53 results about "Time-sharing" patented technology

Aspects of the present disclosure include methods, apparatuses, and computer readable media for receiving sidelink information from a first transmitting UE, receiving channel occupancy time (COT) system information (COT-SI) associated with a second transmitting UE, identifying one or more COT resources based on the COT-SI, and transmitting feedback information associated with the sidelink information via the one or more COT resources.

The invention provides a distributed storage data sharing management method and system, and relates to the technical field of data sharing. The method comprises the steps of obtaining historical data sharing session data of a target distributed storage system, constructing a storage structure mapping graph of each distributed storage object, and grouping a plurality of distributed storage objects to generate a plurality of storage structure groups; determining a plurality of normal termination sessions and abnormal termination sessions in each storage structure group, constructing a sharing success boundary set and a sharing failure boundary set of each storage structure group, and collecting real-time session data of the target distributed storage system about the real-time sharing session, and determining a target distributed storage object of the real-time sharing session and matching the target storage structure group, and managing a data sharing process of the real-time sharing session based on the sharing success boundary set and the sharing failure boundary set of the target storage structure group. According to the invention, the controllability and stability of the data sharing process in the distributed storage system are improved.

Methods and apparatuses for signaling unused channel occupancy time (COT) to a gNB for COT sharing among other UEs are disclosed. Upon determining that a portion of the maximum COT (MCOT) provided to a UE will not be used, the UE can generate COT sharing information for transmission back to the gNB. The COT sharing information identifies the starting point and duration (e.g., number of consecutive slots) of the unused portion of the MCOT. This information is then encoded into a configured grant uplink control information (UG-UCI) and transmitted to the gNB as part of an uplink transmission. In aspects, the unused portion can be partially through a slot. In such cases, the starting symbol of the unused portion or the ending symbol of the used portion can also be encoded into the uplink transmission. In this way, the unused COT is not wasted, but rather used for other purposes by the gNB.

The technology enables efficient and effective real-time sharing of contact information, for instance email addresses, with other people. A machine-readable code, such as a QR code, is associated with a specific email address, which may be an alias of an actual email address of a person. The aliased email address and machine-readable code may be associated with selected contact information, which can automatically be presented to another person who scans the machine-readable code with their device. For example, capture of the machine-readable code may enable an email template to be presented that is prepopulated with at least the aliased email address and / or the selected contact information, or the capture may enable a web link to be presented to the person, so that that person can view the selected contact information.

This invention discloses a personalized patient care information management system, comprising a server and medical staff, caregiver, and family member terminals connected to the server. The server is configured with: an information recording module for recording basic patient care information and temporarily added information; a permission management module for assigning corresponding operation permissions; a collaborative interaction module for real-time synchronization of care information among the medical staff, caregiver, and family member terminals; and an approval module that receives care plans submitted by the caregiver terminal and pushes approval requests to the family member terminal, synchronizing the approval results to both the caregiver and medical staff terminals after the family member terminal provides feedback. If the care plan is modified midway, a second approval request is pushed, and the modified care plan can only be implemented after approval by the family member terminal. Its beneficial effects are: this invention enables multi-dimensional information recording, real-time sharing of multi-party collaboration, and care plan approval management, improving care efficiency and accuracy.

This invention discloses a shield tunneling full-process intelligent control method and system based on multi-task model coupling, belonging to the interdisciplinary technical field of industrial intelligent control systems and tunnel engineering digital twins. The method includes the following steps: S1, standardized data acquisition and cross-stage storage; S2, construction of a multi-stage coupled prediction model and parameter output; S3, multi-objective collaborative optimization and adaptive control decision generation; S4, control command execution and real-time monitoring feedback closed loop. This invention employs the above-mentioned shield tunneling full-process intelligent control method based on multi-task model coupling to achieve automatic acquisition, cross-stage integration, and real-time sharing of multi-source heterogeneous data; improve prediction accuracy and generalization ability; solve problems such as poor process coordination and insufficient control precision; avoid settlement risks; and achieve precise and intelligent management and control.

Apparatuses, methods, and systems are disclosed for channel occupancy time sharing. A method (800) includes determining (802) channel occupancy time sharing for at least one user equipment. The method (800) includes transmitting (804) information indicating the channel occupancy time sharing to the at least one user equipment. The channel occupancy time sharing indicates shared information for at least one uplink communication, at least one sidelink communication, or a combination thereof. The method (800) includes receiving (806) the at least one uplink communication, the at least one sidelink communication, or the combination thereof based on the channel occupancy time sharing.

Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a first user equipment (UE) may receive a channel occupancy time (COT) sharing indication from a second UE. The first UE may determine whether the COT is associated with a first channel access type or a second channel access type, wherein the first channel access type is associated with aligning sidelink transmissions across a group of UEs and the second channel access type is associated with determining a transmission starting point for a sidelink communication based at least in part on a priority associated with the first UE. The first UE may attempt to transmit a sidelink communication at the transmission starting point. Numerous other aspects are described.

Aspects relate to the amount of shared bandwidth to be used for channel occupancy time (COT) sharing. An initiator device may use a clear channel assessment procedure to gain access to wireless communication resources for a COT that will be shared between the initiator device and a responder device. In some examples, the responder device may determine the shared bandwidth based on information that is implicit in a transmission from the initiator device. For example, the responder device may determine the shared bandwidth based at least in part on a bandwidth of a transmission from the initiator device.

The application discloses an accelerator device and a control method thereof, and relates to the technical field of computers. The accelerator device is divided into a static region and a dynamic region. The static region comprises virtual function device state information and acceleration unit state information, and the dynamic region comprises at least one acceleration function unit. The accelerator is used for determining a target acceleration function unit from the at least one acceleration function unit according to received user demand by traversing an acceleration unit state information table, determining a target virtual function device matched with the target acceleration function unit by traversing virtual function device state information table, and binding the target acceleration function unit and the target virtual function device. Thus, the problem of low utilization rate of the acceleration unit caused by fixed binding of the acceleration function unit and the virtual function unit is solved, and the application can make a single acceleration function unit serve acceleration tasks from multiple virtual functions in time sharing mode, thereby improving the utilization rate of the acceleration function unit.

The application discloses a kind of based on digital twin and multi-agent collaborative highway-railway intermodal dispatching method and system, including the unique binding relationship of people, car, goods in transport order based on RFID binding algorithm is established, and it is synchronized to database;Real-time acquisition railway transport state data, highway transport state data and freight station operation data;The standardization processing of railway transport state data, highway transport state data and freight station operation data is carried out by multi-source data fusion center;Based on LSTM collaborative scheduling model, the connection time, route and stop position of highway vehicle are dynamically adjusted, and the highway vehicle rerouting and waiting time estimation scheme under the output of sudden situation are output;Railway carriage demand is predicted by LSTM, and the dynamic optimal matching of highway truck and railway carriage is dynamically matched based on mixed integer programming model, to generate the optimal matching scheme of highway truck and railway carriage, introduce RFID technology to realize the unique binding of people, car and goods, break information barrier, realize data real-time sharing and standardized interaction.

A time synchronization subdevice includes a periodic data receiver that receives periodic data transmitted periodically from a time synchronization reference device, an acquirer that acquires first priority information indicating a first priority assigned to the time synchronization reference device, a first priority transmitter that transmits the first priority information to another time synchronization subdevice, a second priority information transmitter that transmits, when the periodic data is interrupted, transmission information indicating a second priority assigned to the time synchronization subdevice, a second priority information receiver that receives reception information indicating a second priority assigned to a device different from the time synchronization subdevice, and a distributor that distributes, when the periodic data is interrupted and the second priority indicated with the transmission information is higher than the second priority indicated with the reception information, time measured by a clocking unit as new shared time to the another time synchronization subdevice.

The invention relates to the technical field of non-power-cut operation, in particular to a non-power-cut operation management and control platform based on a deep learning algorithm, and the platform comprises a data collection module which is used for collecting data in real time, and the collected data comprises tool data, vehicle data, personnel data, environment data and operation flow data; a data preprocessing module; a data analysis module; an early warning module; an execution module; and a deep learning module. The platform covers a whole link of data acquisition, preprocessing, analysis, early warning and execution, and is seamlessly connected with an existing business system of a power enterprise through a data interaction interface, so that real-time sharing and collaborative linkage of data of tools, vehicles, personnel, operation processes and the like are realized, the problem of'information isolated island 'of a traditional management and control mode is thoroughly solved, and the management and control efficiency is improved. And a lean management chain of'terminal + data stream + AI decision 'is constructed.

The application provides a kind of distributed storage data sharing management method and system, it is related to data sharing technical field.The method comprises: obtaining the historical data sharing session data of target distributed storage system, constructing the storage structure mapping diagram of each distributed storage object, generating multiple storage structure groups for multiple distributed storage objects;Determine multiple normal end sessions and abnormal termination sessions in each storage structure group, construct the shared success boundary set and the shared failure boundary set of each storage structure group, collect real-time session data about real-time sharing session of target distributed storage system, determine the target distributed storage object of real-time sharing session and match target storage structure group, manage the data sharing process of real-time sharing session based on the shared success boundary set and the shared failure boundary set of target storage structure group.The application realizes to improve the controllability and stability of data sharing process in distributed storage system.

The invention discloses a self-service store inventory linkage method and system based on the Internet of Things, and relates to the technical field of inventory scheduling management. The method comprises the following steps: connecting a plurality of unmanned selling inventory nodes based on an Internet of Things module, and identifying inventory change record information of the plurality of unmanned selling inventory nodes; carrying out block chain credibility verification, and if the credibility verification is passed, activating an Internet of Things entry instruction; performing field conversion processing on the received inventory change record information passing the credibility verification to obtain template inventory change record information; and after the inventory management terminal receives an inventory scheduling instruction sent by any one unmanned selling inventory node, analyzing the templated inventory change record information according to the inventory scheduling instruction to perform inventory scheduling analysis, and outputting an inventory scheduling strategy. The technical problems of untimely inventory scheduling and low management efficiency caused by scattered inventory information and difficulty in real-time sharing of the unmanned store in the prior art are solved, and the technical effect of improving the inventory scheduling timeliness and the management efficiency is achieved.

Described are methods, systems, and devices for wireless communications. In some systems, user equipment (UE) can communicate on a sidelink channel in a shared (e.g., unlicensed) channel bandwidth. The UE can implement subchannel-based time-share of the unlicensed sidelink to improve resource usage. The UE can take access to the shared channel bandwidth for a time-share, and can transmit a sharing indicator indicating a portion of resources of the shared channel bandwidth for the time-share. The UE can transmit a time division multiplexed sharing indicator to share a portion of time slots of the time-share, a frequency division multiplexed sharing indicator to share a portion of subchannels of the shared channel bandwidth, or some combination thereof. A UE receiving the sharing indicator can identify the shared resources, and can transmit in (e.g., not perform a full contention procedure for) the shared resources.

A system for accelerator functions as a service is disclosed. The system may receive a job that includes a computer (CPU) portion and an accelerator portion. When the accelerator portion is performed, an execution time associated with a time for the accelerator to return results is determined. Resources or a portion thereof allocated to the job, or the CPU portion are freed or reallocated to another job at least during the execution time. The job is queued to receive resources when the results are received from the accelerator.

The invention discloses an unmanned aerial vehicle cluster flight control cooperative autonomous obstacle avoidance method and system, and belongs to the technical field of unmanned aerial vehicle cluster flight control, and the method comprises the steps: collecting environment and cluster state information by each unmanned aerial vehicle in a cluster based on a dynamic perception domain distribution rule, and achieving the real-time sharing of data through distributed communication; and performing multi-source fusion on the shared data by adopting a differential processing strategy, eliminating redundancy and noise, generating a unified environment-cluster fusion state model, marking a high-risk collision area, converting an obstacle avoidance strategy into a hierarchical flight control instruction, executing the hierarchical flight control instruction, and adjusting instruction deviation through feedback verification. The sensing range / sampling frequency is dynamically adjusted through the adjacent machine distance and the communication quality, a non-overlapping and full-coverage sensing network is formed, the problem of coexistence of sensing redundancy and blind areas is solved, an emergency degree-completion time limit-importance three-dimensional priority hierarchical decision mechanism is established, and balance between obstacle avoidance safety and task efficiency is achieved in combination with dynamic weight adjustment.

The application provides a cloud edge fusion method, device, equipment and product based on a smart contract, the method comprising: in response to address modification information, obtaining original parameter information of an original medical terminal and update parameter information of an updated medical terminal, the original medical terminal being a medical terminal of an original address, and the updated medical terminal being a medical terminal after the address is modified; judging according to the original parameter information and the update parameter information; if the updated medical terminal after the address is modified meets a preset requirement, generating a confirmation appointment order; and if the updated medical terminal after the address is modified does not meet the preset requirement, generating a cancellation appointment order. When the address of an original appointment medical terminal of an appointment person is changed, the application performs corresponding medical terminal address confirmation according to a remote terminal of the appointment person, realizes real-time sharing of appointment information, and improves the experience of the appointment person in the appointment process.

Methods, apparatuses, and systems related to processing and communicating COT information received from other UEs in a sidelink communication system. In one example aspect, a method of wireless communication includes a first wireless device transmitting, to a second wireless device, a signal including second channel occupancy time (COT) sharing information, wherein the second COT sharing information is determined based on a first rule and X first channel occupancy time (COT) sharing information; the X first COT sharing information corresponds to a set of X frequency resources; and X is an integer greater than or equal to 2.

Procedures, methods, architectures, apparatuses, systems, devices, and computer program products directed to channel access with channel occupancy time (COT) sharing are described herein. A method implemented in a wireless transmit / receive unit (WTRU) includes transmitting, to a base station, first scheduling information associated with a SL transmission to be transmitted to another WTRU in unlicensed spectrum. The method includes receiving, from the base station, second scheduling information indicating a scheduling of the SL transmission and a shared COT, wherein the shared COT may be shared between any of uplink, downlink and sidelink transmissions. The method includes determining that the SL transmission is scheduled in the shared COT. The method includes transmitting the SL transmission to the other WTRU with no listen before talk (LBT) or with a shorter LBT than a full LBT based on the determining that the SL transmission may be scheduled in the shared channel occupancy time.

The application discloses an AI dynamic risk grading and layered authorization method and device based on a hardware trust root, which is executed by an independent hardware risk control unit. The unit forcibly takes the AI entity global root identity verified by hardware signature as the unique index of risk control, analyzes multi-dimensional indexes of AI behavior in real time, dynamically quantifies risk scores, automatically executes three-layered authorization from single full-automatic execution to hardware independent channel human confirmation, to full-core physical fuse, and continuously monitors in the process of atomic operation execution. In addition, the application also protects the forward-looking risk prediction based on behavior trend, the whole network dynamic joint defense capability of cross-node real-time sharing of risk information, and the evolution mechanism of identifying new abnormal behavior patterns and incorporating them into the risk assessment system after human confirmation, providing AI autonomous behavior with identity anchoring, dynamic precision, and hardware-level security boundary that cannot be bypassed.

An intrusion detection system and intrusion detection method are provided. The intrusion detection system includes multiple IoT devices and a central control device. The central control device is configured to obtain multiple sensing pairs from a paired combination of the multiple IoT devices; create a sensing-pair list including the multiple sensing pairs and features of each sensing pair; obtain multiple first pairs whose features satisfy a first feature condition from the sensing-pair list; dynamically schedule the multiple IoT devices to send and receive signals in a time sharing fashion to obtain a first sensing signal of each first pair; and based on a paired node of the multiple first pairs, count a first status code and a second status code of the multiple first pairs to which each paired node belongs, to determine whether any intrusion condition occurs.

The embodiment of the invention provides a running state computing power scheduling method and system based on dynamic load awareness and a processor, and belongs to the field of computing power scheduling. The operating state computing power scheduling method comprises the following steps: acquiring multi-dimensional system state data; performing feature extraction and preprocessing on the multi-dimensional system state data; after preprocessing is completed, the preprocessed multi-dimensional system state data are transmitted to a centralized data aggregation service in real time through a gRPC protocol; the aggregation service performs time-sharing combination on the multi-dimensional system state data; performing task allocation of operation resources according to the merged multi-dimensional system state data; according to the multi-dimensional system state data, load prediction of a calculation unit is carried out; and performing computing power scheduling distribution according to the load prediction. According to the operating state computing power scheduling method, real-time computing power scheduling can be carried out based on multi-dimensional system state data.

Methods, systems, and devices for wireless communications are described. Generally, the techniques described herein may support inter-user equipment (UE) coordination with channel occupancy time (COT) sharing in sidelink. For examaple, a first UE may transmit (e.g., unicast, broadcast, or groupcast) one or more first sidelink messages initiating a COT. The one or more first sidelink messages may include COT sharing information associated with the COT being shared with at least a second UE, a third UE, or both, where the COT sharing information indicates time and frequency resources within the shared COT. Additionally, the first UE may receive, from the second UE, the third UE, or both, one or more second sidelink messages during the shared COT in response to transmitting the one or more first sidelink messages.

This invention relates to the transmission and parsing of measurement point information in a marine gas turbine health management network, and more specifically, to a bus message parsing method based on a snail algorithm. The method includes the following steps: S1: frame information preprocessing; S2: measurement point information encryption processing; S3: received message classification processing; S4: message parsing. The frame information preprocessing involves processing the measurement point information to be sent according to the bus format based on bus data requirements. The measurement point information encryption processing involves converting the 8-byte frame information, composed of a single measurement point number and measurement point data, from a floating-point number to a hexadecimal number to form a frame message. This method enables real-time sharing of measurement point data in a marine gas turbine health management system network. Furthermore, due to the characteristics of the algorithm, it ensures the integrity and periodicity of message parsing and achieves bus software-level debouncing.

Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a user equipment (UE) can receive a channel occupancy time (COT) sharing indication (COT-SI) from an initiating UE, where the COT-SI indicates that at least a portion of a COT associated with the COT-SI is for a physical sidelink feedback channel (PSFCH) transmission to the initiating UE. The UE can transmit a PSFCH communication to the initiating UE in the COT. Numerous other aspects are described.

The present application relates to the field of intelligent agriculture technology, and provides a lightweight intelligent production management system for multiple breeding varieties, which comprises a three-layer lightweight architecture using a hardware acquisition end, an edge operation end and a local interaction end. Each end cooperates to realize local data acquisition, analysis, operation, storage and interaction without cloud dependence. The system is based on the core data flow logic of real-time sharing of environmental monitoring data and precise feeding data linkage, feeding and weighing data and inventory accounting data, and integrally realizes intelligent regulation and control of breeding environment, precise feeding management, full-dimension production data acquisition, inventory digital accounting, equipment state monitoring and remote visualized supervision. By accurately implementing the hash value evidence mechanism into specific breeding business scenarios such as feed weight, weighing at slaughter, and feed into warehouse, and combining with multiple technical means such as device unique identification, timestamp, database encryption storage and write protection, the data is prevented from being tampered with throughout the whole process, and the authenticity and traceability of the data are guaranteed.

The invention relates to the technical field of medical informatization management, in particular to a Java design-based chronic patient follow-up visit sharing and collaborative management system, which comprises a rule base construction module, a node generation module, an association mining module, a network construction module and an information sharing module. According to the method, the structural state nodes for mapping clinical business semantics are constructed, the transverse association topology among multi-dimensional symptoms under the same time sequence is mined by using the co-occurrence support degree algorithm, and the longitudinal treatment failure link is verified and identified in combination with the difference between the evolution trend vector and the intervention behavior; a hierarchical evolution network integrating spatial concurrence characteristics and time evolution tracks is synthesized, a composite abnormal path with long-range propagation characteristics is automatically locked, a collaborative risk score is calculated, key disease course information is converted into a standardized transmission protocol format for real-time sharing, and conversion from single numerical monitoring to complex pathology dynamic tracking is realized. And the combined early warning capability and the cooperative treatment efficiency for chronic disease complications are effectively improved.

Systems, methods, apparatuses, and computer program products for channel occupancy time (COT) sharing and power saving for reduced capability (RedCap) devices. A method may include receiving a user equipment capability or user equipment traffic requirement from a responding user equipment. The method may also include receiving a channel occupancy time sharing range indication from the network element. The method may also include determining a channel occupancy time sharing range based on user equipment capabilities or user equipment traffic requirements or the channel occupancy time sharing range indication. Further, the method may include determining a channel occupancy time resource allocation for responding to the user equipment. Further, the method may include sending a channel occupancy time resource sharing indication to the responsive user equipment based on the determined channel occupancy time sharing range and / or the determined resource allocation.