Abstract: A method and apparatus may include receiving an uplink grant in a specific subframe of a frame and/or a physical hybrid-ARQ indicator channel transmission, for a physical-uplink-shared-channel transmission or retransmission on a special subframe. The method may also include determining that the uplink grant validates transmitting a physical-uplink-shared-channel transmission on the special subframe, or that the physical hybrid-ARQ indicator channel transmission validates transmitting a physical-uplink-shared-channel retransmission on the special subframe. The method may also include determining transmission parameters for transmitting the physical-uplink-shared-channel transmission or retransmission. The method may also include transmitting the physical-uplink-shared-channel transmission or retransmission on the special subframe.

Abstract: There is provided a method comprising: transmitting, by an apparatus, an indication of a plurality of resource elements for uplink transmissions of uplink control information and uplink data; and receiving, by the apparatus, uplink control information on a portion of said plurality of resource elements, the portion being defined by a mapping operation, wherein said mapping operation comprises: partitioning the plurality of resource elements to define a predetermined number of frequency domain resource element sets; and mapping the uplink control information to the plurality of resource elements in the predetermined number of frequency domain resource element sets to identify the portion of the plurality of resource elements.

Abstract: There is provided a frame structure for a cellular communication system. According to an embodiment, there is provided a first radio frame configuration defining a frame structure of a radio frame comprising at least one sub-frame dedicated only for downlink transmission. There is also provided a second radio frame configuration defining a frame structure of a radio frame comprising at least one flexible special sub-frame configurable as either a flexible downlink sub-frame or as a flexible uplink sub-frame, wherein the flexible downlink sub-frame and the flexible uplink sub-frame both comprise an uplink part and a downlink part, and wherein both the uplink part and the downlink part carry at least one of control information and a reference signal.

Abstract: There is provided a solution for efficient communications in a cellular communication system employing beamforming transmissions. In an embodiment, a terminal device (120) carries out the following: scanning for at least one message amongst a plurality of radio beams (112, 114) in a cell (100) according to a search space defining a plurality of scanning configurations; measuring a signal quality of at least one radio beam in the cell; adapting the search space on the basis of the measured signal quality; and performing said scanning for the at least one message according to the adapted search space.

Abstract: Various communication systems may benefit from improved signaling. For example, anew radio communication system may benefit from a flexible indication of transmission timing. A method may include determining, at the user equipment, transmission timing based on a first parameter and a second parameter. The first parameter may indicate an offset as a number of slots. The second parameter may indicate an offset as a number of symbols within one of the slots. The method may also include using the transmission timing to at least one of send an uplink transmission or receive a downlink transmission.

Abstract: A user equipment (UE) may determine channel state information (CSI) reports with each CSI report being related to a component carrier. The UE may send a subframe with CSI report(s) on a physical uplink control channel (PUCCH). When a collision occurs in the subframe having the CSI report(s) on the PUCCH a lower priority CSI report may be dropped from the transmission.

Abstract: There is provided a method including determining that a first resource is to be designated as being used in accordance with a first communications protocol; forming an indication for a second apparatus operating in accordance with a second communications protocol, the indication indicating that the first resource is to be blanked; and transmitting, using dedicated signaling, the formed indication to the second apparatus.

Abstract: Systems, methods, apparatuses, and computer program products for signal block mapping are provided. One method includes configuring, by a network node (e.g., base station or eNB), a group of discovery signaling blocks. The method may then include mapping the discovery signaling blocks of the group onto a subframe structure, including the group information into each of the discovery signaling blocks, and transmitting the discovery signaling blocks in the subframe structure.

Abstract: A method comprises defining (401), in a network node (e NB), scheduled downlink carriers from a list of configured downlink carriers. The network node (e NB) defines (401) a downlink assignment index of the scheduled carrier having at least the lowest carrier index from the list of configured carriers, based on a total number of scheduled carriers. The network node (e NB) defines (401) the downlink assignment index for each other scheduled carrier having a higher carrier index from the list of configured carriers. The network node (e NB) transmits (402) to a terminal device (UE) a control message corresponding to each scheduled carrier, the control message indicating a downlink assignment scheduling a physical downlink shared channel, and comprising the defined downlink assignment index. The network node (e NB) receives (405) from the terminal device (UE), uplink control signalling indicating HARQ-ACKs related to physical downlink shared channels corresponding to the scheduled carriers.

Abstract: A technique includes receiving a plurality of synchronization signal blocks, including synchronization signals and beam specific reference signals, receiving a plurality of beam sweeping scheduling blocks, each beam sweeping scheduling block corresponding to one of the synchronization signal blocks and including scheduling information to schedule a dynamic size beam sweeping resource (e.g., mini-slot or other resource) for transmission of common control information (e.g., paging data and/or system information or SIB) via a set of one or more beams, and selecting, based on a measurement of signals of at least one of the synchronization signal blocks and the scheduling information, one of the dynamic size beam sweeping resources (e.g., one of the beam sweeping mini-slots or other resource) to receive the common control information (e.g., paging data and/or system information or SIB).

Abstract: Systems, methods, apparatuses, and computer program products for a new radio (NR) physical layer arrangement are provided. One method may include receiving, by user equipment, configuration of scheduling request resources on a plurality of resource pools. The method may also include determining a slot type when the user equipment is to transmit a scheduling request in a certain slot, and, based on the determined slot type and the received scheduling request resources configuration, determining whether the user equipment has a scheduling request resource allocated in the plurality of resource pools in the certain slot.

Abstract: There is provided a method, comprising: setting, by a radio device, length for a channel reservation window such that the channel reservation window comprises a plurality of subframes; dividing the channel reservation window at least into a downlink part and an uplink part, wherein the downlink part comprises at least one or more subframes of the plurality of subframes and the uplink part comprises at least one or more other subframes of the plurality of subframes; determine a timing offset between the start of the downlink part and the start of the uplink part, wherein the timing offset is based at least partly on applied timing advance; and defining timings, within the channel reservation window, for at least one of a downlink clear channel assessment-process and an uplink clear channel assessment-process at least partly on the basis of the timing offset.

Abstract: This document discloses a solution for configuring sub-frames in a cellular communication system.

Abstract: A method and device for processing data in a wireless communication network is provided, where at least two resource pools for an uplink control channel are provided for mobile terminals for a geographical area, and where the mobile terminals in the geographical area uses at least one of the at least two resource pools for the uplink control channel. In addition, a corresponding device and system are suggested.

Abstract: Various communication systems may benefit from the appropriate monitoring of communication channels. For example, certain wireless communication systems may benefit from downlink control channel monitoring optimized for discontinuous reception mode and/or narrowband operation. A method can include selecting a search space configuration from a plurality of search space configurations for a user equipment. The method can also include operating the user equipment in the selected search space configuration.

Abstract: A method comprising: measuring separately co-channel interference and cross-channel interference at an apparatus; and providing, to a node, separate information regarding the co-channel interference and the cross-channel interference.

Abstract: The present invention provides a method, a apparatus and computer program product relating to a control channel element indexing scheme.

Abstract: Various methods are described coverage enhancement of delay limited services according to an example embodiment. One example method may comprise generating one or more transport blocks. In some example embodiments, the transport blocks are configured to contain a data payload replica. The method of this embodiment may also include causing the one or more transport blocks to be transmitted via parallel hybrid automatic repeat request (HARQ) processes. In some example embodiments, the one or more transport blocks are transmitted based on a limited number of transmissions. The method of this embodiment may also include causing transmission of the one or more transport blocks in an instance in which an allocation does not include a new data indicator and which includes a same transport block size and transport block format for the data payload replica.

Abstract: An apparatus is described which is connectable to a first network node by a first downlink component carrier and to at least a second network node by a at least second downlink component carrier, wherein the apparatus provides a single uplink connection. The uplink connection is shared among a first uplink component carrier to the first network node and at least a second up link component carrier to the at least second network node. Sharing of the uplink connection may be performed in a time divisional multiplexed manner. Furthermore, a corresponding method is described.

Abstract: According to an aspect, there is provided a control node comprising means for performing: maintaining information, in a database, on a plurality of network nodes which are configured to perform wireless backhauling in at least one wireless backhaul network and are in communication with the control node, selecting, based on the information on the plurality of network nodes and according to pre-defined criteria, a first and a second set of network nodes from the plurality of network nodes and transmitting to the first set a first command to transmit a reference signal at one or more first pre-defined time instances and to the second set of network nodes a second command to monitor received signals at said one or more first pre-defined time instances to measure the reference signal.