10 results about "Functional design" patented technology

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.

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 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. 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.

This invention belongs to the technical field of highway tunnels and BIM models, specifically a data interaction method and system for highway tunnel BIM models based on IFC (Integrated Functional Design). The method includes: acquiring a source model; mapping source elements to a target IFC model through a semantic mapping table, where the semantic mapping table includes a component object description table and a semantic dictionary; generating the target model through reverse mapping; performing dynamic consistency verification, correcting or issuing alarms when thresholds are exceeded; dynamically extracting sub-model views according to business scenarios; and performing multi-dimensional quality checks and outputting reports. This invention solves the problems of semantic loss, low efficiency, poor data consistency, inability to extract sub-models on demand, and lack of automated quality inspection during BIM model cross-software conversion.

1. The name of the design product: the graphical user interface of the knowledge learning and training of electronic equipment. 2. The use of the design product: an electronic device. 3. The design points of the design product: 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 graphical user interface for learning and training related knowledge. 7. The human-computer interaction mode of the graphical user interface: design 1 front view is the main interface of the product, and the user can click the corresponding module to enter the corresponding function. Design 2 front view is the main interface of the product, and the user can click the corresponding module to enter the corresponding function. The "xx" in the interface of the design represents text and / or numbers and / or letters and / or symbols. 8. Other circumstances that need to be explained Other explanations: the design 2 design includes color.

1. The name of the design product: the edge of the electronic device and the grass cutting graphical user interface. 2. The use of the design product: for 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: the graphical user interface is used for trimming and mowing the grass. Design 1 front view to design 6 front view is the interface in the trimming mode, the left circular area of the interface is the joystick, the user presses and slides on the middle circle to adjust the direction of the mower; the right side of the interface is the wind wheel, the user slides from the lower left to the upper right along the track to open the rope of the mower, the user can realize the corresponding function of the product by operating the corresponding control. Design 7 front view and design 8 front view are the interfaces in the mowing mode, the left circular area of the interface is the joystick, the user presses and slides on the middle circle to adjust the direction of the mower; the right side of the interface is the wind wheel, the user can realize the corresponding function of the product by operating the corresponding control.

1. The name of the design product: the main body of the driver travel management graphical user interface of an electronic device. 2. The use of the design product: an electronic device. 3. The design points of the design product: the content of the solid line part in the graphical user interface, the part shown by the dashed line does not constitute part of the design claimed. 4. The picture or photo that best shows the design points: design 1 front view. 5. The electronic device is a conventional design, and other views are omitted. 6. Design 1 is designated as the basic design. 7. The use of the graphic user interface: for the driver's trip management, through human-computer interaction can realize the functions of listening to orders, playing orders, picking up and confirming, route navigation, the main view of design 1, 2 is the service page of the small break state, click "end break" to enter the corresponding design change state diagram 1, design 1, 2 change state diagram 1 is the service page of the order listening state, receive the order to enter the corresponding design change state diagram 2, design 1, 2 change state diagram 2 is the order playing page, the vehicle arrives at the site to enter the corresponding design change state diagram 3, design 1, 2 change state diagram 3 is the arrival station confirmation page, after the gesture sliding confirmation in the lower rectangular rounded frame, enter the corresponding design change state diagram 4, design 1, 2 change state diagram 4 is the pick-up confirmation page, after the gesture sliding confirmation in the lower rectangular rounded frame, drive to the next location to enter the corresponding design change state diagram 5, design 1, 2 change state diagram 5 is the arrival station drop-off confirmation page, after the gesture sliding confirmation in the lower rectangular rounded frame, drive to the next location to enter the corresponding design change state diagram 6, design 1, 2 change state diagram 6 is the arrival terminal confirmation page, after the gesture sliding confirmation in the lower rectangular rounded frame, drive to the next location to enter the corresponding design change state diagram 7, design 1, 2 change state diagram 7 is the arrival parking lot confirmation page, click "overview" to enter the corresponding design change state diagram 8 of the route overview, the main view of design 3 is the normal service page, click "click out of the car" to enter design 3 change state diagram 1, design 3 change state diagram 1 is the service page of the order listening state, receive the order to design 3 change state diagram 2, design 3 change state diagram 2 is the order playing page, the vehicle arrives at the site to enter design 3 change state diagram 3, design 3 change state diagram 3 is the arrival station confirmation page, after the gesture sliding confirmation in the rectangular rounded frame, enter design 3 change state diagram 4, design 3 change state diagram 4 is the pick-up confirmation page, after the gesture sliding confirmation in the rectangular rounded frame, drive to the next location to enter design 3 change state diagram 5, design 3 change state diagram 5 is the arrival station drop-off confirmation page, after the gesture sliding confirmation, drive to the next location to enter design 3 change state diagram 6, design 3 change state diagram 6 is the arrival terminal confirmation page, after the gesture sliding confirmation in the rectangular rounded frame, drive to the next location, enter design 3 change state diagram 7, design 3 change state diagram 7 is the arrival parking lot confirmation page, click "overview" to enter design 3 change state diagram 8.

This invention discloses a method for adjacency layout of multi-core chips, comprising the following steps: S1 Signal line grouping: analyzing the input and output port signal lines of each single core and grouping them according to functional design and topology; S2 Topology transformation: performing topology transformation on the internal and top-level connections of a single core and adding decoding logic; S3 Inserting buffers and low-power units: adding buffers and low-power units according to constraints including timing and low power consumption; S4 Physical implementation: implementing the adjacency layout and hierarchical physical implementation method. This invention achieves the effect of adjacency layout by transforming the topology of single cores and top-level signal lines, eliminating most inter-core connections, reducing congestion of inter-core connections and corresponding area, power consumption, and timing overhead. Since the transformed cores can be directly instantiated and reused multiple times, the physical implementation time is reduced; the more cores there are, the more physical implementation time is saved.

The application provides a layout wiring optimization method and device, computer equipment and a storage medium, and belongs to the technical field of electronic design automation. The method comprises the following steps: receiving an architecture update instruction, wherein the architecture update instruction carries at least an optimization index of a target circuit region; obtaining a preset architecture model, wherein the architecture model stores a plurality of basic algorithms, a plurality of scheduling logics and packaging logics; filtering at least one scheduling logic according to the optimization index and the packaging logic; iteratively optimizing the basic algorithm called by each scheduling logic based on the optimization index, and judging whether to continue iteration according to the change value of the optimization index or the algorithm result; when it is judged to stop iteration, the optimized scheduling logic and the basic algorithm are packaged, and the layout wiring corresponding to the target circuit region is generated and output. Through the processing scheme, the adaptability to different circuits is greatly improved, the maintenance cost is reduced, and the ability to improve the circuit function design in the later period is enhanced.