84 results about "Device name" patented technology

Systems and methods for embedding-based LLM tuning include generating a first embedding of received user input data and utilizing a translation model trained to associate user input with device names to generate a second embedding that differs at least in part from the first embedding. Reference embeddings corresponding to devices associated with user account data may be generated and a subset of the reference embeddings that satisfy a threshold similarity to the second embedding may be determined. A large language model (LLM) configured to determine a response to the user input data may utilize data for a subset of devices that correspond to the subset of the reference embeddings for performing speech processing.

Techniques for determining equipment names and other information from engineering drawings are described. In an example embodiment, image data representing at least a portion of an engineering drawing for a building is received, the image data is processed using a first ML model to identify a first portion of the image data corresponding to a first region from a set of regions, the first portion of the image data is processed to recognize first text data, using at least a second ML model the first text data is determined to correspond to a first equipment type from a set of equipment types, wherein the set of equipment types relate to the equipment included in the building, and using the first equipment type and an ontology representing relationships between equipment types and equipment name, a first equipment name corresponding to the first text data is determined.

The invention discloses a React Native-based cross-platform Bluetooth communication unified implementation method and system, and relates to the technical field of computers.The method comprises the steps that Bluetooth communication middleware is constructed, and a native Bluetooth interface is packaged; acquiring target equipment by adopting a multi-round scanning strategy of progressive increase timeout retry and combining with an equipment name keyword filtering and Map duplicate removal mechanism; dynamically negotiating an MTU value based on a device type, fragmenting long data according to MTU-13, and ensuring ordered transmission of the data through a sending queue, ACK confirmation and timeout retransmission; defining a standard data frame containing a prefix, a packet sequence, a data type, CRC (Cyclic Redundancy Check) verification and an ending identifier, and analyzing data through buffer area accumulation and integrity detection; the state management module is used for maintaining the equipment connection state and historical records, and automatic disconnection prompting, reconnection and UI navigation resetting are achieved; according to the invention, centralized Bluetooth connection, disconnection, reconnection and other functions can be processed, so that the stability of Bluetooth communication and the integrity of data are improved.

The invention relates to the field of engineering cost and technical and economic review, in particular to an intelligent technical and economic review method and system based on parameter fuzzy matching. And an intelligent process of equipment identification, model matching, unit conversion and quota review is designed, so that full-process automation of technical and economic review is realized. The system solves the problem of equipment name expression difference by utilizing fuzzy matching and a synonym library, the most adaptive equipment model is accurately selected through a mutual exclusion and scoring sorting mechanism, the accuracy and efficiency of review are remarkably improved, the problems of manual missed review, wrong review and different standards are effectively avoided, and in the quota matching process, the review efficiency is greatly improved. By applying keyword and antonym matching logic, a quota adjustment condition is automatically judged, a human-material-machine cost adjustment coefficient is calculated, and conversion from'experience judgment 'to'rule driving' is realized.

The application discloses a system risk assessment method and device and a charging equipment operation and maintenance detection method. The system risk assessment method comprises the following steps: acquiring system change data of a target system within a target time; the system change data comprises system early warning information and device names corresponding to system changes; based on the system change data, early warning information corresponding to the target system change is determined by using a natural language processing technology; time series data of the target system within the target time is acquired, and a change trend of a monitoring index corresponding to the target system is obtained based on the time series data by using a machine learning algorithm; and the target system is subjected to system risk assessment based on the early warning information and the change trend. According to the application, the risk of system change is assessed by using the early warning information of system change obtained based on the natural language processing and the monitoring index trend anomaly obtained based on the machine learning, and the accuracy of system change risk assessment under a micro-service architecture is improved.

The invention discloses a card distribution method and device based on a large language model, a medium and a computer, and relates to the technical field of industrial automation and artificial intelligence. The method comprises the following steps: acquiring equipment measuring point description information of power equipment, and inputting the equipment measuring point description information into a pre-trained information identification model to identify equipment name information and equipment parameter information of the power equipment in the equipment measuring point description information; determining a decentralized processing unit corresponding to the power equipment in a preset processing unit comparison table based on the equipment name information, and determining a decentralized control system card corresponding to the power equipment in a preset card comparison table based on the equipment parameter information; and generating a card distribution file of the power equipment based on the equipment name information of the power equipment, the decentralized processing unit corresponding to the power equipment and the decentralized control system card. According to the method, the card distribution efficiency of the power equipment can be remarkably improved.

A high availability controller for combining and unifying aspects of a process controller and an electrical controller. A unified namespace combines a process domain namespace and a power domain namespace in a common database of the controller without altering either. The unified namespace maps source device names of the power domain and unique process control names of the process domain. A common record set of sequence of events (SOEs) for the process domain and the power domain is generated and SOEs arising from the power domain are incorporated into the common record set. The controller performs process control and monitoring along with electrical control signaling and monitoring within a single control strategy directly from the controller.

The invention discloses an intelligent power supply and distribution design method based on an optimized parameter load statistical table, and the method comprises the steps: carrying out the parameter expansion of the load statistical table, and carrying out the line-by-line filling of equipment names, equipment number, equipment power and equipment classification in the information providing content of a corresponding technology specialty in the load statistical table according to preset requirements, therefore, a corresponding load statistical table is formed, and parameters are added and configuration is calculated. After a main wiring mode of a power supply system is selected, load distribution of bus sections is carried out, loads on each bus section are continuously and accurately distributed to each power distribution cabinet after limiting conditions are met, a standby loop is added according to a preset standby loop rate, and an optimal solution in a calculation result is output after iterative calculation matching; and finally, carrying out graph matching and outputting a system graph according to a preset power supply system main wiring form to CAD (Computer Aided Design). According to the method, various repeated steps can be optimized, the defect of careless type selection or wrong filling is avoided, the working efficiency can be improved, and the working time is saved.

1. The name of the design product: parameter configuration graphical user interface of electronic device. 2. The use of the design product: an electronic device. 3. The design points of the design product: the graphical user interface of the claimed part. 4. The picture or photo that best shows the design points: front view. 5. The use of the graphical user interface: for configuring the device parameters of the electronic device. 6. The human-computer interaction mode of the graphical user interface: the front view is a parameter configuration interface, clicking the modification button above can modify the device name, clicking the slider button in the middle can turn on or off the device function, and clicking the function list below can enter the configuration interface of different parameters. 7. Other circumstances that need to be explained: the red semi-transparent covered area in the interface is not claimed, and the covered area includes the electronic device above the view.

1. Name of the product in this design: Graphical User Interface for Controlling Intelligent Building Systems of Electronic Devices. 2. Purpose of this design: An electronic device. 3. The key design features of this product are the content and layout of the graphical user interface. 4. The image or photograph that best illustrates the design's key features: the front view. 5. Other situations requiring explanation: This graphical user interface is used for the display and human-computer interaction during the operation of the intelligent building system. This graphical user interface can also be used to monitor and manage the lighting control system. Click the arrow to the right of "Configuration Tree" in the left window of the main view, and open the sub-menu "First Floor" under "Card Monitoring" to switch to the interface change state diagram 1. Click "Device List" and select the device name under the "Lighting Control" menu to switch to the interface change state diagram 2. Click "Type Selection" in the left window and select "Device Card" in its sub-menu to switch to the interface change state diagram 3. Drag the selected device name under the "Lighting Control" menu into the right window to switch to the interface change state diagram 4. Click "Save" to switch to the interface change state diagram 5. Click "Save" in the lower right corner to switch to the interface change state diagram 6. Click "Device Monitoring" in the upper right corner to switch to the interface change state diagram 7. The circular gray block in the upper right corner of the image belongs to the content screen.

The invention discloses a single-line sketch forming method and device, equipment and a medium. The method comprises the steps that a reference position corresponding to a first topological node is calculated according to a first topological mapping relation, first equipment information and a preset step length; based on the reference position, space boundaries occupied by the device primitive and the device name are calculated respectively, a first coordinate corresponding to the device primitive and a second coordinate corresponding to the device name are obtained, a third coordinate corresponding to the note information is calculated, and the device name is a name processed according to a truncation rule associated with a preset step length; generating a single line sketch according to the first coordinate, the second coordinate, the third coordinate, the equipment primitive, the equipment name and the note information; and analyzing the single-line sketch according to an image renderer corresponding to the power distribution network system, and displaying the single-line sketch through a display end corresponding to the power distribution network system. According to the embodiment of the invention, the overlapping of the single-line sketches can be reduced on the basis of quick response, so that the mapping effect of the single-line sketches is improved, and the requirements of the single-line sketches are met.

The invention relates to the technical field of Internet of Things, and particularly provides a method and equipment for generating a standard equipment instance based on an Internet of Things platform, and a medium. The technical problems that in the prior art, efficiency is low, manual configuration is prone to errors, and compatibility of different protocol devices is poor are solved. For this purpose, according to the method for generating the standard device instance based on the Internet of Things platform, the Internet of Things platform manages a plurality of physical devices with different communication protocols, and the method comprises the steps that point location information of the plurality of physical devices with different communication protocols is acquired; constructing a general point location configuration table of point locations of the Internet of Things platform based on the point location information; determining a to-be-mapped standard equipment model corresponding to the point location based on common information and / or equipment names of the point locations in the universal point location configuration table and model attribute information of a preset standard equipment model; wherein the preset standard equipment model comprises at least one standard equipment model to be mapped; and generating a standard equipment instance corresponding to the standard equipment model to be mapped on the Internet of Things platform.

The invention discloses a recording channel automatic generation method and system based on SCD analysis. The method comprises the following steps: generating a device configuration-free template; generating a channel configuration template; according to the substation SCD file, all devices in the substation and corresponding control block parameters are obtained, a control block needing to be subscribed is selected, and a virtual terminal corresponding relation is obtained; according to the subscribed control block, matching a corresponding control block parameter, and matching a device and channel mapping relation to obtain a channel corresponding to the subscribed control block; numbering and grouping analog quantity channels; according to interval names and voltage grades, dividing the channels into corresponding intervals according to the intervals; and analyzing the scheduling names and the parameter files, associating the interval groups, and replacing the primary equipment names of the wave recording channels with the scheduling names in batches. According to the technical scheme provided by the invention, the automatic configuration of the channel configuration of the intelligent fault recording device is realized, the time consumed for modifying the configuration by operation and maintenance personnel and human errors caused by files are greatly shortened, and the operation and maintenance efficiency of a transformer substation is further improved.

The embodiment of the invention provides an operator equipment fault positioning method and system, a medium and a product, and relates to the technical field of block chains. The method comprises the following steps: acquiring configuration information of each piece of data center machine room equipment of an operator; according to the configuration information, constructing an index relationship corresponding to the device name and the position; judging whether the configuration information is empty or not; if yes, the actual configuration state of the corresponding equipment is analyzed according to the index relation, and a problem report is generated according to the actual configuration state; if not, constructing a Merkel tree and a block chain block according to the configuration information of the operator equipment; based on the Merkel tree, recursively comparing tree root hash values of the current block and the historical block, and determining a difference block which changes for the first time; comparing the tree nodes of the current block and the difference block layer by layer, and determining difference leaf nodes; and determining equipment information corresponding to the difference leaf nodes through the index relationship, and generating a problem report based on the equipment information. According to the scheme, the inspection efficiency is improved.

1. Name of the product in this design: Device connection operation area of ​​a converged management graphical user interface for electronic devices. 2. Purpose of this design: An electronic device. 3. The key design feature of this product is its graphical user interface. 4. The picture or photo that best illustrates the key design points: Design 1 front view. 5. Design 1 is designated as the basic design. 6. Purpose of the graphical user interface: The overall purpose of the interface is to manage multiple paired devices in a unified manner based on user operations; its local purpose is to allow users to add, connect, record, and delete different devices within the device connection operation area. 7. Description of the changing states of the graphical user interface: The device connection operation area in Design 1 and Design 2 displays cards corresponding to four different vehicle-to-everything (V2X) systems. Clicking the "+" control in the upper right corner of each card adds a new paired device. Some cards display a list of previously paired device names, with a delete icon to the right of each device name. Clicking this icon deletes the corresponding device name. Design 3 shows the interface during the device connection process. The device connection operation area displays cards corresponding to four different V2X systems. Clicking the "+" control in the upper right corner of each card adds a new paired device. The top card displays a list of previously paired device names, with a delete icon to the right of each device name. Clicking this icon deletes the corresponding device name. The second card displays the device names currently in the connection process. Design 4 shows the interface after a successful device connection. The device connection operation area displays cards corresponding to four different V2X systems. Clicking the "+" control in the upper right corner of each card adds a new paired device. The top card displays a list of previously paired device names, with a delete icon to the right of each device name. Clicking this icon deletes the corresponding device name. In addition to the corresponding device name, the second card displays the names of devices currently in a connected state. The device connection operation area in Design 5's main view displays cards corresponding to four different vehicle-to-everything (V2X) systems. Clicking the "+" control in the upper right corner of each card allows you to add a new paired device. The device connection operation area in Design 6's main view also displays cards corresponding to four different V2X systems. Clicking the "+" control in the upper right corner of each card allows you to add a new paired device. Some cards display a list of previously paired device names, and each device name has a delete icon to the right. Clicking this icon deletes the corresponding device name. Clicking the delete icon to the right of a device name in the second card results in the interface change state diagram for Design 6. The device connection operation area in Design 7's main view also displays cards corresponding to four different V2X systems. Clicking the "+" control in the upper right corner of each card allows you to add a new paired device. Some cards display a list of previously paired device names, and each device name has a delete icon to the right. Clicking this icon deletes the corresponding device name. Clicking any device name puts the corresponding device into a connected state, resulting in the interface change state diagram 1 for Design 7. After a successful connection, the interface change state diagram 2 for Design 7 is obtained.The device connection operation area in Design 8's main view displays cards corresponding to four different vehicle-to-everything (V2X) systems. Clicking the "+" control in the upper right corner of each card allows you to add a new paired device. Some cards display a list of previously paired device names, and each device name has a delete icon to the right. Clicking the delete icon removes the corresponding device name. Clicking any device name puts the corresponding device into a connection state, resulting in Design 8's interface change state diagram 1. If pairing fails after a certain period, Design 8's interface change state diagram 2 appears, and a pop-up window displays "Connection failed, please try again." The device connection operation area in Design 9's main view also displays cards corresponding to four different V2X systems. Clicking the "+" control in the upper right corner of each card allows you to add a new paired device. Some cards display a list of previously paired device names, and each device name has a delete icon to the right. Clicking the delete icon removes the corresponding device name. Below the device list are expand icons "∨" or collapse icons "∧". Clicking the expand icon "∨" on the bottom card expands the device name list on the cards below, and the display of other cards automatically adjusts accordingly, resulting in Design 9's interface change state diagram. ; 8. Other situations requiring explanation: Other explanation: "XX" in the view represents text or characters, and the parts of the graphical user interface shown by the dotted lines in each view do not constitute the part that is protected by this design.

This invention relates to the field of network security technology, and in particular to a unified management and key distribution method for encryption machines based on quantum key cloud. The method includes: receiving a registration request and extracting the device name, authentication information, and timestamp; completing identity authentication, authorization management, and generating device quantum information; subsequently collecting online status data and determining the device usage status corresponding to the central processing unit, memory, disk, and network port; generating anomaly status judgment results by comparing authentication information and communication status; then outputting alarm information, blocking illegal connections, verifying permissions, matching key identifiers, and distributing quantum ciphertext data; and completing quantum key acquisition, generating acquisition confirmation messages, data encryption and decryption, key update management, and resetting password verification and factory reset processing. This invention significantly improves the security, real-time performance, and closed-loop autonomous capability of unified management of encryption machines.

1. The name of the design product: network topology view graphical user interface of electronic equipment. 2. The use of the design product: for an electronic device. 3. The design points of the design product: the interface content of the graphical user interface. 4. The picture or photo that best indicates the design points: design 1 front view. 5. Design 1 is designated as the basic design. 6. The use of the graphical user interface: the design graphical user interface is used to view the topology relationship of network equipment. Design 1 front view is the home page of the graphical user interface, the upper part of the interface shows the number of server and switch equipment, the lower part of the interface shows the number of equipment, connection relationship and specific state, when the user clicks any parameter face Leaf icon in design 1 front view, design 1 interface change state diagram 1 is presented. In design 1 interface change state diagram 1, the user can view the connection relationship and interface state of the specific equipment, when the user clicks the equipment icon, design 1 interface change state diagram 2 is presented for viewing the equipment name. The interaction mode of design 2 is the same as that of design 1. 7. Other circumstances that need to be explained: the design 1 requested protection contains color.

The present disclosure relates to a vehicle data packet processing method, device and storage medium. The vehicle data packet processing method comprises: obtaining first packet data sent by a vehicle, the first packet data being packet data processed based on a preset encryption mode; decoding the first packet data based on the preset encryption mode to obtain second packet data, the second packet data comprising device data collected by a plurality of target devices and a flag bit, the flag bit representing whether the device data is empty; and performing device data analysis on the second packet data based on a preset password file to obtain target packet data, the target packet data comprising a correspondence between a device name of the target device and the device data. The present disclosure parses the packet sent by the vehicle through the preset password book, reduces the space occupied by the packet, and ensures the security of the packet.

The invention discloses a novel metropolitan area network multi-rule three-layer circuit automatic discovery method and device, and the method comprises the steps: collecting and storing the port basic data of whole network equipment; querying the ports according to a forward rule, and further filtering the ports according to a reverse rule; dividing the available ports into public network address ports and private network address ports according to address ranges to which the ports belong, grouping the public network address ports and the private network address ports, and pairing the ports in pairs in each group according to a sequence; setting the circuit direction of the two paired ports according to the attribute levels of the equipment to which the ports belong or the IP sizes of the ports, filling circuit information, and judging circuit attributes according to the name regularities of the equipment at the two ends, the alias regularities of the ports and the attributes of the equipment at the two ends; and comparing the current discovery circuit with the existing circuit according to the comparison logic of adding, modifying and deleting and the operation switch, automatically or manually confirming, storing and generating a historical record. According to the method and the device, different types of circuit scenes can be automatically processed, and the direction and the attribute of the circuit can be flexibly constructed.

1. The name of the design product: smart pass graphical user interface for electronic equipment. 2. The use of the design product: for displaying graphical user interface. 3. The design points of the design product: the interface content in the graphical user interface. 4. The picture or photo that best indicates the design points: interface change state diagram 1. 5. The rest is the conventional design, and other views are omitted. 6. The use of the graphical user interface: for displaying the information interface of smart pass. 7. The human-computer interaction mode of the graphical user interface: the main view is the center page of smart pass; by clicking the "smart pass" button in the main view, enter the interface change state diagram 1; the interface change state diagram 1 is "device list", which can see "device name", "device number", "device type", "device brand", "installation area", "operation state" and also can be operated; by clicking "business overview", enter the interface change state diagram 2, which can see "vehicle authorization type proportion", "vehicle entry number change", "vehicle exit number change", "parking fee amount change", "abnormal release number change".

This invention provides a device management system, a device management device, a device management method, and a program that can simplify the tasks that users perform to set up an environment for managing equipment. [Solution] The cloud server 1, which is a device management device, includes a device information storage unit 131 that stores MAC address information of multiple devices 3 in association with device setting identification information, a two-dimensional code generation unit 114 that generates a two-dimensional code image representing the device setting identification information, a device information acquisition unit 119 that, upon acquiring device setting notification information transmitted from a terminal device 4, stores in the device information storage unit 131 the device name information and MAC address information contained in the acquired device setting notification information in association with each other, and a device setting information notification unit 120 that, upon acquiring device information request information transmitted from a terminal device 6, generates device setting notification information including device information corresponding to the device setting identification information contained in the acquired device information request information stored in the device information storage unit 131, and transmits it to the terminal device 6.

The application discloses a kind of processing methods, device, storage medium and electronic equipment of alarm event sheet.It relates to the technical field of financial technology, wherein the method comprises: obtaining M alarm event sheets, wherein the M alarm event sheets include X first alarm event sheets and Y second alarm event sheets, each first alarm event sheet is an alarm event sheet corresponding to an abnormal service, and the abnormal service is processed by P network devices, and each second alarm event sheet is an alarm event sheet corresponding to a faulty network device;According to the P first device name corresponding to each first alarm event sheet and the second device name corresponding to each second alarm event sheet, the M alarm event sheets are processed by merging the answer sheet, wherein the merging answer sheet processing is used to batch close processing of the alarm event sheets corresponding to the same network device.The present application solves the technical problem of low processing efficiency in the prior art by manually processing alarm event sheets.

The invention discloses a scene construction method, system and device for a project environment and a computer program product, and the method comprises the steps: obtaining project data of a source project in response to a first input of a user to a source project operation area of a target page, the project data comprising equipment parameters and scene data of first intelligent equipment arranged in the source project environment; and in response to a second input of the user to the target project operation area, establishing a relation table between the equipment parameters in the project data and the equipment parameters of each second intelligent equipment arranged in the target project environment and the equipment parameters of the target gateway, and sending the relation table to the target gateway to establish network connection between each second intelligent equipment and the target gateway, the second intelligent equipment is the same as the equipment name in the equipment parameters of the corresponding first intelligent equipment; and in response to a third input of the user to the target project operation area, copying the scene data in the project data to the target gateway so as to control the display state of the second intelligent device in the corresponding scene based on the scene data of different scenes.

The application discloses a kind of general HID device cross-platform real-time data interaction method and system, belong to computer man-machine interaction and virtual simulation technical field.The method includes: acquisition end is enumerated and classified HID device by cross-platform input library, and device type is automatically identified according to equipment name keyword;Raw control data is dead zone calibrated and standardized, and is packed as structured JSON data and is sent with fixed frequency by UDP protocol;Receiving end receives UDP data in non-blocking mode in game engine, introduces queue buffer and frame budget processing mechanism, updates axis state and button state array after data analysis, and triggers button press / release and axis value change event by event delegation mechanism.The application shields the hardware difference of different HID devices, plug and play (no need to install driver), provides a set of fast, general, real-time, scalable device data access scheme for simulation training, digital twin and the like.

The present disclosure relates to the technical field of Internet of Things, and particularly relates to a display method and device and electronic equipment, which are used to solve the problem of limited content of application display and poor user experience in the prior art. The method comprises the following steps: in response to a starting operation, obtaining a device category list and report information reported by an electronic device in a current environment; based on an actual identifier, querying in the device category list to determine whether there is a same theoretical identifier as the actual identifier, and whether the same theoretical identifier as the actual identifier supports an Internet of Things function, and when device model information is obtained based on configuration information of the electronic device corresponding to the actual identifier, generating a display device list based on the device model information; wherein the device model information at least comprises a device icon, a device name and a device model, the display device list comprises an electronic device corresponding to each device model information; and displaying based on the display device list.

This system provides a terminal provisioning system that simplifies terminal management, reduces terminal provisioning time, and alleviates the burden on system administrators in a hybrid AD configuration where terminals join domains to both the internal network and the internet. [Solution] In the terminal provisioning system 10, automatic provisioning data, including a device name change script, is stored in the automatic provisioning data storage means 32 in the cloud environment. When the user terminal 80 is powered on, the automatic provisioning data is acquired and the terminal provisioning process is executed. The device name change script is registered with the task scheduler 83. After the terminal provisioning process is completed, the device name change script is executed to change the temporary device name stored in the AD server 60 in the on-premises environment to the device name for official registration.

The application provides a generator set maintenance scheme intelligent generation method, system, equipment and medium, the method comprises the following steps: establishing a maintenance equipment database; according to the maintenance standard, a standard required maintenance project table of the generator set is established; the equipment name or part name in the standard required maintenance project table of the generator set is sequentially searched from the maintenance equipment database, and the maintenance scheme corresponding to the equipment name or part name is generated when matching; according to the maintenance scheme, the historical maintenance data is analyzed, and the number of the equipment name or part name needing maintenance is obtained. The generator set maintenance scheme intelligent generation method and system provided by the application can avoid the problems of missing items and errors caused by human factors, and the platform can replace the human analysis of historical maintenance data to find high-risk components or equipment, so as to achieve the purpose of accurate maintenance.

The invention provides an indoor Internet of Things control method, electronic equipment and a medium. The method comprises the steps that voice information and an environment image are acquired, the voice information comprises control voice belonging to a controller, and the environment image comprises an image of the controller; identifying the device name of the to-be-controlled device, the control instruction and the relative position information of the to-be-controlled device relative to the controller from the control voice; determining to-be-controlled equipment in the environment image according to the relative position information and the equipment name; and controlling the to-be-controlled equipment to execute the control instruction. According to the method, a user can conveniently issue a control instruction through daily actions and natural statements, the accuracy and robustness of equipment selection and instruction execution are effectively improved while the operation complexity is reduced, and the intelligent interaction experience of the user is further optimized.

1. The name of the design product: smart detection system graphical user interface for electronic equipment. 2. The use of the design product: the design product is used for electronic equipment. 3. The design points of the design product: the interface content in the graphical user interface. 4. The picture or photo that best indicates the design points: front view. 5. The electronic equipment is a 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: for displaying device index configuration. 7. The human-computer interaction mode of the graphical user interface: the front view is the initial interface; interface change state diagram 1 is the interface after clicking the "detection overview" button in the front view; interface change state diagram 2 is the interface after clicking the "shuttle type high-speed conveying" button in interface change state diagram 1; and interface change state diagram 3 is the interface after clicking the device name bar "dxxxxxx" button in interface change state diagram 2.