Abstract: The disclosure provides a method and a device in a User Equipment (UE) and a base station for wireless communication. The UE receives a first signaling for indicating a first time-frequency resource pool and a first spatial parameter group and a second signaling for indicating a second spatial parameter group in turn, the first spatial parameter group being associated to the first time-frequency resource pool including a first time-frequency resource set; the UE judges whether the first time-frequency resource set can transmit a radio signal; if so, the UE transmits a first radio signal in the first time-frequency resource set; otherwise, the UE gives up transmitting a radio signal in the first time-frequency resource set; the first spatial parameter group and the second spatial parameter group judge whether the first time-frequency resource set can transmit a radio signal. The disclosure improves efficiency of configured grant uplink transmission.

Abstract: Described herein are architectures, platforms and methods for implementing scalable power in a wireless device. Multiple radio access technology architectures running different operating clock frequencies are supported by providing a scaled static clock frequency and dynamic clock frequencies by dynamically switching parallel paths of processing resources.

Abstract: A multi-lane communication interface is provided for use in a link, such as SpaceFibre used on-board spacecraft. The interface has logic, when operating at a near end in cooperation with a far-end multi-lane communication interface, to: establish symbol synchronisation with the far-end over one or more lanes; send and receive data words to and from the far-end while maintaining the symbol synchronisation (A); detect a change in lane status; and upon detection of the change in lane status and while maintaining the symbol synchronisation: stop sending (B) data words; send (B) near-end lane-status control words to the far end instead of data words, until it is determined that the near end is ready to send data words, then resume sending (C) data words; and send (C) near-end lane-alignment signals to the far end, until a data word is received from the far end.

Abstract: Aspects herein describe determining a channel format for transmitting uplink communications in a slot, wherein the channel format is selected from multiple channel formats based at least in part on a payload size of the uplink communications, determining a starting symbol and an ending symbol of an uplink channel duration of the slot for transmitting the uplink communications, determining, based at least in part on the starting symbol and the ending symbol, a portion of the channel format to utilize in transmitting the uplink communications in the slot, and transmitting the uplink communications in the slot, wherein transmitting the uplink communications is based on the portion of the channel format.

Abstract: A more efficient over-the-air software push can be facilitated by leveraging a smart scheduling system for vehicles. The smart scheduling system can use location and network capacity data to prioritize over-the-air software pushes for vehicles. For instance, a vehicle, which is only operational during off-peak wireless network hours can receive a software push during the off-peak times because wireless network capacity is not an issue. However, vehicles, which are used primarily during heavy peak wireless network times can receive software in a prioritized manner based on location data, frequency of use, network capacity, etc.

Abstract: There is provided a method and apparatus for transmitting and receiving signals in a frequency band in a wireless communications network. The method includes determining a frequency separation between a frequency of a transmit signal and a frequency of a receive signal within the frequency band based on at least one of a power of the transmit signal, a number of physical channels associated with the transmit signal, and a number of physical channels associated with the receive signal. The method further includes transmitting and receiving signals in the frequency band in accordance with the determined frequency separation. The method may be performed by a User Equipment of a Network Node.

Abstract: A gateway device and a configuration client for supporting selective forwarding of messages published to a group address or a virtual address in a wireless mesh network of communicatively coupled communication devices, such as a Bluetooth Mesh system. The configuration client maintains a mapping between unicast addresses of communication devices and group and virtual addresses in the network. At receipt of a message including a group or virtual address, the gateway device retrieves, from the configuration client, the unicast addresses of those communication devices collectively identified by the group or virtual address in the received message. If the retrieved unicast addresses are all serviced by the gateway device, the message is transmitted by the gateway device on all interfaces corresponding to the communication devices addressed by the retrieved unicast addresses.

Abstract: A method and system is disclosed for operating an in-band relay to receive and amplify an incoming radio frequency signal and forward the amplified radio frequency signal. Methods to improve isolation between receive and transmit front-ends are disclosed, enabling an increase in the amplification gain without causing oscillation. Methods for learning the impulse response of the self-interference channel, and methods to perform adaptive echo cancellation in the analog domain. In addition, methods for transmit and receive beamforming are presented that achieve two objectives: (1) Improve the signal-to-noise ratio of the relayed signal, thereby compensating for noise amplification. (2) Improve the isolation, thereby enabling to increase the relay gain without causing oscillation.

Abstract: Embodiments herein disclose e.g. a method performed by a network node (12,15) for managing positioning of a wireless device (10) in a wireless communications network. The network node, such as a location server determines whether to transmit positioning assistance data, to the wireless device (10) using unicast and/or using broadcast. The network node further triggers a transmission to the wireless device (10), of the positioning assistance data or an indication of the positioning assistance data for the wireless device (10) wherein the transmission is a unicast transmission and/or a broadcast transmission as determined.

Abstract: A method of determining a passive Round Trip Time, RTT, delay in a telecommunications system for exchanging data packets in accordance with a data transmission protocol between a first device and a second device. The first and second devices are identified by first and second device identifications, respectively. The data packets include an address part including a source address and a destination address. The method is performed in a node by modifying the address part of a received data packet from the first device, and creating a first timestamp before transmitting the modified data packet to the second device. Upon receiving, at the node, from the second device in response to the modified data packet, a data packet having the modified address part of the modified data packet, the node creates a second timestamp that provides for passively measuring the RTT delay.

Abstract: An electronic device may include: a housing; a display exposed through the housing; a wireless communication circuit located within the housing; a processor located within the housing and operably connected to the display and the wireless communication circuit; and a memory located within the housing and operably connected to the processor, wherein the memory may store instructions to cause the processor, when executed, to switch a plurality of states related to all or one of transmission/reception of both a first signal and a second signal and transmission/reception of one thereof, the first signal includes information generated at least partially based on a state of the electronic device, the second signal includes information generated at least partially based on a state of a vehicle, and the plurality of states includes a first state, a second state, a third state, and a fourth state. Various other embodiments are possible.

Abstract: A network node provisions multi-cell System Information (SI) for a serving cell serving a wireless device and some number of second cells by dividing the multi-cell System Information Block (SIB) into multiple SIB instances. At least one of the SIB instances comprises the SIB content for the serving cell, and each remaining SIB instance comprises the SIB content for the cell(s) associated with that SIB instance. In one embodiment, another of the SIB instances comprises SIB content for two or more of the second cells. In another embodiment, another of the SIB instances comprises SIB content for one or more of the second cells, which is subsequently compressed before being provided to the wireless device. Each SIB instance is then provided to a wireless device via a corresponding downlink communication channel.

Abstract: Methods, apparatuses, and computer software for UE reported sounding reference signal (SRS) switching capability are provided. A method may include receiving a request, from a base station, for a sounding reference signal (SRS) switching capability of a user equipment, wherein the request includes a list of possible cells to be used by the user equipment for SRS transmission; determining, at the user equipment, the SRS switching capability of the user equipment based on the list of possible cells; and transmitting, from the user equipment to the base station, an indication of the SRS switching capability of the user equipment.

Abstract: A system for canceling crosstalk between one or more local distribution point units (DPUs)/fiber extender (FE) and a central distribution point (CDP) in a central office (CO)/cloud. The system can include a processor with memory configured to virtualize signal processing tasks from the DPU/FE, and to the CDP. The virtualization can include moving or splitting signal processing tasks such as a cross talk cancellation operation, from the DPUs/FEs and to the CDP, as virtualization of the tasks, and performing crosstalk cancelation for lines therebetween or with CPEs of a same vectored group.

Abstract: A system and method to perform fast transition time interval switching in an uplink multicarrier system. In one embodiment, an apparatus, and related method, is configured to receive a first user equipment power headroom (“UPH”) filtering value for a first uplink carrier from a user equipment, identify a measurement identifier with a first value for the first uplink carrier, and transmit the first UPH filtering value and the measurement identifier with the first value to a radio network controller.

Abstract: Various systems and methods take advantage of physical interfaces that are a part of Link Aggregation Group (LAG) to avoid traffic drops when disruptive configurations are applied to a port of a switch or router. In embodiments, in networking topologies using (SAN)-based traffic, where zero losses are expected, lossless deployment may be accomplished by using LACP to proactively intervene and redirect traffic flow in both ingress and egress directions of a to-be-configured port, e.g., to other ports of the LAG.

Abstract: Various solutions for enhancing time domain-resource allocation (TD-RA) framework with respect to user equipment and network apparatus in mobile communications are described. An apparatus may receive an indication of a reference point. The apparatus may determine a start symbol position according to the reference point rather than a slot boundary. The apparatus may determining a TD-RA according to the start symbol position. The apparatus may perform a transmission according to the TD-RA.

Abstract: An apparatus in a wireless communication system is provided. The apparatus includes at least one transceiver and at least one processor operably coupled to the at least one transceiver. The at least one processor is configured to determine first direction information regarding a first direction of a first beam of the apparatus, determine second direction information regarding a second direction of a second beam of the apparatus based on measurement information regarding a movement of the apparatus, and perform a beam search with another apparatus based on the first direction information and the second direction information.

Abstract: A method for transmitting data by a first station (STA) in a wireless local area network (WLAN) system is disclosed. The method includes configuring, as a radio frame for transmission of the data, a high efficiency extended range single user physical protocol data unit (HE ER SU PPDU) in which a high efficiency signal A (HE-SIG-A) field is repeated, and transmitting the configured HE ER SU PPDU to a second STA in a resource unit (RU) of one of a first type and a second type, the first type having a size of 106 tones and the second type having a size of 242 tones. If the HE ER SU PPDU is transmitted in an RU of the first type, the HE ER SU PPDU is transmitted in an RU of the first type at a fixed position in a primary 20-MHz channel.

Abstract: The present invention addresses the problem of an increase in transmission delay when a communication is performed using a plurality of wireless transmission devices having different wireless transfer delays if a plurality of wireless lines are regarded as a single wireless line. A wireless communication device according to the present invention includes: a dividing means for dividing a data signal string into a plurality of divided signal strings; and an allocation means for allocating the divided signal strings to at least one of a plurality of wireless transmission means having different wireless transfer delays on the basis of a transmission delay due to the intermediation of the wireless transmission means.