Abstract:
The present invention relates to a user device and a network node. Furthermore, the present invention also relates to corresponding methods, a computer program, and a computer program product. A Radio Network Temporary Identifier (RNTI) is assigned to a User Device from a radio communication network, wherein the assigned RNTI is valid for a plurality of network nodes of the radio communication network and associated with a common data channel of the radio communication network.
Abstract:
Embodiments of the present application provide a minimization of drive tests measurement method and apparatus. The method includes: determining, by a user equipment, according to an MDT triggering parameter, whether to acquire an MDT measurement value, where the MDT triggering parameter includes at least one of the following: an SINR, a data rate, a packet loss rate of a voice service, a data packet latency, or service interruption time; acquiring, by the user equipment, the MDT measurement value when it is determined to acquire the MDT measurement; and sending, by the user equipment, the MDT measurement value to a network side. The minimization of drive tests measurement methods and devices in the embodiments of the present application are capable of avoiding that a user equipment reports a large amount of useless information, and reducing burdens on an air interface and a network side.
Abstract:
A control device (100) comprises a processor (101) and a transmitter (103) is provided; wherein the processor (101) is configured to generate a composite beam control signal S which comprises antenna beam control information for communication nodes of a communication path; wherein the transmitter (103) is configured to transmit the composite beam control signal S to at least one communication node. A communication node (300) comprises a processor (301), a transceiver (303), reception antenna elements (305) and transmission antenna elements (307) is provided; the transceiver (303) is configured to receive a composite beam control signal S; the processor (301) is configured to derive antenna beam control information associated with the communication node (300) from the composite beam control signal S; and control the beam of the reception antenna elements (305) or the beam of the transmission antenna elements (307) according to the antenna beam control information.
Abstract:
User equipment, method in a user equipment, management node and method in a management node, all aiming at saving transmission energy by decreasing transmission power of the user equipment. The user equipment is served by a serving radio network node in a heterogeneous wireless communication system comprising the radio network node, a relay node and the management node. The method comprises transmitting a request for saving transmission energy; receiving a response, comprising an instruction for decreasing the transmission power of the user equipment; and decreasing the transmission power of the user equipment when transmitting in the uplink.
Abstract:
The invention relates to devices in a wireless network transmitting uplink beacons such as a network node comprising a transceiver for communication with at least one User Equipment, UE. The network node is configured to receive an at least one uplink beacon corresponding to the at least one UE, and to determine a group comprising at least a first UE and a second UE, based on received uplink beacons from the first UE and the second UE. The network node is also configured to determine uplink beacon reconfiguration for each UE in the group, comprising information specifying a group uplink beacon, and information specifying a UE configuration for the UEs of the group, indicating each UE of the group either as being a UE for sending said group uplink beacon, or as a UE for receiving said group uplink beacon.
Abstract:
A network node (110, 120, 130) and a method therein for radio access resource allocation of a mobile station (140) is disclosed. The network node (110, 120, 130) comprises a receiver (630), configured to receive at least one first parameter value associated with a radio communication condition of the mobile station (140), at least one second parameter value associated with communication capabilities of the mobile station (140), and at least one third parameter value indicating operability in MRTD of the mobile station (140). Further the network node (110, 120, 130) comprises a processor (620), configured to allocate at least one radio access resource to the mobile station (140), based on the received parameter values. In addition, the network node (110, 120, 130) comprises a transmitter (610), configured to inform the mobile station (140) of the at least one allocated radio access resource.
Abstract:
The present application relates to a scheduler and a sender and a receiver. The scheduler (100) comprising a processor (101) and a transceiver (103); the transceiver (103) being configured to receive a first signal from a sender-receiver pair (600), wherein the sender-receiver pair (600) comprises a sender (200) and a receiver (300), the first signal comprises at least one first parameter indicating a congestion metric for a communication path between the sender (200) and the receiver (300) of the sender-receiver pair (600), and wherein the communication link is part of the communication path; and the processor (101) being configured to schedule the resources of the communication link based on the at least one first parameter.
Abstract:
The present disclosure relates to an access network node for a wireless communication system. The access network node is configured to act as a source access network node or as a target access network node, and comprises a transceiver configured to receive a handover instruction from a control device, the handover instruction comprising a handover time instance for a user device, a processor configured to serve the user device by maintaining a data connection with the user device until the handover time instance, and share an Automatic Repeat Request/Hybrid Automatic Repeat Request, ARQ/HARQ, process with a target access network node for the user device; or serve the user device by maintaining a data connection with the user device after the handover time instance, and share a ARQ/HARQ process with a source access network node for the user device.
Abstract:
A network node includes an antenna array having a plurality of antenna sub-arrays. A switching device is coupled to the antenna array, the switching device being configured to connect at least two input signals to respective ones of the plurality of antenna sub-arrays. A processor is configured to determine a channel capacity, wherein based on the channel capacity, the processor is configured to control the switching device to switch a connection of the at least two input signals to different ones of the plurality of antenna sub-arrays to change one or more of an inter-distance between the respective ones of the plurality of antenna sub-arrays and a down-tilting angle of the antenna array.
Abstract:
A system, a network device, a sending device, and corresponding methods for a communication network are disclosed. The system comprises a processor configured to: receive at least one predicted congestion level Cpred and at least one predicted radio channel quality Qpred associated with a data flow; and determine at least one of a transmission rate TR or a data flow path TP for transmission of the data flow based on the predicted congestion level Cpred and the predicted radio channel quality Qpred.