89 results about "Functional design" patented technology

The invention relates to a reconfigurable equipment simulation system based on software radio, and the system achieves the high-integration, user-friendly and efficient-management reconfigurable equipment simulation system through the modularization and seamless integration of a radio waveform design function, an equipment simulation user operation interface design, a business logic function design and a project management function. Therefore, even if a user does not have a deep programming capability, the user can quickly construct, test, manage and deploy the equipment simulator with complete functions. The system is rich in waveform component and UI component library, customizable in function and good in flexibility, software radio waveform design and equipment simulation are innovatively and seamlessly integrated, automatic non-inductive or manual upgrading can be achieved, the universality is good, various equipment simulators can be designed, the designed equipment simulators have open function expansion, and the system is suitable for popularization and application. And a complete project management process is provided.

The invention relates to a different intelligence traffic subject interaction information model construction method based on a three-dimensional digital model. The method comprises the following steps: S1, constructing a multi-level scene based on spatial levels of a road traffic system and designing functions of the multi-level scene; s2, defining autonomous levels of the traffic system, and describing the perception capability, decision logic and execution precision of each terminal device of the vehicle road cloud of each level; s3, according to different attributes of traffic entities, designing a perception-transmission-decision-control four-stage traffic information circulation process and realizing unambiguous collaboration among different intelligence subjects; and S4, converting the standardized and defined information model into a plurality of instantiation units, and deploying the instantiation units into computing entities of various end-edge-cloud traffic subjects to support actual operation of a traffic service scene. According to the method, the problems of difficult cross-domain collaboration, non-uniform information models and insufficient global optimization caused by non-uniform intelligent level of traffic subjects in the prior art are effectively solved, and methodological support is provided for design, verification and implementation of a vehicle-road cloud integrated system.

1. Name of the product in this design: Graphical User Interface for Timer or Range Hood Operation of Electronic Device. 2. Purpose of this design: An electronic device. 3. The key design feature of this product is its graphical user interface. 4. Images or photos that best illustrate the design points: Design 1 Interface change state diagram 2. 5. Design 1 is designated as the basic design. 6. Purpose of the graphical user interface: Design 1 is used to wake up the range hood; Designs 2, 3, 6, 7, and 8 are used for stove timers; Designs 4 and 5 are used for disinfection timers; and Designs 9 and 10 are used to turn on the range hood. 7. Human-computer interaction method of graphical user interface: Design 1: In the main view of Design 1, it can automatically change to the interface change state diagram 1 of Design 1; then click the switch button at the bottom of the interface to change to the interface change state diagram 2 of Design 1. Design 2: In the main view of Design 2, clicking the right timer button enables the right stove timer setting function. The interaction method of Design 3 is the same as that of Design 2. Design 4: In the main view of Design 4, clicking the disinfection button allows you to set the disinfection time. The interaction method of Design 5 is the same as that of Design 4. Design 6: In the main view of Design 6, clicking the plus button enables the function of adjusting the stove's timer. The interaction method of Design 7 is the same as that of Design 6. Design 8: In the main view of Design 8, clicking the clock button at the bottom left of the interface will change the interface to state 1 of Design 8; then clicking the minus button will change the interface to state 2 of Design 8; then it will automatically and sequentially change to state 3 and 4 of Design 8. Design 9: In the main view of Design 9, clicking the high-power button will turn on the range hood. The interaction method of Design 10 is the same as that of Design 9.

1. Name of the product in this design: Electronic device with a graphical user interface for adjusting cabin parameters. 2. Application of this design: This design is intended for use in an electronic device. 3. The key design features of this product are its graphical user interface content. 4. The picture or photo that best illustrates the key design points: Design 1 front view. 5. The electronic device described in this design is a conventional design, and the rear view, left view, right view, top view, and bottom view of designs 1-10 are omitted. 6. Design 1 is designated as the basic design. 7. Purpose of the graphical user interface: This product design allows users to adjust the parameters of different compartments of the refrigerator through interactive operation, such as adjusting the temperature or mode of different compartments. 8. Human-computer interaction methods of graphical user interface: User interaction operations include voice interaction commands and operation via wired or wireless remote control. It should be noted that the "gray tiles" in the graphical user interface represent variable images, and the "XX" in the graphical user interface represent variable numbers or text. The graphical user interface in the main view of Design 1 is the main page for adjusting the refrigerator compartment parameters. Users can see the temperature, mode, and details of all food items in each compartment in this user interface. When the user clicks "Freezer" through interactive operation, the graphical user interface in the main view of Design 1 changes to the graphical user interface in the interface change state diagram of Design 1. Users can adjust the temperature of the freezer compartment and whether to turn on the quick freeze function in this graphical user interface. The graphical user interface in the main view of Design 2 is the main page for adjusting the refrigerator compartment parameters. Users can see the temperature, mode, and details of all food items in each compartment in this user interface. When the user clicks "Freezer" through interactive operation, the graphical user interface in the main view of Design 2 changes to the graphical user interface of the interface change state diagram of Design 2. Users can adjust the temperature of the freezer compartment and whether to turn on the quick freeze function in this graphical user interface. The graphical user interface in the main view of Design 3 is the main page for adjusting the refrigerator compartment parameters. Users can see the temperature, mode, and details of all food items in each compartment in this user interface. When the user clicks on "Refrigerator" through interactive operation, the graphical user interface in the main view of Design 3 changes to the graphical user interface of the Design 3 interface change state diagram. Users can adjust the temperature of the refrigerator compartment and whether to turn on the quick cooling function and holiday mode in this graphical user interface. The graphical user interface in Design 4's main view is the main page for adjusting refrigerator compartment parameters. Users can see the temperature, mode, and details of all food items in each compartment through this user interface. When the user clicks on "Refrigerator Compartment" through interactive operation, the graphical user interface in Design 4's main view changes to the graphical user interface in Design 4's interface change state diagram. Users can adjust the temperature of the refrigerator compartment and whether to turn on the quick-cooling function and holiday mode through this graphical user interface. The graphical user interface in Design 5's main view is the main page for adjusting the refrigerator compartment parameters. Users can see the temperature, mode, and details of all food items in each compartment through this user interface. When the user clicks "One-Click Freeze Compartment" through interactive operation, the graphical user interface in Design 5's main view changes to the graphical user interface in Design 5's interface change state diagram. Users can turn the one-click freeze compartment function on or off through this graphical user interface. The graphical user interface in the main view of Design 6 is the main page for adjusting the refrigerator compartment parameters. Users can see the temperature, mode, and details of all food items in each compartment in this user interface. When the user clicks "One-Click Freeze Compartment" through interactive operation, the graphical user interface in the main view of Design 6 changes to the graphical user interface of the interface change state diagram in Design 6. Users can turn the one-click freeze compartment function on or off in this graphical user interface. The graphical user interface in the main view of Design 7 is the main page for adjusting the refrigerator compartment parameters. Users can see the temperature, mode, and details of all food items in each compartment in this user interface. When the user clicks on "Molecular Preservation Compartment" through interactive operation, the graphical user interface in the main view of Design 7 changes to the graphical user interface of the Design 7 interface change state diagram. In this graphical user interface, users can see the corresponding function introduction of the Molecular Preservation Compartment according to different food items. The graphical user interface in Design 8's main view is the main page for adjusting refrigerator compartment parameters. Users can see the temperature, mode, and details of all food items in each compartment on this user interface. When the user clicks on "Molecular Preservation Compartment" through interactive operation, the graphical user interface in Design 8's main view changes to the graphical user interface in Design 8's interface change state diagram. On this graphical user interface, users can see the corresponding function introduction of the Molecular Preservation Compartment according to different food items. The graphical user interface in the main view of Design 9 is the main page for adjusting the refrigerator compartment parameters. Users can see the temperature, mode, and details of all food items in each compartment in this user interface. When the user clicks on the "left variable temperature compartment" through interactive operation, the graphical user interface in the main view of Design 9 changes to the graphical user interface of the Design 9 interface change state diagram. Users can adjust the temperature of the left variable temperature compartment and whether to turn on the soft freeze function in this graphical user interface. The graphical user interface of the design 10 main view is the main page for adjusting the parameters of the refrigerator compartments. In this graphical user interface, the user can see the temperature, mode and details of all food materials of each compartment. When the user clicks "left variable temperature room" through interactive operation, the graphical user interface of the design 10 main view changes into the graphical user interface of the design 10 interface change state view. In this graphical user interface, the user adjusts the temperature of the left variable temperature room and whether to turn on the soft freezing function.

1. The name of the design product: video preview graphical user interface for electronic device. 2. The use of the design product: an electronic device. 3. The design points of the design product: in 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: for previewing video files in album page. 7. The human-computer interaction mode of the graphical user interface: design 1 front view is the preview interface of video files in album page. The upper half of the design 1 front view displays the preview picture content of the selected video file through the preview window, the progress bar on the selected video file displays the preview progress of the selected video file, and the time node corresponding to the current preview picture content in the preview window. The progress bar in the design 1 front view is used for human-computer interaction and realizes the function of positioning to the selected time node. Design 2 front view is the preview interface of video files in album page. The upper half of the design 2 front view displays the preview picture content of the selected video file through the preview window, the progress bar on the selected video file displays the preview progress of the selected video file, and the time node corresponding to the current preview picture content in the preview window. The progress bar in the design 2 front view is used for human-computer interaction and realizes the function of positioning to the selected time node. Design 3 front view is the preview interface of video files in album page. The upper half of the design 3 front view displays the preview picture content of the selected video file through the preview window, the progress bar on the selected video file displays the preview progress of the selected video file, and the time node corresponding to the current preview picture content in the preview window. The progress bar in the design 3 front view is used for human-computer interaction and realizes the function of positioning to the selected time node. Design 4 front view is the preview interface of video files in album page. The upper half of the design 4 front view displays the preview picture content of the selected video file through the preview window, the progress bar on the selected video file displays the preview progress of the selected video file, and the time node corresponding to the current preview picture content in the preview window. The progress bar in the design 4 front view is used for human-computer interaction and realizes the function of positioning to the selected time node. Design 5 front view is the preview interface of video files in album page. The upper half of the design 5 main view displays the preview picture content of the selected video file through the preview window, the progress bar on the selected video file displays the preview progress of the selected video file, and the time node corresponding to the current preview picture content in the preview window. The progress bar in the design 5 main view is used for human-computer interaction and realizes the function of positioning to the selected time node. The design 6 main view is a preview interface of a video file in an album page. The upper half of the design 6 main view displays the preview picture content of the selected video file through the preview window, the progress bar on the selected video file displays the preview progress of the selected video file, and the time node corresponding to the current preview picture content in the preview window. The progress bar in the design 6 main view is used for human-computer interaction and realizes the function of positioning to the selected time node. The design 7 main view is a preview interface of a video file in an album page. The upper half of the design 7 main view displays the preview picture content of the selected video file through the preview window, the progress bar on the selected video file displays the preview progress of the selected video file, and the time node corresponding to the current preview picture content in the preview window. The progress bar in the design 7 main view is used for human-computer interaction and realizes the function of positioning to the selected time node. The design 8 main view is a preview interface of a video file in an album page. The upper half of the design 8 main view displays the preview picture content of the selected video file through the preview window, the progress bar on the selected video file displays the preview progress of the selected video file, and the time node corresponding to the current preview picture content in the preview window. The progress bar in the design 8 main view is used for human-computer interaction and realizes the function of positioning to the selected time node. The design 9 main view is a preview interface of a video file in an album page. The upper half of the design 9 main view displays the preview picture content of the selected video file through the preview window, the progress bar on the selected video file displays the preview progress of the selected video file, and the time node corresponding to the current preview picture content in the preview window. The progress bar in the design 9 main view is used for human-computer interaction and realizes the function of positioning to the selected time node. The design 10 main view is a preview interface of a video file in an album page. The upper half of the design 10 main view displays the preview picture content of the selected video file through the preview window, the progress bar on the selected video file displays the preview progress of the selected video file, and the time node corresponding to the current preview picture content in the preview window. The progress bar in the front view of the design 10 is used for human-computer interaction and realizes the function of positioning to the selected time node. 8. Other needs to be described Other notes: "X" in the interface represents the text, number or symbol content area, and the gray area in the interface is the variable content of the picture.

The present application aims to provide a virtual reality-based gas turbine instructor teaching method, comprising the following steps: establishing a gas turbine subsystem function characteristic database; establishing a system typical component maintenance process database; establishing a system three-dimensional model database; building a three-dimensional simulation model into a system virtual environment; writing a gas turbine maintenance process flow and importing the built system environment, integrating the gas turbine subsystem function characteristic database in the system; building a TCP / IP Socket communication protocol framework, establishing a data transceiver mechanism, developing a client and a server, and designing and developing data coding and parsing functions; designing and developing an instructor teaching function module; designing and developing a human-computer interaction interface and integrating it into the system; the instructor and the student simultaneously use the virtual reality-based gas turbine instructor teaching system for testing. The present application is specially used for gas turbine teaching scene, and meets the interactive needs of the instructor and the student in the explanation and demonstration process.

The application relates to the technical field of ship design, in particular to a ship design method based on ship type flexible customization and a storage medium. A flexible customization design tool set visual push design system platform based on a knowledge graph can automatically match corresponding design modules according to design content in the process of ship digital design by a designer, and can push design tools corresponding to the modules according to design stages, design specialties, operator information and the like. The designer only needs to select corresponding module design objects in the design process, and the module design tool set can be automatically pushed out. After the corresponding design tools are selected, knowledge rules matched with the current design tools and design environment are automatically reasoned and called based on the constructed knowledge graph, and intelligent design based on knowledge driving is realized through the design tools, so that the problem of poor use and configuration flexibility of different professional and different functional design function modules and design tools of a traditional ship three-dimensional design software platform is solved.

1. The name of the present design product: control pattern of steam oven of electronic equipment. 2. The use of the present design product: an electronic equipment. 3. The design points of the present design product: in the pattern of the user interface. 4. The picture or photo that can best show the design points: design 1 front view. 5. Design 1 is designated as the basic design. 6. The use of the pattern of the user interface: each pattern of the user interface is used for the control of the steam oven; design 1, 2, 3, 4 is used for the mode selection of the steam oven; design 1 is used for the mode selection in the initial state; design 2 is used for the mode selection after the selected mode; design 3 is used for the mode selection in the networking state; design 4 is used for the mode selection in the linkage state with the smoke machine; design 5, 6 is used for the cooking temperature setting of the steam oven; design 7, 8 is used for the cooking process of the steam oven; design 9, 10 is used for the locking of the steam oven; design 9 is used for the locking of the steam oven; design 10 is used for the locking reminder of the steam oven. 7. The human-computer interaction mode of the pattern of the user interface: design 1: in the front view of design 1, clicking the + key or the - key can realize the mode selection function of the steam oven. The interaction mode of design 2, 3, 4 is the same as design 1. Design 5: in the front view of design 5, clicking the + key or the - key can realize the temperature setting function. The interaction mode of design 6 is the same as design 5. Design 7: in the front view of design 7, clicking the triangle button at the bottom can automatically change the interface to design 7 interface change state diagram 1, 2, 3, 4, 5. The interaction mode of design 8 is the same as design 7. Design 9: in the front view of design 9, simultaneously long pressing the + key and the - key can change to design 9 interface change state diagram. Design 10: in the front view of design 10, separately clicking the + key, or separately clicking the - key, or touching other parts of the interface, can change to design 10 interface change state diagram, design 10 front view, design 10 interface change state diagram, design 10 front view, respectively, which shows that the + key, the - key and the locking icon flash twice and stay in design 10 front view.

The invention discloses enterprise internal human resource management digital management and a construction method thereof, and belongs to the technical field of enterprise digital management. Comprising an employee management module, an information processing terminal and an information maintenance module, the employee management module is in communication connection with the information processing terminal, the employee management module is in communication connection with the information maintenance module, and the information processing terminal is in communication connection with the information maintenance module. The problems that in the prior art, an information management system used by an enterprise institution and the like generally only pays attention to function design, lacks attention of an actual business scene, is difficult to synchronously express operation of full-scene business of the enterprise institution in a twin digital space, cannot realize intelligent management of the enterprise institution, and is inconvenient to use can be solved. And the management efficiency of enterprise institutions is limited.

The invention relates to a BIM basic function design-based power grid engineering design system and method. The system comprises a system module; the document setting module is used for setting project information for the document and providing a document editing function of the power grid project, and the document editing function comprises a line style, a character style, a filling style, a component ID and a component filter function; the view management module is used for various views and managing elevation, axis net, component display and hiding and transparency; the component creating and editing module is used for providing component models of various power grid projects and importing functions of the component models; the universal editing module is used for providing a universal editing function; the annotation function module is used for providing annotations; a drawing printing module; and the basic interface module is used for providing an interface for accessing third-party data. Compared with the prior art, scattered design tools are integrated into the coherent workflow, the power grid engineering design efficiency is improved, and the power grid engineering requirements are deeply met.

The invention discloses an IMA system fault diagnosis modeling tool based on a logic algebraic model, which comprises an ICD information management module and a fault diagnosis logic definition module, and is characterized in that the ICD information management module is used for realizing reading, analysis and data storage of an ICD file set and obtaining messages and parameters defined in ICD files; and the fault diagnosis logic definition module is used for defining various fault diagnosis logic algebraic models by defining variable names and logic operators according to the messages and parameters analyzed by the ICD information management module. According to the method, a visual and efficient logic modeling tool can be provided for IMA fault diagnosis function design and developers, and a diagnosis logic model is modified and solidified aiming at an object system, so that a high-adaptability agile design and development way is provided for the IMA system diagnosis function.

1. Title of the design: Transitional Graphical User Interface. 2. Use of the design: This design is used in electronic devices. 3. Main feature of the design: Graphical user interface. 4. Interface use of the design: Two-way setting function of a short-range wireless technology earphone with a screen by changing user actions. Design 1 is the base design. Design 1 is a display interface for a short-range wireless technology headset with a screen, and Design 1 is a dynamic action display page, a time display page, a barrage display page, and a settings page. Figures 1.2, 1.4, 1.6, and 1.8 are for reference only, showing the use of the design sought to be registered, and do not constitute part of the design sought to be registered. 5. View best showing the design: Figure 1.1. 1.1) Front view; 1.2) Reference view; 1.3) Front view; 1.4) Reference view; 1.5) Front view; 1.6) Reference view; 1.7) Front view; 1.8) Reference view

The invention discloses an on-orbit reinjection method, device and system for multiple satellite-borne equipment units, relates to the technical field of satellite single-machine software and hardware, and mainly aims to solve the problems of high equipment cost and long development period caused by complex design of an existing on-orbit reinjection function. The method mainly comprises the steps that in response to a software reinjection instruction, main control equipment receives software reinjection packages of multiple pieces of equipment to be reinjected transmitted by a ground control center, the main control equipment comprises at least three reinjection package caches, and the equipment to be reinjected comprises main control equipment and single-machine equipment; synchronously storing the software re-injection package into each re-injection package cache; comparing and verifying the cache data of the same software reinjection packet in different reinjection packet caches, and generating a to-be-issued reinjection packet according to the cache data packet passing the comparison and verification; and issuing the to-be-issued re-injection packet to a refreshing chip of the corresponding to-be-re-injected device, so as to perform on-orbit re-injection on a program cache of the to-be-re-injected device through the refreshing chip. The method is mainly used for on-orbit reinjection of a multi-satellite-borne equipment unit.

The application discloses a simulation method, device, equipment and storage medium of equipment. The GCAir platform first constructs an architecture inheritance model of a target equipment, constructs a performance inheritance model and a three-dimensional simulation model of the target equipment based on the architecture inheritance model, and triggers a SysML software to construct a function logic model. Then, the performance inheritance model is simulated by using preset performance parameters, and running parameters are collected. The running parameters are transmitted to the function logic model and the three-dimensional simulation model respectively, so that the function logic model is simulated in the SysML software based on the running parameters to obtain a simulation flow state, and the three-dimensional simulation model is simulated on the GCAir platform based on the running parameters to obtain a simulation running animation. The simulation based on the GCAir platform eliminates the fragmentation between parts in traditional simulation verification, realizes smooth transition from function architecture design to simulation verification, and ensures the consistency of function design and simulation verification in the early design stage.

The application provides an anti-UAV display control training method and system, which can directly use the software interface of the actual system to directly cover, without copying the software interface and process, with low cost and short development cycle; since the actual system software is adopted, the software interface and operation process are 100% consistent with the actual system, a small design problem does not affect the core function, the design fault tolerance is high, and the operation experience is realistic; if patch repair type software upgrading of the actual system is encountered, the application can automatically adapt to realize the capture operation, and solves the problem of the current anti-UAV display control training system, which realizes the construction means of the UAV display control training system through one-to-one copying, and the practicality is poor.

The application discloses a design method of a safety protection system for a gravity energy storage system, which comprises the following steps: firstly, determining system functions; then, determining system architecture and configuring system hardware; and then, sequentially designing fault analysis diagnosis functions, safety level judgment functions, protection object judgment functions and shutdown logic functions. The application provides a design method of a safety protection system for a gravity energy storage system, which can guarantee the safety of the operation of the gravity energy storage system through four function module units of fault analysis diagnosis functions, safety level judgment functions, protection object judgment functions and shutdown logic functions, prevent safety accidents from occurring from the software level, and guarantee that the gravity energy storage system can operate safely and effectively.

1. The name of the present design product: the works generation function display interface of electronic equipment. 2. The use of the present design product: for an electronic device. 3. The design points of the present design product: in 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 interface of the present design product is the works generation function display interface of the application software. In the design 1 front view, the user can slide the card up and down to select different works generation functions. The interaction mode of designs 2 and 3 is the same as that of design 1. The gray blocks in the interface are replaceable pictures or videos, and "XX" in the interface of the present design represents text and / or numbers and / or letters and / or symbols.

1. Name of the product in this design: Graphical User Interface for Controlling Range Hoods in Electronic Devices. 2. Purpose of this design: An electronic device. 3. The key design features of this product are the content of the graphical user interface on the screen. 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: Design 1 in the power-on state is the main view interface of Design 1; Design 1 in the power-off state is the interface change state diagram 1 of Design 1; clicking the "power button" to enter the standby state is the interface change state diagram 2 of Design 1. Design 2's power-on state is the main view interface of Design 2; Design 2's power-off state is the interface change state diagram 1 of Design 2; clicking the "Power button" to enter the standby state is the interface change state diagram 2 of Design 2; clicking the "Light button" to enter the lighting mode is the interface change state diagram 3 of Design 2. The power-on state of Design 3 is the main view interface of Design 3. The power-off state of Design 3 is the interface change state diagram 1 of Design 3. Clicking the "Power button" to enter the standby state is the interface change state diagram 2 of Design 3. Clicking the "Auto button" to enter the automatic cruise mode is the interface change state diagram 3 of Design 3. The power-on state of Design 4 is the main view interface of Design 4. The power-off state of Design 4 is shown in Figure 1 of the interface change diagram. Clicking the "Power Button" enters the standby state, as shown in Figure 2 of the interface change diagram of Design 4. Clicking the "Smart Odor Removal Button" enters the device preheating state, as shown in Figure 3 of the interface change diagram of Design 4. After preheating, if the air quality is detected as excellent / good, the fan will not run, as shown in Figure 4 of the interface change diagram of Design 4. If the air quality is detected as poor, the fan will run at a low speed, as shown in Figure 5 of the interface change diagram of Design 4. If the air quality is detected as very poor, the fan will run at a high speed, as shown in Figure 6 of the interface change diagram of Design 4. Design 5 is mainly used for the range hood's power on / off function. Design 5's power-on state is shown in its main view interface; its power-off state is shown in Figure 1; clicking the "Power button" enters standby mode, as shown in Figure 2. Design 6 is mainly used for the range hood's lighting function. Design 6's power-on state is shown in its main view interface; its power-off state is shown in Figure 1; clicking the "Power button" enters standby mode, as shown in Figure 2; clicking the "Light button" enters lighting mode, as shown in Figure 3. Design 7 is mainly used for the range hood's automatic function. Design 7's power-on state is shown in Figure 3. 7. Main view interface: Design 7 shows the power-off state (see Design 7 interface change state diagram 1). Clicking the "Power button" enters the standby state (see Design 7 interface change state diagram 2). Clicking the "Auto button" enters the automatic cruise mode (see Design 7 interface change state diagram 3). Design 8 is mainly used for the range hood's strong / weak function. Design 8 shows the power-on state (see Design 8 main view interface). Design 8 shows the power-off state (see Design 8 interface change state diagram 1). Clicking the "Power button" enters the standby state (see Design 8 interface change state diagram 2). Clicking the "Strong / Weak button" enters the strong mode (see Design 8 interface change state diagram 3). Clicking the "Strong / Weak button" again in the strong mode enters the weak mode. Design 8 Interface Change State Diagram 4; In low-power mode, clicking the "Power Button" puts the device into delayed shutdown state, as shown in Design 8 Interface Change State Diagram 5; The digital tube starts a 02:00 countdown, and when the countdown ends or the "Power Button" is clicked again, the device enters the shutdown state of Design 8, as shown in Design 8 Interface Change State Diagram 1; Design 9 is mainly used for the range hood's screen lock function. Design 9's power-on state is the main view interface of Design 9, and its shutdown state is shown in Design 9 Interface Change State Diagram 1. Clicking the "Power Button" enters the standby state, as shown in Design 9 Interface Change State Diagram 2, and clicking the "Lock Screen Button" enters the lock screen state, as shown in Design 9 Interface Change State Diagram 3; Design 10 is mainly... For the intelligent odor removal function for oil fume extraction, the interface is as follows: Design 10 in power-on state (main view); Design 10 in power-off state (interface change diagram 1); Clicking the "Power Button" enters standby state (interface change diagram 2); Clicking the "Intelligent Odor Removal Button" enters the device preheating state (interface change diagram 3); after preheating, if the air quality is detected as excellent / good, the fan will not run (interface change diagram 4); if the air quality is detected as poor, the fan will run at a low speed (interface change diagram 5); if the air quality is detected as extremely poor, the fan will run at a high speed (interface change diagram 6).

The invention provides an Android platform message passing method and system, a more convenient framework function is designed by designing a dynamicjni component, the designed dynamicjni component can provide various data types and increase protocol field information, when an error occurs, only the protocol field information needs to be modified, a code of a native layer so does not need to be modified, and the error can be avoided. And meanwhile, recompilation is not needed for modifying the fields, so that development and debugging can be greatly facilitated. Meanwhile, when the bug on the line is repaired, compared with a previous scheme in which hot repair cannot be carried out due to the fact that a native layer so needs to be modified when a field needs to be modified, the scheme in the invention can conveniently carry out hot repair on the line by only modifying a java layer.

The application discloses a substation operating box modular design system and an operating box, and belongs to the field of substation secondary equipment design. The system comprises: a substation unit for determining the number of operating boxes and the functional design requirements and constraint conditions of each operating box; a coding unit for performing bit type spectrum coding on each operating box according to the functional design requirements and constraint conditions; a module selection unit for selecting corresponding operating box models according to the bit type spectrum coding and selecting corresponding functional modules from a preset functional module library; and a module assembly unit for determining the installation positions of the functional modules in the operating boxes. The application can realize the standardized, modular and automated design of the substation operating box, effectively reduce the design and production costs, and facilitate the maintenance and management.

1. The name of the design product: business travel function guide graphical user interface of electronic equipment. 2. The use of the design product: an electronic device. 3. The design points of the design product: in the graphical user interface. 4. The picture or photo that best indicates the design points: design 1 interface change state diagram 1. 5. Design 1 is designated as the basic design. 6. The use of the graphical user interface: the graphical user interface corresponding to each design is used to guide the user to use the business travel function; design 1 is used for electronic equipment in portrait screen; design 2 is used for electronic equipment in landscape screen. 7. Human-computer interaction mode: design 1 in design 1 main view interface, slide up, the interface can change to the state shown in design 1 interface change state diagram 1, 2, 3, 4, 5, 6, 7. Design 2 in design 2 main view interface, slide up, the interface can change to the state shown in design 2 interface change state diagram 1, 2, 3, 4, 5, 6, 7, 8.

The invention provides an analog integrated circuit layout method, system and device, a medium and a product, and relates to the technical field of integrated circuits, and the method comprises the steps: obtaining a target netlist, target circuit module attribute information and a target constraint condition description text of a to-be-designed analog integrated circuit, the target constraint condition description text is constructed based on a function design constraint condition of each target circuit module in the analog integrated circuit to be designed; inputting the target netlist, the target circuit module attribute information and the target constraint condition description text into a layout reasoning language model to obtain a target analog circuit layout layout corresponding to the to-be-designed analog integrated circuit output by the layout reasoning language model, the layout reasoning language model is obtained by training a visual language model based on sample data constructed by a thinking chain mechanism. The layout efficiency of the analog integrated circuit is remarkably improved, and the design quality is guaranteed.

The invention relates to an application method of a modularized template in a multi-tenant personalized automation process. The application method comprises the following steps of abstracting a service function; designing corresponding abstract business components according to abstract business functions, wherein the abstract business components comprise a risk data acquisition abstract component, an assembly risk data sending decision abstract component, a strategy access abstract component and a limit evaluation result processing abstract component; assembling an abstract service component to complete a service function; abstracting a business component in details; and the personalized function is isolated. According to the method, the problem of high cost of a multi-tenant personalized automation process can be solved through a modularized template.

1. The name of the present design product: parallel layout graphical user interface for material selection and video editing of electronic device. 2. The use of the present design product: an electronic device. 3. The design points of the present design product: in 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: for parallel processing of material selection operation and video editing operation for panoramic video. 7. The human-computer interaction mode of the graphical user interface: design 1 front view is the interface of parallel layout of material selection and video editing. The upper half of design 1 front view displays the picture content of panoramic video material at the time axis through the preview box, and the multiple buttons at the bottom of the preview box are used for different material preview modes. The lower half of design 1 front view displays the panoramic video material through the video track, and the multiple buttons below the video track are used for different material selection methods. The "select segment" button at the bottom of design 1 front view is used for human-computer interaction and realizes the functions of material selection and adjustment of panoramic material display angle, and the "go to clip" button at the bottom of design 1 front view is used for human-computer interaction and realizes the function of editing the selected material. Design 2 front view is the interface of parallel layout of material selection and video editing. The upper half of design 2 front view displays the picture content of panoramic video material at the time axis through the preview box, and design 2 front view displays the highlight clip material in the panoramic video material according to the category below the preview box, and previews the highlight clip material under the selected category through the preview window. The lower half of design 2 front view displays the panoramic video material through the video track, and the multiple buttons below the video track are used for different material selection methods. The "select segment" button at the bottom of design 2 front view is used for human-computer interaction and realizes the functions of material selection and adjustment of panoramic material display angle, and the "go to clip" button at the bottom of design 2 front view is used for human-computer interaction and realizes the function of editing the selected material. 8. Other circumstances that need to be explained: "X" in the interface represents the text, number or symbol content area, and the gray area in the interface is the variable content of the picture.

1. The name of the design product: cooking control graphical user interface of electronic device and its main body and central control part. 2. The use of the design product: an electronic device, the graphical user interface of the electronic device is used for cooking control, the main body of the graphical user interface is used to display function keys and central control part, and the central control part of the graphical user interface is used to display light belt and cooking numerical parameters. 3. The design points of the design product: in the graphical user interface. 4. The picture or photo that best shows the design points: design 2 front view. 5. Design 2 is designated as the basic design. 6. The use of the graphical user interface: the graphical user interface is used for cooking control, the main body of the graphical user interface is used to display function keys and central control part, and the central control part of the graphical user interface is used to display light belt and cooking numerical parameters. 7. The human-computer interaction mode of the graphical user interface: in the front view of designs 1-6 and 8, clicking the keys on the left and right sides of the interface can realize the function of adjusting the cooking parameters; design 7: in the front view of design 7, pressing the physical keys on the electronic device outside the graphical user interface can automatically and sequentially change into design 7 interface change state figures 1, 2, 3 and 4. 8. Other circumstances that need to be explained: designs 6 and 8 are partial designs, design 6 requests to protect the central control part of the graphical user interface that is not covered by the green translucent block, and design 8 requests to protect the main body of the graphical user interface that is not covered by the green translucent block, and the designs 6 and 8 requested to be protected do not contain colors. Other designs request to protect the graphical user interface.

The invention discloses a digital pilot module and a control and diagnosis method, and belongs to the technical field of hydraulic and electronic control systems. The closed-loop control method can overcome the function design defects of an existing digital pilot module, and comprises the steps that after a main control board is powered on, a power supply voltage value, a CAN communication instruction signal, a redundant displacement signal of a redundant output LVDT displacement sensor and actual driving current of an electric proportional pilot valve are collected and obtained in real time; generating a power supply control signal based on a comparison result of the preset voltage threshold value and the real-time power supply voltage value; verifying the CAN communication instruction signal according to the security protocol stack, screening out a correct instruction signal, and executing the correct instruction signal; based on the redundant displacement signal, outputting a displacement value of the displacement sensor; and the driving current of the electric proportional pilot valve is calculated and output according to the backbone instruction signal and the displacement value. Potential fault points of all links can be reduced, the function design of the digital pilot module is optimized, and the reliability and safety of an electro-hydraulic system are improved.

The invention discloses a security test case recommendation method and device, a storage medium and electronic equipment, and the method comprises the steps: obtaining case keywords of security test cases in a security test case library; extracting function keywords from the function design document by adopting a large language model through multiple rounds of dialogues; wherein the multiple rounds of dialogues are expanded layer by layer based on a hierarchical dialogue path, a function logic dependency relationship exists between adjacent nodes in the hierarchical dialogue path, and path nodes in the hierarchical dialogue path are determined according to the case keyword; and recommending a target test case for the function design document from the security test case library based on the function keyword and the case keyword. By executing the technical scheme of the invention, the recommendation accuracy of the security test case can be improved, the security test cost is reduced, the security test efficiency is improved, and the coverage rate of security risks is increased.

The invention belongs to the technical field of robot distributed system development, and discloses a distributed plug-in system and method applied to robot control system development, and the system comprises a robot control system, a plug-in management unit and a plurality of plug-in programs with different functions. Wherein the robot control system is in communication connection with the plug-in management unit, the plug-in programs are mutually independent and are respectively in communication connection with the plug-in management unit, the plug-in programs are in non-binding connection with the plug-in management unit, and the plug-in programs can be increased or decreased according to requirements. Through the unique plug-in function design, the existing plug-in scheme is optimized, the system stability is improved, the expansibility and the safety are improved, and the development cost and the maintenance cost are reduced.

The invention discloses a digital twinning modeling method for a waste heat dust collection workshop in a copper smelting process, and relates to the technical field of computer science and non-ferrous metal smelting flue gas treatment, and the digital twinning modeling method specifically comprises the following steps: determining a physical space of a digital twinning model; establishing a digital model of the digital twin model; establishing a digital twin database; and establishing an application service function and establishing communication connection of the digital twin model. According to the method, by grading the equipment functions of the waste heat dust collection workshop and dividing the equipment space, the model precision and the resource efficiency can be balanced, the cost is reduced while the core function precision is ensured, and the establishment efficiency of the digital twin model can be improved by performing simplified modeling operation on the non-critical area of the equipment; a special digital twinning system adaptive to the complex working condition of the copper smelting waste heat dust collection workshop is constructed, and the industrial blank of a special model construction method and a functional design framework in the field is filled.

1. Name of the product in this design: Graphical user interface for controlling electronic devices and its main body. 2. Purpose of this design: An electronic device. 3. The key design features of this product are: the graphical user interface and the main part for which protection is sought, and the colors 1, 3, 5, 6, and 8 for which protection is sought. 4. The picture or photo that best illustrates the key design points: Design 1 front view. 5. The rear, left, right, top, and bottom views of Design 1 to Design 10 do not contain any design points, so the rear, left, right, top, and bottom views of Design 1 to Design 10 are omitted. 6. Design 1 is designated as the basic design. 7. Purpose of graphical user interface: Used to control the operation of home appliances (e.g., washing machines, dryers, range hoods, etc.) and display the operating status of the home appliances. The main part of the interface is used to display or adjust the operating parameters and functions of the home appliances and display the operating status of the home appliances. 8. Human-Computer Interaction Methods of Graphical User Interfaces: In the main view of Design 1, the outer ring displays the operating status of the home appliance. By touching the icon buttons in the inner ring, the corresponding operating parameters (e.g., temperature, speed, preset time, etc.) or functions of the home appliance can be displayed or set. The human-computer interaction method of Design 2 is the same as that of Design 1. In the main view of Design 3, the outer ring displays the operating status of the home appliance. By touching the icon buttons in the inner ring, the corresponding operating parameters or functions of the home appliance can be displayed or set. The human-computer interaction method of Design 4 is the same as that of Design 3. In Design 5, the home appliance enters a specific operating program (e.g., a range hood) by the user touching buttons or using voice control. After the first suction mode, the main view of Design 5 is displayed. After the appliance finishes its specific operation, the interface changes to the interface change state diagram of Design 5. In the main view of Design 6, the outer ring is used to display the operating status of the appliance. By touching the icon buttons in the inner ring, you can enter the display or setting of the corresponding appliance operating parameters (e.g., temperature, speed, preset time, etc.) or functions. The central part is used to display the corresponding appliance operating parameters or functions. The human-computer interaction method of Design 7 is the same as that of Design 6. In the main view of Design 8, the outer ring is used to display the operating status of the appliance. By touching the icon button in the upper right corner of the inner ring, you can control the appliance to enter mode one (e.g., the low fan speed of the range hood). The interface changes to Design 8, as shown in Figure 1. Touching the lower icon button on the inner ring of Design 8's interface changes in Figure 1 controls the appliance to enter Mode 2 (e.g., medium fan speed mode for a range hood). The interface changes to Design 8, as shown in Figure 2. Touching the upper left icon button in Design 8's interface changes in Figure 2 controls the appliance to enter Mode 3 (e.g., high fan speed mode for a range hood). The interface changes to Design 8, as shown in Figure 3. Design 9's human-computer interaction method is the same as Design 8. In the main view of Design 10, the outer ring displays the appliance's operating status. Touching the upper right icon button on the inner ring controls the appliance to enter Mode 1 (e.g., medium fan speed mode for a range hood). (Small fan speed mode), the interface changes to Design 10 interface change state diagram 1. By touching the lower icon button of the inner ring in Design 10 interface change state diagram 1, the appliance is controlled to enter mode two (e.g., medium fan speed mode of the range hood). The interface changes to Design 9 interface change state diagram 2. By touching the upper left icon button in Design 10 interface change state diagram 2, the appliance is controlled to enter mode three (e.g., high fan speed mode of the range hood). The interface changes to Design 10 interface change state diagram 3. By touching the central part of Design 10 interface change state diagram 3, the appliance is controlled to enter mode four (e.g., automatic fan speed mode of the range hood). The interface changes to Design 10 interface change state diagram 4. 9. Other situations requiring explanation: Other explanation: Designs 1-5 and 8-10 request protection for the parts not covered by the brown translucent layer.