Windscreen wiper control method and device, electronic equipment and vehicle

Abstract

According to the windscreen wiper control method and device, the electronic equipment and the vehicle, a manual gear shifting switch, an automatic gear shifting switch, a frequency adjusting switch and a sensitivity gear switch are additionally arranged and displayed on a display screen, when an operator needs to adjust the action state of a windscreen wiper, the operator can directly operate the display screen, and the operation is convenient. After an operation signal of the display screen is responded, operation signals of the manual gear shifting switch, the frequency adjusting switch, the automatic gear shifting switch or the sensitivity gear switch are obtained, and the windscreen wiper is controlled to act according to the gear shifting mode, the frequency gear or the sensitivity gear corresponding to the operation signal. By means of the scheme, the adjusting modes of the working state of the windscreen wiper are richer, and a user can select the windscreen wiper gear better meeting the requirement by himself / herself.

Description

Technical Field

[0001] The present application relates to the technical field of wiper control, and in particular to a wiper control method, device, electronic equipment and vehicle. Background Art

[0002] At present, the front windshield wiper of a vehicle includes a wiper and a gear lever for controlling the wiper. The gear lever has a wiper switch, an automatic low-speed gear, an automatic high-speed gear, a manual low-speed gear, and a manual high-speed gear. After turning on the wiper switch, the driver operates the gear lever and selects the gear, and then the wiper is driven to move according to the selected gear. Among them, the automatic low-speed gear and the automatic high-speed gear refer to the wiper action frequency determined according to the rain signal detected by the vehicle-mounted rain sensor. In the low-speed gear, the frequency changes with the rainfall less, and the high-speed gear frequency changes with the residual more. The manual low-speed gear and the manual high-speed gear refer to the wiper action according to a fixed frequency. The low-speed gear has a smaller frequency (such as 40 rpm) and the high-speed gear has a larger frequency (such as 60 rpm). In the above scheme, when the manual and automatic gears are controlled, there are only two working gears, high and low, and the wiper action parameters are solidified, and the wiper frequency cannot be set according to the needs. Summary of the invention

[0003] The technical problem to be solved by the present application is that the working gear of the wiper in the prior art cannot be set according to needs. To this end, the present application proposes a wiper control method, device, electronic equipment and vehicle.

[0004] In a first aspect, the technical solution of the present application provides a wiper control method, comprising:

[0005] In response to the wiper on signal, displaying a manual gear shift switch and an automatic gear shift switch on the display screen;

[0006] If in response to an operation signal that the manual gear switch is touched, a frequency adjustment switch is displayed on the display screen, wherein the frequency adjustment switch includes switches for adjusting more than three frequency gears;

[0007] If in response to an operation signal that the automatic gear change switch is touched, a sensitivity gear switch is displayed on the display screen, wherein the sensitivity gear switch includes switches for adjusting more than three sensitivity gears;

[0008] In response to an operation signal that the frequency adjustment switch is adjusted to a target frequency position among the three or more frequency positions, or in response to an operation signal that the sensitivity position switch is adjusted to a target sensitivity position among the three or more sensitivity positions, the wiper is controlled to operate according to the target frequency position or the target sensitivity position corresponding to the operation signal.

[0009] In some embodiments, the wiper control method further comprises, before displaying the manual gear shift switch and the automatic gear shift switch on the display screen in response to the wiper on signal:

[0010] The wiper action frequency in the manual gear change mode is divided into more than three frequency gears, and the wiper action sensitivity in the automatic gear change mode is divided into more than three sensitivity gears;

[0011] A manual gear shift switch associated with the manual gear shift mode, a frequency adjustment switch associated with the frequency gear, an automatic gear shift switch associated with the automatic gear shift mode, and a sensitivity gear switch associated with the sensitivity gear are generated.

[0012] The wiper control method described in some embodiments generates a frequency adjustment switch associated with a frequency gear, including:

[0013] Generate frequency gear switch summary bar;

[0014] Divide the frequency gear switch summary bar into three or more frequency gear areas corresponding to the number of frequency gears;

[0015] Generate a first block to be operated and a second block to be operated, wherein the first block to be operated and the second block to be operated are used to slide in different frequency ranges according to a touch operation;

[0016] An association relationship between the first block to be operated and the frequency range region where it stays is established; and an association relationship between the second block to be operated and the frequency range region where it stays is established.

[0017] The wiper control method described in some embodiments generates a sensitivity gear switch associated with a sensitivity gear, including:

[0018] Generate a summary bar for sensitivity position switches;

[0019] Dividing the sensitivity level switch summary bar into three or more sensitivity level areas corresponding to the number of sensitivity levels;

[0020] Generate a third block to be operated and a fourth block to be operated, wherein the third block to be operated and the fourth block to be operated are used to slide in different sensitivity gear areas according to the touch operation;

[0021] Establish an association relationship between the third block to be operated and the sensitivity level region where it stays; establish an association relationship between the fourth block to be operated and the sensitivity level region where it stays.

[0022] Wiper control method described in some schemes:

[0023] If in response to the operation signal that the frequency adjustment switch is adjusted to the target frequency gear among the three or more frequency gears, it includes: obtaining information of a first frequency gear area where the first block to be operated stays, determining a first frequency gear corresponding to the first frequency gear area, and using the first frequency gear as a target frequency gear of a manual low-speed gear; obtaining information of a second frequency gear area where the second block to be operated stays, determining a second frequency gear corresponding to the second frequency gear area, and using the second frequency gear as a target frequency gear of a manual high-speed gear;

[0024] If in response to the operation signal of the sensitivity gear switch being adjusted to the target sensitivity gear among the three or more sensitivity gears, it includes: obtaining information of the first sensitivity gear area where the third block to be operated stays, determining the first sensitivity gear corresponding to the first sensitivity gear area, and using the first sensitivity gear as the target sensitivity gear of the automatic low gear; obtaining information of the second sensitivity gear area where the fourth block to be operated stays, determining the second sensitivity gear corresponding to the second sensitivity gear area, and using the second sensitivity gear as the target sensitivity gear of the automatic high gear. .

[0025] The wiper control method described in some embodiments further includes:

[0026] Acquiring historical driving data, the historical driving data including frequency gear selection information of the wiper in a manual gear change mode and sensitivity gear selection information of the wiper in an automatic gear change mode;

[0027] Analyze the proportion data of different frequency gears in the frequency gear selection information, and analyze the proportion data of different sensitivity gears in the sensitivity gear selection information;

[0028] The frequency level whose proportion data is less than the first proportion threshold is deleted, and the sensitivity level whose proportion data is less than the second proportion threshold is deleted;

[0029] Return to the step of generating a manual gear change switch associated with the manual gear change mode and a frequency adjustment switch associated with the frequency gear, generating an automatic gear change switch associated with the automatic gear change mode and a sensitivity gear switch associated with the sensitivity gear.

[0030] The wiper control method described in some embodiments further includes:

[0031] Acquiring batch vehicle driving data, the batch vehicle driving data comprising batch frequency gear selection information of the wiper in a manual gear change mode and batch sensitivity gear selection information of the wiper in an automatic gear change mode;

[0032] Analyze the proportion data of different frequency gears in the batch frequency gear selection information, and analyze the proportion data of different sensitivity gears in the batch sensitivity gear selection information;

[0033] The frequency gear whose proportion data is greater than the third proportion threshold is used as the optimized frequency gear, and the sensitivity gear whose proportion data is greater than the fourth proportion threshold is used as the optimized sensitivity gear;

[0034] Generate an optimized frequency adjustment switch associated with the optimized frequency gear, and generate an optimized sensitivity gear switch associated with the optimized sensitivity gear;

[0035] After replacing the frequency adjustment switch with the optimized frequency adjustment switch and replacing the optimized sensitivity gear switch with the optimized sensitivity gear switch, a manual gear change switch associated with the manual gear change mode and a frequency adjustment switch associated with the frequency gear are generated, and an automatic gear change switch associated with the automatic gear change mode and a sensitivity gear switch associated with the sensitivity gear are generated.

[0036] In a second aspect, the technical solution of the present application provides a wiper control device, comprising:

[0037] a mode switch display module configured to display a manual gear shift switch and an automatic gear shift switch on a display screen in response to a wiper on signal;

[0038] A selection switch display module is configured to display a frequency adjustment switch on the display screen in response to an operation signal that the manual gear switch is touched, wherein the frequency adjustment switch includes switches for adjusting more than three frequency gears; and to display a sensitivity gear switch on the display screen in response to an operation signal that the automatic gear change switch is touched, wherein the sensitivity gear switch includes switches for adjusting more than three sensitivity gears;

[0039] The control output module is configured to control the wiper to operate according to the target frequency gear or the target sensitivity gear corresponding to the operation signal in response to an operation signal that the frequency adjustment switch is adjusted to a target frequency gear among the three or more frequency gears, or in response to an operation signal that the sensitivity gear switch is adjusted to a target sensitivity gear among the three or more sensitivity gears.

[0040] In a third aspect, the technical solution of the present application provides a computer-readable storage medium, in which program information is stored. After a computer reads the program information, the computer executes the wiper control method described in any one of the first aspects.

[0041] In a fourth aspect, the technical solution of the present application provides an electronic device, comprising at least one processor and at least one memory, wherein at least one of the memories stores program information, and after reading the program information, at least one of the processors executes the wiper control method described in any one of the first aspects.

[0042] In a fifth aspect, the technical solution of the present application provides a vehicle, in which the wiper control device described in the second aspect or the computer-readable storage medium described in the third aspect or the electronic device described in the fourth aspect is configured.

[0043] The vehicle described in some embodiments is equipped with a touch display screen, which is used to display a manual gear change switch, an automatic gear change switch, a frequency adjustment switch and / or a sensitivity gear switch.

[0044] The above technical solution has the following beneficial effects:

[0045] The wiper control method, device, electronic device and vehicle provided by the present application newly add a manual gear change switch, an automatic gear change switch, a frequency adjustment switch and a sensitivity gear switch. By displaying the above switches on the display screen, the operator can directly operate the display screen when he needs to adjust the action state of the wiper. After responding to the operation signal of the display screen, the gear change mode, target frequency gear or target sensitivity gear corresponding to the operation signal of the manual gear change switch, the frequency adjustment switch, the automatic gear change switch or the sensitivity gear switch is obtained, and the wiper is controlled to act according to the target frequency gear or the target sensitivity gear corresponding to the operation signal. Through this solution, the adjustment method of the working state of the wiper is richer, and the user can choose the wiper gear that better meets the needs. BRIEF DESCRIPTION OF THE DRAWINGS

[0046] Figure 1 This is a flow chart of a wiper control method described in an embodiment of the present application;

[0047] Figure 2 This is a schematic diagram of a mode switch according to an embodiment of the present application;

[0048] Figure 3 A schematic diagram of a frequency adjustment switch according to an embodiment of the present application;

[0049] Figure 4 A schematic diagram of a sensitivity gear switch according to an embodiment of the present application;

[0050] Figure 5 This is a flow chart of a wiper control method according to another embodiment of the present application;

[0051] Figure 6This is a flow chart of a wiper control method according to another embodiment of the present application;

[0052] Figure 7 This is a structural block diagram of a wiper control device according to an embodiment of the present application;

[0053] Figure 8 A schematic diagram of the hardware connection relationship of an electronic device described in an embodiment of the present application. DETAILED DESCRIPTION

[0054] The specific implementation of the present application is further described below with reference to the accompanying drawings.

[0055] It is easy to understand that according to the technical solution of the present application, without changing the essential spirit of the present application, a variety of structural modes and implementation modes that can be replaced by those skilled in the art can be replaced with each other. Therefore, the following specific implementation modes and drawings are only exemplary descriptions of the technical solution of the present application, and should not be regarded as the entirety of the present application or as a limitation or restriction on the technical solution of the application.

[0056] The directional terms such as up, down, left, right, front, back, front, back, top, bottom, etc. mentioned or may be mentioned in this specification are defined relative to the structures shown in the drawings. They are relative concepts and may change accordingly according to different positions and different usage conditions. Therefore, these or other directional terms should not be interpreted as restrictive terms.

[0057] The present application provides a wiper control method, which is applied to a wiper control unit provided in a vehicle. Figure 1 As shown, the method includes:

[0058] S10: In response to the wiper on signal, displaying a manual gear shift switch and an automatic gear shift switch on a display screen.

[0059] The wiper on signal may be obtained after the user operates a switch on the gear lever, and the display screen is a touch screen.

[0060] The manual gear change switch and the automatic gear change switch can be Figure 2 The form shown is displayed on the touch display screen. The user can touch "manual" or "automatic" with a finger to select the change mode of the wiper gear.

[0061] S20: If in response to an operation signal that the manual gear switch is touched, a frequency adjustment switch is displayed on the display screen, and the frequency adjustment switch includes switches for adjusting more than three frequency gears; if in response to an operation signal that the automatic gear change switch is touched, a sensitivity gear switch is displayed on the display screen, and the sensitivity gear switch includes switches for adjusting more than three sensitivity gears.

[0062] Wherein, the frequency adjustment switch can be Figure 3 In the form shown, the sensitivity gear switch can be Figure 4 The form shown. As shown in the figure, the frequency adjustment switch includes switches for adjusting more than three frequency gears, and the sensitivity gear switch includes switches for adjusting more than three sensitivity gears. The user selects the gear by touching the first block to be operated, the second block to be operated, the third block to be operated, or the fourth block to be operated. Among them, in the frequency adjustment switch, settings are made for the manual low-speed gear and the manual high-speed gear in the prior art, the first block to be operated is used to set the frequency gear of the manual low-speed gear, and the second block to be operated is used to set the frequency gear of the manual high-speed gear. In the sensitivity gear switch, settings are made for the automatic low-speed gear and the automatic high-speed gear in the prior art, the third block to be operated is used to set the sensitivity gear of the automatic low-speed gear, and the fourth block to be operated is used to set the sensitivity gear of the automatic high-speed gear.

[0063] S30: In response to an operation signal that the frequency adjustment switch is adjusted to a target frequency position among the three or more frequency positions, or in response to an operation signal that the sensitivity position switch is adjusted to a target sensitivity position among the three or more sensitivity positions, the wiper is controlled to operate according to the target frequency position or the target sensitivity position corresponding to the operation signal.

[0064] By detecting the user's touch operation on the switch displayed above, the gear position of the wiper required by the user can be determined, and then the wiper can be controlled to operate according to the operation signal to meet the user's demand for the gear position.

[0065] The above scheme of this embodiment adds a manual gear change switch, an automatic gear change switch, a frequency adjustment switch and a sensitivity gear switch. By displaying the above switches on the display screen, when the operator needs to adjust the action state of the wiper, he can directly operate the display screen. After responding to the operation signal of the display screen, the gear change mode, target frequency gear or target sensitivity gear corresponding to the operation signal of the manual gear change switch, the frequency adjustment switch, the automatic gear change switch or the sensitivity gear switch is obtained, and the wiper is controlled to operate according to the target frequency gear or the target sensitivity gear corresponding to the operation signal. Through this scheme, the adjustment method of the working state of the wiper is richer, and the user can choose the wiper gear that better meets the needs.

[0066] In some solutions, the above method may further include the following steps before step S10:

[0067] S01: dividing the wiper action frequency in the manual gear change mode into more than three frequency gears, and dividing the wiper action sensitivity in the automatic gear change mode into more than three sensitivity gears.

[0068] Specifically, the maximum value and the minimum value of the wiper action frequency can be determined according to the wiper action frequency in the prior art. In this solution, the total range of the wiper action frequency is divided into three or more, and the frequency gears can be divided at equal intervals. The maximum value and the minimum value of the wiper action sensitivity can be determined according to the wiper action sensitivity in the prior art. In this solution, the total range of the wiper action sensitivity is divided into three or more, and the sensitivity gears can be divided at equal intervals.

[0069] In specific implementation, the number of sensitivity levels may be the same as or different from the number of frequency levels. When the number of sensitivity levels is the same as the number of frequency levels, the sensitivity levels may be obtained by adding a redundant range to the frequency levels.

[0070] S02: Generate a manual gear change switch associated with a manual gear change mode and a frequency adjustment switch associated with a frequency gear, generate an automatic gear change switch associated with an automatic gear change mode and a sensitivity gear switch associated with a sensitivity gear.

[0071] The manual gear change switch, frequency adjustment switch, automatic gear change switch and sensitivity gear switch can be image, digital, etc.

[0072] Further, as shown in the figure, the frequency gears include seven, and the action frequencies corresponding to the seven frequency gears increase in sequence; the sensitivity gears include seven, and the action sensitivities corresponding to the seven sensitivity gears increase in sequence. In specific implementation, the division method shown in Table 1 can be used:

[0073] Table 1 Frequency and sensitivity level division results

[0074]

[0075] The division results in the above table can be adjusted according to the actual situation, and both the number of gears and the corresponding frequency of each gear can be adjusted. In the above scheme, the frequency value in the sensitivity gear is the same as the frequency gear, but a certain redundant range is added. This redundant range can fill the frequency gap between two adjacent gears in the frequency gear. For example, in the frequency gear, gear 1 is once every 10s, and gear 2 is once every 8s, that is, there is a gap between 8-10s, and gear 1 in the sensitivity gear corresponds to once every 7-13s, which can fill the gap between gears 1-2 in the frequency gear.

[0076] In some schemes, such as Figure 3 The switch shown can be generated in the following manner. In step S20, a frequency adjustment switch associated with a frequency gear is generated, including:

[0077] S201: Generate a frequency gear switch summary bar.

[0078] like Figure 3 As shown, a long strip pattern is used as the frequency gear switch summary bar.

[0079] S202: Divide the frequency gear switch summary bar into three or more frequency gear areas corresponding to the number of frequency gears.

[0080] Figure 3 As shown, the frequency gear switch summary bar is divided into seven frequency gear areas.

[0081] S203: Generate a first block to be operated and a second block to be operated, wherein the first block to be operated and the second block to be operated are used to slide in different frequency ranges according to a touch operation.

[0082] A short bar pattern having a different color from the total bar of the frequency position switch can be selected as the first block to be operated and the second block to be operated.

[0083] S204: Establishing an association relationship between the first block to be operated and the frequency range region where it stays; establishing an association relationship between the second block to be operated and the frequency range region where it stays.

[0084] By establishing the association relationship between the first block to be operated and the frequency range region where it stays, and the association relationship between the second block to be operated and the frequency range region where it stays, the range and frequency corresponding to the two blocks can be determined after the positions of the first operation block and the second operation block are determined. That is, in step S30, the information of the first frequency range region where the first block to be operated stays is obtained, the first frequency range corresponding to the first frequency range region is determined, and the first frequency range is used as the target frequency range of the manual low gear; the information of the second frequency range region where the second block to be operated stays is obtained, the second frequency range corresponding to the second frequency range region is determined, and the second frequency range is used as the target frequency range of the manual high gear.

[0085] In some schemes, such as Figure 4 The switch shown can be generated in the following manner. In step S20, a sensitivity level switch associated with a sensitivity level is generated, including:

[0086] S2A: Generates sensitivity range switch summary bar.

[0087] like Figure 4As shown, a long strip pattern is used as the summary bar of the sensitivity gear switch.

[0088] S2B: Divide the sensitivity level switch summary bar into three or more sensitivity level areas corresponding to the number of sensitivity levels.

[0089] Figure 4 As shown, the sensitivity gear switch summary bar is divided into seven sensitivity gear areas

[0090] S2C: Generate a third block to be operated and a fourth block to be operated, wherein the third block to be operated and the fourth block to be operated are used to slide in different sensitivity gear areas according to the touch operation.

[0091] A short bar pattern having a different color from the total bar of the sensitivity position switch may be selected as the third and fourth blocks to be operated.

[0092] S2D: Establishing an association relationship between the third block to be operated and the sensitivity level region where it stays; establishing an association relationship between the fourth block to be operated and the sensitivity level region where it stays.

[0093] By establishing the association relationship between the third block to be operated and the sensitivity gear area where it stops, and the association relationship between the fourth block to be operated and the sensitivity gear area where it stops, the gear and sensitivity corresponding to the two blocks can be determined after the positions of the third operation block and the fourth operation block are determined. That is, in step S30, the information of the first sensitivity gear area where the third block to be operated stops is obtained, the first sensitivity gear corresponding to the first sensitivity gear area is determined, and the first sensitivity gear is used as the target sensitivity gear of the automatic low gear; the information of the second sensitivity gear area where the fourth block to be operated stops is obtained, the second sensitivity gear corresponding to the second sensitivity gear area is determined, and the second sensitivity gear is used as the target sensitivity gear of the automatic high gear.

[0094] Through the above-mentioned scheme of the present application, it is possible to add different working state adjustment switches for the wiper without changing the wiper switch structure in the original vehicle, so that the user can operate the switch and select to determine the wiper working parameters that meet their personalized needs.

[0095] Furthermore, if Figure 5 As shown, the wiper control method further includes:

[0096] S401: Acquire historical driving data, wherein the historical driving data includes frequency gear selection information of the wiper in a manual gear change mode and sensitivity gear selection information of the wiper in an automatic gear change mode.

[0097] The vehicle can record the operation records of the wiper during driving. Therefore, the historical driving data includes the frequency gear selection information in the manual gear change mode and the sensitivity gear selection information of the wiper in the automatic gear change mode.

[0098] S501: parsing the proportion data of different frequency gears in the frequency gear selection information, and parsing the proportion data of different sensitivity gears in the sensitivity gear selection information.

[0099] The ratio of the number of selections of different frequency levels to the total number of selections can be directly analyzed as the proportion data; the ratio of the number of selections of different sensitivity levels to the total number of selections can be directly analyzed as the proportion data.

[0100] S601: Delete the frequency gear whose proportion data is less than the first proportion threshold, delete the sensitivity gear whose proportion data is less than the second proportion threshold, and then return to step S20.

[0101] In this step, the frequency gear and sensitivity gear that are used too infrequently by the user are deleted. This solution can be used to collect data statistics on the personalized usage habits of users based on a single vehicle, thereby deleting the gears that are not frequently used by the user and simplifying the calculation of gear division and gear display.

[0102] Furthermore, if Figure 6 As shown, the wiper control method further includes:

[0103] S402: Acquire batch vehicle driving data, wherein the batch vehicle driving data includes batch frequency gear selection information of the wiper in a manual gear change mode and batch sensitivity gear selection information of the wiper in an automatic gear change mode.

[0104] By conducting data statistics on user usage status based on more than 100,000 vehicle models, batch frequency gear selection information of the wiper in manual gear change mode and batch sensitivity gear selection information of the wiper in automatic gear change mode can be screened out.

[0105] S502: Analyze the proportion data of different frequency gears in the batch frequency gear selection information, and analyze the proportion data of different sensitivity gears in the batch sensitivity gear selection information.

[0106] The ratio of the number of selections of different frequency levels to the total number of selections can be directly analyzed as the proportion data; the ratio of the number of selections of different sensitivity levels to the total number of selections can be directly analyzed as the proportion data.

[0107] S602: The frequency gear whose proportion data is greater than the third proportion threshold is used as the optimized frequency gear, and the sensitivity gear whose proportion data is greater than the fourth proportion threshold is used as the optimized sensitivity gear.

[0108] This step is used to retain and maintain the gears that users tend to use, that is, to filter out the frequency gears and sensitivity gears that users use more frequently as the optimized frequency gears and optimized sensitivity gears.

[0109] S702: After replacing the frequency adjustment switch with the optimized frequency adjustment switch and replacing the optimized sensitivity gear switch with the optimized sensitivity gear switch, a manual gear change switch associated with the manual gear change mode and a frequency adjustment switch associated with the frequency gear are generated, and an automatic gear change switch associated with the automatic gear change mode and a sensitivity gear switch associated with the sensitivity gear are generated. That is, the gear that the user tends to use is used as the final gear to regenerate the switch for the user to select.

[0110] The above-mentioned scheme of the present application further optimizes the wiper sensitivity and wiping frequency by collecting the usage frequencies of different users and the usage tendencies of a large number of users, and further improves the user experience in three ways: "removing gears and wiping frequencies that users do not like", "retaining the user's current usage frequency" and "refining the frequency that users tend to use".

[0111] The present application also provides a wiper control device, such as Figure 7 As shown, including:

[0112] The mode switch display module 10 is configured to display a manual gear change switch and an automatic gear change switch on the display screen in response to the wiper on signal. The manual gear change switch and the automatic gear change switch can be displayed by Figure 2 The form shown is displayed on the touch display screen. The user can touch "manual" or "automatic" with a finger to select the change mode of the wiper gear.

[0113] The selection switch display module 20 is configured to display a frequency adjustment switch on the display screen in response to an operation signal that the manual gear switch is touched, and the frequency adjustment switch includes switches for adjusting more than three frequency gears; and to display a sensitivity gear switch on the display screen in response to an operation signal that the automatic gear change switch is touched, and the sensitivity gear switch includes switches for adjusting more than three sensitivity gears.

[0114] The control output module 30 is configured to control the wiper to operate according to the target frequency gear or the target sensitivity gear corresponding to the operation signal in response to the operation signal that the frequency adjustment switch is adjusted to the target frequency gear among the three or more frequency gears, or in response to the operation signal that the sensitivity gear switch is adjusted to the target sensitivity gear among the three or more sensitivity gears. The gear of the wiper required by the user can be determined by detecting the user's touch operation on the displayed switch, and then the wiper is controlled to operate according to the operation signal, so as to meet the user's demand for the gear.

[0115] The above scheme adds a manual gear change switch, an automatic gear change switch, a frequency adjustment switch, and a sensitivity gear switch. By displaying the above switches on the display screen, when the operator needs to adjust the action state of the wiper, he can directly operate the display screen. After responding to the operation signal of the display screen, the gear change mode, target frequency gear or target sensitivity gear corresponding to the operation signal of the manual gear change switch, frequency adjustment switch, automatic gear change switch or sensitivity gear switch is obtained, and the wiper is controlled to operate according to the target frequency gear or the target sensitivity gear corresponding to the operation signal. Through this scheme, the adjustment method of the working state of the wiper is richer, and the user can choose the wiper gear that better meets the needs.

[0116] Furthermore, the device in the above scheme also includes:

[0117] The information division module is configured to divide the wiper action frequency in the manual gear change mode into more than three frequency gears, and divide the wiper action sensitivity in the automatic gear change mode into more than three sensitivity gears; divide the total range of the wiper action frequency into more than three, and the frequency gears can be divided at equal intervals. Divide the total range of the wiper action sensitivity into more than three, and the sensitivity gears can be divided at equal intervals. The number of sensitivity gears can be the same as the number of frequency gears, or different. When the number of sensitivity gears is the same as the number of frequency gears, the sensitivity gear can be obtained by adding a redundant range on the basis of the frequency gear.

[0118] The gear switch generation module is configured to generate a manual gear change switch associated with a manual gear change mode and a frequency adjustment switch associated with a frequency gear, to generate an automatic gear change switch associated with an automatic gear change mode and a sensitivity gear switch associated with a sensitivity gear; the manual gear change switch, the frequency adjustment switch, the automatic gear change switch and the sensitivity gear switch can be images, numbers, etc.

[0119] In the above scheme, the frequency gears include seven, and the action frequencies corresponding to the seven frequency gears increase in sequence; the sensitivity gears include seven, and the action sensitivities corresponding to the seven sensitivity gears increase in sequence.

[0120] In some schemes, the gear switch generation module is also used to generate a frequency gear switch summary bar; divide the frequency gear switch summary bar into more than three frequency gear areas corresponding to the number of frequency gears; generate a first block to be operated and a second block to be operated, the first block to be operated and the second block to be operated are used to slide in different frequency gear areas with touch operation; establish an association relationship between the first block to be operated and the frequency gear area where it stays; establish an association relationship between the second block to be operated and the frequency gear area where it stays. A long strip pattern is used as the frequency gear switch summary bar. The frequency gear switch summary bar is divided into multiple frequency gear areas. A short strip pattern with a different color from the frequency gear switch summary bar can be selected as the first block to be operated and the second block to be operated. By establishing an association relationship between the first block to be operated and the frequency gear area where it stays, and an association relationship between the second block to be operated and the frequency gear area where it stays, the gear and frequency corresponding to the two blocks can be determined after determining the positions of the first operation block and the second operation block. That is, in the control output module 30, information on the first frequency gear area where the first block to be operated stays is obtained, the first frequency gear corresponding to the first frequency gear area is determined, and the first frequency gear is used as the target frequency gear of the manual low speed gear; information on the second frequency gear area where the second block to be operated stays is obtained, the second frequency gear corresponding to the second frequency gear area is determined, and the second frequency gear is used as the target frequency gear of the manual high speed gear.

[0121] In some schemes, the gear switch generation module is further used to: generate a sensitivity gear switch summary bar; divide the sensitivity gear switch summary bar into more than three sensitivity gear areas corresponding to the number of sensitivity gears; generate a third block to be operated and a fourth block to be operated, the third block to be operated and the fourth block to be operated are used to slide in different sensitivity gear areas with touch operation; establish an association relationship between the third block to be operated and the sensitivity gear area where it stays; establish an association relationship between the fourth block to be operated and the sensitivity gear area where it stays. A long strip pattern is used as the sensitivity gear switch summary bar, and the sensitivity gear switch summary bar is divided into a plurality of sensitivity gear areas. A short strip pattern with a different color from the sensitivity gear switch summary bar can be selected as the third block to be operated and the fourth block to be operated. By establishing an association relationship between the third block to be operated and the sensitivity gear area where it stays, and an association relationship between the fourth block to be operated and the sensitivity gear area where it stays, the gear and sensitivity corresponding to the two blocks can be determined after the positions of the third operation block and the fourth operation block are determined. That is, in the control output module 30, information on the first sensitivity gear area where the third block to be operated stays is obtained, the first sensitivity gear corresponding to the first sensitivity gear area is determined, and the first sensitivity gear is used as the target sensitivity gear of the automatic low gear; information on the second sensitivity gear area where the fourth block to be operated stays is obtained, the second sensitivity gear corresponding to the second sensitivity gear area is determined, and the second sensitivity gear is used as the target sensitivity gear of the automatic high gear.

[0122] Through the above-mentioned scheme of the present application, it is possible to add different working state adjustment switches for the wiper without changing the wiper switch structure in the original vehicle, so that the user can operate the switch and select to determine the wiper working parameters that meet their personalized needs.

[0123] Furthermore, the wiper control device further includes a personalized gear processing module, which obtains historical driving data, the historical driving data including frequency gear selection information of the wiper in the manual gear change mode and sensitivity gear selection information of the wiper in the automatic gear change mode; analyzes the proportion data of different frequency gears in the frequency gear selection information, analyzes the proportion data of different sensitivity gears in the sensitivity gear selection information; deletes the frequency gear whose proportion data is less than the first proportion threshold, and deletes the sensitivity gear whose proportion data is less than the second proportion threshold. The vehicle can record the operation record of the wiper during driving. Therefore, the historical driving data includes the frequency gear selection information in the manual gear change mode and the sensitivity gear selection information of the wiper in the automatic gear change mode. The ratio of the number of selections of different frequency gears to the total number of times can be directly analyzed as the proportion data; the ratio of the number of selections of different sensitivity gears to the total number of times is used as the proportion data. This solution is used to delete the frequency gear and sensitivity gear that are used too low by the user. This solution can be used to collect data on a user's personalized usage habits based on a single vehicle, thereby deleting gears that are not frequently used by users and simplifying the calculation of gear division and gear display.

[0124] Furthermore, the wiper control device also includes a big data processing module, which obtains batch vehicle driving data, the batch vehicle driving data including batch frequency gear selection information of the wiper in the manual gear change mode and batch sensitivity gear selection information of the wiper in the automatic gear change mode; analyzes the proportion data of different frequency gears in the batch frequency gear selection information, and analyzes the proportion data of different sensitivity gears in the batch sensitivity gear selection information; takes the frequency gear whose proportion data is greater than the third proportion threshold as the optimized frequency gear, and takes the sensitivity gear whose proportion data is greater than the fourth proportion threshold as the optimized sensitivity gear; replaces the frequency adjustment switch with the optimized frequency adjustment switch, and after replacing the optimized sensitivity gear switch with the optimized sensitivity gear switch, generates a manual gear change switch associated with the manual gear change mode and a frequency adjustment switch associated with the frequency gear, and generates an automatic gear change switch associated with the automatic gear change mode and a sensitivity gear switch associated with the sensitivity gear. By also collecting data statistics on user usage status based on more than 100,000 vehicle models, batch frequency gear selection information for wipers in manual gear change mode and batch sensitivity gear selection information for wipers in automatic gear change mode can be screened out. Directly parse the ratio of the number of selections of different frequency gears to the total number of selections as the percentage data; the ratio of the number of selections of different sensitivity gears to the total number of selections is used as the percentage data. This solution is used to retain and maintain the gears that users tend to use, that is, to screen out the frequency gears and sensitivity gears that users use more frequently as the optimized frequency gears and optimized sensitivity gears. Use the gear that users tend to use as the final gear to regenerate the switch for the user to choose.

[0125] Some embodiments of the present application provide a computer-readable storage medium, in which program information is stored. After a computer reads the program information, it executes the wiper control method described in any of the above schemes.

[0126] Some embodiments of the present application provide an electronic device, such as Figure 8As shown, the electronic device includes at least one processor 81 and at least one memory 82, at least one of the memories 82 stores program information, and at least one of the processors 81 reads the program information and executes the wiper control method described in any one of the above method embodiments. The device may also include: an input device 83 and an output device 84. The processor 81, the memory 82, the input device 83 and the output device 84 can be connected in communication. The memory 82, as a non-volatile computer-readable storage medium, can be used to store non-volatile software programs, non-volatile computer executable programs and modules. The processor 81 executes various functional applications and data processing by running the non-volatile software programs, instructions and modules stored in the memory 82, that is, the wiper control method provided by any of the above schemes is implemented. The memory 82 may include a program storage area and a data storage area, wherein the program storage area may store an operating system and an application required by at least one function; the data storage area may store data created according to the use of the wiper control method, etc. In addition, the memory 82 may include a high-speed random access memory, and may also include a non-volatile memory, such as at least one disk storage device, a flash memory device, or other non-volatile solid-state storage device. In some embodiments, the memory 82 may optionally include a memory remotely arranged relative to the processor 81, and these remote memories may be connected to the device for executing the wiper control method via a network. Examples of the above-mentioned network include but are not limited to the Internet, an intranet, a local area network, a mobile communication network and a combination thereof. The input device 83 may receive input user clicks, and generate signal inputs related to user settings and function controls of the wiper control method. The output device 84 may include a display device such as a display screen. When the one or more modules are stored in the memory 82, when they are run by the one or more processors 81, the wiper control method in any of the above-mentioned method embodiments is executed.

[0127] The embodiment of the present application also provides a vehicle, in which the wiper control device or computer-readable storage medium or electronic device described in the above embodiment is configured. Further, the vehicle is configured with a touch display screen, and the touch display screen is used to display a manual gear change switch, an automatic gear change switch, a frequency adjustment switch and / or a sensitivity gear switch. In the vehicle of the present application, the wiper gear switch does not need to be changed, and the existing touch display screen in the vehicle can be directly used to increase the gear adjustment mode of the wiper.

[0128] As needed, the above technical solutions can be combined to achieve the best technical effect.

[0129] The above are only the principles and preferred embodiments of the present application. It should be noted that, for ordinary technicians in this field, on the basis of the principles of the present application, several other modifications can be made, which should also be considered as the protection scope of the present application.

Claims

1. A wiper control method, characterized in that: include: In response to the wiper on signal, displaying a manual gear shift switch and an automatic gear shift switch on the display screen; If in response to an operation signal that the manual gear switch is touched, a frequency adjustment switch is displayed on the display screen, wherein the frequency adjustment switch includes switches for adjusting more than three frequency gears; If in response to an operation signal that the automatic gear change switch is touched, a sensitivity gear switch is displayed on the display screen, wherein the sensitivity gear switch includes switches for adjusting more than three sensitivity gears; In response to an operation signal that the frequency adjustment switch is adjusted to a target frequency position among the three or more frequency positions, or in response to an operation signal that the sensitivity position switch is adjusted to a target sensitivity position among the three or more sensitivity positions, the wiper is controlled to operate according to the target frequency position or the target sensitivity position corresponding to the operation signal.

2. The wiper control method according to claim 1, characterized in that: Before displaying the manual gear shift switch and the automatic gear shift switch on the display screen in response to the wiper on signal, the method further includes: The wiper action frequency in the manual gear change mode is divided into more than three frequency gears, and the wiper action sensitivity in the automatic gear change mode is divided into more than three sensitivity gears; A manual gear shift switch associated with the manual gear shift mode, a frequency adjustment switch associated with the frequency gear, an automatic gear shift switch associated with the automatic gear shift mode, and a sensitivity gear switch associated with the sensitivity gear are generated.

3. The wiper control method according to claim 2, characterized in that: Generate a frequency adjustment switch associated with a frequency gear, including: Generate frequency gear switch summary bar; Divide the frequency gear switch summary bar into three or more frequency gear areas corresponding to the number of frequency gears; Generate a first block to be operated and a second block to be operated, wherein the first block to be operated and the second block to be operated are used to slide in different frequency ranges according to a touch operation; An association relationship between the first block to be operated and the frequency range region where it stays is established; and an association relationship between the second block to be operated and the frequency range region where it stays is established.

4. The wiper control method according to claim 3, characterized in that: Generate a sensitivity gear switch associated with the sensitivity gear, including: Generate a summary bar for sensitivity position switches; Dividing the sensitivity level switch summary bar into three or more sensitivity level areas corresponding to the number of sensitivity levels; Generate a third block to be operated and a fourth block to be operated, wherein the third block to be operated and the fourth block to be operated are used to slide in different sensitivity gear areas according to the touch operation; Establish an association relationship between the third block to be operated and the sensitivity level region where it stays; establish an association relationship between the fourth block to be operated and the sensitivity level region where it stays.

5. The wiper control method according to claim 4, characterized in that: If in response to the operation signal that the frequency adjustment switch is adjusted to the target frequency gear among the three or more frequency gears, it includes: obtaining information of a first frequency gear area where the first block to be operated stays, determining a first frequency gear corresponding to the first frequency gear area, and using the first frequency gear as a target frequency gear of a manual low-speed gear; obtaining information of a second frequency gear area where the second block to be operated stays, determining a second frequency gear corresponding to the second frequency gear area, and using the second frequency gear as a target frequency gear of a manual high-speed gear; If in response to an operation signal in which the sensitivity gear switch is adjusted to a target sensitivity gear among the three or more sensitivity gears, the method includes: obtaining information of a first sensitivity gear area where the third block to be operated stays, determining a first sensitivity gear corresponding to the first sensitivity gear area, and using the first sensitivity gear as a target sensitivity gear of the automatic low gear; obtaining information of a second sensitivity gear area where the fourth block to be operated stays, determining a second sensitivity gear corresponding to the second sensitivity gear area, and using the second sensitivity gear as a target sensitivity gear of the automatic high gear.

6. The wiper control method according to any one of claims 1 to 5, characterized in that: Also includes: Acquiring historical driving data, the historical driving data including frequency gear selection information of the wiper in a manual gear change mode and sensitivity gear selection information of the wiper in an automatic gear change mode; Analyze the proportion data of different frequency gears in the frequency gear selection information, and analyze the proportion data of different sensitivity gears in the sensitivity gear selection information; The frequency level whose proportion data is less than the first proportion threshold is deleted, and the sensitivity level whose proportion data is less than the second proportion threshold is deleted; Return to the step of generating a manual gear change switch associated with the manual gear change mode and a frequency adjustment switch associated with the frequency gear, generating an automatic gear change switch associated with the automatic gear change mode and a sensitivity gear switch associated with the sensitivity gear.

7. The wiper control method according to any one of claims 1 to 5, characterized in that: Also includes: Acquiring batch vehicle driving data, the batch vehicle driving data comprising batch frequency gear selection information of the wiper in a manual gear change mode and batch sensitivity gear selection information of the wiper in an automatic gear change mode; Analyze the proportion data of different frequency gears in the batch frequency gear selection information, and analyze the proportion data of different sensitivity gears in the batch sensitivity gear selection information; The frequency gear whose proportion data is greater than the third proportion threshold is used as the optimized frequency gear, and the sensitivity gear whose proportion data is greater than the fourth proportion threshold is used as the optimized sensitivity gear; Generate an optimized frequency adjustment switch associated with the optimized frequency gear, and generate an optimized sensitivity gear switch associated with the optimized sensitivity gear; After replacing the frequency adjustment switch with the optimized frequency adjustment switch and replacing the optimized sensitivity gear switch with the optimized sensitivity gear switch, a manual gear change switch associated with the manual gear change mode and a frequency adjustment switch associated with the frequency gear are generated, and an automatic gear change switch associated with the automatic gear change mode and a sensitivity gear switch associated with the sensitivity gear are generated.

8. A wiper control device, characterized in that: include: a mode switch display module configured to display a manual gear shift switch and an automatic gear shift switch on a display screen in response to a wiper on signal; A selection switch display module is configured to display a frequency adjustment switch on the display screen in response to an operation signal that the manual gear switch is touched, wherein the frequency adjustment switch includes switches for adjusting more than three frequency gears; and to display a sensitivity gear switch on the display screen in response to an operation signal that the automatic gear change switch is touched, wherein the sensitivity gear switch includes switches for adjusting more than three sensitivity gears; The control output module is configured to control the wiper to operate according to the target frequency gear or the target sensitivity gear corresponding to the operation signal in response to an operation signal that the frequency adjustment switch is adjusted to a target frequency gear among the three or more frequency gears, or in response to an operation signal that the sensitivity gear switch is adjusted to a target sensitivity gear among the three or more sensitivity gears.

9. A computer-readable storage medium, characterized in that: The storage medium stores program information, and the computer executes the wiper control method according to any one of claims 1 to 7 after reading the program information.

10. An electronic device, characterized in that: The electronic device includes at least one processor and at least one memory, at least one of the memories stores program information, and at least one of the processors reads the program information and executes the wiper control method according to any one of claims 1 to 7.

11. A vehicle, characterized in that: The vehicle is equipped with the wiper control device according to claim 8, the computer-readable storage medium according to claim 9, or the electronic device according to claim 10.

12. The vehicle according to claim 11, characterized in that: The vehicle is equipped with a touch display screen, which is used to display a manual gear change switch, an automatic gear change switch, a frequency adjustment switch and / or a sensitivity gear switch.

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