Abstract: A transmit radio node is configured to transmit one or more code blocks, CBs, of a transport block to a receive radio node. The transmit radio node is also configured to receive feedback from the receive radio node that positively or negatively acknowledges each of one or more first code block groups, CBGs, into which the one or more transmitted CBs are allocated according to a first CB-to-CBG allocation. The transmit radio node is further configured to re-transmit to the receive radio node any CBs that the first CB-to-CBG allocation allocates to one or more first CBGs which the feedback negatively acknowledged. Moreover, the transmit radio node is configured to receive feedback from the receive radio node that positively or negatively acknowledges each of one or more second CBGs into which the re-transmitted CBs are allocated according to a second CB-to-CBG allocation. The first and second CB-to-CBG allocations are different.

Abstract: The present invention provides a method by which a terminal performs vehicle-to-everything (V2X) transmission resource selection in a wireless communication system, the method mapping, onto a subframe, a coded symbol related to control information and transmitting the control information by using the mapped coded symbol, wherein the control information is piggybacked and transmitted together with data, and the coded symbol related to the control information is mapped before the data.

Abstract: Techniques are described herein for allocating transmit power between precoding resource groups (PRGs) and/or transmit chains of a user equipment (UE) to reduce the amount of total transmit power that is unused. The UE may determine a set of precoding scaling factors for each PRG to efficiently allocate a total transmit power between the PRGs using a two-stage approach. During a first stage, the UE may determine PRG-specific precoding scaling factors for each PRG associated with an uplink transmission. During a second stage, the UE may determine a residual precoding scaling factor to apply to all the PRGs associated with the uplink transmission and determine overall precoding scaling factors for each PRG. The second stage may be configured to refine the scaling factors determined in the first stage such that at least some of the unused transmit power is allocated to at least one of the PRGs or transmit chains.

Abstract: Technologies for extending a subnet across on-premises and cloud-based deployments are provided. An example method may include creating a VPC in a cloud for hosting an endpoint being moved from an on-premises site. For the endpoint to retain its IP address, a subnet range assigned to the VPC, based on the smallest subnet mask allowed by the cloud, is selected to include the IP address of the endpoint. The IP addresses from the assigned subnet range corresponding to on-premises endpoints are configured as secondary IP addresses on a Layer 2 (L2) proxy router instantiated in the VPC. The L2 proxy router establishes a tunnel to a cloud overlay router and directs traffic destined to on-premises endpoints, with IP addresses in the VPC subnet range thereto for outbound transmission. The cloud overly router updates the secondary IP addresses on the L2 proxy router based on reachability information for the on-premises site.

Abstract: Disclosed are a method for transmitting and receiving a signal between a terminal and a base station in a wireless communication system and an apparatus for supporting the same. More particularly, disclosed is an explanation for a method of transmitting and receiving a signal between a terminal and a base station according to a new HARQ procedure which differs from a Hybrid Automatic Repeat reQuest (HARQ) procedure supported in a conventional wireless communication system.

Abstract: The disclosure provides a method and a device in a User Equipment (UE) and base station for wireless communication. In one embodiment, the user equipment performs a first listening in a first time domain resource of a first frequency domain resource, transmits a second wireless signal in a second time domain resource of the first frequency domain resource, performs a first supplementary listening in a third time domain resource of the first frequency domain resource, and transmits a first wireless signal in a fourth time domain resource of the first frequency domain resource; wherein the first supplementary listening includes decrementing a first counter based on the first listening. This disclosure can increase the transmission opportunity, thereby improving transmission efficiency and spectrum utilization.

Abstract: Disclosed is a method for transmitting an uplink signal by a terminal in a wireless communication system. The method comprises the steps of: transmitting multiple precoded reference signals, to each of which a precoder cyclic pattern is applied in a predetermined resource unit, to a base station; receiving, from the base station, information indicating one among the multiple precoded reference signals; and transmitting an uplink data signal and an uplink demodulation reference signal to the base station by using a precoder cyclic pattern which has been applied to the indicated precoded reference signal.

Abstract: Certain aspects of the present disclosure relate to methods and apparatus for radio link monitoring reference signal (RLM-RS) determination using communications systems operating according to new radio (NR) technologies. For example, a method for wireless communications from a UE generally includes determining resources to monitor for radio link monitoring (RLM) prior to being configured with resources to monitor for RLM after establishing a radio resource control (RRC) connection with a network, and performing RLM based on the determined resources.

Abstract: Methods and apparatus are proposed for controlling a radio access network connection to a telecommunications network. In order to enable resource based access barring a wireless terminal performs a delay in proceeding with a radio network access procedure based on an obtained indication of access barring. The access barring is a resource based access barring; based on the resource usage of a wireless terminal.

Abstract: A method of determining compatibility of a network hardware device for connecting to a home security network involves receiving, by a processor of a client device, data from a capture input device of the client device. The data includes identification information associated with the network hardware device. The method also involves transmitting, by the client device, to a server computing device the data comprising the identification information associated with the network hardware device. The method further involves receiving, from the server computing device, compatibility information indicating whether the network hardware device is compatible with a hub device of the home security network. Additionally, the method involves displaying, on a display of the client device, the compatibility information.

Abstract: A terminal (transmission apparatus) is disclosed, which is capable of appropriately configuring processing of a Post-IFFT section in accordance with a communication environment in signal waveform generation. In the terminal, an IFFT section performs IFFT processing on a transmission signal; a control section determines a signal waveform configuration for the transmission signal after the IFFT processing in accordance with a communication environment of the terminal; and the Post-IFFT section performs Post-IFFT processing on the transmission signal after the IFFT processing based on the determined signal waveform configuration.

Abstract: Described herein are techniques for transmitting data to an offline Internet of Things (IoT) device using a transient device. The techniques including a method comprising receiving, at a transient device in a first location that is communicatively coupled to a base station by a first network at a first time, a first portion of a plurality of portions of data for delivery to an offline IoT device. The method further including connecting the transient device in a second location to the offline IoT device using a short-range network at a second time after the first time. The method further including transferring the first portion of the plurality of portions of data from the transient device to the offline IoT device using the short-range network.

Abstract: Apparatuses, methods, and systems are disclosed for transmitting a physical downlink shared channel after losing uplink synchronization. One method includes: transmitting first downlink control information that schedules a physical downlink control channel order; transmitting second downlink control information that schedules a physical downlink shared channel transmission; transmitting the physical downlink control channel order based on the first downlink control information; transmitting the physical downlink shared channel transmission based on the second downlink control information, wherein the physical downlink control channel order and at least a portion of the physical downlink shared channel transmission are transmitted after a remote unit loses an uplink synchronization and before the remote unit completes a physical random access channel procedure.

Abstract: A method of congestion control implemented by a sender over a network link that includes a router having a queue. During a first state, information is received from a receiver. The information comprises an estimated maximum bandwidth for the link, a one-way transit time for traffic over the link, and an indication whether the link is congested. In response to the link being congested, the sender transitions to a second state. While in the second state, a sending rate of packets is reduced, in part to attempt to drain the queue of data packets contributed by the sender. The sender transitions to a third state when the sender estimates that the queue has been drained of the data packets contributed. During the third state, the sending rate is increased until either the sender transitions back to the first state, or receives a new indication that the link is congested.

Abstract: Network hardware devices organized in a wireless mesh network (WMN). A first mesh network device performs a three-stage discovery protocol; in a first stage, a discovery scan uses a first radio to find a set of neighbor devices in proximity; in a second stage, a discovery locate probe process is performed on a secondary discovery channel that is from a same frequency band group as a first DFS channel; in a third stage, a CAC is performed via the first DFS channel and, after the CAC, a neighbor peering request is sent and a neighbor peering response is received from a second mesh network device via a second radio. The neighbor peering response confirms establishment of a first communication channel between the second radio of the first mesh network device and a radio of the second mesh network device over the first DFS channel.

Abstract: Methods and apparatuses for operating multiple antenna panels are provided. The wireless communication device includes a plurality of antenna panels and a processor coupled to the antenna panels. The processor is configured to maintain a plurality of leading time values. The plurality of leading time values may indicate a plurality of leading time durations. The processor is further configured to receive an indicator for antenna panel status information from a base station, and apply one of the plurality of leading time values to switch an antenna panel status of the plurality of antenna panels based on the indicator for antenna panel status information.

Abstract: A network control system includes a network controller, and an information processor connected to the network controller via a first communication path complying with a first standard. The network controller is connected to an external device via an another communication path complying with the first standard. In response to receiving a packet from a transmission source that is registered in advance, the network controller transfers the packet to the information processor via the first communication path. When the packet transferred from the network controller is a special packet that is registered in advance, the information processor notifies the network controller of a content of an instruction indicated by the special packet via a second communication path. The network controller generates a special packet including the content of the instruction notified from the information processor, and transmits the generated special packet to the external device via the another communication path.

Abstract: A technique for transmitting data (504) from a first station to a second station on a contention-based radio channel is described. As to a method aspect of the technique, the first station obtains a transmit identifier (506) for the first station from a set of transmit identifiers; transmits control information (502) including the transmit identifier (506) to the second station; and transmits the data (504) to the second station according to the control information (502), wherein the data includes a station identifier (508) for the first station, the station identifier (508) or a combination of the station identifier and the transmit identifier (506) being indicative of the first station.

Abstract: A technique for transferring data in a radio communication is described. As to one method aspect of the technique, the data is received in at least two hybrid automatic repeat request (HARQ) processes (580, 582). For each of the at least two HARQ processes (580, 582), an error detection scheme is performed for the received data. For each of the at least two HARQ processes (580, 582), a feedback (596, 598) is sent based on a logical combination (589) of results (585, 587) of the error detection scheme for the at least two HARQ processes (580, 582).

Abstract: An apparatus for handling resets corresponding to multiple reset domains comprises a transport network interconnecting elements to enable data to be transferred from one element to another, ingress circuitry to couple elements to the transport network, and egress circuitry to couple the transport network to the elements. The ingress circuitry couples source elements to the transport network, and is responsive to receiving data from a source element to generate at least one transport packet in order to send that data over the transport network. Each transport packet comprises a reset domain indicator indicative of the reset domain in which the source element operates. The egress circuitry couples the transport network to destination elements and, whilst a reset of a particular reset domain is asserted, discards transport packets for which the reset domain indicator indicates the particular reset domain.