Abstract: Methods, systems, and devices for wireless communications are described. A user equipment (UE) may receive an indicator of a feedback window that is offset relative to a beginning transmission time interval (TTI) of a set of consecutive TTIs. The consecutive TTIs may include a set of aggregated slots or may correspond to a multi-TTI grant. The feedback window may include multiple control channel occasions interspersed within a duration of the set of consecutive TTIs. The UE may receive a transport block within a first TTI of the set of consecutive TTIs and transmit, within a control channel, feedback to indicate whether the transport block was successfully received.

Abstract: Various example embodiments for supporting reliability of an overlay are presented herein. Various example embodiments for supporting reliability of an overlay may support reliable delivery of overlay packets. Various example embodiments for supporting reliable delivery of overlay packets may support reliable delivery of overlay packets of a label switching protocol. Various example embodiments for supporting reliability of an overlay may support reliable delivery of overlay packets based on a reliable transport layer. The reliable transport layer may be provided using a reliable transport layer protocol. The reliable transport layer protocol may be a connection-oriented protocol, may be configured to support flow control, may be configured to support congestion control, or the like.

Abstract: Embodiments of this application provide a period mapping method and a network device. The method includes: receiving, by a downstream first network device, first information sent by an upstream second network device, where the first information carries a number of the 1st period of the second network device, the number is referred to as a first number, and the first number includes a first label number and a first group number; and establishing, by the first network device, mapping relationships between numbers of a plurality of periods of the first network device and numbers of a plurality of periods of the second network device based on a mapping relationship between a second label number and a second group number that are included in a number of a first period that can be used to send the first information and a first label number and a first group number.

Abstract: In a method for establishing a communication link between a first network interface device and a second network interface device comprises, the second network interface device receives a training signal transmitted by the first network interface device. The training signal is for timing synchronization between the second network interface device and the first network interface device. The second network interface device determines, based on at least one physical characteristic of the training signal, a physical layer (PHY) parameter of the first network interface device. A controller of the second network interface device configures one or more components of the second network interface device to operate in a mode that corresponds to the determined PHY operating parameter of the first network interface device.

Abstract: A system and apparatus can include a port for transmitting data; and a link coupled to the port. The port can include a physical layer device (PHY) to decode a physical layer packet, the physical layer packet received across the link. The physical layer packet can include a first bit sequence corresponding to a first ordered set, and a second bit sequence corresponding to a second ordered set, the first bit sequence immediately adjacent to the second bit sequence. The first ordered set is received at a predetermined ordered set interval, which can occur following a flow control unit (flit). The first ordered set comprises eight bytes and the second ordered set comprises eight bytes. In embodiments, bit errors in the ordered sets can be determined by checking bits received against expected bits for the ordered set interval.

Abstract: One or more computer processors generate a network fractal based on one or more predicted network conditions for a network that includes a change in user density, user device latency, and network throughput, wherein the network fractal is a deployment template comprised of a plurality of nodes. The one or more computer processors select a configuration of network infrastructure devices placed at each node in the plurality of nodes comprised in the generated network fractal. The one or more computer processors modify the network utilizing the generated network fractal and the selected configuration of network infrastructure devices. The one or more computer processors deploy the modified network.

Abstract: A communication system of a gas turbine engine for an aircraft includes an engine control system configured to generate engine data and a communication device. The communication device includes a memory system and a communication interface configured to wirelessly communicate with an offboard system external to the aircraft and to communicate with the engine control system and the memory system. The communication interface is further configured to receive the generated engine data from the engine control system. The communication device further includes processing circuitry configured to selectively record the generated engine data, determine a location of the gas turbine engine, determine a data management strategy based on the determined location, and transmit, using the communication interface, a first portion of the recorded engine data to the offboard system. A data content of the first portion of the recorded engine data is based on the data management strategy.

Abstract: A system and method of managing network resources is provided, in which a noise threshold for an access node is set, the access node including a first plurality of resource blocks corresponding to communication in a first communication mode and a second plurality of resource blocks corresponding to communication in either of the first communication mode or a second communication mode; a noise parameter for the second plurality of resource blocks is monitored; the noise parameter is compared to the noise threshold; and in response to a determination that the noise parameter exceeds the noise threshold, access to the second plurality of resource blocks for communication in the first communication mode is restricted.

Abstract: A wireless networking system is provided. The wireless networking system includes a base station device including processing circuitry configured to detect a transmission rate from a portion of a preamble of an incoming packet transmission signal and adapt a radio configuration to receive a remainder of the incoming packet transmission signal at the transmission rate.

Abstract: Implementations of the disclosure provides a method for reestablishing an RRC connection, a terminal and a storage medium. In the method, a terminal determines a Packet Data Convergence Protocol (PDCP) for initiating an RRC connection reestablishment procedure, based on knowledge of the PDCP supported by a first base station, the PDCP is a first PDCP or a second PDCP. The terminal initiates the RRC connection reestablishment procedure to the first base station, based on the first PDCP or the second PDCP.

Abstract: A powerful direct digital control (DDC) and integration control platform that is scalable and easy to use and meet building owners and contractors' desires for a highly secure and robust technical solution. One may combine heating, ventilation and air conditioning (HVAC) DDC control with the embedded workstation platform, and DDC controllers with embedded workstation platform software design. An embedded workstation platform event-driven approach (such as a Windows operating system (OS) or Unix OS environment) is not necessarily easily suited to real-time common in HVAC DDC control. The present system may solve an issue of combining high-power event needs for HVAC DDC Controls.

Abstract: A premises communication hub includes a primary communications module, a secondary communications module, a power supply, and a charging module. The primary communications module is configured to receive a premises signal from a premises device and transmit an external signal to a remote server. The secondary communications module is configured to receive the premises signal from the premises device and transmit the external signal to the remote server. The power supply includes a primary power input configured to receive power from a primary power source and a secondary power input configured to receive power from a secondary power source. The power supply is electrically connected to the primary communications module and the secondary communications module. And, the charging module is electrically connected to the secondary power source and configured to recharge the secondary power source.

Abstract: Apparatuses, methods, and computer program products are provided for data privacy and clearance traversal. An example method includes receiving a first model having an associated first clearance. The method further includes determining a faulty outcome of the first model due to the first clearance and receiving a second model having an associated second clearance. The method also includes inputting the faulty outcome of the first model to the second model and generating a traversal outcome of the second model. The method further include inputting the traversal outcome to the first model so as to traverse a clearance issue associated with the first clearance. The method also includes preventing access of the second model to user data analyzed by the first model in generating the faulty outcome.

Abstract: Apparatus and associated methods relate to selection of an operating baud rate for a building automation system that communicates over a Master-Slave Token-Passing (MS/TP) BACnet. A server (or router or gateway) connected to the MS/TP BACnet is programmed to iteratively select operating baud rates from a series of available operating baud rates. Each iteration, the server broadcasts a frame indicating baud rate selection to a plurality of building automation devices connected to a MS/TP BACnet. Each of the plurality of building automation devices connected to the MS/TP BACnet then iteratively sets its baud rate so as to match the baud rate selected by the server. The server monitors communications conducted over the MS/TP BACnet so as to determine reliability or unreliability of the communications conducted over the MS/TP BACnet using the baud rates iteratively selected. A highest reliable baud rate is then used by the building automation system.

Abstract: A terminal is disclosed that includes a receiver that receives by higher layer signaling in a first cell, when a plurality of cells including the first cell and a second cell are configured, information related to a synchronization signal block index indicated by using a bitmap. The terminal also includes a controller that controls a reception of a synchronization signal block based on the information related to the synchronization signal block index. In other aspects, a radio communication method, a base station, and a system are also disclosed.

Abstract: Methods, systems, and devices for wireless communications are described. A user equipment (UE) may alter, or otherwise cancel, a sidelink communication as a result of a cancelation indicator (CI) corresponding to a different UE to support automatic gain control (AGC) calibration. The UE may determine to cancel or alter sidelink resources that at least partially overlap in time and are adjacent to, yet non-overlapping, in frequency to a high priority transmission. In some implementations, the UE may cancel the sidelink communication from an earliest overlapping symbol to the end of a slot. In other implementations, the UE may cancel a portion of the sidelink communication and resume sidelink communications within the same slot. Additionally or alternatively, the UE may utilize one or more reference signals or symbols to enable AGC recalibration during the slot.

Abstract: A method may include (1) preparing, at a slave device, a request message that identifies an initial time-to-live value, (2) sending the request message to a plurality of candidate master devices, (3) receiving, at the slave device from one of the candidate master devices, a reply message that identifies a number of hops between the slave device and the one of the candidate master devices, (4) receiving, at the slave device from another one of the candidate master devices, another reply message that identifies another number of hops between the slave device and the another one of the candidate master devices, and then (5) synchronizing a clock of the slave device with a clock of the one of the candidate master devices due at least in part to the number of hops being less than the another number of hops. Various other apparatuses, systems, and methods are also disclosed.

Abstract: A method and system for minimizing the control overhead in a multi-carrier wireless communication network that utilizes a time-frequency resource is disclosed. In some embodiments, one or more zones in the time-frequency resource are designated for particular applications, such as a zone dedicated for voice-over-IP (VoIP) applications. By grouping applications of a similar type together within a zone, a reduction in the number of bits necessary for mapping a packet stream to a portion of the time-frequency resource can be achieved. In some embodiments, modular coding schemes associated with the packet streams may be selected that further reduce the amount of necessary control information. In some embodiments, packets may be classified for transmission in accordance with application type, QoS parameters, and other properties. In some embodiments, improved control messages may be constructed to facilitate the control process and minimize associated overhead.

Abstract: Methods and apparatuses for downlink data buffering considering cross carrier scheduling in a wireless communication system. The UE receives configuration of a first serving cell and a second serving cell from a network and receives and/or monitors a first PDCCH transmitted on the second serving cell, wherein the first PDCCH schedules a first PDSCH. The UE receives and/or monitors a second PDCCH transmitted on the second serving cell, receives and/or buffers the second PDSCH based on a first TCI state used for PDCCH quasi co-location indication of a CORESET, and receives and/or buffers the first PDSCH based on a second TCI state.

Abstract: The present disclosure provides a method for radio-resource scheduling in a telecommunication network. The method comprises selecting at least one objective associated with a radio-resource scheduling from a plurality of objectives; prioritizing at least one flow from a plurality of flows for the selected at least one objective; identifying at least one state parameter from a plurality of state parameters associated with at least one of an active bearers from a plurality of active bearers; inputting at least one of the plurality of state parameters for the at least one of the active bearers to be scheduled during a current transmission time interval (TTI) to a reinforcement machine learning (ML) network, the reinforcement ML network being configured for a reward in accordance with the selected at least one objective; and receiving, from the reinforcement ML network, a radio resource allocation for each of the active bearers for the current TTI.