Abstract: An apparatus for receiving non-orthogonal transmissions in a wireless communication system includes a processor configured to determine a first superposed symbol from a plurality of superposed symbols, based on superposition information and a first set of decoding information, wherein the first superposed symbol is corresponding to a first user equipment. The processor generates a residual signal based on the first superposed symbol and the superposition information, and determines a second superposed symbol based on the residual signal and a second set of decoding information, wherein the second superposed symbol is corresponding to a second user equipment. The superposition information comprises a quantity of the plurality of superposed symbols and an ordering of the plurality of superposed symbols.

Abstract: The present disclosure relates to a user device and a network node. The user device comprises a transceiver configured to broadcast an access signal SA when not being connected to any radio communication networks, receive an access response signal SR in response to broadcasting the access signal SA, communicate with at least one network node of the radio communication network. The network node comprises a transceiver and a processor; wherein the transceiver is configured to receive a broadcasted access signal SA, wherein the broadcasted access signal SA comprises identity information of the user device; wherein the processor is configured to assign at least one frequency spectrum segment for communication for the user device; and wherein the transceiver is further configured to transmit an access response signal SR to the user device.

Abstract: Agent node (210, 500) and method (600) therein, for configuring a radio resource parameter of a radio cell (215) of a communication system (200). The agent node (210, 500) is configured to obtain a control policy (430); determine a feature representing a state of at least a part of the communication system (200), at a first time period; determine a control action to be performed for control in the radio cell (215) at the first time period, out of a set of available control actions associated with the radio cell (215), based on the obtained control policy (430) and the determined at least one feature; and configure an instruction of the radio cell (215) based on the determined control action. Also, a corresponding trainer node (400) and method (800) for providing the agent node (210, 500) with the control policy (430), based on received parameters is disclosed.

Abstract: First network node to receive a first Radio Resource Management, RRM, message, a second RRM message, and a third RRM message from a user device, the first RRM message comprising a first RRM measurement report associated with the first network node, the second RRM message comprising a second RRM measurement report associated with a second network node, and the third RRM message comprising a third RRM measurement report associated with a third network node; determine a first control message based on the first RRM message, the second RRM message and the third RRM message, the first control message comprising the third RRM measurement report and a data plane establishment request (DPER) between the user device and the third network node; transmit the first control message to the second network node.

Abstract: Mobile station and method for saving energy in the mobile station. The method includes generating energy saving information associated with said mobile station, and which indicates an energy status of said mobile station. The method further includes transmitting the energy saving information to at least one first network node, and receiving, from said at least one first network node, an instruction for energy saving, based on the energy saving information.

Abstract: A network node and a user device and methods thereof are described. A network node includes a transceiver, and a processor. The transceiver transmits a frequency utilization signal SFUS having a frequency utilization information (FUI) associated with at least one available frequency spectrum segment, and receives a communication preference signal SCPS. The processor assigns at least one frequency spectrum segment for communication. A user device includes a transceiver and a processor. The transceiver of the user device receives a frequency utilization signal SFUS comprising frequency utilization information (FUI) associated with at least one available frequency spectrum segment. The processor of the user device determines communication preference information (CPI) for the user device; and the transceiver of the user device transmits a communication preference signal SCPS.

Abstract: A network node for a wireless communication system is provided. The first network node comprises a processor configured to obtain channel quality information for a user device, obtain a load information for first radio access resources, determine a first association of the first radio access resources to the user device based on the channel quality information and the load information, the first association being valid during a first validity time period, compute first user data rates for the first radio access resources based on the channel quality information, determine a utilization of the first radio access resources based on the first association and the first user data rates. A corresponding method, a wireless communication system, a computer program, and a computer program product are also provided.

Abstract: A data transmission and signaling method in a transmitter device configured for concurrent transmission of non-orthogonal independent downlink data streams to receiver devices in a wireless communication system is provided. The method comprises sending to all receiver devices control information that includes indices of receiver devices selected for transmission, code rates of selected receiver devices, a label bit-to-receiver device allocation, an index of an expanded constellation, and a number of resource elements used for transmission.

Abstract: A gateway comprises a transceiver configured to receive a sequence of data packets on a Radio Access Bearer, RAB, from a core network, a processor configured to obtain a first distribution of the received sequence of data packets into a first sub-sequence of data packets and at least a second sub-sequence of data packets, wherein the transceiver is configured to forward the first sub-sequence of data packets on the RAB to a master access node, forward the second sub-sequence of data packets on the RAB to a secondary access node. The master access node comprises a processor, a transceiver configured to receive a first sub-sequence of data packets of a sequence of data packets carried by a RAB from a gateway, wherein the RAB is associated with a user device, and to forward at least one part of the first sub-sequence of data packets on the RAB to the user device.

Abstract: A first network node and a second network node are disclosed. The first network node comprises a processor and a transceiver. The transceiver is configured to receive a first signal S1 comprising a network information message indicating network information associated with a first network operator in a region. The processor is configured to determine an allocation of frequency resources for operation W1, for the first network operator or a second network operator in the region, based on the network information, and the processor is further configured to determine a density of network nodes for operation ?b or a frequency spectrum access price, for the first network operator or the second network operator, based on the network information. Corresponding methods, a computer program, and a computer program product are also disclosed.

Abstract: A first network node provides timing information of at least one other network node, operating in discontinuous transmission mode, for enabling a mobile station to monitor the at least one other network node. The first network node comprises a transmitter, configured for transmitting a signal comprising timing information, associated with a state switch between dormant state and active state of the at least one other network node and/or associated to a monitoring operation of the at least one other network node to be received by the mobile station. Also, a mobile station configured for monitoring the at least one other network node is disclosed.

Abstract: The present invention relates to a network node and a user device. The network node (100) comprising: a processor (102) configured to: generate a check element for each user device (300z) in a group of user devices (300a, . . . ,300z); a transmitter (104) configured to: transmit the control information message (M) to the group of user devices (300a, . . . ,300z). The user device (300) comprising: a receiver (304) configured to: receive a control information message (M) addressed for a group of user devices (300a, . . . ,300z); a processor (302) configured to: perform a redundancy check on the control information message (M); derive the control information (d) from the control information message (M) and discard check elements of other user devices upon a positive redundancy check; communicate in the wireless communication system (500) based on the derived control information (d). Furthermore, the present invention also relates to corresponding methods, a computer program, and a computer program product.

Abstract: A data transmission and signaling method in a transmitter device configured for concurrent transmission of non-orthogonal independent downlink data streams to receiver devices in a wireless communication system comprises sending to all receiver devices control information that includes indices of receiver devices selected for transmission, code rates of selected receiver devices, a label bit-to-receiver device allocation, an index of an expanded constellation, and a number of resource elements used for transmission.

Abstract: The present disclosure relates to a first network node. The first network node comprises a transceiver configured to receive a network information message from a second network node configured to use a shared communication channel for wireless communication, the network information message indicating a set of third network nodes configurable (or contending) to use the shared communication channel for wireless communication; a processor configured to determine, for the second network node, at least one first channel access time interval for accessing the shared communication channel based on the network information message; wherein the transceiver further is configured to transmit a first network control message to the second network node, the first network control message indicating the first channel access time interval for accessing the shared communication channel.

Abstract: The invention relates to a first network node and a second network node. The first network node being configured to communicate with a user device over at least two radio channels and comprising: a transceiver configured to receive a first sequence of data packets of a data flow addressed to the user device from a second network node; a processor configured to split the first sequence of data packets into at least one first sub-sequence of data packets and one second sub-sequence of data packets; wherein the transceiver further is configured to transmit the first sub-sequence of data packets in a first set of frequency resources over a first radio channel and the second sub-sequence of data packets in a second set of frequency resources over a second radio channel to the user device, wherein the first set of frequency resources and the second set of frequency resources are non-overlapping.

Abstract: The embodiments of the present invention relates to a network node and a user device. The network node comprising: a processor configured to: generate a check element for each user device in a group of user devices; a transmitter configured to: transmit the control information message to the group of user devices. The user device comprising: a receiver configured to: receive a control information message addressed for a group of user devices; a processor configured to: perform a redundancy check on the control information message; derive the control information from the control information message and discard check elements of other user devices upon a positive redundancy check; communicate in the wireless communication system based on the derived control information. Furthermore, the present invention also relates to corresponding methods, a computer program, and a computer program product.

Abstract: The present invention relates to a method and apparatus for controlling network access points in a wireless communicating system, said system comprising: one or more mobile stations, and one or more access points, each access point being arranged for operating in active mode or in inactive mode; said method comprising the steps of: transmitting, by a mobile station, a sensing signal indicating network and/or mobile station specific information associated with at least one mobile station of said system; receiving, by at least one access point or at least one control unit, said sensing signal; and controlling, by said access point or said control unit, transition from active mode to inactive mode, and vice versa, of one or more access points of said system based on said sensing signal.

Abstract: Embodiments relate to a method in a first network node for transmitting communication signals in a wireless communication system, the first network node being arranged to operate in an active mode in which the first network node has full transmission and/or reception capabilities or in an idle mode in which the first network node has limited transmission and/or reception capabilities in relation to the active mode; the method being characterized by the steps of: encoding an indication of time left in idle mode for the first network node into a communication signal; and transmitting said communication signal in the wireless communication system while operating in the idle mode. Furthermore, embodiments also relate to a corresponding method in a second network node, a first network node device, a second network node device, a computer program, and a computer program product thereof.

Abstract: The present invention relates to a method in a network control node of a wireless communication system, said wireless communication system using a system frequency bandwidth for downlink transmissions from said network control node to one or more mobile stations of said wireless communication system; said method comprising the steps of: allocating K number of sets of physical resource units arbitrarily chosen within said system frequency bandwidth for downlink transmissions, wherein K is an integer equal to or larger than 1 and the number of physical resource units of each set is selected from a finite set of allowed values; jointly encoding the frequency positions of the K number of sets of physical resource units into a first unique combinatorial index q; and signalling said first combinatorial index q in the downlink.

Abstract: Methods and nodes for transmission of downlink control channel signals in a downlink frequency carrier of a wireless communication system, wherein at least two PRB pairs, configurable for the transmission of a downlink control channel have different numbers of time-frequency resource elements available for the transmission of said downlink control channel. The method comprises allocating at least one set S of PRB pairs; arranging time-frequency resource elements from said set S into an aggregation comprising at least one level; determining a set LS of aggregation levels supported for the transmission of a downlink control channel within the allocated set of PRB pairs, based on the number of time-frequency resource elements available for the transmission of a downlink control channel in PRB pairs of the set S; and transmitting the downlink control channel within said set S of PRB pairs.