Abstract: The present disclosure provides communication apparatuses and communication methods for selection and sensing windows for new radio (NR) sidelink user equipments (UEs) with partial sensing. The communication apparatuses include a communication apparatus comprising: circuitry which, in operation, determines a first plurality of time resources for resource selection, a second plurality of time resources for resource sensing, and a first subset of time resources from the first plurality of time resources, the first subset of time resources being a selection window for partial sensing, and selects a portion of the first subset of time resources; and a transmitter which, in operation, transmits a sidelink (SL) signal in the selected portion of the first subset of time resources.

Abstract: This communication device comprises: a control circuit that allocates a signal to a resource allocation unit constituted by an interlace of consecutive numbers in a terminal communication in an unlicensed band; and a transmission circuit that transmits the signal.

Abstract: The present invention improves the performance of sidelink communication. This terminal (200) comprises a control circuit (20A) for generating information pertaining to the cooperative use of sidelink resources between terminals, and a transmission circuit (20B) for transmitting the generated information to the other terminals.

Abstract: A communication device according to the present invention comprises a control circuit and a transmission circuit. The control circuit sets a transmission-enabled period in which information for adjusting resource usage between communication devices in sidelink communication can be transmitted, the transmission-enabled period being set on the basis of a processing time until another communication device stops or starts, in response to reception of the information, transmission of a sidelink data channel for which use by a sidelink control channel has been reserved. The transmission circuit transmits the information to the other communication device during the transmission-enabled period.

Abstract: An integrated circuit includes transmission circuitry controlling a transmission of a first set of beam failure detection (BFD) reference signal configurations, a second set of BFD reference signal configurations, a first set of candidate new beam detection (CBD) reference signal configurations, and a second set of CBD reference signal configurations. The integrated circuit includes reception circuitry controlling a reception of content including at least one result of a first BFD relating to a first transmission and reception point (TRP) based on the first set of BFD reference signal configurations or a second BFD relating to a second TRP based on the second set of BFD reference signal configurations, and at least one result of a first CBD relating to the first TRP based on the first set of CBD reference signal configurations or a second CBD relating to the second TRP based on the second set of CBD reference signal configurations.

Abstract: A communication device according to the present invention comprises a control circuit and a transmission circuit. The control circuit sets a transmission-enabled period in which information for adjusting resource usage between communication devices in sidelink communication can be transmitted, the transmission-enabled period being set on the basis of a processing time until another communication device stops or starts, in response to reception of the information, transmission of a sidelink data channel for which use by a sidelink control channel has been reserved. The transmission circuit transmits the information to the other communication device during the transmission-enabled period.

Abstract: An embodiment includes detecting by a Process Monitor of a system, a hot upgrade from a first version to a second version. The embodiment includes responsive to the detecting the hot upgrade, predicting by a Process Analyzer a predicted process instance. The embodiment includes generating by the Process Analyzer an upgrade workflow based on a current process instance, a progress metric of the current process instance and the predicted process instance. The embodiment also includes deploying by a Device Upgrade Manager the hot upgrade to the second version on a device of the system based on the upgrade workflow.

Abstract: The present disclosure provides communication apparatuses and communication methods for random access radio network temporary identifier (RA-RNTI) calculation for handling Random Access Channel Occasion (RO) Collision in a multi-physical Random Access Channel (multi-PRACH) transmission. The communication apparatuses include a communication apparatus comprising: circuitry, which in operation, determines one or more random access radio network temporary identifiers (RA-RNTIs) based on a first plurality of resources and/or a second plurality of resources of a Random Access Channel Occasions (RO) group; a transmitter, which in operation, transmits a preamble in at least one of the first plurality of resources; and a receiver, which in operation, receives downlink control information (DCI) with cyclic redundancy check (CRC) scrambled by the one or more RA-RNTIs in response to the preamble transmission.

Abstract: An uncertainty weighted average of the equalized amounts of two or more quantifier ions is calculated from a quantitation experiment itself. n known i ions of a compound are mass analyzed over time in each of m different samples, producing n XIC peaks for each of the m samples. A reference ion j is selected that is a j ion of the n i ions or a hypothetical ion j. A ratio r(j,i) of a peak area of the j ion to a peak area of each ion of the n i ions is calculated for each of the m samples, producing m r(j,i) ratios for each of the n i ions. An expected ratio rq(j,i) is calculated for each ion of the n i ions from the m r(j,i) ratios for each of the n i ions. For each sample, the uncertainty weighted average is calculated using rq(j,i).

Abstract: Provided are an object detection method and system based on synchronized video frame reading, and a device, and relate to the field of data extraction technologies for object detection. The method is applied to a monitoring system, and includes: determining, according to a plurality of low-latency buffer queues, a synchronized timestamped video sequence, where a timestamp difference corresponding to any two timestamped video frames in the synchronized timestamped video sequence is less than a timestamp difference threshold; and inputting the synchronized timestamped video sequence into an object detection model to obtain an object detection result corresponding to a central timestamp. A camera device is configured with a network time protocol (NTP) client, a reading thread, and an FFmpeg encoding thread to obtain the synchronized timestamped video sequence, and the object detection module is trained to improve precision of identifying monitoring anomaly.

Abstract: The present disclosure provides communication apparatuses and communication methods for selection and sensing windows for new radio (NR) sidelink user equipments (UEs) with partial sensing. The communication apparatuses include a communication apparatus comprising: circuitry which, in operation, determines a first plurality of time resources for resource selection, a second plurality of time resources for resource sensing, and a first subset of time resources from the first plurality of time resources, the first subset of time resources being a selection window for partial sensing, and selects a portion of the first subset of time resources; and a transmitter which, in operation, transmits a sidelink (SL) signal in the selected portion of the first subset of time resources.

Abstract: The present disclosure provides communication apparatuses and communication methods for transmission and reception of Sidelink Positioning Reference Signal (SL-PRS). The communication apparatuses include a communication apparatus comprising: circuitry, which in operation, generates a SL-PRS; and a transmitter, which in operation, transmits the SL-PRS based on a signaling.

Abstract: The present disclosure provides communication apparatuses and communication methods for random access radio network temporary identifier (RA-RNTI) calculation for multi-physical Random Access Channel (multi-PRACH) transmissions. The communication apparatuses include a communication apparatus comprising: a transmitter, which in operation, transmits a preamble in at least one of a plurality of Random Access Channel occasions (ROs) of a first RO group; and a receiver, which in operation, receives downlink control information (DCI) with cyclic redundancy check (CRC) scrambled by one or more random access radio network temporary identifier (RA-RNTI) candidates, the one or more RA-RNTI candidates being determined based on at least one of the plurality of ROs.

Abstract: Embodiments of this application disclose an image segmentation model quantization in the field of computer technologies. A method includes: acquiring a first image segmentation model, the first image segmentation model including a plurality of first operators, a concatenation layer, and a second operator; determining an input range of each of the plurality of first operators and the second operator, and updating a quantization parameter of each operator based on the input range of each operator and a target output range, so that the quantization parameter of each operator converges to a quantization parameter corresponding to the target output range; quantizing a network parameter of the concatenation layer based on the quantization parameter corresponding to the target output range, to obtain a quantized image segmentation model; and calling the quantized image segmentation model to perform an image segmentation task.

Abstract: A computer-implemented method for managing versions of security information. A processor set receives a request to add a first version of security information for a number of pods in an orchestration platform. The number of pods comprises pods to be deployed in the orchestration platform. The processor set stores the first version of the security information into a set of security information in a metadata database in the orchestration platform. The set of security information comprises the security information of different versions. The processor set stores a new destination rule for the first version of the security information into a set of destination rules in the metadata database. Destination rules in the set of destination rules defines versions of the security information to be consumed by different pods from the number of pods. The processor set deploys a pod from the number of pods.

Abstract: In one aspect, a method for transmitting ions in a mass spectrometer includes using rods arranged in a multipole configuration and extending from proximity of an inlet of an ion guide to proximity of an outlet of the ion guide to generate an electromagnetic field for radially confining ions received via the inlet into a space between said rods, using auxiliary electrodes positioned between the rods to generate an electric field in a first region of the ion guide for reducing radial confinement of a first subset of the received ions in said first region to inhibit passage thereof to a downstream second region of the ion guide while allowing a second subset of the ions to reach the downstream second region, and axially accelerating said second subset of the ions in said downstream second region to expedite exit of said second subset of the ions from the ion guide.

Abstract: Apparatuses and systems for providing multiple structures to enable flexibility of a multiple transmission and reception point ultra-reliable low-latency communication (M-TRP URLLC) operation and reduce measurement effort and power consumption from a transceiving apparatus such as a UE are provided. The techniques disclosed here feature a transceiving apparatus including a transceiver and circuitry. The transceiver, in operation, receives signals from multiple transmission and reception points (M-TRPs) in a network on at least physical downlink shared channels (PDSCHs). The circuitry, in operation, performs beam failure recovery (BFR) by evaluating beam failure detection (BFD) and candidate new beam detection (CBD) for the signals from at least a first one of the M-TRPs.

Abstract: In one aspect, a method of performing MRM mass spectrometry is disclosed, which includes identifying a plurality of precursor ions expected to arrive at an ion guide positioned upstream of a mass filter during a predefined time period subsequent to MRM analysis of a current precursor ion selected by the mass filter, determining a bandpass window for application to said ion guide based on a maximum m/z difference between an m/z of the current precursor ion and m/z ratios of said plurality of precursor ions to be analyzed in said subsequent time period, and configuring the ion guide to provide said bandpass window.

Abstract: This communication device comprises a control circuit and a transmission circuit. The control circuit determines which of a plurality of communications to be prioritized, that include transmission and/or reception of information to adjust the use of resources between communication devices in side link communication. A communication circuit performs communication in accordance with the determination of the control circuit.

Abstract: An uncertainty weighted average of the equalized amounts of two or more quantifier ions is calculated from a quantitation experiment itself. n known i ions of a compound are mass analyzed over time in each of m different samples, producing n XIC peaks for each of the m samples. A reference ion j is selected that is a j ion of the n i ions or a hypothetical ion j. A ratio r(j,i) of a peak area of the j ion to a peak area of each ion of the n i ions is calculated for each of the m samples, producing m r(j,i) ratios for each of the n i ions. An expected ratio rq(j,i) is calculated for each ion of the n i ions from the m r(j,i) ratios for each of the n i ions. For each sample, the uncertainty weighted average is calculated using rq(j,i).