A UI Design Method for In-Vehicle Machine Systems

Abstract

The present invention discloses a UI design method for an in-vehicle system. The mobile phone data of the user is obtained through a data acquisition module. After the acquisition, the first data analysis module analyzes the data obtained by the data acquisition module to analyze the preferences of the user. The present invention belongs to the technical field of UI design. The purpose of the present invention is to solve the problem that in the prior art, when the UI design is for an in-vehicle system, since the human-computer interaction part is usually for healthy people, the experience for people with language barriers is poor. The achieved technical effect is that by setting a non-language barrier population design module and a language barrier population design module in the UI design, it is possible to achieve human-computer interaction that satisfies both non-language barrier populations and language barrier populations, thereby improving the experience of people with language barriers and increasing the applicable population.

Description

Technical Field

[0001] The present invention relates to the technical field of UI design, and particularly to a UI design method for an in-vehicle system. Background Art

[0002] An in-vehicle system is a combination of in-vehicle hardware and background management software. It is installed in a vehicle and collects vehicle information through signals such as CAN and vehicle data ports to achieve overall vehicle management and monitoring. The in-vehicle system not only has the traditional positioning function, but also new functions such as safety monitoring, safety analysis, real-time monitoring, data center, electronic fence, and emergency warning reminder for abnormal events. UI design refers to the overall design of the human-computer interaction, operation logic, and interface aesthetics of software.

[0003] Currently, when UI design is for an in-vehicle system, since the human-computer interaction part is usually for healthy people, the experience for people with language barriers is poor because the human-computer interaction part in the current UI design usually uses voice for interaction. Therefore, a UI design method for an in-vehicle system is invented. Summary of the Invention

[0004] In view of the above and / or problems existing in an existing UI design method for an in-vehicle system, the present invention is proposed.

[0005] Therefore, the purpose of the present invention is to provide a UI design method for an in-vehicle system, which can solve the above-mentioned existing problems.

[0006] To solve the above technical problems, according to one aspect of the present invention, the following technical solutions are provided:

[0007] A UI design method for an in-vehicle system, which specifically includes the following steps:

[0008] Step 1: Obtain the user's mobile phone data through a data acquisition module. After obtaining the data, the first data analysis module analyzes the data acquired by the data acquisition module to analyze the user's preferences. After analysis, the data selection module selects corresponding data in the database according to the data analyzed by the first data analysis module. After selection, the interface generation module generates a corresponding user interface in the in-vehicle system according to the data selected by the data selection module;

[0009] Step 2: Analyze whether the user is a person with language impairment through the second data analysis module. If the user is a person with language impairment, various gesture actions will be input through the gesture input module. After the input, the first instruction generation module will generate corresponding instructions according to the gesture actions input by the gesture input module. After generation, the first storage module will store the data generated by the first instruction generation module and the gesture input module. When in use, the action collection module will collect the actions of the user. After collection, the action recognition module will recognize the actions collected by the action collection module. After recognition, the action comparison module will compare the data recognized by the action recognition module with the data stored in the first storage module to determine whether the actions made by the user are the same as those stored in the first storage module. If they are the same, the control module will control the in-vehicle system and the user interface according to the corresponding instructions;

[0010] Step 3: Analyze whether the user is a non-language-impaired person through the third data analysis module. If the user is a non-language-impaired person, various texts will be input through the text input module. After the input, the second instruction generation module will generate corresponding instructions according to the texts input by the text input module. After generation, the second storage module will store the data generated by the second instruction generation module and the text input module. When in use, the voice collection module will collect the voice of the user. After collection, the text recognition module will perform text recognition on the voice collected by the voice collection module. After recognition, the text comparison module will compare the data recognized by the text recognition module with the data stored in the second storage module to determine whether the voice emitted by the user is the same as that stored in the second storage module. If they are the same, the control module will control the in-vehicle system and the user interface according to the corresponding instructions.

[0011] As a preferred solution of the UI design method for an in-vehicle system according to the present invention, further comprising: a UI design system for the in-vehicle system;

[0012] The UI design system for the in-vehicle system includes:

[0013] An interface design module, configured to automatically design a corresponding user interface according to the user's preferences;

[0014] A language-impaired person design module, configured to analyze whether the user is a person with language impairment. If the user is a person with language impairment, a corresponding human-computer interaction method will be designed, and the language-impaired person design module is connected to the interface design module;

[0015] A non-verbal impairment population design module is used to analyze whether the user is a non-verbal impairment population. If so, a corresponding human-computer interaction method will be designed. The non-verbal impairment population design module is connected to the interface design module;

[0016] A control module is used to control the in-vehicle system and the user interface according to the interaction data of the verbal impairment population design module or the non-verbal impairment population design module. The control module is connected to the verbal impairment population design module and the non-verbal impairment population design module.

[0017] As a preferred solution of a UI design method for an in-vehicle system according to the present invention, wherein: the interface design module includes:

[0018] A data acquisition module is used to acquire the user's mobile phone data;

[0019] A first data analysis module is used to analyze the data acquired by the data acquisition module to analyze the user's preferences. The first data analysis module is connected to the data acquisition module.

[0020] As a preferred solution of a UI design method for an in-vehicle system according to the present invention, wherein: the interface design module further includes:

[0021] A database is used to store various types of user interfaces;

[0022] A data selection module is used to select corresponding data in the database according to the data analyzed by the first data analysis module. The data selection module is connected to the database and the first data analysis module;

[0023] An interface generation module is used to generate a corresponding user interface in the in-vehicle system according to the data selected by the data selection module.

[0024] As a preferred solution of a UI design method for an in-vehicle system according to the present invention, wherein: the verbal impairment population design module includes:

[0025] A second data analysis module is used to analyze whether the user is a verbal impairment population;

[0026] A gesture input module is used to input various gesture actions. The gesture input module is connected to the second data analysis module;

[0027] A first instruction generation module is used to generate a corresponding instruction according to the gesture actions input by the gesture input module. The first instruction generation module is connected to the gesture input module.

[0028] As a preferred solution of a UI design method for an in-vehicle system according to the present invention, wherein: the language-impaired population design module further includes:

[0029] A first storage module for storing the data generated by the first instruction generation module and the gesture input module, and the first storage module is connected to the first instruction generation module;

[0030] A viewing module for enabling a user to view the data stored in the first storage module in a user interface, and the viewing module is connected to the first storage module.

[0031] As a preferred solution of a UI design method for an in-vehicle system according to the present invention, wherein: the language-impaired population design module further includes:

[0032] An action acquisition module for acquiring the actions of a user;

[0033] An action recognition module for recognizing the actions acquired by the action acquisition module, and the action recognition module is connected to the action acquisition module;

[0034] An action comparison module for comparing the data recognized by the action recognition module with the data stored in the first storage module to determine whether there is a match for the action made by the user, and the action comparison module is connected to the action recognition module and the first storage module.

[0035] As a preferred solution of a UI design method for an in-vehicle system according to the present invention, wherein: the non-language-impaired population design module includes:

[0036] A third data analysis module for analyzing whether a user is a non-language-impaired population;

[0037] A text input module for inputting various texts, and the text input module is connected to the third data analysis module;

[0038] A second instruction generation module for generating an instruction corresponding to the text input by the text input module, and the second instruction generation module is connected to the text input module.

[0039] As a preferred solution of a UI design method for an in-vehicle system according to the present invention, wherein: the non-language-impaired population design module further includes:

[0040] A second storage module for storing the data generated by the second instruction generation module and the text input module, and the second storage module is connected to the second instruction generation module;

[0041] A voice collection module for collecting the user's voice.

[0042] As a preferred solution of a UI design method for an in-vehicle system according to the present invention, wherein: the non-verbal disability population design module further includes:

[0043] A character recognition module for performing character recognition on the voice collected by the voice collection module, and the character recognition module is connected to the voice collection module;

[0044] A character comparison module for comparing the data recognized by the character recognition module with the data stored in the second storage module to determine whether the voice emitted by the user exists in the second storage module, and the character comparison module is connected to the character recognition module and the second storage module.

[0045] Compared with the prior art:

[0046] 1. By setting a non-verbal disability population design module and a verbal disability population design module in the UI design, it is possible to achieve human-computer interaction that satisfies both non-verbal disability populations and verbal disability populations, thereby improving the experience of verbal disability populations and expanding the applicable population.

[0047] 2. By setting an interface design module in the UI design, it is possible to automatically design a corresponding user interface according to the user's preferences, thus eliminating the need for manual setting of the user interface by personnel and improving convenience. BRIEF DESCRIPTION OF THE DRAWINGS

[0048] Figure 1 It is a schematic flowchart of the present invention. DETAILED DESCRIPTION OF THE INVENTION

[0049] To make the objectives, technical solutions, and advantages of the present invention clearer, the embodiments of the present invention will be further described in detail below with reference to the accompanying drawings.

[0050] The present invention provides a UI design method for an in-vehicle system. Please refer to Figure 1 ;

[0051] The specific steps are as follows:

[0052] Step 1: Obtain the user's mobile phone data through the data acquisition module. After obtaining the data, the first data analysis module analyzes the data obtained by the data acquisition module to analyze the user's preferences. After the analysis, the data selection module selects corresponding data in the database according to the data analyzed by the first data analysis module. After the selection, the interface generation module generates a corresponding user interface in the in-vehicle system according to the data selected by the data selection module;

[0053] Step 2: Analyze whether the user is a person with language impairment through the second data analysis module. If the user is a person with language impairment, various gesture actions will be input through the gesture input module. After the input, the first instruction generation module will generate corresponding instructions according to the gesture actions input by the gesture input module. After the generation, the first storage module will store the data generated by the first instruction generation module and the gesture input module. When in use, the action collection module will collect the actions of the user. After the collection, the action recognition module will recognize the actions collected by the action collection module. After the recognition, the action comparison module will compare the data recognized by the action recognition module with the data stored in the first storage module to determine whether the actions made by the user are the same as those stored in the first storage module. If they are the same, the control module will control the in-vehicle system and the user interface according to the corresponding instructions;

[0054] Step 3: Analyze whether the user is a non-language-impaired person through the third data analysis module. If the user is a non-language-impaired person, various texts will be input through the text input module. After the input, the second instruction generation module will generate corresponding instructions according to the texts input by the text input module. After the generation, the second storage module will store the data generated by the second instruction generation module and the text input module. When in use, the voice collection module will collect the voice of the user. After the collection, the text recognition module will perform text recognition on the voice collected by the voice collection module. After the recognition, the text comparison module will compare the data recognized by the text recognition module with the data stored in the second storage module to determine whether the voice issued by the user is the same as those stored in the second storage module. If they are the same, the control module will control the in-vehicle system and the user interface according to the corresponding instructions.

[0055] It also includes a UI design system for the in-vehicle system;

[0056] The UI design system for in-vehicle systems includes: an interface design module for automatically designing a corresponding user interface according to the user's preferences; a language barrier population design module for analyzing whether the user is a person with a language barrier. If so, it will design a corresponding human-computer interaction method, and the language barrier population design module is connected to the interface design module; a non-language barrier population design module for analyzing whether the user is a person without a language barrier. If so, it will design a corresponding human-computer interaction method, and the non-language barrier population design module is connected to the interface design module; a control module for controlling the in-vehicle system and the user interface according to the interaction data of the language barrier population design module or the non-language barrier population design module, and the control module is connected to the language barrier population design module and the non-language barrier population design module.

[0057] The interface design module includes: a data acquisition module for acquiring the user's mobile phone data; a first data analysis module for analyzing the data acquired by the data acquisition module to analyze the user's preferences, and the first data analysis module is connected to the data acquisition module; a database for storing various types of user interfaces; a data selection module for selecting corresponding data in the database according to the data analyzed by the first data analysis module, and the data selection module is connected to the database and the first data analysis module; an interface generation module for generating a corresponding user interface in the in-vehicle system according to the data selected by the data selection module.

[0058] The language barrier population design module includes: a second data analysis module for analyzing whether the user is a person with a language barrier; a gesture input module for inputting various gesture actions, and the gesture input module is connected to the second data analysis module; a first instruction generation module for generating corresponding instructions according to the gesture actions input by the gesture input module, and the first instruction generation module is connected to the gesture input module; a first storage module for storing the data generated by the first instruction generation module and the gesture input module, and the first storage module is connected to the first instruction generation module; a viewing module for enabling the user to view the data stored in the first storage module in the user interface, and the viewing module is connected to the first storage module; an action acquisition module for acquiring the user's actions; an action recognition module for recognizing the actions acquired by the action acquisition module, and the action recognition module is connected to the action acquisition module; an action comparison module for comparing the data recognized by the action recognition module with the data stored in the first storage module to determine whether the actions made by the user are the same as those stored in the first storage module, and the action comparison module is connected to the action recognition module and the first storage module.

[0059] The design module for non-language-disabled people includes: a third data analysis module for analyzing whether the user is a non-language-disabled person; a text input module for inputting various texts, and the text input module is connected to the third data analysis module; a second instruction generation module for generating corresponding instructions according to the texts input by the text input module, and the second instruction generation module is connected to the text input module; a second storage module for storing the data generated by the second instruction generation module and the text input module, and the second storage module is connected to the second instruction generation module; a voice collection module for collecting the voice of the user; a text recognition module for recognizing the text of the voice collected by the voice collection module, and the text recognition module is connected to the voice collection module; a text comparison module for comparing the data recognized by the text recognition module with the data stored in the second storage module to determine whether the voice emitted by the user exists identically in the second storage module, and the text comparison module is connected to the text recognition module and the second storage module.

[0060] Although the present invention has been described above with reference to the embodiments, various improvements can be made thereto and components therein can be replaced with equivalents without departing from the scope of the present invention. In particular, as long as there is no structural conflict, the features in the embodiments disclosed in the present invention can be combined with each other in any way, and the exhaustive description of these combinations is not given in this specification only for the consideration of saving space and resources. Therefore, the present invention is not limited to the specific embodiments disclosed in the text, but includes all technical solutions falling within the scope of the claims.

Claims

1. A UI design method for a vehicle-mounted system, characterized in that: The specific steps are as follows: Step 1: The data acquisition module acquires the user's mobile phone data. After acquisition, the first data analysis module analyzes the data acquired by the data acquisition module to analyze the user's preferences. After analysis, the data selection module selects corresponding data from the database according to the data analyzed by the first data analysis module. After selection, the interface generation module generates a corresponding user interface in the vehicle-mounted system according to the data selected by the data selection module. Step 2: Analyze whether the user is a person with a language barrier through the second data analysis module. If the user is a person with a language barrier, various gestures will be recorded through the gesture recording module. After recording, the first instruction generation module will generate corresponding instructions according to the gestures recorded by the gesture recording module. After generation, the data generated by the first instruction generation module and the gesture recording module will be stored through the first storage module. When in use, the user's actions will be collected through the action collection module. After collection, the actions collected by the action collection module will be recognized through the action recognition module. After recognition, the data recognized by the action recognition module will be compared with the data stored in the first storage module through the action comparison module to determine whether the actions made by the user are the same in the first storage module. If they are the same, the control module will control the vehicle-mounted system and the user interface according to the corresponding instructions; Step three: Analyze whether the user is a non-language barrier group through the third data analysis module. If the user is a non-language barrier group, various characters will be entered through the text input module. After the characters are entered, the second instruction generation module will generate corresponding instructions according to the characters entered by the text input module. After the characters are generated, the data generated by the second instruction generation module and the text input module will be stored through the second storage module. When in use, the user's voice will be collected through the sound collection module. After the collection, the voice collected by the sound collection module will be recognized by the text recognition module. After the recognition, the data recognized by the text recognition module will be compared with the data stored in the second storage module through the text comparison module to determine whether the voice emitted by the user is the same in the second storage module. If the voice is the same, the control module will control the vehicle-mounted system and the user interface according to the corresponding instructions. It also includes a UI design system for vehicle-mounted systems; The UI design system for the vehicle-mounted machine system includes: An interface design module is used to automatically design a corresponding user interface according to user preferences; The language barrier design module is used to analyze whether the user is a language barrier person. If the user is a language barrier person, a corresponding human-computer interaction method will be designed. The language barrier design module is connected to the interface design module. The non-language barrier population design module is used to analyze whether the user is a non-language barrier population. If the user is a non-language barrier population, a corresponding human-computer interaction method will be designed. The non-language barrier population design module is connected to the interface design module; The control module is used to control the vehicle-mounted system and the user interface according to the interactive data of the design module for the language-impaired population or the design module for the non-language-impaired population, and the control module is connected to the design module for the language-impaired population and the design module for the non-language-impaired population.

2. The UI design method for a vehicle-mounted system according to claim 1, characterized in that: The interface design module includes: A data acquisition module is used to acquire the user's mobile phone data; The first data analysis module is used to analyze the data acquired by the data acquisition module to analyze the user's preferences. The first data analysis module is connected to the data acquisition module.

3. The UI design method for a vehicle-mounted system according to claim 2, characterized in that: The interface design module also includes: Database, used to store various types of user interfaces; A data selection module, used to select corresponding data in the database according to the data analyzed by the first data analysis module, wherein the data selection module is connected to the database and the first data analysis module; The interface generation module is used to generate a corresponding user interface in the vehicle-mounted system according to the data selected by the data selection module.

4. The UI design method for a vehicle-mounted system according to claim 1, characterized in that: The module designed for people with language barriers includes: The second data analysis module is used to analyze whether the user has a language barrier; A gesture recording module, used for recording various gesture actions, wherein the gesture recording module is connected to the second data analysis module; The first instruction generation module is used to generate instructions corresponding to the gesture actions recorded by the gesture recording module, and the first instruction generation module is connected to the gesture recording module.

5. The UI design method for a vehicle-mounted system according to claim 4, characterized in that: The module designed for people with language barriers also includes: A first storage module, used for storing data generated by the first instruction generation module and the gesture entry module, wherein the first storage module is connected to the first instruction generation module; The viewing module is used to enable the user to view the data stored in the first storage module in the user interface, and the viewing module is connected to the first storage module.

6. The UI design method for a vehicle-mounted system according to claim 5, characterized in that: The module designed for people with language barriers also includes: An action collection module is used to collect the user's actions; An action recognition module is used to recognize the action collected by the action collection module, and the action recognition module is connected to the action collection module; The action comparison module is used to compare the data recognized by the action recognition module with the data stored in the first storage module to determine whether the action performed by the user is the same as that in the first storage module. The action comparison module is connected to the action recognition module and the first storage module.

7. The UI design method for a vehicle-mounted system according to claim 2, characterized in that: The module designed for non-language barrier populations includes: The third data analysis module is used to analyze whether the user is a non-language barrier person; A text input module, used for inputting various texts, wherein the text input module is connected to the third data analysis module; The second instruction generation module is used to generate corresponding instructions according to the text input by the text input module, and the second instruction generation module is connected to the text input module.

8. The UI design method for a vehicle-mounted system according to claim 7, characterized in that: The module designed for non-language barrier populations also includes: A second storage module, used for storing the data generated by the second instruction generation module and the text entry module, wherein the second storage module is connected to the second instruction generation module; The sound collection module is used to collect the user's voice.

9. The UI design method for a vehicle-mounted system according to claim 8, characterized in that: The module designed for non-language barrier populations also includes: A text recognition module is used to perform text recognition on the sound collected by the sound collection module, and the text recognition module is connected to the sound collection module; The text comparison module is used to compare the data recognized by the text recognition module with the data stored in the second storage module to determine whether the sound emitted by the user is the same as that in the second storage module. The text comparison module is connected to the text recognition module and the second storage module.

Images