Abstract: The present application provides a method and device for transmitting data, the method comprising: generating a target RLC PDU, the data field of the RLC PDU including only one complete RLC SDU or including only one cutting segment of a complete RLC SDU. If the data field of the RLC PDU includes only the complete RLC SDU, the RLC PDU does not include a sequence number (SN); if the data field of the RLC PDU includes only one cutting segment of the complete RLC SDU, the target RLC PDU include the SN; and the value of the SN included in the target RLC PDU is the same as the value of the SN included in the RLC PDU including other cutting segments of the complete RLC SDU. The method for transmitting data of the present application can reduce air interface transmission overhead.

Abstract: Techniques for network scheduling that may provide consistent latency in content delivery are described. For example, the techniques may include receiving, by a scheduler of a carrier network, a consistent latency request associated with an application operating on a user equipment (UE), the consistent latency request including a specified latency value. Based at least in part on the specified latency value, the scheduler of the carrier network may schedule transmission of one or more packets associated with the application operating on the UE to cause the one or more packets to arrive at the UE with an inter-packet delay substantially equal to the specified latency value.

Abstract: A data processing method, a terminal device, and a network device are provided, to provide a processing manner of an application data packet in a fourth mode. In this application, the terminal device first obtains the first information. The first information includes the processing manner of the application data packet in the fourth mode. Therefore, the terminal device knows how to process the data packet in the fourth mode, and further processes the terminal device in the determined processing manner.

Abstract: Various examples and schemes pertaining to an AT-command for an always-on PDU session in mobile communications are described. A processor of an apparatus implemented as a user equipment (UE) establishes a protocol data unit (PDU) session between a modem of the apparatus and a network node of a wireless network in response to a trigger by an application executed on the processor. The processor forwards a query from the application to the modem for an indication provided by the network node on whether the established PDU session is an always-on PDU session. The processor then receives the indication provided by the network node from the modem.

Abstract: Systems and methods for preventing a robocall from leaving a voicemail are described. When an incoming call without a history information header (HIH) destined for a subscriber is detected, the incoming call is prevented from leaving a voicemail if the subscriber does not answer the incoming call. If the incoming call has the HIH, additional determination process based on a visited network address of the subscriber is performed to determine whether the incoming call is to be prevented from leaving a voicemail.

Abstract: The present invention provides a method for a terminal operating by means of utilizing a defined synchronization signal in a wireless communication system supporting narrow band-Internet of Things (NB-IoT), and a device for supporting same.

Abstract: A method carried out in a terminal (100) for setting up a connection with a wireless communication network including a network node (10), comprising transmitting terminal preference data (51) to the radio network, said terminal preference data indicating terminal preference to receive one of direct or indirect downlink transmission when the terminal (100) operates over a relay in the uplink; transmitting a service request (54) to the network node (10) over a relay (200); receiving information (57) from the network node (10) indicating direct or indirect downlink data transmission; receiving resource data (58) for a connection configured according to said information.

Abstract: In some embodiments, a method sets a threshold over a frequency spectrum and receives a set of measurements that measures interference between a set of network devices over the frequency spectrum. A set of metric values based on the set of measurements is compared to the threshold at a plurality of points over the frequency spectrum. The method then selects whether the set of network devices are in a group that interfere with communications of each other based on the comparing.

Abstract: A method and apparatus provide for receiving a transmit power control command related to a physical uplink shared channel transmission having more than one scheduled transmission repetitions. An applicability of at least a portion of a power adjustment to less than all of the repetitions of the physical uplink shared channel transmission is determined. The physical uplink shared channel transmission is transmitted during each of the more than one scheduled transmission repetitions, wherein the at least the portion of the power adjustment is selectively applied as determined to the specified less than all of the more than one scheduled transmission repetitions.

Abstract: Systems and methods include obtaining operational data for a Wi-Fi network including one or more access points providing wireless connectivity to one another and to one or more Wi-Fi client devices; determining a Quality of Experience (QoE) measurement from the operational data for each of the one or more access points and the one or more Wi-Fi client devices; and providing a display of associated QoE measurements for the one or more access points and the one or more Wi-Fi client devices. The systems and methods can include providing the display in real-time or near real-time to troubleshoot or debug operations of the Wi-Fi network.

Abstract: Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a user equipment may receive a system information (SI) message in an overlapped scheduling window; and identify the SI message based at least in part on at least one of: downlink control information (DCI) for the SI message, a system information radio network temporary identifier (SI-RNTI) of the SI message, a time location of the SI message in the overlapped scheduling window, a search space for the DCI, or a combination thereof. Numerous other aspects are provided.

Abstract: A method and system for completing a call between a first mobile device located at a first communication system and a second mobile device located at a second communication system is provided. A call initiation request including a request to complete a call with the second mobile device is received at a Radio Access Network (RAN) Adaptor (RA) from the first mobile device. The RA determines RAN-specific access parameters for the first mobile device and the second mobile device. The RA sends a call processing call initiation request including the RAN-specific access parameters and call initiation information for the first mobile device and the second mobile device to a cloud-based group call service. The RA establishes resources specific to the RAN in the RA. The resources include first resources at the first communication system and second resources at the second communication system.

Abstract: Provided are a method, a device, equipment and a storage medium for managing a mobile handover. When the method for managing the mobile handover is applied to a source secondary base station, the method includes: in response to determining to switch a set user equipment (UE) to a target base station, sending a handover request message to the target base station; and in response to receiving a handover request acknowledgement message sent by the target base station, sending a handover command message to the UE by using a signaling radio bearer (SCG SRB) of a source secondary base station side to trigger the UE to perform a random access attempt on a serving cell under the target base station.

Abstract: Embodiments of the present disclosure disclose a timing method and a device for a mobile network. The mobile network comprises: a master clock, a first network, a first network device, and a second network device. The first network device acquires timing information from the master clock through the first network, calibrates a second network device clock of the second network device according to the timing information, and calibrates a terminal clock of a terminal device according to the calibrated second network device clock.

Abstract: According to an aspect of the invention, a data transmitting apparatus includes a transmitting unit that transmits a first packet through a unidirectional communication based on an instruction to transmit the first packet, and that transmits a second packet through a unidirectional communication based on an instruction to transmit the second packet.

Abstract: A system and method of processing information regarding medical devices in wireless communication with each other is provided in which a controller device has a first wireless communication link with a first medical device, such as an analyte sensor, and a second wireless communication link with a second medical device, such as a delivery device. A processor in the controller device monitors the status of the first and second wireless links and upon noting a degradation of either one, compares the first wireless link status with the second wireless link status and provides guidance for resolving a communication problem based on the comparison. The latency of the communicating medical devices is considered.

Abstract: There is a need to support narrowband TDD frame structure for narrowband communications. The present disclosure provides a solution by supporting one or more narrowband TDD frame structure(s) for narrowband communications. In an aspect of the disclosure, a method, a computer-readable medium, and an apparatus are provided. The apparatus may determine a narrowband TDD frame structure for narrowband communications. The apparatus may also determine a PUSCH format of a group of PUSCH formats for allocating at least one RU to a UE for a NPUCCH. In addition, the apparatus may allocate the at least one RU to the UE using the determined PUSCH format. In one aspect, the RU may include one or more subcarriers in each of one or more slots.

Abstract: Embodiments of the present disclosure may include monitoring, at a physical layer, for a physical uplink shared channel (PUSCH) trigger for a PUSCH transmission, determining, at the physical layer, the PUSCH trigger is not received, wherein a wireless communication device is not to perform the PUSCH transmission based on the determination that the PUSCH trigger is not received, and considering, at a medium access control (MAC) entity, the PUSCH transmission to have been performed. Other embodiments may be described and/or claimed.

Abstract: There is a need to support narrowband TDD frame structure for narrowband communications. The present disclosure provides a solution by supporting one or more narrowband TDD frame structure(s) for narrowband communications. In an aspect of the disclosure, a method, a computer-readable medium, and an apparatus are provided. The apparatus may determine a narrowband TDD frame structure for narrowband communications. The apparatus may also determine a PUSCH format of a group of PUSCH formats for allocating at least one RU to a UE for a NPUCCH. In addition, the apparatus may allocate the at least one RU to the UE using the determined PUSCH format. In one aspect, the RU may include one or more subcarriers in each of one or more slots.

Abstract: Systems, apparatuses, methods, and computer-readable media are provided for joint CSI-RS and SRS triggering. Embodiments may include DCI format(s) to support joint CSI-RS and SRS triggering, and UE QCL assumption when CSI-RS and SRS are jointly triggered.