Abstract: A method performed by an electronic device includes receiving an input data stream, loading a set of first elements among a set of elements of the input data stream to a first buffer, generating one or more bit vectors based on a comparison between the set of first elements in the first buffer and a set of second elements in a second buffer among the set of elements of the input data stream, determining a match length corresponding to a bit sequence that satisfies a determined match condition based on the one or more bit vectors, determining a mismatch length corresponding to a bit sequence that satisfies a determined mismatch condition based on the one or more bit vectors, and generating compressed data for the input data stream based on the match length and the mismatch length.

Abstract: A method and system for optimized data decompression using parallel block processing are provided. A method of performing data decompression includes: receiving compressed input data including blocks; based on the compressed input data, for each of the blocks, determining a corresponding literal length and a corresponding match length; determining first blocks, each of whose literal length and match length are each less than a threshold; identifying consecutive independent blocks from among the first blocks; and decompressing the compressed input data by parallelly processing, with respect to each other, each of the consecutive input blocks.

Abstract: An apparatus includes a global memory and a systolic array. The global memory is configured to store and provide an input feature map (IFM) vector stream from an IFM tensor and a kernel vector stream from a kernel tensor. The systolic array is configured to receive the IFM vector stream and the kernel vector stream from the global memory. The systolic array is on-chip together with the global memory. The systolic array includes a plurality of processing elements (PEs) each having a plurality of vector units, each of the plurality of vector units being configured to perform a dot-product operation on at least one IFM vector of the IFM vector stream and at least one kernel vector of the kernel vector stream per unit clock cycle to generate a plurality of output feature maps (OFMs).

Abstract: Methods, apparatuses, systems, etc., directed to performing positioning of a wireless transmit/receive unit (WTRU) while it is in idle mode and/or inactive mode (collectively “idle/inactive mode”) in NR are disclosed herein. Performing positioning, including positioning measurement and/or reporting, in idle/inactive mode may allow for increased positioning accuracy and/or decreased latency of location determination. In various embodiments, a WTRU in idle/inactive mode may transmit a positioning measurement report in various ways, including (i) in a Random-Access Channel (RACH) preamble; (ii) appended to a RACH preamble; and/or (iii) in a Physical Uplink Shared Channel. In various embodiments, a WTRU in idle/inactive mode may transmit uplink-based positioning related reference signals. In various embodiments, a WTRU in an idle/inactive mode may transmit, over a dedicated physical channel, (e.g., downlink) positioning measurement reports and/or reference signals (RSs) for uplink positioning measurements.

Abstract: An artificial intelligence (AI) edge user equipment (AEU) may establish one or more peer to peer connections (P2P) with a UE to form connected UEs via a discovery procedure; transmit, to a base station (BS) in a first control message, capability information of each of the one or more connected UEs; transmit, via the one or more P2P connections, configuration information to each of the one or more connected UEs; receive, via the one or more P2P connections, data from each of the one or more connected UEs based on the configuration information; and transmit, to the BS via a third control message, the collected data from one or more of the one or more connected UEs for one or more artificial intelligence (AI) models.

Abstract: Systems, devices, and methods for operating in an unlicensed band are disclosed herein. In one example, a device may receive configuration information that includes a maximum channel occupancy time (MCOT) and a plurality of parameters including a plurality of transmission opportunity windows (TOWs). Based on the configuration information, the device may split a transmission into a plurality of bursts that may be grouped into sets of bursts based on how many bursts fit within a TOW. The number of bursts in a set of bursts may be less than or equal to the MCOT. The device may perform a clear channel assessment (CCA) to determine if the channel is busy and to determine a start time within the TOW for the bursts. The device may then transmit the set of bursts for that TOW, where each burst may have a burst indicator (BI).

Abstract: An aircraft powerplant assembly includes a cooling plate and an electric machine controller. The cooling plate includes a fluid cooling circuit internal to a body of the cooling plate. The fluid cooling circuit includes an inlet manifold, an outlet manifold and a plurality of heat exchange passages. Each of the heat exchange passages extends longitudinally along a longitudinal centerline from the inlet manifold to the outlet manifold. A first heat exchange passage is configured with a plurality of first cooling elements arranged longitudinally along its longitudinal centerline. The electric machine controller includes a controller housing and controller circuitry. The controller housing is removably attached to the cooling plate and overlaps the heat exchange passages. The controller circuitry is disposed within an interior of the controller housing. The controller circuitry is in thermal communication with the cooling plate through a wall of the controller housing.

Abstract: The present technology can allow a user to use a zero-knowledge authenticator (zkAt) to login to an account while preserving privacy of the authentication policy. More specifically, the present technology describes several implementations of a zkAt to enable policy-private authentication and to enable oblivious updates to authentication policies. The zkAt can be, for example, a zero-knowledge proof system where the underlying relation in the policy predicate remains private.

Abstract: Embodiments herein include a UE that receives one or more packets of a downlink packet set from a network node. The UE may identify a remaining delay budget and a remaining packet error budget for remaining packets of the downlink packet set based on Key Performance Indicator (KPI) requirements. The UE may perform a packet error prediction for the remaining packets, and perform a link adaptation operation based on the prediction and the remaining delay budget. A network node may perform similar actions on an uplink packet set.

Abstract: Disclosed are methods and systems to provide homomorphic compatible, p-adic arithmetic based encoding and decoding of rational numbers to integers and back to rational numbers for use with existing Fully Homomorphic Encryption (FHE) systems. Embodiments support both Approximate Greatest Common Devisor (AGCD) systems such as those with an Integer—Dijk, Gentry, Halevi, and Vaikuntanathan (IDGHV) scheme, and Ring Learning With Error (RLWE) systems such as a Fan and Vercauteren (FV) scheme modified for encrypting integers (ModFV). Encoded integers are provided to an FHE system on a source device that may optionally deliver the encrypted ciphertext to an intermediary device for performance of homomorphic algebra operations, and, the resultant and/or original ciphertext is delivered to a destination device for decryption of the ciphertext, and decoding of the decrypted integer back to a rational number.

Abstract: Methods, apparatuses, systems, etc., directed to performing positioning of a wireless transmit/receive unit (WTRU) while it is in idle mode and/or inactive mode (collectively “idle/inactive mode”) in NR are disclosed herein. Performing positioning, including positioning measurement and/or reporting, in idle/inactive mode may allow for increased positioning accuracy and/or decreased latency of location determination. In various embodiments, a WTRU in idle/inactive mode may transmit a positioning measurement report in various ways, including (i) in a Random-Access Channel (RACH) preamble; (ii) appended to a RACH preamble; and/or (iii) in a Physical Uplink Shared Channel. In various embodiments, a WTRU in idle/inactive mode may transmit uplink-based positioning related reference signals. In various embodiments, a WTRU in an idle/inactive mode may transmit, over a dedicated physical channel, (e.g., downlink) positioning measurement reports and/or reference signals (RSs) for uplink positioning measurements.

Abstract: Described herein are solutions for dynamic sidelink (SL) autonomous channel selection access. A user equipment (UE) can initiate a sensing window based on a prediction of transport block (TB) generation. A SL-capable UE operating in mode 2 can predict an arrival of a TB in a buffer of the UE and can initiate monitoring of the channel for a configured duration before the predicted arrival of the TB. A sensing and selection window size can be adapted based on traffic quality of service (QoS). The UE can dynamically adapt the sensing and selection windows based on a predicted priority or QoS of the future TBs. These and many other features and examples are described herein.

Abstract: Systems, devices and methods for a backscatter measurement based multiple RACH preamble transmissions are disclosed. A WTRU may receive a JCS-RS configuration comprising a minimum RACH preamble retransmission interval. The JCS-RS configuration may comprise a JCS backscatter power fraction (?) of the WTRU transmit power (PTx). The WTRU may transmit a RACH preamble in a RACH occasion corresponding to a preferred SS/PBCH Index using an initial WTRU transmit beam, having an associated first RA-RNTI value. The backscatter power (PBS) may be measured using the WTRU receive beam corresponding to the WTRU transmit beam used for the RACH preamble transmission. On a condition that PBS>?PTX, the WTRU may retransmit the RACH preamble after a retransmission interval, on resources associated with a second RA-RNTI value. The WTRU may be configured for monitoring the PDCCH common search space with the first RA-RNTI and the second RA-RNTI, for respective RAR window intervals.

Abstract: Provided is a method and apparatus for compressing data. The method according to an embodiment includes receiving a data input string comprising one or more segments, performing a search operation on the data input string, determining a type of the search operation, wherein the type of the search operation comprises a near search operation or a far search operation, and generating one or more compressed data blocks corresponding to the one or more segments of the data input string, based on the determined type of the search operation.

Abstract: An Integrated Access and Backhaul, IAB, node determines link degradation in a primary path to a first Distributed Unit, DU, of a gNB, establishes a secondary path with a second DU of a gNB, detects link failure in the primary path, releases the primary path and makes the second primary path as a new primary path. A first IAB donor node receives an indication of link degradation from an IAB node in a network managed by the first IAB donor node, determines that an available IAB node is in a network managed by a second IAB donor node, sends to the second IAB donor node a request to connect the IAB node with the second IAB donor node and, in case the request is accepted, requests the IAB node to connect with the second IAB donor node.

Abstract: The disclosure pertains to methods and apparatus for reporting channel state information (CSI) feedback in wireless telecommunication networks. In an example, a method implemented in a wireless transmit/receive unit (WTRU) may include receiving configuration information indicating a channel rank threshold, determining a channel rank associated with a channel measurement, selecting a type of CSI compression based on the channel rank and the channel rank threshold, and transmitting CSI and information indicating the selected type of CSI compression, and the CSI is associated with the channel measurement and was compressed using the selected type of CSI compression.

Abstract: This Application describes managing access to a Citizens Band Radio Service (CBRS) private wireless network that is maintained by a CBRS wireless network hub. A CBRS wireless node associates with the CBRS wireless network hub and obtains an electronic subscriber identity module (eSIM) to connect to the CBRS private wireless network. The eSIM is generated by the CBRS wireless network hub or by a cloud-network server using a one-time public key (otPK) obtained from the CBRS wireless node. The CBRS wireless node can authenticate before obtaining the eSIM based on i) having a common cloud-network service account or a different cloud-network service account of the cloud-network server as the CBRS wireless network hub, or ii) by using a mutual authentication procedure. The eSIM can be revoked and stored at the CBRS wireless network hub for subsequent re-use with the CBRS wireless node.

Abstract: Examples described herein provide a computer-implemented method for managing battery usage for a hybrid electric engine of an aircraft. The method includes receiving a flight plan comprising flight plan data for a flight of an aircraft. The method further includes receiving battery data about a battery system of the aircraft. The method further includes determining waypoints for when to apply electric power from the battery system based at least in part on the flight plan data and the battery data. The method further includes controlling, based at least in part on the waypoints, an electric motor while the flight plan is executed. The method further includes updating, while the flight plan is executed, the waypoints based at least in part on data received during the flight.

Abstract: Disclosed are systems, apparatuses, processes, and computer-readable media for confidential NFTs. For example, an example of a process for transferring ownership of an at least partially obfuscated NFT can include at least partially encrypting an NFT. The process can further include associating the at least partially obfuscated NFT with a smart contract that defines conditions under which the at least partially obfuscated NFT will be transferred to a buyer with a decryption key to decrypt the at least partially obfuscated NFT. The conditions ensure that a clear portion of the at least partially obfuscated NFT is part of the at least partially obfuscated NFT. The process includes receiving a request from a buyer to purchase the at least partially obfuscated NFT. Further, the process can include executing, based on receiving the request, the smart contract to complete the transaction based on the conditions of the smart contract.

Abstract: Disclosed are a method of accessing a memory and an electronic device for performing the method. The electronic device includes a processor, and a memory electrically connected to the processor, wherein the processor may be configured to select a rank including bank groups of the memory, select a bank corresponding to a memory address to be accessed from among banks included in the selected rank, select a row and one or more columns from rows and columns of the selected bank corresponding to the memory address, and generate the memory address to access the memory based on an address mapping scheme according to the selected rank, the selected bank, the selected row, and the selected one or more columns.