Abstract: A technique for rotating one or more multi-sector antennas mounted on unmanned aircrafts of a radio access network, RAN, is described. Each of the multi-sector antennas comprises multiple sectors. The multiple sectors of each of the multi-sector antennas are configured to provide radio access to radio devices in different azimuthal directions that are changeable relative to the aircraft and fixed relative to each other when rotating the respective one of the multi-sector antennas. As to a method aspect of the technique, the at least one or each of the aircrafts of the RAN determines signal strengths of radio signals exchanged between a first radio device and at least two of the multiple sectors of the multi-sector antenna mounted on the respective one of the aircrafts Based on the determined signal strengths, a first azimuthal direction is computed for providing radio access to the first radio device.

Abstract: An application transaction comprised in a payload section of at least one data unit is identifying. In response to identifying the application transaction, allocation of radio resources for transmission of the at least one data unit on a radio link is controlled.

Abstract: A method for operating a mobile entity in a mobile communications network having at least one slice is provided. The slice of the mobile communication to which the mobile entity intends to connect is determined. Additionally, whether a relationship can be identified in the mobile entity is determined. The relationship indicates whether the slice to which the mobile entity intends to connect is related to an access point of the slice. A request message is then transmitted to a radio access network (RAN) of the mobile communications network that includes the identified relationship.

Abstract: A communication device comprises a container environment with a plurality of containers each having one or more applications and each being connectable to a network slice, and a container manager configured to control communication between the applications and the network slices, wherein the container manager prohibits communication between a first application in a first container and a second application in a second container.

Abstract: A maintenance base controls a plurality of mobile robots providing a radio coverage area. The maintenance base instructs a mobile robot of the plurality of mobile robots to maintain a formation with the other mobile robots in the plurality of mobile robots such that the radio coverage area is provided, and instructs the mobile robot to rotate positions within the formation to maintain the radio coverage area as a further mobile robot in the formation leaves the formation and another mobile robot enters the formation. The mobile robot acts in accordance with the instructions of the maintenance base.

Abstract: A method for operating a mobile entity in a mobile communications network having at least one slice is provided. The slice of the mobile communication to which the mobile entity intends to connect is determined. Additionally, whether a relationship can be identified in the mobile entity is determined. The relationship indicates whether the slice to which the mobile entity intends to connect is related to an access point of the that slice. A request message is then transmitted to a radio access network (RAN) of the mobile communications network that includes the identified relationship.

Abstract: Spatial information associated with a terminal connected to a network via a radio link is monitored. Depending on the spatial information and further depending on spatially-resolved quality of a data transmission, it is selected between operation of the data transmission in the first mode and in a second mode.

Abstract: A method for operating a mobile entity in a mobile communications network having at least one slice is provided. The slice of the mobile communication to which the mobile entity intends to connect is determined. Additionally, whether a relationship can be identified in the mobile entity is determined. The relationship indicates whether the slice to which the mobile entity intends to connect is related to an access point of the that slice. A request message is then transmitted to a radio access network (RAN) of the mobile communications network that includes the identified relationship.

Abstract: A method, by a multipath control entity, to control a transmission of a user data plane stream between a mobile entity and a proxy, wherein the user data plane stream is exchanged between the mobile entity and an application server connected to the proxy. In a split decision, it is determined that the user data plane stream is split into at least two stream parts and over which of the supported network technologies each of the at least two stream parts is transmitted between the mobile entity and proxy. A multipath connection module in the mobile entity is informed in a first control message which stream part is transmitted by which network technology in accordance with the split decision, and a multipath connection module provided in the proxy is informed in a second control message which stream part is transmitted by which network technology in accordance with the split decision.

Abstract: An application transaction comprised in a payload section of at least one data unit is identifying. In response to identifying the application transaction, allocation of radio resources for transmission of the at least one data unit on a radio link is controlled.

Abstract: A method for attaching a first radio base station (RBS) to a core network via a radio access network (RAN), wherein a forwarding of data within the RAN is being controlled by a Software Defined Network, SDN, Controller, the RAN comprising a plurality of further RBSs being capable of providing radio connection to a plurality of UEs, and being under the control of the SDN Controller. At least one UE from the plurality of UEs is selected, wherein the selected at least one UE is located within an overlapping radio connectivity area of the first RBS and one of the further RBSs, denoted as a second RBS. The SDN Controller activates control onto the at least one selected UE. The SDN Controller connects the first RBS to the second RBS via the radio connections of the at least one selected UE. The SDN Controller enables the forwarding of data between the first RBS and the core network via the second RBS.

Abstract: An application transaction (310) comprised in a payload section (302) of at least one data unit (300) is identified. In response to identifying the application transaction (310), allocation of radio resources for transmission of the at least one data unit (300) on a radio link is controlled.

Abstract: A method for operating a mobile entity in a mobile communications network having at least one slice is provided. The slice of the mobile communication to which the mobile entity intends to connect is determined. Additionally, whether a relationship can be identified in the mobile entity is determined. The relationship indicates whether the slice to which the mobile entity intends to connect is related to an access point of the that slice. A request message is then transmitted to a radio access network (RAN) of the mobile communications network that includes the identified relationship.

Abstract: The present invention relates to a method for operating a mobile entity (100, 400) in a mobile communications network (50) which comprises at least one slice (51, 53), comprising the steps of: —determining to which slice of the mobile communication the mobile entity (100, 400) intends to connect, —determining whether a relationship can be identified in the mobile entity (100) via which the slice to which the mobile entity intends to connect, is related to an access point of the determined slice, wherein when the relationship is found in the mobile entity: —transmitting a request message to a radio access network of the mobile communications network including the identified relationship.

Abstract: A maintenance base controls a plurality of mobile robots providing a radio coverage area. The maintenance base instructs a mobile robot of the plurality of mobile robots to maintain a formation with the other mobile robots in the plurality of mobile robots such that the radio coverage area is provided, and instructs the mobile robot to rotate positions within the formation to maintain the radio coverage area as a further mobile robot in the formation leaves the formation and another mobile robot enters the formation. The mobile robot acts in accordance with the instructions of the maintenance base.

Abstract: The present disclosure generally relates to the field of service delivery. More specifically, the present disclosure relates to a technique of supporting provisioning of a service from a wireless communication network associated with an operator to one or more end devices.

Abstract: A plurality of mobile robots provide a radio coverage area of a wireless communication network. Each mobile robot comprises a radio base station of the wireless communication network. A mobile robot of the plurality of mobile robots moves to a geographical position to deploy as part of a daisy chain loop of the mobile robots upon receiving instruction from a maintenance base. Upon receiving further instruction from the maintenance base, the mobile robot moves to a further geographical position as part of a circular shift operation performed by the mobile robots deployed to the daisy chain loop to maintain the radio coverage area and send a further mobile robot of the mobile robots deployed to the daisy chain loop to the maintenance base.

Abstract: The application relates to Network Function Virtualisation as standardised by ETSI GS NFV002 VI.2.1. The standard provides for dynamic instantiation and management of VNF instances. When using base stations as platforms on which VNFs can be instantiated, it has to be decided how this is done in an efficient way. The application proposes that in case a UE moves from an area covered by a source base station (210) to an area covered by a target base station (220), at least one VNF (250) is deployed on the target base station. This VNF may be a clone of a VNF (240) hosted by the source bases station.

Abstract: The present disclosure generally relates to the field of service delivery. More specifically, the present disclosure relates to a technique of supporting provisioning of a service from a wireless communication network associated with an operator to one or more end devices.

Abstract: Spatial information associated with a terminal connected to a network via a radio link is monitored. Depending on the spatial information and further depending on spatially-resolved quality of a data transmission, it is selected between operation of the data transmission in the first mode and in a second mode.