23 results about "Lab management" patented technology

1. The name of the design product: electronic device research and development experiment management graphical user interface. 2. The use of the design product: an electronic device. 3. The design points of the design product: the interface content in the graphical user interface. 4. The picture or photo that best shows the design points: front view. 5. The product carrier is the conventional design, and the rear view, left view, right view, top view, and bottom view are omitted. 6. The use of the graphical user interface: graphical user interface for research and development experiment management system. 7. Other circumstances that need to be explained: the front view is the task list interface of the research and development experiment management system. Clicking "+" experiment design" in the interface enters the change state diagram 1 task addition interface. The interface pops up the task information setting pop-up window. Fill in the relevant information in the pop-up window. Click the "experiment template" addition icon (the icon with a magnifying glass on the right side of the experiment template input box) to enter the change state diagram 2 task template addition interface. The interface pops up the experiment template selection pop-up window. The left side of the pop-up window is the template display area, and the middle is the process node display area. After selecting the required template in the template display area, the corresponding task node is generated in the process node display area. Click any node in the process node display area to enter the change state diagram 3 node information interface. The right side of the interface is the node editing area. Click "add group" in the area to enter the change state diagram 4 group setting interface. The interface pops up the "edit group" pop-up window. After setting the relevant parameters in the pop-up window, click "OK" to enter the change state diagram 5 complete group setting. Click "group design" in the change state diagram 5 under the three small dot icons on the right side of the group design bar to enter the change state diagram 6. The interface pops up the "material calculation" pop-up window. After setting the relevant parameters in the pop-up window, click "generate data" to enter the change state diagram 7. Click "preference settings" in the change state diagram 7 to enter the change state diagram 8. The interface pops up the execution mode setting pop-up window. Click "OK" after selecting "detailed view" in the pop-up window to enter the change state diagram 9 detailed mode experiment execution.

1. Name of the product in this design: Graphical User Interface for Laboratory Intelligent Management Platform of Electronic Equipment. 2. Purpose of this design: An electronic device. 3. The key design feature of this product is its graphical user interface. 4. The image or photograph that best illustrates the design's key points: Design 2 main view. 5. Design 2 is designated as the basic design. 6. Purpose of the graphical user interface: It is used by users to view and operate equipment, environment, and safety management in the laboratory management platform. 7. Human-computer interaction method of graphical user interface: The main view of Design 1 is the main interface of the equipment management platform. Clicking "VAV" (variable air volume) (control cabinet) in the main view of Design 1 will enter the change status diagram of the Design 1 interface; The main view of Design 2 is the main interface of the environmental management platform. Clicking any air pressure value in the middle of the interface in the main view of Design 2 will enter the change status diagram of the Design 2 interface; The main view of Design 3 is the main interface of the safety management platform. Different floors can be selected to view equipment, and the equipment name can be entered to click to query the equipment. 8. Other situations requiring explanation: Other explanation: "X" in the interface represents text.

The invention discloses an intelligent filling laboratory management method and system, electronic equipment and a medium, and aims to quantitatively evaluate the pollution risk between filling tasks through a preset filling equipment pollution risk evaluation model, so as to provide a reliable reference for the sorting of the filling tasks and the selection of a cleaning strategy during the switching of the filling tasks. For a multi-task situation, dynamic prediction of a long-term pollution risk and influence of chain transmission of pollution are realized, improvement of the operation efficiency of a filling laboratory is facilitated, a scheduling target is expanded from a single time dimension to a double dimension of time efficiency and pollution risk control, and the scheduling efficiency of the filling laboratory is improved. And a comprehensive technical solution is provided for intelligent management of the liquid food filling laboratory.

This invention discloses a laboratory anomaly identification and autonomous response system based on machine vision, belonging to the field of intelligent laboratory monitoring technology. The system includes a data acquisition layer, a feature extraction layer, an intelligent analysis layer, a decision execution layer, and a digital twin layer. The data acquisition layer collects laboratory video streams and physical sensor data; the feature extraction layer uses a multi-task learning framework to extract multimodal features; the intelligent analysis layer identifies anomalies based on multimodal features and generates handling strategies, incorporating a causal structure learning mechanism and an anomaly hierarchical handling mechanism; the decision execution layer executes corresponding remedial operations; and the digital twin layer constructs a digital twin model corresponding to the physical laboratory and synchronizes status information in real time. This invention achieves accurate identification and autonomous response to laboratory anomalies, improving the intelligence level and operational safety of laboratory management.

The invention provides an intelligent control and decision-making method based on an intelligent laboratory data cockpit. The intelligent control and decision-making method comprises the following sub-steps: S1, constructing a visual three-dimensional laboratory model based on digital twinning; s2, collection, storage, preprocessing and semantic modeling of laboratory full-dimension data; s3, deploying and training a large language model LLM adaptive to a laboratory scene, generating a decision and replying by using a natural language; on the basis of technologies such as digital twinning, a large language model and AI-agent, the efficiency and the intelligent level of laboratory management are greatly improved through an intelligent control and decision-making method; seamless butt joint of the subsystems is realized by constructing a unified data middle station; information in the laboratory can be collected in real time and concentrated to the data platform, so that the operation of the laboratory is more efficient and transparent; based on introduction of a large language model LLM and an AI-agent technology, interaction with a user is carried out, and an intelligent decision is generated according to real-time data.

The invention provides an experimental result automatic generation management system comprising an MES system module used for managing the whole experimental process and automatically generating an experimental result; the file management module is used for selecting a file storage path before an experiment and storing the physical property data in a specified path for subsequent experiments; the experimental information input module is used for inputting experimental information into a computer after the tensile test is finished and storing the experimental information into a database; the experiment result generation module is used for automatically generating an experiment result according to the experiment data and the input experiment information; and the experiment result uploading module is used for uploading the experiment result to the laboratory management board in real time to ensure the timeliness and accuracy of the data. The invention provides an experiment result automatic generation management system, and solves the problems that the process of selecting a file storage path and inputting experiment information before an experiment is tedious, the file storage path needs to be manually stored in a folder, and data management and updating are not facilitated.

The application provides a kind of wisdom campus management method and system, belong to wisdom campus technical field, method includes: through acquisition module, cumulative boot duration and single continuous running duration are obtained from laboratory equipment, and project switching frequency is obtained from registration terminal, time period is divided according to equipment start-stop time node, and equipment running cycle list is obtained;For the equipment number belonging to the abnormal high value cluster, obtain the historical experiment time period record from the registration terminal, rearrange the record using the time period reorganization method, and determine the optimized experiment time period arrangement table;Update the dispatch table of laboratory management system through the experiment time period arrangement table, obtain the updated dispatch table content, evaluate the improvement of effective experiment time, and obtain the final evaluation result of the all-day available duration of the equipment. Significantly improve the all-day available duration of the equipment, reduce unnecessary loss.

The invention provides an intelligent campus management method and system, and belongs to the technical field of intelligent campuses, and the method comprises the steps: obtaining an accumulated starting time length and a single continuous operation time length from laboratory equipment through an acquisition module, obtaining the number of project switching times from a registration terminal, carrying out the time division according to the starting and stopping time nodes of the equipment, and carrying out the time division; obtaining an equipment operation cycle list; acquiring historical experiment time period records from a registration terminal according to the device number to which the abnormal high-value cluster belongs, rearranging the records by adopting a time period recombination mode, and determining an optimized experiment time period arrangement table; and updating the scheduling table of the laboratory management system through the experiment period arrangement table, obtaining the updated scheduling table content, evaluating the improvement amount of the effective experiment time, and obtaining a final evaluation result of the all-day available duration of the equipment. And the all-day available time of equipment is obviously prolonged, and unnecessary loss is reduced.

This invention discloses a control method for an intelligent management cabinet for laboratory instruments and equipment in universities. The steps include: acquiring the current user's height information; determining the corresponding target grid layer from a preset height-grid mapping relationship based on the height information, where users with larger height values ​​correspond to higher-level grids, and users with smaller height values ​​correspond to lower-level grids; within the target grid layer, selecting and opening a target grid from the currently available grids. Preferably, a random selection method is used to achieve grid load balancing within the layer; when there are no available grids in the target layer, the search is automatically expanded to adjacent layers, and the user is prompted before allocation. At least one layer of the cabinet is designated as a dedicated layer for management personnel and is not involved in allocation for ordinary users. When all available layers are full, the system prompts the user to contact laboratory management personnel to borrow backup equipment, supplemented by manual management procedures. This invention simultaneously solves the operational inconvenience and safety hazards caused by neglecting user height differences in existing laboratory equipment management cabinets, as well as the problem of premature aging of some grids due to neglecting grid wear balance. It is particularly suitable for the borrowing and returning management of instruments and equipment in shared scenarios such as university laboratories, research institutions, and vocational training institutions.

The invention provides an AI artificial intelligence training room intelligent safety management method and system, and relates to the technical field of training room safety management, and the method comprises the steps: building a three-dimensional safety perception matrix which comprises a data flow dimension, an energy flow dimension and a personnel flow dimension, performing entropy weight method weighting on elements of the three-dimensional security perception matrix to calculate an initial risk value, inputting the three-dimensional security perception matrix into a space-time causal inference engine, and correcting the initial risk value to obtain a risk entropy value; when the risk entropy value breaks through the dynamic threshold value, an alarm signal is sent out, and prevention and control measures are started. The intelligent level of the training room management process can be improved.

The application relates to a laboratory area division method and device using a decision tree model, which uses a decision tree model to calibrate corresponding laboratory area units for laboratory equipment data and laboratory personnel data. A region classification model is trained. The latest laboratory equipment data and laboratory personnel data are acquired and input into the region classification model, and laboratory area unit data is output. A laboratory area map is generated according to a similarity matrix and by analyzing the similarity of the laboratory area unit data; spatial optimization is carried out based on the laboratory area map, and a laboratory area division map used for representing laboratory area division is obtained. Based on this, the laboratory equipment data and the laboratory personnel data are subjected to laboratory area division by means of a data model and incorporation into a computer system, the data comprehensiveness of a laboratory management data model is improved, and a data processing technical means for laboratory area division is provided.

The application discloses an intelligent computer laboratory management method and system based on Internet of Things, and relates to the technical field of computing power resource supervision and management. The method obtains terminal workstation space coordinates, physical network card addresses and cold aisle air supply characteristics based on digital mapping, converts computing power peaks into estimated heat equivalent, and collects personnel trajectory coordinates; the heat equivalent is mapped to generate an estimated heat island boundary, and the air supply characteristics are topologically compared to extract a heat dissipation margin, and the terminal with a positive remaining margin is reserved as a candidate node; target terminals are determined by comprehensively supervising business and security continuity, and an authorized code, a network card address and a trajectory coordinate are associated to generate a hardware-level access control list and distribute tasks; during the task running period, real-time heat island boundaries are reconstructed relying on digital twinning to extract heat dissipation attenuation gradients, and personnel dynamic deviation distances are calculated, and when heat penetration or off-line is indicated, the port is blocked and task live migration is scheduled. The system is used for realizing the above method.

To provide a system and a method for sharing consumable inventory in a novel laboratory management system.SOLUTION: A middleware system 300 includes a middleware software component controlled by a processor, a plurality of instruments 204 and 302 operatively coupled to the middleware software component by a communications network, and a consumable item configured to be removably installed in a first selected instrument of the plurality of instruments. The first selected instrument uses the consumable item to perform tests specified by a laboratory management system, and partially depletes the consumable item. The first selected instrument is configured to update status and usage information regarding the consumable item.SELECTED DRAWING: Figure 3

The invention relates to the technical field of climate environment evaluation, in particular to a climate environment reliability platform quality evaluation method and system based on multi-dimensional indexes. According to the technical scheme, real-time dynamic quality evaluation is carried out by adopting big data analysis based on temperature operation, humidity operation, temperature metering performance, humidity metering performance and equipment function multi-dimensional indexes aiming at independent equipment in a climate environment reliability platform, so that the laboratory management cost can be remarkably reduced, the working efficiency is improved, and the working efficiency is improved. The platform operation capability and the test data accuracy and reliability are accurately judged in real time, emergencies are handled in time, a key means is provided for long-term stability study and judgment, fine management and proper maintenance of equipment, a traditional manual monitoring mode is replaced, deep operation data of the equipment can be obtained in real time, manual one-by-one routing inspection and data recording are not needed, and the working efficiency is improved. And meanwhile, data errors caused by manual operation are avoided, and the digital intelligent management level and the overall working efficiency of a laboratory are improved.

The application discloses a numerical control gateway device applied to workshop and laboratory management and belongs to the field of Internet of Things and industrial Internet gateway. The technical scheme of the application is divided into three modules: a measurement and control integrated power supply module inputs alternating current commercial power, provides stable power supply for the inside of the system after filtering, rectifying and isolation voltage stabilization, simultaneously provides controllable alternating current output for external equipment through a relay driven by a main control chip, and integrates a high-precision measurement chip to monitor input electric energy in real time. A core processing and debugging module is based on an ARM Cortex-M4 main control chip, coordinates data processing, logic control and communication, and reserves a debugging and expansion interface. A multi-interface communication and data acquisition module integrates various industrial interfaces including RS-485, RS-232, CAN, Ethernet and wireless communication, and isolated analog and digital quantity acquisition channels, and reliable data exchange is realized. The whole system is optimized in layout and isolated in design through four layers of PCB boards, and the stability and anti-interference performance of each functional unit are effectively improved.

This invention discloses a comprehensive management platform and method for university laboratories based on big data, belonging to the field of intelligent laboratory management technology. The specific method includes: real-time sensing and collection of multi-source heterogeneous data covering all elements of the laboratory; data fusion, governance, and standardized modeling to construct a unified "laboratory digital twin" data model; multi-level intelligent analysis and judgment based on machine learning to achieve dynamic assessment of safety risks, predictive health management of equipment, and optimized scheduling of resource efficiency; and cross-domain collaborative decision-making and precise service execution based on the analysis results to achieve closed-loop management optimization. This invention solves the problems of data silos, single analytical dimensions, and insufficient cross-domain collaboration in existing university laboratory management technologies, realizing comprehensive sensing, intelligent judgment, and automatic collaboration in university laboratory management, significantly improving the safety, resource utilization efficiency, and management refinement level of university laboratories.

1. Name of this design: Graphical User Interface for Trusted Application Innovation Labs in Electronic Devices. 2. Intended use of this design: for use in an electronic device. 3. The key design features of this product are its graphical user interface content. 4. The image or photograph that best illustrates the design's key features: the front view. 5. Purpose of the graphical user interface: The graphical user interface is the graphical user interface displayed by the user during the operation of the application. It is used for human-computer interaction, running programs and displaying information. The text displayed in the view is sample content used to show the appearance effect. This appearance design is not limited to the displayed text, and can also be other text or content determined by the user. 6. Human-computer interaction method of graphical user interface: The main view is the homepage of the Trusted Application Innovation Laboratory Management Platform. Clicking the "Laboratory Introduction" button on the navigation bar in the main view will take you to the Laboratory Introduction page, as shown in Figure 1. Clicking the "Database Profile" button on the navigation bar in Figure 1 will take you to the Database Profile page, as shown in Figure 2. Clicking the "Laboratory Tools" button on the navigation bar in Figure 2 will take you to the Laboratory Tools page, as shown in Figure 3. Clicking the "Success Cases" button on the navigation bar in Figure 3 will take you to the Success Cases page, as shown in Figure 4. Clicking the "Ecosystem and Cooperation" button on the navigation bar in Figure 4 will take you to the Ecosystem and Cooperation page, as shown in Figure 5.

This invention relates to the field of automotive crash safety test management technology, and more particularly to a digital and intelligent full-process management system for crash safety laboratories. The system comprises a perception layer, a transmission layer, a core service layer, and an application layer. The perception layer collects sample, asset, and test information and presets constraints and filling rules. The transmission layer pushes data in real time. The core service layer achieves full-element management of tests, samples, assets, calibration, and data through five modules, integrating three types of intelligent models to realize intelligent asset scheduling, inventory early warning, and equipment maintenance. The application layer mines data value based on a joint probability density AI model, providing support for R&D decisions and design. This invention solves the problems of information silos, process disconnects, low data flow and application rates, and lack of full-process data quality control in traditional laboratory management, resulting in low laboratory management efficiency.

The invention relates to a laboratory digital intelligent management application system, and belongs to the technical field of laboratory management. The system basic support module verifies the identity through a user name-password and allocates permissions according to roles, generates a dynamic early warning threshold value by relying on a multi-dimensional time sequence correlation analysis model, and triggers service circulation in combination with an automatic approval engine; the scientific research core management and control module realizes full-process management of a scientific research entrustment list, is associated with an electronic experiment record book, and outputs an activity loss rate through a sample storage loss prediction model; the resource management module performs early warning on equipment risks based on a time sequence analysis type equipment fault prediction model, and generates an optimal purchase plan by means of an improved economic order quantity intelligent inventory optimization algorithm; and the personnel and environment safety management and control module realizes personnel-post adaptation through a personnel-post capability matching degree algorithm, and locates an abnormity reason by an abnormity tracing algorithm based on environment causality analysis. The system guarantees data intercommunication and flow compliance through a data interaction engine, improves laboratory management efficiency, and meets scientific research and safety requirements.

1. The name of the design product: the laboratory management system graphical user interface of electronic equipment. 2. The use of the design product: for an electronic device. 3. The design features of the design product: the interface content of the graphical user interface. 4. The picture or photo that best shows the design features: interface change state diagram 4. 5. The electronic device is an existing product, omitting the rear view; the electronic device is an existing product, omitting the left view; the electronic device is an existing product, omitting the right view; the electronic device is an existing product, omitting the top view; the electronic device is an existing product, omitting the bottom view. 6. The use of the graphical user interface: to provide real-time monitoring of equipment and environment for laboratory managers, to facilitate first-time control of environmental overview, and to obtain relevant functions of early warning equipment information. Front view: log in to the system on the electronic device and enter the main view; interface change state diagram 1: click the "chart display" button in the main view to enter interface change state diagram 1; interface change state diagram 2: click the "three-point icon" in the upper right corner of the temperature and humidity incubator 10 in interface change state diagram 1 to enter interface change state diagram 2; interface change state diagram 3: click the "environment management" button in interface change state diagram 2 to enter interface change state diagram 3; interface change state diagram 4: click the "large screen display" button in interface change state diagram 3 to enter interface change state diagram 4; interface change state diagram 5: click the "environment management" button in interface change state diagram 4 to enter interface change state diagram 5; interface change state diagram 6: click the "average report" button in interface change state diagram 5 to enter interface change state diagram 6; interface change state diagram 7: click the "environment management" button in interface change state diagram 6 to enter interface change state diagram 7; interface change state diagram 8: click the "floor plan display" button in interface change state diagram 7 to enter interface change state diagram 8; interface change state diagram 9: click the red "temperature warning icon" in interface change state diagram 8 to enter interface change state diagram 9.

The invention discloses a laboratory glass instrument management method and system, and relates to the technical field of laboratory management, and the method comprises the steps: engraving a unique management code on the outer wall of a glass instrument through employing a laser code engraving technology; a paper label is replaced by laser code engraving, frequent pasting of the paper label is avoided, a nano protection layer is added by optimizing laser parameters, it is ensured that the code engraving does not cause instrument breakage and does not affect transparency, and the problem that the paper label is prone to damage, falling off or blurring is solved; automatic locking and storage environment abnormity early warning are achieved when the number of times of use exceeds the limit, the problem that the state of an instrument cannot be actively managed is solved, automatic binding of verification data is achieved through direct connection of laser code carving and automatic verification equipment, manual input errors are reduced, safety level identification is embedded through code carving, operation specifications are forcibly displayed through code scanning, the operation risk is reduced, and the working efficiency is improved. Finally, the whole-course controllability of the instrument state is realized, and the management work efficiency and the experiment safety are improved.

1. Name of the product in this design: Graphical User Interface for Computer Room Management of Electronic Equipment (Teacher's End). 2. Intended use of this design: for use in an electronic device. 3. The key design features of this product are the graphical user interface content on the screen. 4. The image or photograph that best illustrates the design's key features: the front view. 5. Purpose of the graphical user interface: A graphical user interface for teachers used in computer lab management. 6. Human-computer interaction method of graphical user interface: The main view is the interface of the underlying protection and restoration module. 7. Description of the changing states of the graphical user interface: Click the system icon to enter in the main view to enter the interface changing state diagram 1; Log in by entering the password in the interface changing state diagram 1 to enter the interface changing state diagram 2; Click "In-class roll call" in the left sidebar of the interface changing state diagram 2 to enter the interface changing state diagram 3.