality of wireless transmission paths to establish connectivity between the robot (104) and the robot controller (102). The method comprises triggering determining (S402) a robot sensitivity value indicating a degree of operation sensitivity of the robot (104) to a transmission failure between the robot (104) and the robot controller (102), and triggering configuring (S404) use of one or more of the plurality of wireless transmission paths for communication between the robot (104) and the robot controller (102) depending on the determined robot sensitivity value.

Abstract: Embodiments herein relate to methods and devices for handling access priority of a wireless device in a wireless network. In particular, embodiments herein relate to a method performed by a wireless network access node for managing/handling access priority associated with a wireless device, which wireless device is requesting access to the wireless network is provided. The method comprises receiving from a mobility management node a message comprising Quality of Service, QoS, information associated with the wireless device; determining access priority related information associated with the wireless device based on the received QoS information; and transmitting the access priority related information associated with the wireless device to the wireless device. Further, embodiments herein relate to corresponding methods for handling access priority associated with a wireless device performed in a wireless device, and in a wireless network, respectively.