44 results about "Location status" patented technology

Methods and systems for managing a data processing system are disclosed. To manage the data processing system, a management controller of the data processing system may obtain location data for the data processing system via an out-of-band communication channel. The location data for the data processing system may include different types of location data obtained via different location generation sources. The management controller may identify whether the different types of location data are consistently reporting location status of the data processing system. If the location data is determined to be consistent, then the management controller may provide a location report based on the location data using the out-of-band communication channel to a server to update a location status of the data processing system.

Aspects of the subject disclosure may include, for example, obtaining first positional information comprising a location of a non-stationary entity mobile within an environment, the first positional information obtained from a service provider monitoring a positional status of the non-stationary entity within the environment. A path of the non-stationary entity is predicted according to the first positional information. A delivery device mobile within the environment is directed according to the predicted path to deliver an item to the non-stationary entity. Second positional information is obtained, identifying a location of the delivery device within the environment. A separation distance is calculated between the location of the non-stationary entity and the location of the delivery device within the environment and a delivery opportunity is detected based upon the separation distance not exceeding a threshold distance. Other embodiments are disclosed.

An apparatus, method, and computer program product are provided for providing a location to a device without explicitly identifying the device. An example method may include sending, for a location server, a location request including a first status token associated with the device, wherein the location request does not include an identifier associated with the device. The example method may also include receiving, from the location server, a location response including a second status token associated with the device based on the location request.

The invention discloses a dynamic area perception and self-adaptive control method and system based on Wi-Fi FTM ranging, and relates to the technical field of indoor positioning and intelligent control, and the method comprises the steps that an intelligent terminal carries out ranging with a plurality of wireless access points APs through a Wi-Fi FTM protocol, and obtains ranging results of the intelligent terminal and the plurality of wireless access points APs; obtaining two-dimensional and / or three-dimensional position coordinates of the intelligent terminal and a plurality of wireless access points (APs); matching with a preset virtual area, and judging whether the image is in the preset virtual area or not; when the intelligent terminal is currently located in the preset virtual area, and the current position state of the intelligent terminal and the motion state data, the physiological index data and the environment data detected by the intelligent terminal meet preset trigger rules, corresponding control actions are controlled to be executed, and multi-terminal linkage is intelligently controlled through the Internet of Things. According to the invention, the position data and the user state can be fused, and the corresponding control operation can be intelligently triggered.

The application discloses a sample additional testing method, an additional system, a scheduling system and an analysis system. The method comprises the following steps: selecting a sample to be tested in an additional project and confirming the sample as an additional sample; judging a position state and a testing state of the additional sample; judging and obtaining a scheduling result according to the testing state and the position state of the additional sample; scheduling a sample rack where the additional sample is located to a corresponding track sample suction position according to the scheduling result; and testing the additional sample in the additional project. The application can effectively complete the operation of the additional project test according to different position states and testing states of the additional sample, and the user does not need to worry about invalid additional test caused by improper additional time, so that the user operation is more convenient.

Aspects of the subject disclosure may include, for example, obtaining first positional information comprising a location of a non-stationary entity mobile within an environment, the first positional information obtained from a service provider monitoring a positional status of the non-stationary entity within the environment. A path of the non-stationary entity is predicted according to the first positional information. A delivery device mobile within the environment is directed according to the predicted path to deliver an item to the non-stationary entity. Second positional information is obtained, identifying a location of the delivery device within the environment. A separation distance is calculated between the location of the non-stationary entity and the location of the delivery device within the environment and a delivery opportunity is detected based upon the separation distance not exceeding a threshold distance. Other embodiments are disclosed.

The map information providing system stores information about an administrator who has authority to generate an object, uses the administrator information to allow input of object information to be used in generating the object, stores terminal information that associates information identifying a local terminal that transmits information including detection results of the state of a location in real space that corresponds to the object with information identifying the object that corresponds to the location in real space, uses the information transmitted by the local terminal to identify an object associated with the local terminal in the terminal information, stores the detection results transmitted by the local terminal as status information indicating the status of the identified object, uses the stored status information to determine the display of the object on a map, and displays a map including the determined displayed object on the user's terminal.

An embodiment of the present application provides a positioning method, device, system, and storage medium. The method can be applied to a first device, and the first device can be implemented as an electronic device or deployed on an electronic device. The method includes: the first device obtains a first query request, the first query request is at least used to request to query the location information of a second device, a communication link cannot be established between the second device and the first device, the communication link is used to implement positioning of the second device, and according to the communication status of a third device, obtain the location status information sent by the third device, the location status information is used to indicate whether the second device is accommodated in the third device, and then determine the location information of the second device according to the location status information. In the case where a communication connection cannot be established between the second device and the first device, the first device realizes the positioning of the second device by obtaining the location status information sent by the third device, so as to improve the success rate of positioning.

A waypoint may be automatically created by monitoring network wireless signal strength to assist a user of a mobile device in a non-city location in finding a previous location with known network connectivity and making an emergency call. In some embodiments, a backtracking route to a closest previous location with network connectivity is displayed on a mobile device. In some embodiments, for privacy considerations, access to waypoint information stored in a secure storage / database is restricted based on the determination of location status, and backtracking routes are displayed in stages.

This invention relates to a charging management method and system for mobile charging cabinets. The method includes acquiring the location status information and identity information of the charging equipment in the mobile charging cabinet; performing multi-factor authentication on the identity information and matching it with the location status information to obtain a charging authorization status; acquiring the interface charging parameters of the mobile charging cabinet and associating the interface charging parameters with the charging authorization status to obtain a charging management group; acquiring the battery status data of the charging equipment and performing charging planning with the charging management group to obtain a charging parameter curve; performing charging mode analysis on the charging management group and the charging parameter curve based on a preset environmental energy game algorithm to obtain an initial charging control scheme; evaluating environmental factors on the battery status data and optimizing the initial charging control scheme to obtain a charging control strategy. This invention can formulate personalized charging parameter curves for different types and states of batteries.

A system and method dynamically manages the operational boundaries of an autonomous system or agent in a configurable and adaptable manner. Traditional approaches rely on static or fixed boundaries to constrain an agent's operation, which can be highly restrictive and inefficient. To address these issues, a virtual anchor state is established to provide a dynamic reference entity that represents a focal point based on factors such as proximity to objectives, environmental conditions, or system priorities. The agent state provides real-time information such as the agent's position, status, and behavior, while environmental data includes external factors like obstacles, nearby objects, or mission-specific variables. By combining these inputs, the system continuously updates the anchor state to reflect the most relevant context and uses it to calculate boundary conditions, which define permissible operational areas or constraints. These boundaries adapt dynamically to changing contexts, such as shifts in the environment or agent behavior.

Methods and systems for managing a data processing system are disclosed. To manage the data processing system, a management controller of the data processing system may obtain location data for the data processing system via an out-of-band communication channel. The location data for the data processing system may include different types of location data obtained via different location generation sources. The management controller may identify whether the different types of location data are consistently reporting location status of the data processing system. If the location data is determined to be consistent, then the management controller may provide a location report based on the location data using the out-of-band communication channel to a server to update a location status of the data processing system.

The present invention provides a rail transit station management method and device, the method comprising: receiving, by an LBS signal receiver, positioning uplink information sent by terminal devices in each target area isolated by an electronic fence; determining the residence time of the operation and maintenance personnel corresponding to each terminal device in each target area based on the positioning uplink information sent by each terminal device and the time when the positioning uplink information sent by each terminal device in each target area is received; and determining the prompt information to be sent to each operation and maintenance personnel based on the residence time and operation and maintenance tasks of each operation and maintenance personnel in each target area. The rail transit station management method of the present invention can determine the time and trajectory of each operation and maintenance personnel's activities in different target areas by performing positioning analysis on the terminal devices, thereby facilitating intelligent prompting of the operation and maintenance personnel according to the operation and maintenance tasks of each operation and maintenance personnel, thereby realizing intelligent management of the location status of the operation and maintenance personnel.

This invention provides a multi-mode linkage-based unmanned forklift cargo handling method and system, including a request acquisition step: acquiring a handling trigger request for a preset location, wherein the handling trigger request includes at least an automatic sensing trigger mode or a manual command trigger mode; a receiving and recording step: the intelligent warehouse management system receives the handling trigger request and records the location status information to the local task pool according to the request source; a command issuance step: the intelligent warehouse management system executes a task scheduling algorithm and, when the preset trigger conditions are met, issues a handling command containing the starting position and destination to the unmanned forklift; and an execution step: the unmanned forklift executes the physical handling task of the cargo pallet according to the handling command. This invention significantly improves work efficiency and unloading turnover rate, shortens the operation path, greatly reduces time consumption, and alleviates platform congestion.

The invention discloses an ASV-AUV hybrid cluster robust model prediction cooperative control method and system, and the method comprises the steps: 1, obtaining the position state information and speed state information of any autonomous system in a hybrid cluster, and enabling the autonomous system to be divided into an ASV and an AUV; step 2, setting an expected position vector corresponding to the autonomous system i according to the cooperative task, and calculating a virtual control speed of the autonomous system in a kinematics layer in combination with position state information and speed state information; 3, according to the virtual control speed, a disturbance observer is adopted to estimate disturbance in a dynamic layer, and control input of an autonomous system is calculated through a robust model prediction controller; and 4, according to the control input, calculating the actual execution control quantity of the propulsion system in the execution layer by adopting the propeller model. According to the method, the cooperative control problem of the ASV-AUV hybrid cluster system with uncertainty can be solved, and the robustness and stability of system control are improved.

Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a first network node may transmit, to a second network node, a handover request message indicating a handover request for a user equipment (UE), wherein the second network node is configured to support a non-terrestrial network (NTN) cell, and wherein the handover request message includes first information indicative of a location resolution operational state of the UE. The first network node may receive, from the second network node, a handover acknowledgment message that includes second information indicating whether the handover request is accepted, wherein the second information is associated with the location resolution operational state. Numerous other aspects are described.

Methods, systems, and apparatus, including computer programs encoded on a computer storage medium, for indicating location status. A computing device can receive a query from a user device, a current time, and a location for the user device. The computing device identifies results responsive to the query, including one or more business results that are each associated with a business location and operating hours. The computing device can select a subset of the business results as open results based on the operating hours of the business results, the current time, and travel times from the device location to the respective business locations. Data can be provided for a search engine results page that designates the subset of the business results as open results.

The invention relates to a method for using a service enabler architecture layer for verticals, SEAL, in a vertical application layer implementation, VAL implementation, for providing communication services to a user equipment, using a vertical application layer server via a telecommunications network, especially for supporting and providing a location check functionality and / or verifying location-related data indicative of the actual location or position of the user equipment, wherein the user equipment is a vertical application layer user equipment comprising a vertical application layer client, VAL client, and an location management client, wherein the service enabler architecture layer for verticals comprises a location management server that is able to realize a location check functionality and / or verifying location-related data indicative of the actual location or position of the user equipment, wherein, in order for supporting and for providing, by the location management server, a location check functionality by means of confirming location data and / or verifying location-related data indicative of the actual location or position of the user equipment towards a confirm location data consumer entity, the method comprises the following steps: -- in a first step, the location management client transmits a confirm location request to the location management server in order for the location management server to perform a location check functionality and / or verifying location-related data indicative of the actual location or position of the user equipment, -- in a second step, the location management client receives, from the location management server, a confirm location response, wherein the confirm location response comprises a confirm location status information, and the confirm location data consumer entity receives, likewise from the location management server, a confirm location service usage notification.

The system according to this embodiment aims to provide optimal maps without requiring users to manually configure settings or register information. [Solution] The system according to the embodiment comprises an acquisition unit, a history acquisition unit, a generation unit, and a provision unit. The acquisition unit acquires the current location status. The history acquisition unit acquires past activity history. The generation unit generates an optimal map based on the information acquired by the acquisition unit and the history acquisition unit. The provision unit provides the map generated by the generation unit.

The utility model discloses a visual agv loading and unloading storage location state detection system, which belongs to the technical field of storage location state detection and comprises a loading and unloading storage location and a computer, the loading and unloading storage location is composed of a plurality of material storage locations, and four corners of the loading and unloading storage location are respectively provided with a DM two-dimensional code plate containing storage location definition information. A signboard is arranged in each material storage location of the feeding and discharging storage locations, and a storage rack fixedly connected to the ground is arranged above the feeding and discharging storage locations. The DM two-dimensional code of the DM two-dimensional code plate is collected through the industrial camera, the DM two-dimensional code is transmitted to the computer through the image collection card to generate a storage location grid chart of the feeding and discharging storage locations, the identification of each material storage location of the feeding and discharging storage locations is collected through the industrial camera, and the identification is transmitted to the computer through the image collection card to generate material storage state information of each material storage location. The automatic detection of the state information of the loading and unloading storage locations for agv carrying can be realized, and compared with the prior art, the labor cost of agv carrying can be saved.

This invention discloses a method and system for intelligent selection and conflict prevention management of warehouse locations, relating to the field of industrial warehouse management technology. The invention constructs a warehouse location planar data table consistent with the physical layout of the warehouse, and utilizes the Microsoft GridView data grid control to visualize the warehouse location status. It supports filtering by warehouse area features, and intelligent selection of warehouse location numbers is achieved through single-click preview and double-click automatic backfilling. It intercepts occupied warehouse locations in advance to avoid conflicts, and achieves seamless linkage between warehouse location selection and the inbound / transfer business interfaces. It also supports manual data refresh to ensure real-time accuracy. This invention effectively solves the problems of traditional warehouse location management, such as lack of intuitiveness, susceptibility to errors, frequent conflicts, and cumbersome operation. It has advantages such as strong visualization, accurate location selection, reliable conflict prevention, and simple operation, and is suitable for intelligent warehouse management scenarios in various industrial warehouses. This invention has been fully implemented in a practical industrial warehouse management system and can operate stably for a long time in real production environments, possessing mature engineering value and industrial promotion capabilities.

Embodiments of the present application disclose an information interaction method and an information interaction system. The information interaction system comprises a transport terminal, a store terminal and a server. After the transport terminal and the store terminal establish a wireless radio frequency identification handshake with each other, the transport terminal and the store terminal acquire a dynamic verification code, generate verification information according to an identifier of a delivery transport or an identifier of a store and the dynamic verification code, and then send the verification information to the server. After the server determines that the verification information sent by the transport terminal and the store terminal respectively matches, the server updates a position state of the delivery transport to an in-store state. Embodiments of the present application use the wireless radio frequency identification technology to enable the delivery transport to automatically update the position state when the transport terminal is close to the store terminal arranged at the store side, thereby effectively simplifying the operation complexity of the delivery transport in updating the position state, improving the use experience of the delivery transport, and effectively improving the updating efficiency and accuracy of the position state.

Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a first network node may transmit, to a second network node, a handover request message indicating a handover request for a user equipment (UE), wherein the second network node is configured to support a non-terrestrial network (NTN) cell, and wherein the handover request message includes first information indicative of a location resolution operational state of the UE. The first network node may receive, from the second network node, a handover acknowledgment message that includes second information indicating whether the handover request is accepted, wherein the second information is associated with the location resolution operational state. Numerous other aspects are described.

This invention discloses a method, apparatus, equipment, and storage medium for managing spoil heap maps. By collecting location and movement data of operating vehicles during operation, the spoil heap map, retaining wall positions, and unloading location information are dynamically updated. This solves the technical problems of insufficient reliability of laser sensing due to dust interference and low efficiency of manual retaining wall positioning in existing unmanned mining truck spoil heap operations. By simultaneously collecting terrain and retaining wall data during vehicle operation, production and measurement are integrated, reducing data acquisition costs. Flatness detection effectively filters out positioning errors caused by uneven terrain, ensuring map accuracy. Dynamic map updates and maintenance of unloading locations enable automatic switching of unloading location status, improving the overall turnover efficiency of the spoil heap.

Various aspects of the present disclosure generally relate to wireless communications. In some aspects, a user equipment may transmit to a base station an indication of a selected random access channel (RACH) procedure selected based at least in part on positioning state information (PSI) associated with a UE, wherein the PSI is based at least in part on one or more positioning measurements obtained by the UE; and receive from the base station a resource configuration for the selected RACH procedure. Numerous other aspects are provided.

The invention discloses a unified access and standardization processing method and system for multiple types of operators. The method comprises the following steps: receiving various types of operator files uploaded by a user; calling a matched parser plug-in to extract metadata of the operator file according to the operator type of the operator file, and standardizing the extracted metadata and storing the metadata in a metadatabase; if the current operator file is in a non-mirror-image type, storing the operator file in a special warehouse in an original format; if the current operator file is of a text type and the operation environment requirement exists in the standardized metadata, constructing a container mirror image of the operator file and storing the container mirror image in a special warehouse; primary keys of operator entities in the special warehouse are added into standardized metadata of corresponding operator files in the metadatabase, association between the files in the special warehouse and the corresponding standardized metadata in the metadatabase is established, and a unified view containing the metadata, storage positions and states is formed; the operator entity comprises an operator file or a container mirror image of the operator file.

The invention belongs to the field of target article detection, and discloses an intelligent identification and positioning method and system for small articles in a home scene, and the method comprises the following steps: firstly, dividing and naming key detection regions of an indoor environment; collecting a frame picture in an indoor scene within a period of time through a camera; segmenting the frame image into a plurality of small regional images with marks according to the divided regions; sending the processed picture into a target detection model to detect each article and corresponding area position information; a detection result (namely detailed position state information of the article) is stored in a database for management so as to be inquired by a user; and searching the article according to the voice instruction of the user and broadcasting detailed information to the user. According to the method, the optimized YOLOv8 target detection model is adopted, and an innovative article position correlation description method is combined, so that accurate detection of small articles is realized, and clear, visual and easy-to-understand article position information can be generated.

A silicon wafer transport dispatching method includes the following steps: receiving silicon wafer production tasks, acquiring real-time status data of each production device, and generating an initial task queue; based on the initial task queue and a real-time digital map of the workshop, allocating optimal paths to transport devices and issuing execution instructions; controlling the transport devices to move along the optimal paths, and collecting real-time information on the position, status, and environmental obstacles of the transport devices, and autonomously performing obstacle avoidance; when the silicon wafer arrives at the target device, performing identity verification and equipment handover confirmation; monitoring abnormal events during the transport process in real time, and executing corresponding handling methods according to the abnormality level; generating production reports based on task completion status and yield data, and feeding the data back to the manufacturing execution system. By collecting real-time equipment status and workshop road condition information, combined with intelligent scheduling algorithms and dynamic path planning, the method achieves rapid task allocation and efficient transport, and performs hierarchical response and global optimization when abnormalities occur.

This invention provides a method and system for scheduling equipment systems based on unmanned coal mining, relating to the field of equipment scheduling technology. By integrating safety level classification, multi-source data-driven conflict identification, and dynamic priority scheduling mechanisms, this invention achieves an organic unity of safety, intelligence, and efficiency. On one hand, it establishes an evaluation matrix based on historical risk cases, classifies equipment into safety levels according to the severity of failure consequences, and presets conflict coefficients. When a conflict occurs, it dynamically increases the conflict coefficient of high-risk equipment based on real-time scenarios, significantly improving the inherent safety level of the system. On the other hand, it relies on an industrial cloud platform to clean and analyze the location, status, and environmental data collected by sensors, accurately identifying logical conflicts where multiple devices compete for exclusive resources. It then uses a rolling, updated priority sequence to guide path planning, task timing, and energy allocation, achieving distributed collaborative control of "cloud decision-making—side execution."