Abstract: A method for link aggregation of a plurality of communication links, performed in a communication arrangement, the method comprising; obtaining a data segment to be transmitted, identifying a preferred communication link out of the plurality of communication links for transmission of the data segment, and, if the preferred communication link is not available for transmission of the data segment within a current time period, identifying an alternative communication link out of the plurality of communication links different from the preferred communication link, fragmenting the data segment into at least a first fragment and a second fragment, attaching a fragment header to each of the first and second fragments, each fragment header being configured to identify the respective fragment as a fragment belonging to a data segment, and transmitting the first fragment over the alternative communication link.

Abstract: A method is disclosed of selecting users for multi user multiple-input multiple-output (MU-MIMO) communication from an initial set of potential users. The method comprises repeating the following steps in successive iterations until a stopping criterion is met: determining a channel correlation metric for each user in the set of potential users, reducing the set of potential users by exclusion of a user based on the channel correlation metric, and calculating a performance metric of the set of potential users. The method also comprises selecting users corresponding to one of the sets of potential users, wherein the selection is based on a comparison of the calculated performance metrics of the sets of potential users.

Abstract: There is provided a method, apparatus and non-transitory computer readable media for designing and deploying a network service (NS) meeting availability requirements. The method comprises computing availabilities and failure rates of virtual network functions (VNFs) instances available for deploying the NS. The method comprises designing the NS by defining VNFs instances constituents placement and redundancy, using the computed availabilities and failure rates of the VNFs instances. The method comprises deploying the NS.

Abstract: A computer-implemented method (1400) performed in a radio access network (1510) for secondary carrier prediction is provided. The method includes obtaining (1402) an uplink channel impulse response based on a reference signal transmitted by a user equipment (UE) (104) over a primary carrier link to a serving network node (102) in a primary cell (102) currently serving the UE (104). The method includes extracting (1404) one or more features from the uplink channel impulse response. The method includes predicting (1406) an existence or non-existence of a secondary carrier link between the UE (104) and a target network node in a secondary cell (106) based on the extracted one or more features. The method includes determining (1408) whether to perform a handover procedure of the UE (104) from the serving network node in the primary cell (102) to the target network node in the secondary network cell (106) based on the predicting.

Abstract: A first method performed by a first network function implementing Edge Enabler Server (EES). The first method comprises receiving a first request message comprising information regarding exposure context information, from a second network function implementing Edge Application Server (EAS). The first method further comprises transmitting a second request message for retrieving the exposure context information to a third network function implementing EES, in response to the information regarding exposure context information. The first method further comprises to receive a first response message including the retrieved exposure context information from the third network function. The first method further comprises to transmit a second response message including information regarding the retrieved exposure context information to the second network function. The disclosed techniques offer an option to transfer EDGE-3 exposure context between the EESs so that the existing subscriptions can be re-used.

Abstract: A computer-implemented method performed by a first node (111). The first node (111) operates in a communications network (100). The first node (111) obtains (501), from another node (112, 113) operating in the communications network (100), a respective indication. The respective indication is of a respective efficiency measure of power use of a plurality of nodes (110) operating in the communications network (100) along at least two paths (151, 152). The first node (111) then selects (502) a path for a first packet in the communications network (100), among the at least two paths (151, 152), based on the obtained respective indication.

Abstract: A method of rendering an audio source is provided. The method comprises receiving an input audio signal corresponding to the audio source and receiving a reverberation parameter indicating a target energy ratio with respect to a reverberant sound component of audio for the audio source. The method further comprises obtaining a directivity pattern of the audio source, deriving a relative gain for the audio source based on the obtained directivity pattern, wherein the relative gain is relative to an omnidirectional audio source, and generating an adjusted audio signal using the received input audio signal, the reverberation parameter, and the derived relative gain.

Abstract: A method, performed by a wireless device, is disclosed. The method is for managing radio resources in the wireless device and comprises receiving a message configuring a radio bearer for use by the wireless device, checking the message for a ciphering configuration setting enabling or disabling ciphering for the radio bearer, and performing at least one of enabling or disabling ciphering for the radio bearer in accordance with the received message. Also disclosed are a method performed by a base station for configuring radio resources for use by a wireless device, a wireless device, a user equipment and a base station.

Abstract: There are provided mechanisms for generating a beam set. A method is performed by a radio transceiver device. The method comprises generating the beam set as combination of at least two beam pairs. Each beam pair is formed by two respective beams with orthogonal polarizations. The two beams have their pointing directions separated by a first angular separation delta1>0. Neighbouring beam pairs have their pointing directions separated by a second angular separation delta2>0. The first angular separation delta1 is a function of the second angular separation delta2.

Abstract: Methods, terminal and a data center gateway are provided for allowing efficient debugging and troubleshooting of data session encrypted with Perfect Forward Secrecy (PFS) encryption techniques such as for example the Transport Layer Security (TLS) protocol version 1.3. Embodiments of the invention allow the user terminal to authorize a data center gateway to persistently store one or more encryption keys associated with the data session for use to access the recorded data session and troubleshooting it after the session ended, when faults are detected. When a fault is detected, the user terminal provides authorization to the gateway to persistently store the data session along with one or more encryption key(s). With this, the gateway allows for the data session to be later decrypted and faults to be investigated despite the data session being encrypted with PFS techniques.

Abstract: In one aspect, there is a method for rendering a spatially-heterogeneous audio element. In some embodiments, the method includes obtaining two or more audio signals representing the spatially-heterogeneous audio element, wherein a combination of the audio signals provides a spatial image of the spatially-heterogeneous audio element. The method also includes obtaining metadata associated with the spatially-heterogeneous audio element, the metadata comprising spatial extent information indicating a spatial extent of the audio element. The method further includes rendering the audio element using: i) the spatial extent information and ii) location information indicating a position (e.g. virtual position) and/or an orientation of the user relative to the audio element.

Abstract: The present disclosure provides a method (200) in a network node for coordination of Configured Scheduling, CS, among a plurality of backhaul links. The method (200) includes, for each of the plurality of backhaul links: determining (210) at least one CS-related parameter; and transmitting (220) to a scheduling IAB node of that backhaul link the at least one CS-related parameter.

Abstract: There is disclosed a method of operating a network node in a radio access network, the method includes transmitting a resource allocation message comprising a bit field, the resource allocation message being transmitted for reception in a common search space to which a first bandwidth part with a first unit size of resource allocation is associated. The bit field allocates resources in a second bandwidth part with a second unit size of resource allocation. The disclosure also pertains to related devices and methods.

Abstract: The present disclosure relate to a method performed by a UE (102) for handling an invalid SI signature in a communication system. The UE obtains SI and an associated SI signature for a cell. The UE (102) determines if the obtained SI signature is valid or invalid. If the signature is valid, the UE (102) determines to use the cell. If the SI signature is invalid, the UE (102) determines if the UE (102) is configured to bar cells or not. If the SI signature is invalid and if the UE (102) is not configured to bar cells with invalid SI signature, the UE (102) determines to use the cell. If the SI signature is invalid and the UE (102) is configured to bar cells with invalid SI signature, the UE (102) determines to bar the cell and select another cell to use.

Abstract: Embodiments of the present disclosure relate to a method and an apparatus for allocating a PDU session ID for a terminal device. The method comprises: selecting (S101), for a terminal device, a protocol data unit session identity, PDU session ID, from a group of PDU session IDs. The group of PDU session IDs are not allocated to the terminal device. According to the embodiments of the present disclosure, the network node may select, for the terminal device, a PDU session ID from a group of PDU session IDs, which are not allocated to the terminal device yet. Thus, any newly selected PDU session ID may be ensured as unique.

Abstract: There is provided mechanisms for authenticating a first radio communication device with a network. A method is performed by the first radio communication device. The method comprises obtaining credentials for a network subscription to the network. The method comprises obtaining an upper part of a radio protocol stack, according to which radio protocol stack the first radio communication device is configured to communicate with the network. The method comprises authenticating with the network. The method comprises providing, to a second radio communication device, at least one key, as derived from the credentials during the authenticating, for use by the second radio communication device when executing the remaining part of the radio protocol stack for communication between the second radio communication device and the network.

Abstract: A heatsink with an air-partitioning baffle. In one embodiment, the heatsink comprises a plurality of fins defining a plurality of channels, an inlet channel that is at least partially defined by the plurality of fins and extends across the plurality of channels, and a baffle at least partially within the inlet channel. The baffle is configured to direct a first fluid flow, such as warm air, from a first portion of the plurality of channels and to direct a second fluid flow, such as cooling air, through at least one inlet of the inlet channel to a second portion of the plurality of channels.

Abstract: A method, in a wireless device that supports carrier aggregation (CA), the method comprising: receiving a configuration message, from a wireless network node, indicating that the wireless device is to directly activate two or more secondary cells. The method further comprises determining that at least a first one of the two or more secondary cells is to be activated by a first time and that at least a second one of the two or more secondary cells is to be activated by a second time, following the first time. The method also comprises activating the first one of the secondary cells by the first time and subsequently activating the second one of the secondary cells by the second time.

Abstract: A network node of a wireless communication network provides information to a User Equipment (UE) that allows the UE to adapt it radio measurements with respect to the network, to account for “link changes.” Link changes are service-link and/or feeder-link changes arising from motion by the satellite(s) included in the Radio Access Network (RAN) portion of the network. The UE uses the provided information to adapt its radio measurements in conjunction with the link changes. Among the several advantages of accounting for satellite link changes in the manner contemplated are any one or more of reduced signaling going between the UE and the network, reduced battery consumption at the UE, mitigation of the effects of the link changes on the radio measurements, avoidance of spurious measurements, and an effective “automation” of the timed changeover by the UE to new measurement configurations, coincident with the occurrence of link changes.

Abstract: A base station or other network node configures a network transmission in dependence on a directional scanning reception ability of a wireless communication device targeted by the transmission. An example transmission configuration is selecting or restricting which Transmission/Reception Point to use for the transmission or selecting or restricting the beamforming configuration to use for the transmission. The device complements operations in the wireless communication network by indicating its directional scanning reception ability in initial signaling, such as used for random access, or in Radio Resource Control signaling, or both.