Multi-working-mode double-screen notebook computer operation control method
The dual-screen laptop operation control method addresses operational limitations by incorporating switches, custom layouts, touch support, gesture recognition, and drag-and-drop functionality, enhancing usability and efficiency through contactless interaction and real-time data synchronization.
Patent Information
- Application Number
- CN202311380966.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2023-10-24
- Publication Date
- 2024-12-20
AI Technical Summary
Dual-screen laptops face operational challenges when users' hands are wet or cannot directly touch the screen, limiting convenience and efficiency.
A multi-working mode dual-screen laptop operation control method that includes switches for single, dual, and tablet modes, custom layouts, touch and handwriting support, gesture recognition, and a drag-and-drop interface, allowing contactless interaction through gesture recognition and third-party application integration.
Enhances usability and operational flexibility by enabling contactless operation and real-time data synchronization, improving task completion speed and efficiency.
Smart Images

Figure CN119165949A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the technical field of notebook computer systems, and in particular to an operation control method for a dual-screen notebook computer with multiple working modes. Background Art
[0002] As laptop computer hardware and software technologies become more mature, laptop computers are becoming more and more popular. In actual applications, when a program needs to open multiple windows, a single display screen sometimes cannot meet the requirements, and a second display screen is needed to obtain a larger display screen viewing area. When running multiple applications at the same time, they can be displayed on different displays respectively, thereby avoiding frequent task switching. With the development of technology, in order to facilitate users to use more conveniently, users can operate directly on the screen through touch and handwriting functions. However, in some special cases, such as when the user's hands are wet or cannot directly touch the screen, the device cannot be better operated. Summary of the invention
[0003] In view of the deficiencies in the prior art, the present invention provides an operation control method for a dual-screen laptop computer with multiple working modes, which solves the problem that the device cannot be better operated in certain special circumstances, such as when the user's hands are wet or the screen cannot be touched directly.
[0004] To achieve the above objectives, the present invention is implemented by the following technical solution: a multi-working mode dual-screen notebook computer operation control method, characterized in that it includes the following steps:
[0005] S1: By turning on switch 1, the single-screen mode of the notebook computer system can be turned on; by turning on switch 1 and switch 2 at the same time, the dual-screen mode of the notebook computer system can be turned on; by turning on switch 2 alone, the tablet mode of the notebook computer system can be turned on; thus, the user can perform multiple tasks on different screens at the same time without frequently switching applications or windows, thereby improving work efficiency and enabling the user to complete tasks more quickly;
[0006] S2: Through custom layout, the notebook computer can be provided with custom layout and configuration, allowing users to adjust the screen according to their needs and preferences, such as resolution, size, etc., so that users can flexibly configure dual-screen display according to specific tasks and working environments;
[0007] S3: When working, the laptop also has touch and handwriting support. Users can use fingers or pens to operate on the screen, such as sliding, zooming and handwriting input, so that users can interact with content more directly and naturally, and provide higher precision and flexibility in all application scenarios;
[0008] S4: According to the steps of S3, a gesture recognition system is developed, and the user enters the gesture without placing the hand on the screen. The user performs a specific gesture by entering the gesture above the screen. When the user performs a specific gesture within the sensing range of the device, the sensor on the device captures and recognizes the user's gesture, so that the device can interpret the intention of the gesture and respond accordingly. This contactless interaction method can increase the ease of use and operational flexibility of the device, especially in some cases, such as when the hands are wet or in an environment where the device cannot be touched, the device can be better operated;
[0009] S5: Through the dual-screen collaboration function, an intuitive drag-and-drop interface is designed, users can simply drag files, applications or information from one screen to another, or display them simultaneously between two screens, and can synchronize data to ensure real-time and consistency of data when dragging and dropping or switching screens;
[0010] S6: By opening interfaces on dual-screen laptops, third-party developers are allowed to develop applications or plug-ins for them, so that users can choose to install and use third-party applications that suit their needs, enhancing the functionality and flexibility of dual-screen laptops.
[0011] A multi-working mode dual-screen notebook computer operation and control system, the multi-working mode dual-screen notebook computer operation and control system comprises switch 1, switch 2, a controller, display screen 1 and display screen 2, the output ends of switch 1 and switch 2 are electrically connected to the input end of the controller, and the output end of the controller is electrically connected to display screen 1 and display screen 2; by turning on switch 1, the single-screen mode of the notebook computer system can be turned on; by turning on switch 1 and switch 2 at the same time, the dual-screen mode of the notebook computer system can be turned on; by turning on switch 2 alone, the tablet mode of the notebook computer system can be turned on; thereby, the user can perform multiple tasks on different screens at the same time without frequently switching applications or windows, thereby improving work efficiency and enabling the user to complete tasks more quickly.
[0012] Preferably, display screen one and display screen two both include a custom module, a touch screen system, a gesture control system, a dual-screen collaboration module and a third-party application integration module; through the setting of the custom module, the touch screen system, the gesture control system, the dual-screen collaboration module and the third-party application integration module, the data direction of the device can be better controlled.
[0013] Preferably, the custom module includes a layout adjustment module, the output end of the layout adjustment module is electrically connected to the resolution adjustment module, and the output end of the resolution adjustment module is electrically connected to the ratio adjustment module; through the custom layout, the laptop computer can be provided with a custom layout and configuration, allowing the user to adjust the screen according to their own needs and preferences, and can flexibly set the resolution and ratio according to specific tasks and working environments.
[0014] Preferably, the touch screen system includes a touch sensor, an output end of the touch sensor is electrically connected to a touch signal detection module, an output end of the touch signal detection module is electrically connected to a conversion processing module, an output end of the conversion processing module is electrically connected to a special gesture module, and an output end of the special gesture module is electrically connected to an operation control module; when working, the laptop computer also has the functions of touch and handwriting support, and the user can use fingers or pens to operate on the screen, such as sliding, zooming and handwriting input, so that the user can interact with the content more directly and naturally, and provide higher accuracy and flexibility in all application scenarios. The touch sensor and the touch signal detection module can continuously monitor and detect the touch signal. Once the user touches or slides the screen, the touch system will sense the position, size, pressure, sliding direction and speed of the touch point, and then convert the captured touch signal into a computer-recognizable instruction for operation through the touch conversion processing module. Through special gesture modules, such as two-finger zooming, gesture interaction, handwriting input, etc., a more intuitive and natural user experience can be provided.
[0015] Preferably, the gesture recognition system includes a gesture setting module, the output end of the gesture setting module is electrically connected to the gesture recording module, the output end of the gesture recording module is electrically connected to the gesture recognition module, the output end of the gesture recognition module is electrically connected to the gesture tracking module, the output end of the gesture tracking module is electrically connected to the infrared sensor module, and the output end of the infrared sensor module is electrically connected to the control module; by developing a gesture recognition system, the user records gestures, which can be predefined or customized, and the user does not need to place his hand on the screen. By recording and executing specific gestures above the screen, when the user performs a specific gesture within the sensing range of the device, the sensor on the device captures and recognizes the user's gesture, so that the device can parse the intention of the gesture and respond accordingly, such as waving an arm or palm to scroll the screen or browse content, clenching a fist or extending a finger to select or click an object, moving a finger up or down to adjust the volume, etc. This contactless interaction method can increase the ease of use and operational flexibility of the device, especially in some cases, such as when the hands are wet or in an environment where the device cannot be touched, the device can be better operated.
[0016] Preferably, the gesture input module may be a camera.
[0017] Working principle: By turning on switch one, the single-screen mode of the notebook computer system can be turned on; by turning on switch one and switch two at the same time, the dual-screen mode of the notebook computer system can be turned on; by turning on switch two alone, the tablet mode of the notebook computer system can be turned on; this allows users to perform multiple tasks on different screens at the same time without having to frequently switch applications or windows, thereby improving work efficiency and allowing users to complete tasks more quickly. Through custom layouts, the notebook computer can be provided with custom layouts and configurations, allowing users to adjust the screen according to their needs and preferences, such as resolution, size, etc., so that users can flexibly configure dual-screen displays according to specific tasks and work environments. While working, the notebook computer also has touch and handwriting support functions. Users can use their fingers or pens to operate on the screen, such as sliding, zooming and handwriting input, so that users can interact with content more directly and naturally, and provide higher accuracy and flexibility in all application scenarios. By developing a gesture recognition system The system allows users to enter gestures without placing their hands on the screen. By entering specific gestures above the screen, when the user performs specific gestures within the sensing range of the device, the sensors on the device capture and recognize the user's gestures, allowing the device to parse the intention of the gesture and respond accordingly. This contactless interaction method can increase the ease of use and operational flexibility of the device, especially in some cases, such as when the hands are wet or in an environment where the device cannot be touched, the device can be better operated. Through the dual-screen collaboration function, an intuitive drag-and-drop interface is designed. Users can simply drag files, applications or information from one screen to another, or display them simultaneously between two screens, and synchronize data to ensure real-time and consistency of data when dragging and dropping or switching screens. By opening interfaces on dual-screen laptops, third-party developers are allowed to develop applications or plug-ins for them, so that users can choose to install and use third-party applications that suit their needs, enhancing the functionality and flexibility of dual-screen laptops.
[0018] The present invention provides a multi-working mode dual-screen notebook computer operation control method, which has the following beneficial effects:
[0019] The present invention records user gestures through a gesture recognition system, and the user does not need to place his hand on the screen. The user can perform specific gestures by recording them above the screen. When the user performs the specific gesture within the sensing range of the device, the sensor on the device captures and recognizes the user's gesture, so that the device can analyze the intention of the gesture and respond accordingly. This contactless interaction method can increase the usability and operational flexibility of the device, and solves the problem of inconvenient operation of the device when the hands are wet or in an environment where the device cannot be touched. BRIEF DESCRIPTION OF THE DRAWINGS
[0020] Figure 1 It is a framework diagram of the present invention;
[0021] Figure 2 It is a frame diagram of the display screen of the present invention;
[0022] Figure 3 It is a diagram of the custom module system of the present invention;
[0023] Figure 4 is a system diagram of the touch screen system of the present invention;
[0024] Figure 5 4 is a system diagram of the gesture recognition system of the present invention. DETAILED DESCRIPTION
[0025] 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.
[0026] Example:
[0027] Please refer to the attached Figure 1 - Attachment Figure 5 , an embodiment of the present invention provides a multi-working mode dual-screen notebook computer operation control method, comprising the following steps:
[0028] S1: By turning on switch 1, the single-screen mode of the notebook computer system can be turned on; by turning on switch 1 and switch 2 at the same time, the dual-screen mode of the notebook computer system can be turned on; by turning on switch 2 alone, the tablet mode of the notebook computer system can be turned on; thus, the user can perform multiple tasks on different screens at the same time without frequently switching applications or windows, thereby improving work efficiency and enabling the user to complete tasks more quickly;
[0029] S2: Through custom layout, the notebook computer can be provided with custom layout and configuration, allowing users to adjust the screen according to their needs and preferences, such as resolution, size, etc., so that users can flexibly configure dual-screen display according to specific tasks and working environments;
[0030] S3: When working, the laptop also has touch and handwriting support. Users can use fingers or pens to operate on the screen, such as sliding, zooming and handwriting input, so that users can interact with content more directly and naturally, and provide higher precision and flexibility in all application scenarios;
[0031] S4: According to the steps of S3, a gesture recognition system is developed, and the user enters the gesture without placing the hand on the screen. The user performs a specific gesture by entering the gesture above the screen. When the user performs a specific gesture within the sensing range of the device, the sensor on the device captures and recognizes the user's gesture, so that the device can interpret the intention of the gesture and respond accordingly. This contactless interaction method can increase the ease of use and operational flexibility of the device, especially in some cases, such as when the hands are wet or in an environment where the device cannot be touched, the device can be better operated;
[0032] S5: Through the dual-screen collaboration function, an intuitive drag-and-drop interface is designed, users can simply drag files, applications or information from one screen to another, or display them simultaneously between two screens, and can synchronize data to ensure real-time and consistency of data when dragging and dropping or switching screens;
[0033] S6: By opening interfaces on dual-screen laptops, third-party developers are allowed to develop applications or plug-ins for them, so that users can choose to install and use third-party applications that suit their needs, enhancing the functionality and flexibility of dual-screen laptops.
[0034] The invention discloses a multi-working mode dual-screen notebook computer operation and control system, and the multi-working mode dual-screen notebook computer operation and control system comprises switch 1, switch 2, a controller, display screen 1 and display screen 2, wherein the output ends of switch 1 and switch 2 are electrically connected to the input end of the controller, and the output end of the controller is electrically connected to display screen 1 and display screen 2; by turning on switch 1, the single-screen mode of the notebook computer system can be turned on; by turning on switch 1 and switch 2 at the same time, the dual-screen mode of the notebook computer system can be turned on; by turning on switch 2 alone, the tablet mode of the notebook computer system can be turned on; thereby, the user can perform multiple tasks on different screens at the same time without frequently switching between applications or windows, thereby improving work efficiency and enabling the user to complete tasks more quickly.
[0035] Both display screen one and display screen two include a custom module, a touch screen system, a gesture control system, a dual-screen collaboration module and a third-party application integration module; through the setting of the custom module, the touch screen system, the gesture control system, the dual-screen collaboration module and the third-party application integration module, the data direction of the device can be better controlled.
[0036] The custom module includes a layout adjustment module, the output end of the layout adjustment module is electrically connected to the resolution adjustment module, and the output end of the resolution adjustment module is electrically connected to the ratio adjustment module; through the custom layout, the laptop computer can be provided with a custom layout and configuration, allowing the user to adjust the screen according to their own needs and preferences, and can flexibly set the resolution and ratio according to specific tasks and working environments.
[0037] The touch screen system includes a touch sensor, an output end of the touch sensor is electrically connected to a touch signal detection module, an output end of the touch signal detection module is electrically connected to a conversion processing module, an output end of the conversion processing module is electrically connected to a special gesture module, and an output end of the special gesture module is electrically connected to an operation control module; when working, the laptop computer also has the functions of touch and handwriting support, and the user can use fingers or pens to operate on the screen, such as sliding, zooming and handwriting input, so that the user can interact with the content more directly and naturally, and provide higher accuracy and flexibility in all application scenarios. The touch sensor and the touch signal detection module can continuously monitor and detect the touch signal. Once the user touches or slides the screen, the touch system will sense the position, size, pressure, sliding direction and speed of the touch point, and then convert the captured touch signal into a computer-recognizable instruction for operation through the touch conversion processing module. Through special gesture modules, such as two-finger zooming, gesture interaction, handwriting input, etc., a more intuitive and natural user experience can be provided.
[0038] The gesture recognition system includes a gesture setting module, an output end of the gesture setting module is electrically connected to a gesture recording module, an output end of the gesture recording module is electrically connected to a gesture recognition module, an output end of the gesture recognition module is electrically connected to a gesture tracking module, an output end of the gesture tracking module is electrically connected to an infrared sensor module, and an output end of the infrared sensor module is electrically connected to a control module; by developing a gesture recognition system, a user records gestures, which can be predefined or customized, and the user does not need to place his hand on the screen. By recording and executing specific gestures above the screen, when the user performs a specific gesture within the sensing range of the device, the sensor on the device captures and recognizes the user's gesture, so that the device can parse the intention of the gesture and respond accordingly, such as waving an arm or palm to scroll the screen or browse content, clenching a fist or extending a finger to select or click an object, moving a finger up or down to adjust the volume, etc. This contactless interaction method can increase the ease of use and operational flexibility of the device, especially in some cases, such as when the hands are wet or in an environment where the device cannot be touched, the device can be better operated.
[0039] The gesture recording module may be a camera.
[0040] 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. A multi-working mode dual-screen notebook computer operation control method, characterized in that: The following steps are involved: S1: By turning on switch 1, the single-screen mode of the notebook computer system can be turned on; by turning on switch 1 and switch 2 at the same time, the dual-screen mode of the notebook computer system can be turned on; by turning on switch 2 alone, the tablet mode of the notebook computer system can be turned on; thus, the user can perform multiple tasks on different screens at the same time without frequently switching applications or windows, thereby improving work efficiency and enabling the user to complete tasks more quickly; S2: Through custom layout, the notebook computer can be provided with custom layout and configuration, allowing users to adjust the screen according to their needs and preferences, such as resolution, size, etc., so that users can flexibly configure dual-screen display according to specific tasks and working environments; S3: When working, the laptop also has touch and handwriting support. Users can use fingers or pens to operate on the screen, such as sliding, zooming and handwriting input, so that users can interact with content more directly and naturally, and provide higher precision and flexibility in all application scenarios; S4: According to the steps of S3, a gesture recognition system is developed, and the user enters the gesture without placing the hand on the screen. The user performs a specific gesture by entering the gesture above the screen. When the user performs a specific gesture within the sensing range of the device, the sensor on the device captures and recognizes the user's gesture, so that the device can interpret the intention of the gesture and respond accordingly. This contactless interaction method can increase the ease of use and operational flexibility of the device, especially in some cases, such as when the hands are wet or in an environment where the device cannot be touched, the device can be better operated; S5: Through the dual-screen collaboration function, an intuitive drag-and-drop interface is designed, users can simply drag files, applications or information from one screen to another, or display them simultaneously between two screens, and can synchronize data to ensure real-time and consistency of data when dragging and dropping or switching screens; S6: By opening interfaces on dual-screen laptops, third-party developers are allowed to develop applications or plug-ins for them, so that users can choose to install and use third-party applications that suit their needs, enhancing the functionality and flexibility of dual-screen laptops.
2. Multi-working mode dual-screen notebook computer operation control system, characterized in that: The multi-working mode dual-screen laptop computer operation control system is used to execute the multi-working mode dual-screen laptop computer operation control method according to claim 1, and the multi-working mode dual-screen laptop computer operation control system includes switch one, switch two, a controller, display screen one and display screen two, the output ends of switch one and switch two are electrically connected to the input end of the controller, and the output end of the controller is electrically connected to display screen one and display screen two.
3. The multi-working mode dual-screen notebook computer operation control system according to claim 2 is characterized in that: The display screen one and the display screen two both include a custom module, a touch screen system, a gesture control system, a dual-screen collaboration module and a third-party application integration module.
4. The multi-working mode dual-screen notebook computer operation control system according to claim 3 is characterized in that: The custom module includes a layout adjustment module, an output end of the layout adjustment module is electrically connected to a resolution adjustment module, and an output end of the resolution adjustment module is electrically connected to a ratio adjustment module.
5. The multi-working mode dual-screen notebook computer operation control system according to claim 3, characterized in that: The touch screen system includes a touch sensor, an output end of the touch sensor is electrically connected to a touch signal detection module, an output end of the touch signal detection module is electrically connected to a conversion processing module, an output end of the conversion processing module is electrically connected to a special gesture module, and an output end of the special gesture module is electrically connected to an operation control module.
6. The multi-working mode dual-screen notebook computer operation control system according to claim 3, characterized in that: The gesture recognition system includes a gesture setting module, the output end of the gesture setting module is electrically connected to the gesture recording module, the output end of the gesture recording module is electrically connected to the gesture recognition module, the output end of the gesture recognition module is electrically connected to the gesture tracking module, the output end of the gesture tracking module is electrically connected to the infrared sensor module, and the output end of the infrared sensor module is electrically connected to the control module.
7. The multi-working mode dual-screen notebook computer operation control system according to claim 6, characterized in that: The gesture input module may be a camera.
