CN114995725A - Vehicle interaction method, vehicle and storage medium - Google Patents

Abstract

The present application discloses a vehicle interaction method. The interaction method includes: during the running of the vehicle, in response to a first predetermined operation of an operation object in a first screen in the vehicle by a first user, sending the operation object to a second screen in the vehicle; The second predetermined operation of the operation object in the screen sends the operation object to the first screen. During the running of the vehicle, after the first user performs a first predetermined operation on the operation object on the first screen in the vehicle, the operation object may be sent to the second screen in the vehicle. Similarly, the second user performs a second predetermined operation on the operation object sent to the second screen, and sends the operation object back to the first screen to realize the flow of the operation object between different screens. Different screens have equal rights for interactive operations and information flow. The present application also provides a vehicle and a non-volatile computer-readable storage medium.

Description

Vehicle interaction method, vehicle and storage medium

technical field

The present application relates to the technical field of vehicles, and more particularly, to a vehicle interaction method, a vehicle and a non-volatile computer-readable storage medium.

Background technique

With the development and popularization of new energy vehicles, users' behavior in the car has gradually expanded from simple driving to entertainment, travel navigation, games, family parent-child and other scenarios. With the development of in-vehicle electronic information technology, the content of in-vehicle display devices such as the central control screen has gradually expanded from single driving and vehicle information to entertainment content, and the number of display devices in the cockpit has also begun to shift from a single central control screen to the middle. The dual-screen form of the control screen and the co-pilot display screen, and even the multi-screen form of the rear cockpit display screen of the central control screen and the co-pilot display screen, are expanded to meet the increasingly diversified travel and entertainment needs. As a result, the interaction between screens and the circulation of information brought about by the increase in the number of screens have gradually become necessary functions. In the related art, a user can usually only perform directional content flow between designated screens for a part of the designated content, which has certain limitations in use and poor user experience.

SUMMARY OF THE INVENTION

The present application provides an interaction method for a vehicle, a vehicle, and a non-volatile computer-readable storage medium.

The present application provides an interaction method for a vehicle, the method comprising:

During the running of the vehicle, in response to the first predetermined operation of the operation object in the first screen in the vehicle by the first user, the operation object is sent to the second screen in the vehicle; and

In response to a second predetermined operation of the operation object in the second screen by the second user, the operation object is sent to the first screen.

In this way, when the vehicle is running, after the first user performs a first predetermined operation on the operation object on the first screen in the vehicle, the operation object can be sent to the second screen in the vehicle. Similarly, the second user performs a second predetermined operation on the operation object sent to the second screen, and sends the operation object back to the first screen to realize the flow of the operation object between different screens. Different screens have equal rights for interactive operations and information flow.

The operation object includes an application window displayed by the in-vehicle system, and the operation object is sent to the vehicle in response to a first predetermined operation of the operation object on the first screen in the vehicle by the first user during the driving process of the vehicle Inside the second screen, including:

in response to the first predetermined operation of the application window in the first screen by the first user, sending the application window to the second screen;

The sending the operation object to the first screen in response to the second predetermined operation by the second user on the operation object in the second screen includes:

In response to a second predetermined operation of the application window in the second screen by the second user, the application window is sent to the first screen.

In this way, after the first user performs the first predetermined operation on the application window in the first screen, the application window can be sent to the second screen. Similarly, the second user performs a second predetermined operation on the application window sent to the second screen, and sends the application window back to the first screen to realize the flow of the application window between different screens. Different screens have equal rights for interactive operations and information flow.

The operation object includes an application window displayed by the in-vehicle system, and the method further includes:

In response to a third predetermined operation in the second screen by a second user on an application window running in the first screen, the application window is sent to the second screen.

In this way, the second user performs a third predetermined operation on the running application window in the first screen in the second screen, and can send the running application window to the second screen.

The operation object includes a desktop displayed by the in-vehicle system, and the operation object is sent to the vehicle in response to a first predetermined operation of the operation object on the first screen in the vehicle by the first user during the driving process of the vehicle. Second screen, including:

In response to the first predetermined operation by the first user on the first desktop user interface in the first screen, the first desktop user interface is sent to the second screen, and the first desktop user interface in the second screen is sent to the second screen. 2. The desktop user interface is sent to the first screen;

The sending the operation object to the first screen in response to the second predetermined operation by the second user on the operation object in the second screen includes:

In response to the second predetermined operation of the first desktop user interface in the second screen by a second user, the first desktop user interface is sent to the first screen, and the first screen The second desktop user interface described in is sent to the second screen.

In this way, after the first user performs the first predetermined operation on the first desktop user interface on the first screen, the first desktop user interface on the first screen can be sent to the second screen. At the same time, the second desktop user interface on the second screen can be sent to the second screen. The interface is sent to the first screen. Likewise, the second user performs a second predetermined operation on the first desktop user interface in the second screen, sends the first desktop user interface to the first screen, and sends the second desktop user interface of the first screen to the second screen. Thereby, the exchange of desktop user interfaces between the screens can be realized.

The method also includes:

In the case that the first screen displays predetermined content, stop responding to the second predetermined operation of the operation object in the second screen by the second user;

The predetermined content is kept displayed in the first screen.

In this way, when the predetermined content is displayed on the first screen, the response to the second predetermined operation of the second user on the application window in the second screen is stopped, while the predetermined content is kept displayed on the first screen. By setting the priority of displaying the predetermined content on the first screen is higher than the priority of executing the information flow. Prevent vehicles from causing traffic safety hazards due to information flow on the screen.

The method also includes:

Stop responding to the second predetermined operation of the operation object on the second screen by the second user, display the application window with a predetermined effect, and feed back prompt information on the second screen.

In this way, after the second user performs the second predetermined operation on the operation object on the second screen, the second screen displays the application window with the predetermined effect and feeds back prompt information on the second screen. Through the predetermined effect and prompt information, the user is effectively reminded that the operation of information dissemination cannot be performed.

The sending the operation object to the second screen in the vehicle in response to the first predetermined operation by the first user on the operation object in the first screen in the vehicle includes:

In response to the first predetermined touch operation of the operation object in the first screen by the first user, the operation object is sent to the second screen;

The sending the operation object to the first screen in response to the second predetermined operation by the second user on the operation object in the second screen includes:

In response to a second predetermined touch operation by the second user on the operation object in the second screen, the operation object is sent to the first screen.

In this way, after the first user performs the first predetermined touch operation on the operation object on the first screen, the operation object can be sent to the second screen. Likewise, after the second user performs a second predetermined touch operation on the operation object on the second screen, the operation object may be sent to the first screen. The information flow between screens is realized through predetermined touch operations, which conforms to the user's operating habits.

The sending the operation object to the second screen in response to the first predetermined touch operation of the operation object on the first screen by the first user includes:

In response to the predetermined operation that the first user touches the operation object with a first predetermined number of fingers and performs a predetermined operation of shaking the second screen, sending the operation object to the second screen;

The sending the operation object to the first screen in response to the second predetermined touch operation of the operation object on the second screen by the second user includes:

In response to the predetermined operation that the second user touches the operation object with a second predetermined number of fingers and performs a predetermined operation of flicking to the first screen, the operation object is sent to the first screen.

In this way, after the first user touches the operation object with a predetermined number of fingers and performs a predetermined operation of shaking the second screen, the operation object can be sent to the second screen. Similarly, after the second user touches the operation object with a predetermined number of fingers and performs a predetermined operation of shaking the first screen, the operation object can be sent to the first screen. The information flow between screens can be realized through a predetermined number of fingers, which improves the success rate of blind exercises. At the same time, the shaking action is more in line with the user's operation habit of replacing the operation object, and the combined operation of the predetermined number of finger touches and the shaking operation improves the comfort and experience of the operation.

The predetermined operation of sending the operation object to the second screen in response to the first user touching the operation object with a first predetermined number of fingers and flicking the operation object to the second screen, comprising: :

In response to a predetermined operation in which the first user touches the operation object with the first predetermined number of fingers, and performs a predetermined operation of shaking the second screen within a first predetermined time, the operation object is sent to the second screen;

The predetermined operation of sending the operation object to the first screen in response to the second user touching the operation object with a second predetermined number of fingers and flicking the operation object to the first screen, comprising: :

In response to a predetermined operation in which the second user touches the operation object with the second predetermined number of fingers, and performs a predetermined operation of shaking the second screen within a second predetermined time, the operation object is sent to the first screen.

In this way, after the first user touches the operation object with a predetermined number of fingers and performs a predetermined operation of swinging to the second screen within a predetermined time, the operation object can be sent to the second screen. Similarly, after the second user touches the operation object with a predetermined number of fingers, and performs a predetermined operation of shaking the first screen within a predetermined time, the operation object can be sent to the first screen. The predetermined touch operation is set from the perspective of time through a predetermined time, so as to prevent the screen from erroneously identifying the operation.

The first predetermined number and the second predetermined number are equal and both are greater than or equal to two.

In this way, the predetermined number of fingers is greater than or equal to 2, and the predetermined touch operation is set according to the number of fingers, so as to prevent the screen from erroneously recognizing the operation.

When both the first predetermined number and the second number are 2, the rotation angle between the two fingers is less than or equal to a predetermined angle threshold.

In this way, when the predetermined number of fingers is 2, the rotation angle between the two fingers is less than or equal to the predetermined angle threshold, and the predetermined touch operation is set from the rotation angle between the two fingers to prevent the screen from erroneously identifying the operation.

The angle between the swing direction of the predetermined swing operation and the horizontal direction is less than or equal to the predetermined angle threshold, and the swing distance is greater than or equal to the predetermined distance threshold.

In this way, the included angle between the swing direction and the horizontal direction of the predetermined swing operation is less than or equal to the predetermined angle threshold, and the swing distance is greater than or equal to the predetermined distance threshold. The predetermined touch operation is set from the swing direction and the swing distance to prevent the screen from misrecognizing the operation.

The present application further provides a vehicle, including a memory and a processor, wherein a computer program is stored in the memory, and when the computer program is executed by the processor, the above-mentioned interaction method is implemented.

The present application also provides a non-volatile computer-readable storage medium of a computer program, when the computer program is executed by one or more processors, the above-mentioned interaction method is implemented.

In the vehicle interaction method, vehicle, and non-volatile computer-readable storage medium of the present application, when the vehicle is running, after the first user performs the first predetermined operation on the operation object on the first screen in the vehicle, the user can store the The operation object is sent to the second screen in the vehicle. Similarly, the second user performs a second predetermined operation on the operation object sent to the second screen, and sends the operation object back to the first screen to realize the flow of the operation object between different screens. Different screens have equal rights for interactive operations and information flow.

Additional aspects and advantages of embodiments of the present application will be set forth, in part, in the following description, and in part will be apparent from the following description, or learned by practice of embodiments of the present application.

Description of drawings

The above and/or additional aspects and advantages of the present application will become apparent and readily understood from the following description of embodiments taken in conjunction with the accompanying drawings, wherein:

1 is a schematic flowchart of an interaction method of the present application;

Fig. 2 is one of the scene schematic diagrams of the interaction method of the present application;

3 is a schematic flowchart of the interaction method of the present application;

Fig. 4 is the second schematic diagram of the interaction method of the present application;

5 is a schematic flowchart of the interaction method of the present application;

6 is the third schematic diagram of the interaction method of the present application;

7 is a schematic flowchart of the interaction method of the present application;

8 is the fourth schematic diagram of the interaction method of the present application;

9 is a schematic flowchart of the interaction method of the present application;

FIG. 10 is the fifth schematic diagram of the interaction method of the present application;

11 is a schematic flowchart of the interaction method of the present application;

12 is a schematic flowchart of the interaction method of the present application;

Fig. 13 is the sixth schematic diagram of the interaction method of the present application;

FIG. 14 is the seventh schematic diagram of the interaction method of the present application;

15 is a schematic flowchart of the interaction method of the present application;

16 is a schematic flowchart of the interaction method of the present application;

17 is a schematic flowchart of the interaction method of the present application;

FIG. 18 is the eighth schematic diagram of the interaction method of the present application;

FIG. 19 is a schematic diagram of the connection state between the non-volatile computer-readable storage medium and the processor of the present application.

Detailed ways

Embodiments of the present application are described in detail below, examples of which are illustrated in the accompanying drawings, wherein the same or similar reference numerals refer to the same or similar elements or elements having the same or similar functions throughout. The embodiments described below with reference to the accompanying drawings are exemplary, only used to explain the embodiments of the present application, and should not be construed as limitations on the embodiments of the present application.

Referring to Fig. 1, the vehicle interaction method of the present application includes the following steps:

01: During the running of the vehicle, in response to the user's first predetermined operation on the operation object in the first screen in the vehicle, send the operation object to the second screen in the vehicle; and

02: In response to the second predetermined operation of the operation object in the second screen by the second user, the operation object is sent to the first screen.

The present application also provides a vehicle including a memory and a processor. A computer program is stored in the memory, and the processor is configured to send the operation object to the second screen in the vehicle in response to the user's first predetermined operation on the operation object in the first screen in the vehicle, and in response to the first The second predetermined operation by the user on the operation object in the second screen sends the operation object to the first screen.

Specifically, a plurality of screens are installed in the vehicle, such as a central control display screen, a central control screen, a co-pilot display screen used by a co-pilot user, that is, a co-pilot screen, as well as an instrument screen and a rear cockpit display screen. Users can interact with these display screens to control the vehicle to achieve corresponding functions, such as adjusting the interior temperature, raising and lowering the windows, obtaining vehicle status information, and navigation information. In-vehicle entertainment functions, such as games, video and audio playback, can also be implemented.

The first screen and the second screen are only used to distinguish different display hardware, that is to say, the central control screen can be either the first screen or the second screen. Both the first screen and the second screen can be used as the operation screen and can also be used as the target screen. That is, both the first screen and the second screen can serve as the initiator of the operation object transfer, and both can be the receiver of the operation object transfer. The following description will take the central control screen as the first screen and the co-pilot screen as the second screen as an example.

The first user and the second user are only used to distinguish those who operate different display hardware in the vehicle, that is to say, the first user can be the main driver user, the co-driver user or the rear passenger user, etc., and the second user can also be It can be the main driver, the co-driver, or the rear passenger. In the following, the main driver user is taken as the first user and the assistant driver user is taken as the second user as an example for description.

Different from the traditional operation object which is the content in the application window, the operation object of the present application includes the desktop displayed by the in-vehicle system and the application window displayed by the in-vehicle system.

When the user performs a predetermined operation, the operation object is sent from the first screen to the second screen or from the second screen to the first screen, so as to realize the flow of the operation object, the operation object remains active, and the user is on the second screen or the first screen. The full functionality of the operand remains available on the screen.

The first predetermined operation refers to an operation performed by sending an operation object in the first screen to the second screen through a preset interactive operation.

The second predetermined operation refers to an operation performed by sending an operation object in the second screen to the first screen through a preset interactive operation.

Referring to Figures 2a and 2b, in an example, when the vehicle is running, an operation object is displayed on the first screen, and the operation object is in an active state. When the co-pilot user wants to know the relevant information of the operation object on the second screen, the main driver user can perform the first predetermined operation on the operation object on the first screen, the operation object is sent to the second screen, and the second screen receives the operation. After the object is displayed, the operation object is displayed to the co-pilot user, and the operation object displays the content that is consistent with the content before the transfer, and continues to be active. After the co-pilot user finishes browsing the relevant information on the second screen, the co-pilot user can re-send the operation object to the first screen through a second predetermined operation. Action objects display content that is coherent before the transfer, and remains active.

In this way, when the vehicle is running, after the first user performs a first predetermined operation on the operation object on the first screen in the vehicle, the operation object can be sent to the second screen in the vehicle. Similarly, the second user performs a second predetermined operation on the operation object sent to the second screen, and sends the operation object back to the first screen to realize the flow of the operation object between different screens. Different screens have equal rights for interactive operations and information flow.

Please refer to Fig. 3, the operation object includes the application window displayed by the in-vehicle system, and step 01 includes:

011: In response to the first predetermined operation by the first user on the application window in the first screen, send the application window to the second screen;

Step 02 includes:

021: In response to a second predetermined operation by the second user on the application window in the second screen, send the application window to the first screen.

The processor is configured to send the application window to the second screen in response to the first predetermined operation of the application window in the first screen by the first user, and to respond to the second predetermined operation of the application window in the second screen by the second user to send the application window to the first screen.

Specifically, the operation object may be an application window displayed by the in-vehicle system, such as a music application window, a video application window, a communication application window, a navigation application window, and the like.

Referring to FIG. 4 , in an example, when the vehicle is driving, an application window is displayed on the first screen. When the co-pilot user wants to know the relevant information of the application window on the second screen, the main driver user can perform the first predetermined operation on the application window on the first screen, the application window is sent to the second screen, and the second screen receives the application. After the window is displayed, the application window is displayed to the co-pilot user. The co-pilot user can send the application window back to the first screen through the second predetermined operation.

In this way, after the first user performs the first predetermined operation on the application window in the first screen, the application window can be sent to the second screen. Similarly, the second user performs a second predetermined operation on the application window sent to the second screen, and sends the application window back to the first screen to realize the flow of the application window between different screens. Different screens have equal rights for interactive operations and information flow.

Please refer to Fig. 5, the operation object includes the application window displayed by the vehicle system, and the interaction method includes the steps:

03: In response to the second user's third predetermined operation on the application window running in the first screen in the second screen, the application window is sent to the second screen.

The processor is configured to send the application window to the second screen in response to the second user's third predetermined operation on the application window running in the first screen in the second screen.

Specifically, the third predetermined operation refers to an operation of transferring the running application window in the second screen to the first screen.

Understandably, the same application cannot be opened on two screens at the same time, and the priority criterion is that the priority of executing the flow of the application window is higher than that of executing the application window on the first screen.

Please refer to Fig. 6a to Fig. 6f. In an example, Fig. 6a shows the scene graph of the first screen displaying the running application window, Fig. 6b shows the scene graph of the co-pilot user clicking on the application entrance, Fig. 6c shows the scene graph After the co-pilot user completes clicking on the application entry, the first screen displays the scene graph of the running application window. Figure 6d shows the second screen showing the running application window after the co-pilot user completes clicking on the application entry. picture. FIG. 6e shows the scene diagram of the first screen after the transfer is completed, and FIG. 6f shows the scene diagram of the second screen after the transfer is completed. The first screen is displaying the running application window. After the co-pilot user clicks the application entry on the second screen, the running application window flows from the first screen to the second screen.

In this way, the user performs a third predetermined operation on the running application window in the first screen in the second screen, and the running application window can be sent to the second screen.

Please refer to Fig. 7, the operation object includes the desktop displayed by the in-vehicle system, and step 01 includes:

012: In response to the first predetermined operation by the first user on the first desktop user interface in the first screen, send the first desktop user interface to the second screen, and send the second desktop user interface in the second screen to the first user interface Screen;

Step 02 includes:

022: In response to the second predetermined operation by the second user on the first desktop user interface in the second screen, send the first desktop user interface to the first screen, and send the second desktop user interface in the first screen to the second user interface. Screen.

The processor is configured to send the first desktop user interface to the second screen in response to the first predetermined operation by the first user on the first desktop user interface in the first screen, and send the second desktop user interface in the second screen to the first user interface. one screen. and for sending the first desktop user interface to the first screen in response to the second predetermined operation of the second user on the first desktop user interface in the second screen, and sending the second desktop user interface in the first screen to the first screen. Two screens.

Specifically, when the upper layer of the desktop of the screen does not have any application window, the user can also interchange the desktop user interface between the screens. The desktop user interface refers to the desktop user interface of the operation screen. The desktop user interface of the central control screen is the map, and the desktop user interface of the passenger screen is the application card. The first desktop user interface refers to the desktop user interface displayed on the central control screen, that is, a map, and the second desktop user interface refers to the desktop user interface displayed on the passenger screen, that is, an application card.

Please refer to Fig. 8a to Fig. 8f. In one example, Fig. 8a shows a scene diagram in which the central control screen displays a desktop user interface of the main driver, namely a map, and Fig. 8b shows a scene in which the assistant driver screen displays a desktop user interface, i.e. an application card. Fig. 8c shows the scene diagram of the main driver user performing the transfer operation on the central control screen, Fig. 8d shows the scene diagram of the user interface displayed on the auxiliary driver screen when the main driver user completes the transfer operation on the central control screen, Figure 8e shows the scene diagram of the user interface displayed on the central control screen after the main driver user completes the transfer operation on the central control screen, and Figure 8f shows the image displayed on the auxiliary driver screen after the main driver user completes the transfer operation on the central control screen The scene graph of the user interface. The map is being displayed on the central control screen. The co-pilot user wants to know the information of the interface on the co-pilot screen. After the main driver user performs the first predetermined operation on the map of the central control screen, the interface is sent to the co-pilot screen. After the co-pilot screen receives the interface , the map is displayed to the co-pilot user, and the application card is displayed on the central control screen.

In another example, a map is being displayed on the co-pilot screen, and the main driver user wants to know the information of the map on the central control screen. After the co-pilot user performs a second predetermined operation on the map on the co-pilot screen, the interface is sent to the central control screen. After receiving the interface on the middle screen, the map is displayed to the main driver, and the application card is displayed on the assistant driver's screen.

In this way, after the first user performs the first predetermined operation on the first desktop user interface on the first screen, the first desktop user interface on the first screen can be sent to the second screen. At the same time, the second desktop user interface on the second screen can be sent to the second screen. The interface is sent to the first screen. Likewise, the second user performs a second predetermined operation on the first desktop user interface in the second screen, sends the first desktop user interface to the first screen, and sends the second desktop user interface of the first screen to the second screen. Thereby, the exchange of desktop user interfaces between the screens can be realized.

Referring to Figure 9, the interaction method also includes:

04: In the case where the first screen displays the predetermined content, stop responding to the second predetermined operation of the operation object in the second screen by the second user;

05: Keep displaying the predetermined content in the first screen.

The processor is configured to stop responding to the second predetermined operation of the operation object on the second screen by the second user when the predetermined content is displayed on the first screen, and to keep displaying the predetermined content on the first screen.

Specifically, the predetermined content refers to content for which information flow cannot be performed, such as a reversing image during parking.

When the screen executes the instructions generated by various operations, it will judge the priority of its instructions. When it is judged that the second screen is displaying the predetermined content, it will judge that the second screen has a higher priority of displaying the predetermined content than executing the information flow.

Please refer to Fig. 10a to Fig. 10f, Fig. 10a shows the scene diagram of the first screen displaying the parking interface, Fig. 10b shows the scene diagram of the co-pilot user performing a flow operation on the second screen, and Fig. 10c shows the co-pilot user After completing the transfer operation on the second screen, the first screen displays the scene graph of the parking interface. Figure 10d shows the scene graph of the prompt displayed on the second screen after the co-pilot user completes the transfer operation on the second screen. FIG. 10e shows the scene graph of the first screen after prompting, and FIG. 10f shows the scene graph of the second screen after prompting. The first screen is displaying the reversing image during the parking process. The co-driver user performs a second predetermined operation on the application window in the second screen, and the application window shakes. ” prompt. After the prompt, the second screen still keeps displaying the application window, and the first screen still keeps displaying the reversing image during the parking process.

In this way, when the predetermined content is displayed on the first screen, the response to the second predetermined operation of the second user on the application window in the second screen is stopped, while the predetermined content is kept displayed on the first screen. By setting the priority of displaying the predetermined content on the first screen is higher than the priority of executing the information flow. Prevent vehicles from causing traffic safety hazards due to information flow on the screen.

Referring to Figure 11, the interaction methods include:

06: Stop responding to the second predetermined operation of the operation object on the second screen by the second user, display the application window with a predetermined effect, and feed back prompt information on the second screen.

The processor is configured to stop responding to the second predetermined operation of the operation object on the second screen by the second user, display the application window with a predetermined effect, and feed back prompt information on the second screen.

Specifically, when the first screen displays an operation object that cannot perform information flow, in addition to stopping responding to the second predetermined operation, a predetermined effect may be used on the second screen to prompt the second user that the second predetermined operation cannot be performed. The effect that reminds the second user, such as the effect of dithering or darkening the application window.

The prompt information can be displayed in the form of text or voice, and its content is to prompt the user that information flow cannot be performed.

Please refer to Fig. 10a to Fig. 10f again. Fig. 10a shows the scene diagram of the first screen displaying the parking interface, Fig. 10b shows the scene diagram of the co-pilot user performing a flow operation on the second screen, and Fig. 10c shows the co-pilot's scene diagram After the user completes the transfer operation on the second screen, the first screen displays the scene graph of the parking interface. Figure 10d shows the scene graph of the prompt displayed on the second screen after the co-pilot user completes the transfer operation on the second screen. FIG. 10e shows the scene graph of the first screen after prompting, and FIG. 10f shows the scene graph of the second screen after prompting. The first screen is displaying the reversing image during the parking process. The co-driver user performs a second predetermined operation on the application window in the second screen, and the application window shakes. ” prompt. After the prompt, the second screen still keeps displaying the application window, and the first screen still keeps displaying the reversing image during the parking process.

In this way, after the second user performs the second predetermined operation on the operation object on the second screen, the second screen displays the application window with the predetermined effect and feeds back prompt information on the second screen. Through the predetermined effect and prompt information, the user is effectively reminded that the operation of information dissemination cannot be performed.

Referring to Figure 12, step 01 includes:

013: In response to the first predetermined touch operation on the operation object in the first screen by the first user, send the operation object to the second screen;

Step 02 includes:

023: In response to the second predetermined touch operation on the operation object in the second screen by the second user, send the operation object to the first screen.

The processor is configured to send the operation object to the second screen in response to the first predetermined touch operation of the operation object in the first screen by the first user, and to respond to the second user's second operation object in the second screen. The predetermined touch operation is to send the operation object to the first screen.

Specifically, the predetermined touch operation refers to that the user touches the screen with a certain part of the body, and performs a specific action on the screen. The predetermined touch operation can be set at the factory, or can be customized by the user. A part of the body that has easy access to the screen, such as the fingers, palm, and back of the hand. Specific movements include swinging, drawing circles, drawing wavy lines, and so on. The first predetermined touch operation refers to a predetermined touch operation of sending the operation object in the first screen to the second screen. The second predetermined touch operation refers to a predetermined touch operation of sending the operation object in the second screen to the first screen.

It can be understood that the user can realize the window flow between the screens through a predetermined touch operation, and the touch operation is a common operation of the user to control the vehicle through the screen, which conforms to the user's operating habits.

Please refer to Figs. 13a to 13d. In one example, the operation object is being displayed on the first screen, and the co-pilot user wants to know the information of the operation object on the second screen. After the main driver user performs a predetermined touch operation on the operation object, send The operation object is given to the second screen, and after receiving the operation object, the second screen displays the operation object to the co-pilot user.

Please refer to Figures 14a to 14d. In one example, an operation object is being displayed on the second screen. The main driver user wants to know the information of the operation object on the first screen. After the co-pilot user performs a predetermined touch operation on the operation object, send The operation object is given to the first screen, and after receiving the operation object, the first screen displays the operation object to the main driver.

In this way, after the first user performs the first predetermined touch operation on the operation object on the first screen, the operation object can be sent to the second screen. Likewise, after the second user performs a second predetermined touch operation on the operation object on the second screen, the operation object may be sent to the first screen. The information flow between screens is realized through predetermined touch operations, which conforms to the user's operating habits.

Referring to Figure 15, step 013 includes:

0131: In response to the first user touching the operation object with a first predetermined number of fingers and performing a predetermined operation of swinging it to the second screen, send the operation object to the second screen;

Step 023 includes:

0231: In response to the predetermined operation that the second user touches the operation object with a second predetermined number of fingers and performs a predetermined operation of shaking the operation object to the first screen, send the operation object to the first screen.

The processor is configured to send the operation object to the second screen in response to the predetermined operation that the first user touches the operation object with a first predetermined number of fingers and performs a swinging operation to the second screen. and a predetermined operation for sending the operation object to the first screen in response to the second user touching the operation object with a second predetermined number of fingers and flicking the operation object to the first screen.

Specifically, the user can realize the flow of operation objects between the screens through a predetermined touch operation, but the user's touch operation on the screens may also trigger other functions besides the flow of operation objects between the screens. In order to prevent the screen from receiving the touch operation, the touch operation corresponding to other functions is regarded as the touch operation corresponding to the operation object flow function between screens, or the touch operation corresponding to the operation object flow function between screens is regarded as other Error recognition behaviors such as touch operations corresponding to functions. Therefore, further design of the predetermined touch operation is required.

Please refer to FIG. 13 and FIG. 14 again, the predetermined touch operation may be an operation in which the user touches the operation object with a predetermined number of fingers and simultaneously shakes the operation object toward the sent screen. The predetermined number of fingers refers to the number of fingers used by the user to touch the screen, such as two fingers, three fingers, or four fingers. The first predetermined number refers to the number of fingers touching the first screen. The second predetermined number refers to the number of fingers touching the second screen.

It is understandable that, after multiple fingers such as two fingers, three fingers, or four fingers touch the screen, the fuzzy judgment mechanism for information flow on the screen can be triggered, which can improve the convenience of operation. The user is not required to use a specific number of fingers to touch the operation object, which improves the success rate of the blind operation, and the swinging action is more in line with the user's operation habit of replacing the operation object. The combination of a predetermined number of finger touches and flicking actions improves the comfort and experience of the operation.

In this way, after the first user touches the operation object with a predetermined number of fingers and performs a predetermined operation of shaking the second screen, the operation object can be sent to the second screen. Similarly, after the second user touches the operation object with a predetermined number of fingers and performs a predetermined operation of shaking the first screen, the operation object can be sent to the first screen. The information flow between screens can be realized through a predetermined number of fingers, which improves the success rate of blind exercises. At the same time, the shaking action is more in line with the user's operation habit of replacing the operation object, and the combined operation of the predetermined number of finger touches and the shaking operation improves the comfort and experience of the operation.

Referring to Figure 16, step 0131 includes:

01311: In response to the first user touching the operation object with a first predetermined number of fingers and performing a predetermined operation of swinging it to the second screen within the first predetermined time, send the operation object to the second screen;

Step 0231 includes:

02311: In response to the predetermined operation that the second user touches the operation object with a second predetermined number of fingers and performs a predetermined operation of flicking to the second screen within a second predetermined time, send the operation object to the first screen.

The processor is configured to send the operation object to the second screen in response to a predetermined operation in which the first user touches the operation object with a first predetermined number of fingers and flicks the operation object to the second screen within the first predetermined time. and a predetermined operation for sending the operation object to the first screen in response to the second user touching the operation object with a second predetermined number of fingers and flicking the operation object to the second screen within a second predetermined time.

Specifically, the predetermined touch operation may also be to shake the operation object to the second screen within a predetermined time after the user simultaneously touches the operation object with a predetermined number. The predetermined time can be set at the factory, or can be set by the user. For example 0.3s, 0.5s and 0.9s etc. That is to say, after the first screen or the second screen senses that it has been touched for a predetermined time, the operation is recognized as a predetermined touch operation. The first predetermined time is a predetermined time for the first screen to sense that it is touched, and the second predetermined time is a predetermined time for the second screen to sense that it is touched.

Understandably, if no subsequent flicking operation is detected within a period of time after the touch operation object, the screen may recognize the touch operation as an action such as a click or a long press.

In this way, after the first user touches the operation object with a predetermined number of fingers and performs a predetermined operation of swinging to the second screen within a predetermined time, the operation object can be sent to the second screen. Similarly, after the second user touches the operation object with a predetermined number of fingers, and performs a predetermined operation of shaking the first screen within a predetermined time, the operation object can be sent to the first screen. The predetermined touch operation is set from the perspective of time through a predetermined time, so as to prevent the screen from erroneously identifying the operation.

The first predetermined number and the second predetermined number are equal and both are greater than or equal to two.

Specifically, the predetermined touch operation may limit the predetermined number of fingers to two or more.

Understandably, if there is only one finger touching the application window, the screen will recognize the touch operation as an action such as a click or a long press, but not as an operation of transferring the application window in the display system.

In this way, the predetermined number of fingers is greater than or equal to 2, and the predetermined touch operation is set according to the number of fingers, so as to prevent the screen from erroneously recognizing the operation.

When both the first predetermined number and the second number are 2, the rotation angle between the two fingers is less than or equal to the predetermined angle threshold.

Specifically, when a predetermined touch operation is performed, when the finger is in a swinging action, the rotation angle between the fingers may change due to inertia. However, if the rotation angle between the fingers is too large, it becomes a rotation operation or a zoom operation. After the screen recognizes the rotation operation, it may control the rotation of the application window, and after the screen recognizes the zoom operation, it may control the zoom of the application window, instead of making the application window flow to the target screen.

Therefore, the rotation angle between the two fingers from touching the screen to completing the flicking operation can be set to be less than or equal to a predetermined angle threshold. The predetermined angle threshold can be set at the factory, or can be set by the user.

In this way, when the predetermined number of fingers is 2, the rotation angle between the two fingers is less than or equal to the predetermined angle threshold, and the predetermined touch operation is set from the rotation angle between the two fingers to prevent the screen from erroneously identifying the operation.

The angle between the swing direction and the horizontal direction of the predetermined swing operation is less than or equal to the predetermined angle threshold, and the swing distance is greater than or equal to the predetermined distance threshold.

Specifically, when a swinging operation is performed on the screen, if the included angle between the swinging direction and the horizontal direction is too small, the screen may recognize the operation as a horizontal sliding operation, which may trigger the screen to implement other functions, such as controlling video The speed of playback. If the angle between the swinging direction and the horizontal direction is too large, the screen may recognize the operation as an upward swipe operation, which may trigger the screen to perform other functions, such as adjusting the volume. At the same time, if the swinging distance is too small, the screen may recognize the operation as a click operation, which may trigger the screen to implement other functions, such as entering the next level interface.

Therefore, the predetermined operation of the predetermined touch operation, that is, the swing operation, can be set so that the angle between the swing direction and the horizontal direction is less than or equal to a predetermined angle threshold, and the predetermined angle threshold can be set when the product leaves the factory, or can be set by the user Custom settings. For example 12°, 15° and 17° etc. In addition, a reasonable error range is set for the angle between the swing direction and the horizontal direction, which takes care of the error caused by the artificial swing and improves the success rate of information flow between screens.

It can also be set that the swing distance is greater than or equal to a predetermined distance threshold. The predetermined distance threshold can be set when the product leaves the factory, or can be set by the user. For example 1cm, 4cm and 10cm etc.

In this way, the included angle between the swing direction and the horizontal direction of the predetermined swing operation is less than or equal to the predetermined angle threshold, and the swing distance is greater than or equal to the predetermined distance threshold. The predetermined touch operation is set from the swing direction and the swing distance to prevent the screen from misrecognizing the operation.

Referring to Figure 17, step 01 includes:

014: In response to a voice request by the second user to operate the operation object in the first screen, send the operation object to the second screen; or

024: In response to the first user's voice request to operate the operation object in the second screen, send the operation object to the first screen.

The processor is configured to send the operation object to the second screen in response to a voice request by the second user to operate the operation object in the first screen, or in response to the first user's operation of the operation object in the second screen. Voice request to send the operation object to the first screen.

Specifically, the vehicle cockpit provides voice zone judgment and semantic generalization recognition, which can identify the voice zone positions of voice requests issued by users in the driver, passenger, and rear seats, and identify the intent of the voice request. When the second user on the second screen sends a voice request to know the operation object of the first screen, the operation object of the first screen is sent to the second screen. Similarly, the first user on the first screen sends a voice request to know the operation object of the first screen When a voice request is made by the operation object of the second screen, the operation object of the second screen is sent to the first screen.

There are no specific restrictions on the expression content of the voice request. For example, the expression content can be "help me open the interface of a certain application", "I want to see the interface of a certain application", "please change an application to the co-pilot screen" ” and “Swap the desktop of the central control screen and my screen”, etc.

It is understandable that when the user is not suitable for touch operation when driving, etc., the user can control the flow of the operation objects between the screens through a voice request.

Please refer to Fig. 18a to Fig. 18f, in one example, Fig. 18a shows the scene graph of the first screen displaying the operation object, Fig. 18b shows the scene graph of the second screen displaying the desktop user interface, Fig. 18c shows the co-pilot The scene graph that the user is performing a transfer operation on the first screen, Fig. 18d shows the scene graph displayed on the second screen when the co-pilot user is performing a transfer operation on the first screen, and Fig. 18e shows that the co-pilot user completes the first screen. After the transfer operation, the first screen displays the scene graph of the user interface of the desktop. Figure 18f shows the scene graph displayed on the second screen after the co-pilot user completes the transfer operation on the first screen. The first screen is displaying the operation object, the co-pilot user on the second screen wants to know the operation object information of the first screen, and the co-pilot user of the second screen sends a voice request to know the operation object information of the first screen. Based on the result of judgment and semantic generalization recognition, the operation object is sent to the second screen, and the second screen displays the operation object to the co-pilot user.

In another example, the operation object is being displayed on the second screen, the main driver on the first screen wants to know the operation object information on the second screen, and the main driver user on the first screen sends out the operation object who wants to know the operation object on the second screen For the voice request for information, according to the results of the voice area judgment and semantic generalization recognition, the operation object is sent to the first screen, and the first screen displays the operation object to the main driver.

In this way, when the second user performs a voice request operation on the operation object on the first screen, the operation object can be sent to the second screen. Similarly, when the first user performs a voice request operation on the operation object in the second screen, the operation object can be sent to the first screen. Users can control the flow of information between screens through voice requests, providing users with a more convenient operation method

Referring to FIG. 19 , the present application further provides a non-volatile computer-readable storage medium 100 including a computer program 101 . When executed by one or more processors 200, the computer program 101 causes the one or more processors 200 to perform the interaction method of any of the above-described embodiments.

In the description of this specification, reference to the description of the terms "certain embodiments," "in an example," "exemplarily," etc. means that a particular feature, structure, material, or characteristic described in connection with an embodiment or example is included in the present application at least one embodiment or example of . In this specification, schematic representations of the above terms do not necessarily refer to the same embodiment or example. Furthermore, the particular features, structures, materials or characteristics described may be combined in any suitable manner in any one or more embodiments or examples. Furthermore, users skilled in the art may combine and combine the different embodiments or examples described in this specification and the features of the different embodiments or examples without contradicting each other.

Any description of a process or method in the flowcharts or otherwise described herein may be understood to represent a module, segment or portion of code comprising one or more executable instructions for implementing a specified logical function or step of the process , and the scope of the preferred embodiments of the present application includes alternative implementations in which the functions may be performed out of the order shown or discussed, including performing the functions substantially concurrently or in the reverse order depending upon the functions involved, which should It is understood by those skilled in the art to which the embodiments of the present application belong.

Although the embodiments of the present application have been shown and described above, it should be understood that the above embodiments are exemplary and should not be construed as limitations on the present application. Embodiments are subject to variations, modifications, substitutions and alterations.

Claims (14)

1. A vehicle interaction method, wherein the method comprises: During the running of the vehicle, in response to the first predetermined operation of the operation object in the first screen in the vehicle by the first user, the operation object is sent to the second screen in the vehicle; and In response to a second predetermined operation of the operation object in the second screen by the second user, the operation object is sent to the first screen. 2 . The interaction method according to claim 1 , wherein the operation object comprises an application window displayed by the in-vehicle system, and during the driving of the vehicle, in response to the first user's response to the first screen in the vehicle The first predetermined operation of the operation object, sending the operation object to the second screen in the vehicle, including: in response to the first predetermined operation of the application window in the first screen by the first user, sending the application window to the second screen; The sending the operation object to the first screen in response to the second predetermined operation by the second user on the operation object in the second screen includes: In response to a second predetermined operation of the application window in the second screen by the second user, the application window is sent to the first screen. 3. The interaction method according to claim 1, wherein the operation object comprises an application window displayed by the in-vehicle system, and the method further comprises: The application window is sent to the second screen in response to a third predetermined operation in the second screen by the second user on the application window running in the first screen. 4 . The interaction method according to claim 1 , wherein the operation object comprises a desktop displayed by the in-vehicle system, and the operation on the first screen in the vehicle is performed in response to a first user operating the vehicle while the vehicle is running. 5 . The first predetermined operation of the object, sending the operation object to the second screen in the vehicle, including: In response to the first predetermined operation of the first desktop user interface in the first screen by the first user, the first desktop user interface is sent to the second screen, and the second screen The second desktop user interface is sent to the first screen; The sending the operation object to the first screen in response to the second predetermined operation by the second user on the operation object in the second screen includes: In response to the second predetermined operation by the second user on the first desktop user interface in the second screen, the first desktop user interface is sent to the first screen, and the first desktop user interface is sent to the first screen. The second desktop user interface in one screen is sent to the second screen. 5. The interaction method according to claim 1, wherein the method further comprises: In the case that the first screen displays predetermined content, stop responding to the second predetermined operation of the operation object in the second screen by the second user; The predetermined content is kept displayed in the first screen. 6. The interaction method according to claim 5, wherein the method further comprises: Stop responding to the second predetermined operation of the operation object on the second screen by the second user, display the application window with a predetermined effect, and feed back prompt information on the second screen. 7 . The interaction method according to claim 1 , wherein, in response to a first predetermined operation by a first user on an operation object on a first screen in the vehicle, the operation object is sent to 7 . Second screen in the vehicle, including: In response to the first predetermined touch operation of the operation object in the first screen by the first user, the operation object is sent to the second screen; The sending the operation object to the first screen in response to the second predetermined operation by the second user on the operation object in the second screen includes: In response to a second predetermined touch operation by the second user on the operation object in the second screen, the operation object is sent to the first screen. 8 . The interaction method according to claim 7 , wherein the operation object is sent in response to a first predetermined touch operation performed by the first user on the operation object in the first screen. 9 . to the second screen, including: In response to the predetermined operation that the first user touches the operation object with a first predetermined number of fingers and performs a predetermined operation of shaking the second screen, sending the operation object to the second screen; The sending the operation object to the first screen in response to the second predetermined touch operation of the operation object on the second screen by the second user includes: In response to the predetermined operation that the second user touches the operation object with a second predetermined number of fingers and performs a predetermined operation of flicking to the first screen, the operation object is sent to the first screen. 9 . The interaction method according to claim 8 , wherein in response to the first user touching the operation object with a first predetermined number of fingers, and the predetermined number of flicking to the second screen is performed. 10 . operation, sending the operation object to the second screen, including: In response to a predetermined operation in which the first user touches the operation object with the first predetermined number of fingers, and performs a predetermined operation of shaking the second screen within a first predetermined time, the operation object is sent to the second screen; The predetermined operation of sending the operation object to the first screen in response to the second user touching the operation object with a second predetermined number of fingers and flicking the operation object to the first screen, comprising: : In response to a predetermined operation in which the second user touches the operation object with the second predetermined number of fingers, and performs a predetermined operation of shaking the second screen within a second predetermined time, the operation object is sent to the first screen. 10 . The interaction method according to claim 8 , wherein the first predetermined number and the second predetermined number are equal and both are greater than or equal to 2. 11 . 11 . The interaction method according to claim 10 , wherein in the case that the first predetermined number and the second number are both 2, the rotation angle between the two fingers is less than or equal to a predetermined angle. 12 . threshold. 12. The interaction method according to any one of claims 8 or 9, wherein the angle between the swing direction of the predetermined operation of the swing and the horizontal direction is less than or equal to a predetermined angle threshold, and the swing distance is greater than or equal to the predetermined distance threshold. 13. A vehicle, comprising a memory and a processor, wherein a computer program is stored in the memory, and when the computer program is executed by the processor, the interaction according to any one of claims 1-12 is realized method. 14. A non-volatile computer-readable storage medium for a computer program, characterized in that, when the computer program is executed by one or more processors, the interaction method according to any one of claims 1-12 is implemented .

Images