Comprehensive circuit control system of automobile driving simulator

Through the integrated line control system of the car driving simulator, the AI ​​big data model and simulation feedback system are used to solve the problem of unreal feedback in the existing technology, improve the sense of substitution and safety of the simulator, and achieve a more realistic driving experience and more efficient training effects.

CN119229709AActive Publication Date: 2024-12-31BEIJING HUANKE LIANDONG TEACHING EQUIPMENT CO LTD
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Patent Information

Application Number
CN202411309404.9
Authority / Receiving Office
CN · China
Patent Type
Applications(China)
Current Assignee / Owner
Filing Date
2024-09-19
Publication Date
2024-12-31
Estimated Expiration
2044-09-19

AI Technical Summary

Technical Problem

Existing car driving simulators cannot provide real enough feedback to completely replicate all sensory experiences in real driving, resulting in a full immersive experience limitation.

Method used

A comprehensive line control system for automobile driving simulator was designed, including material database, automobile simulated road generation system and automobile simulated vehicle feedback system. The AI ​​big data model is used to generate simulated driving environment and special feedback, and the car is vibrated, shaking and impacted. The simulation module improves the emulator's sense of substitution and performs safety inspection before starting.

Benefits of technology

It improves the realism and training effect of the simulator, ensures real feedback in different driving scenarios, and enhances the safety and practicality of the system.

✦ Generated by Eureka AI based on patent content.

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Abstract

The invention relates to the technical field of automobile driving simulators, and provides an automobile driving simulator comprehensive line control system which comprises a material database, an automobile simulation road generation system, an automobile simulation seat driving feedback system and a safety detection system. Road generation materials are provided for the automobile simulation road generation system, the characteristics of the road generated by the automobile simulation road generation system are fed back to the automobile simulation seat feedback system loaded on the automobile simulation seat device, and a more real simulation driving effect is provided for the automobile simulation seat. Through the simulation road model generation module and the simulation road route generation module, an AI big data model is used for cooperative work, and a simulation driving environment and special feedback in the driving process are automatically generated. According to the method, the efficiency is improved, and a richer and more coherent virtual road environment can be created.
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Description

Technical Field

[0001] The invention relates to the technical field of automobile driving simulators, in particular to an integrated circuit control system for an automobile driving simulator. Background Art

[0002] As an advanced virtual reality system, the car simulator is designed to simulate the real driving experience and provide a safe and controllable training environment for drivers. This technology is widely used in many fields such as driver training, automobile research and development, entertainment experience, etc., and is gradually becoming an indispensable tool in the automotive industry and education. The car driving simulator integrated line control system is a high-tech system that integrates multiple key technical fields such as data acquisition, signal processing, human-computer interaction, vehicle dynamics simulation and real-time simulation. The system uses a single-chip microcomputer for signal acquisition and processing, and displays vehicle status information in real time through a human-computer interaction interface to simulate a real driving environment.

[0003] Existing car simulators cannot provide sufficiently realistic feedback due to hardware limitations, which is different from the real driving experience. They are still limited in terms of full immersive experience and cannot fully replicate all the sensory experiences in real driving. Therefore, a comprehensive line control system for car driving simulators is needed. Summary of the invention

[0004] In view of the deficiencies of the prior art, the present invention provides an integrated circuit control system for a car driving simulator, which solves the problems of being unable to provide sufficiently realistic feedback and being unable to completely replicate all sensory experiences in real driving.

[0005] To achieve the above objectives, the present invention is implemented through the following technical solutions: A comprehensive line control system for a car driving simulator includes a material database, a car simulation road generation system, a car simulation vehicle feedback system and a safety detection system. The material database is used to store the simulated road materials of the simulator to provide the car simulation road generation system with road generation materials. The characteristics of the road generated by the car simulation road generation system will be fed back to the car simulation vehicle feedback system loaded on the car simulation vehicle device to provide the car simulation vehicle with a more realistic simulated driving effect. The safety detection system performs a safety detection on the car simulation vehicle before the car simulator is started to ensure the safety of the car simulator.

[0006] Preferably, the automobile simulation road system includes a simulation road classification module, a simulation road model generation module, a simulation road route generation module and a simulation road real-time feedback module. The simulation road model generation module and the simulation road real-time feedback module are bound to the data in the material database to generate a simulated driving environment and special feedback during the driving process.

[0007] Preferably, the car simulation ride feedback system includes a car vibration simulation module, a car shaking simulation module, a car impact simulation module and a simulation threshold control module. The car vibration simulation module, the car shaking simulation module and the car impact simulation module receive road elements provided by the simulated road real-time feedback module to send different signals to make the car simulation ride produce corresponding actions to improve the simulator's sense of immersion, and use the threshold control module to balance the values ​​output by the car vibration simulation module, the car shaking simulation module and the car impact simulation module.

[0008] Preferably, the simulation threshold control module includes an abnormal data collection unit and a simulation state containment unit, and the abnormal data collection unit sets a threshold to collect simulation action data of the automobile simulation vehicle to cooperate with the simulation state containment unit to control the automobile simulation vehicle.

[0009] Preferably, the simulated road model generation module includes a scene model generation unit and a simulation scene map repair unit, and both the scene model generation unit and the simulation scene map repair unit work in cooperation with the AI ​​big data model.

[0010] Preferably, the simulated road route generation module includes a straight lane route generation unit, a curved road route generation unit, a road planning unit and a simulated vehicle planning unit. The straight lane route generation unit and the curved road route generation unit generate routes, the road planning unit is used to combine them to generate a simulated route, and the simulated road vehicles are arranged using the simulated vehicle planning unit.

[0011] A vehicle driving simulator integrated circuit control method comprises the following steps: Step 1: Select the road type through the simulated road classification module, generate the car simulator route through the simulated road route generation module, and generate a complete simulation route through the materials in the material database through the simulated road model generation module and the simulated road real-time feedback module; Step 2: Use the safety detection system to detect whether the car simulation ride feedback system can operate normally, so as to ensure that the car simulator can operate safely during operation; Step 3: Start the car simulator and perform driving simulation. The simulated car will be affected by the simulated road real-time feedback component during driving, and the real-time feedback will be given to the simulated car seat, so that the simulated car seat will make corresponding action feedback; Step 4: When the simulated car hits the edge of the simulated road or the virtual car in the simulated road, stop the simulation immediately.

[0012] Preferably, the specific steps of generating the simulation route in step 1 are: S1. Select one of the model materials classified in the material library, and use the scene generation unit in conjunction with the AI ​​large model to arrange the landmark buildings; S2. Select one of the classified texture materials in the material library, use the simulation scene texture repair unit and the AI ​​large model to splice them, and process the splicing edges to make the texture of the virtual road more coherent; S3. Special feedback points are set in specific areas on the simulated road model, and when the simulated car passes through the feedback points, the action of the simulated car is triggered.

[0013] Preferably, in the step three, when the simulated car vehicle makes corresponding action feedback, the car vibration simulation module, the car shaking simulation module and the car impact simulation module are all sent to the simulated car vehicle via electrical signals when triggered, and the action data generated by the simulated car vehicle is supervised by the simulation threshold control module.

[0014] Preferably, the specific steps of supervising the simulation threshold control module are: S1. Set the abnormal data value to N, and collect the data of the action generated by the simulated car seat 5 times / s through the abnormal data collection unit; The data of S2 and S3 are compared with N in real time. The data greater than N is recorded as S1, S2, ... n At this time, the simulation state containment unit is used to contain the vehicle vibration simulation module, the vehicle shaking simulation module and the vehicle impact simulation module, thereby reducing the data output of the three modules to the vehicle simulation vehicle; S3, select S1, S2, ... S within 5s n The maximum cardinality S in max , through [(S1, S2...S n ) / n-(S max -N)]² gives the reduction U; S4. Subtract U from the values ​​output by the vehicle vibration simulation module, the vehicle shaking simulation module and the vehicle impact simulation module every 1 second until the output value is no longer greater than N, so that the simulated vehicle ride tends to be stable.

[0015] The present invention provides a comprehensive line control system for a vehicle driving simulator. It has the following beneficial effects: 1. The present invention uses a simulated road model generation module and a simulated road route generation module, and uses the AI ​​big data model to work together to automatically generate a simulated driving environment and special feedback during driving. This method not only improves efficiency, but also creates a richer and more coherent virtual road environment, while ensuring real feedback in different driving scenarios, and improving the training effect and practicality of the simulator.

[0016] 2. The present invention receives the road elements provided by the simulated road real-time feedback module through the car simulation ride feedback system, and sends different signals to make the car simulation ride produce corresponding actions. This design greatly improves the sense of substitution and reality of the simulator, and provides users with a more realistic simulated driving effect.

[0017] 3. Before the car simulator is started, the safety detection system of the present invention will perform a safety check on the simulated car vehicle to ensure the safety of the car simulator. In addition, the abnormal data acquisition unit and the simulation state containment unit in the simulation threshold control module collect and analyze the simulated action data of the simulated car vehicle to monitor and adjust the abnormal situation in real time, thereby further enhancing the safety of the system. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 A diagram of the integrated circuit control system of the automobile driving simulator of the present invention; Figure 2 A simulated road system diagram for an automobile of the present invention; Figure 3 A diagram of a vehicle simulation ride feedback system of the present invention; Figure 4 It is a simulation threshold control module diagram of the present invention; Figure 5 Generate a module diagram for the simulated road model of the present invention; Figure 6 A module diagram for generating a simulated road route of the present invention. DETAILED DESCRIPTION

[0019] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0020] Example: As one aspect of this application, please see the attached Figure 1 - Attachment Figure 6An embodiment of the present invention provides an integrated line control system for a car driving simulator, including a material database, a car simulation road generation system, a car simulation vehicle feedback system and a safety detection system. The material database is used to store the simulated road materials of the simulator to provide the car simulation road generation system with road generation materials. The characteristics of the road generated by the car simulation road generation system will be fed back to the car simulation vehicle feedback system loaded on the car simulation vehicle device to provide the car simulation vehicle with a more realistic simulated driving effect. The safety detection system performs a safety detection on the car simulation vehicle before the car simulator is started to ensure the safety of the car simulator.

[0021] The automobile simulation road system includes a simulation road classification module, a simulation road model generation module, a simulation road route generation module and a simulation road real-time feedback module. The simulation road model generation module and the simulation road real-time feedback module are bound to the data in the material database to generate a simulated driving environment and special feedback during the driving process.

[0022] The vehicle simulation ride feedback system includes a vehicle vibration simulation module, a vehicle shaking simulation module, a vehicle impact simulation module and a simulation threshold control module. The vehicle vibration simulation module, the vehicle shaking simulation module and the vehicle impact simulation module receive road elements provided by the simulated road real-time feedback module to send different signals to make the vehicle simulation ride produce corresponding actions to improve the simulator's sense of immersion, and use the threshold control module to balance the values ​​output by the vehicle vibration simulation module, the vehicle shaking simulation module and the vehicle impact simulation module.

[0023] The simulation threshold control module includes an abnormal data collection unit and a simulation state containment unit. The abnormal data collection unit sets a threshold to collect the simulation action data of the automobile simulation vehicle to cooperate with the simulation state containment unit to control the automobile simulation vehicle.

[0024] The simulated road model generation module includes a scene model generation unit and a simulation scene map repair unit. Both the scene model generation unit and the simulation scene map repair unit work in conjunction with the AI ​​big data model. The scene model generation unit uses the AI ​​big data model to intelligently analyze and process the model materials in the material library. Through deep learning algorithms, the unit can understand different geographical and environmental features, automatically arrange landmark buildings and road facilities, and quickly generate a highly realistic 3D scene model. At the same time, the simulation scene map repair unit focuses on improving the visual coherence and authenticity of the scene. It uses AI technology to intelligently splice and edge process scene maps, repair defects that may occur during the splicing process, ensure that the texture and color transition of the virtual road is natural, and enhance the visual experience.

[0025] The simulated road route generation module includes a straight lane route generation unit, a curved road route generation unit, a road planning unit and a simulated vehicle planning unit. The straight lane route generation unit and the curved road route generation unit generate routes, the road planning unit is used to combine them to generate a simulated route, and the simulated road vehicles are arranged using the simulated vehicle planning unit.

[0026] Based on the above-mentioned integrated circuit control system of a vehicle driving simulator, as another aspect of the present application, an integrated circuit control method of a vehicle driving simulator comprises the following steps: Step 1: Select the road type through the simulated road classification module, generate the car simulator route through the simulated road route generation module, and generate a complete simulation route through the simulated road model generation module and the simulated road real-time feedback module. The specific steps are as follows: S1. Select one of the model materials classified in the material library, and use the scene generation unit in conjunction with the AI ​​large model to arrange the landmark buildings; S2. Select one of the classified texture materials in the material library, use the simulation scene texture repair unit and the AI ​​large model to splice them, and process the splicing edges to make the texture of the virtual road more coherent; S3, setting a special feedback point in a specific area on the simulated road model, and triggering the action of the simulated car when the simulated car passes through the feedback point; Step 2: Use the safety detection system to detect whether the car simulation ride feedback system can operate normally, so as to ensure that the car simulator can operate safely during operation; Step 3: Start the car simulator and perform driving simulation. The simulated car will be affected by the simulated road real-time feedback component during driving, and the real-time feedback will be sent to the simulated car seat, so that the simulated car seat makes corresponding action feedback. When the simulated car seat makes corresponding action feedback, the car vibration simulation module, the car shaking simulation module and the car impact simulation module are triggered and sent to the simulated car seat through electrical signals. The action data generated by the simulated car seat is supervised by the simulation threshold control module. The specific steps of supervision by the simulation threshold control module are as follows: S1. Set the abnormal data value to N, and collect the data of the action generated by the simulated car seat 5 times / s through the abnormal data collection unit; The data of S2 and S3 are compared with N in real time. The data greater than N is recorded as S1, S2, ... n At this time, the simulation state containment unit is used to contain the vehicle vibration simulation module, the vehicle shaking simulation module and the vehicle impact simulation module, thereby reducing the data output of the three modules to the vehicle simulation vehicle; S3, select S1, S2, ... S within 5sn The maximum cardinality S in max , through [(S1, S2...S n ) / n-(S max -N)]² gives the reduction U; S4, subtracting U from the values ​​output by the vehicle vibration simulation module, the vehicle shaking simulation module and the vehicle impact simulation module every 1 second until the output value is no longer greater than N, so that the simulated vehicle ride tends to be stable; Step 4: When the simulated car hits the edge of the simulated road or the virtual car in the simulated road, stop the simulation immediately.

[0027] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. An integrated circuit control system for a vehicle driving simulator, characterized in that: It includes a material database, a car simulation road generation system, a car simulation vehicle feedback system and a safety detection system. The material database is used to store the simulated road materials of the simulator to provide the car simulation road generation system with road generation materials. The characteristics of the road generated by the car simulation road generation system will be fed back to the car simulation vehicle feedback system installed on the car simulation vehicle device to provide the car simulation vehicle with a more realistic simulated driving effect. The safety detection system performs a safety detection on the car simulation vehicle before the car simulator is started to ensure the safety of the car simulator.

2. The integrated circuit control system of a vehicle driving simulator according to claim 1, characterized in that: The automobile simulation road system includes a simulation road classification module, a simulation road model generation module, a simulation road route generation module and a simulation road real-time feedback module. The simulation road model generation module and the simulation road real-time feedback module are bound to the data in the material database to generate a simulated driving environment and special feedback during the driving process.

3. The integrated circuit control system of a vehicle driving simulator according to claim 1, characterized in that: The automobile simulation ride feedback system includes an automobile vibration simulation module, an automobile shaking simulation module, an automobile impact simulation module and a simulation threshold control module. The automobile vibration simulation module, the automobile shaking simulation module and the automobile impact simulation module receive road elements provided by the simulated road real-time feedback module to send different signals to make the automobile simulation ride produce corresponding actions to improve the simulator's sense of immersion, and use the threshold control module to balance the values ​​output by the automobile vibration simulation module, the automobile shaking simulation module and the automobile impact simulation module.

4. The integrated circuit control system of a vehicle driving simulator according to claim 3 is characterized in that: The simulation threshold control module includes an abnormal data collection unit and a simulation state containment unit. The abnormal data collection unit sets a threshold to collect simulation action data of the simulated vehicle to cooperate with the simulation state containment unit to control the simulated vehicle.

5. The integrated circuit control system of a vehicle driving simulator according to claim 1, characterized in that: The simulated road model generation module includes a scene model generation unit and a simulation scene map repair unit, and both the scene model generation unit and the simulation scene map repair unit work in cooperation with the AI ​​big data model.

6. The integrated circuit control system of a vehicle driving simulator according to claim 1, characterized in that: The simulated road route generation module includes a straight lane route generation unit, a curved road route generation unit, a road planning unit and a simulated vehicle planning unit. The straight lane route generation unit and the curved road route generation unit generate routes, the road planning unit is used to combine to generate a simulated route, and the simulated road vehicles are arranged using the simulated vehicle planning unit.

7. A method for controlling an integrated circuit of a vehicle driving simulator, using an integrated circuit control system of a vehicle driving simulator as claimed in any one of claims 1 to 6, characterized in that: The following steps are involved: Step 1: Select the road type through the simulated road classification module, generate the car simulator route through the simulated road route generation module, and generate a complete simulation route through the materials in the material database through the simulated road model generation module and the simulated road real-time feedback module; Step 2: Use the safety detection system to detect whether the car simulation ride feedback system can operate normally, so as to ensure that the car simulator can operate safely during operation; Step 3: Start the car simulator and perform driving simulation. The simulated car will be affected by the simulated road real-time feedback component during driving, and the real-time feedback will be given to the simulated car seat, so that the simulated car seat will make corresponding action feedback; Step 4: When the simulated car hits the edge of the simulated road or the virtual car in the simulated road, stop the simulation immediately.

8. The integrated circuit control system of a vehicle driving simulator according to claim 7, characterized in that: The specific steps of generating the simulation route in step 1 are as follows: S1. Select one of the model materials classified in the material library, and use the scene generation unit in conjunction with the AI ​​large model to arrange the landmark buildings; S2. Select one of the classified texture materials in the material library, use the simulation scene texture repair unit and the AI ​​large model to splice them, and process the splicing edges to make the texture of the virtual road more coherent; S3. Special feedback points are set in specific areas on the simulated road model, and when the simulated car passes through the feedback points, the action of the simulated car is triggered.

9. The integrated circuit control system of a vehicle driving simulator according to claim 7, characterized in that: In the step three, when the simulated car vehicle makes corresponding action feedback, the car vibration simulation module, the car shaking simulation module and the car impact simulation module are all sent to the simulated car vehicle through electrical signals when triggered, and the action data generated by the simulated car vehicle is supervised by the simulation threshold control module.

10. The integrated circuit control system of a vehicle driving simulator according to claim 9, characterized in that: The specific steps of supervision of the simulation threshold control module are: S1. Set the abnormal data value to N, and collect the data of the action generated by the simulated car seat 5 times / s through the abnormal data collection unit; The data of S2 and S3 are compared with N in real time. The data greater than N is recorded as S1, S2, ... n At this time, the simulation state containment unit is used to contain the vehicle vibration simulation module, the vehicle shaking simulation module and the vehicle impact simulation module, thereby reducing the data output of the three modules to the vehicle simulation vehicle; S3, select S1, S2, ... S within 5s n The maximum cardinality S in max , through [(S1, S2...S n ) / n-(S max -N)]² gives the reduction U; S4. Subtract U from the values ​​output by the vehicle vibration simulation module, the vehicle shaking simulation module and the vehicle impact simulation module every 1 second until the output value is no longer greater than N, so that the simulated vehicle ride tends to be stable.

Citation Information

Patent Citations

  • Virtual reality technology-based automobile driving simulation training system

    CN104464438A

  • VR technology based automobile driving simulation device

    CN106448337A

  • Method for synchronizing virtual driving scene and body feeling seat motion

    CN107633728A

  • Intelligent automobile driving simulation device

    CN107862935A

  • Monitoring and testing system for driving behaviors endangering driving safety

    CN110969926A