Memory assembly of automobile rearview mirror driver

Abstract

The utility model discloses a memory assembly of an automobile rearview mirror driver, the driver comprises a base, a first rack, a second rack and a memory assembly, the first rack and the second rack are crosswise embedded in the base, and the memory assembly is arranged between the first rack and the second rack. The memory assembly comprises a first gear column, a second gear column, a first drive plate, a second drive plate and a detector, one end of the first gear column is meshed with the first rack, the other end of the first gear column is meshed with the first drive plate, one end of the second gear column is meshed with the second rack, and the other end of the second gear column is meshed with the second drive plate; the first drive plate and the second drive plate are coaxially installed on the two sides of the detector. When the semi-ring-shaped rack moves, the upper end and the lower end of the semi-ring-shaped rack are limited, the moving stability of the semi-ring-shaped rack is improved, and therefore the stability of the driver is improved.

Description

Technical Field

[0001] The utility model relates to the technical field of automobile accessories, in particular to a memory component of an automobile rearview mirror driver. Background Art

[0002] A rearview mirror is an automotive accessory that allows the driver to observe the status of vehicles and pedestrians behind them while driving. It is essential for safe driving. By adjusting the mirror's angle with the help of a mirror actuator, the driver can observe a specific direction of vision, facilitating safe driving. Mirror actuators on the market come in two types: with and without memory. Memory actuators are popular among consumers because they can adjust the rearview mirror's optimal viewing angle based on each driver's height and driving habits, then store the adjusted angle in memory. After someone else drives the vehicle or adjusts the angle to their preferred setting, the driver can easily activate the memory and the mirror will return to its optimal setting.

[0003] The memory assembly is provided with a dial, and the driver is provided with a rack. The transmission structure of the existing memory assembly includes a transmission gear meshing with the rack, and the transmission gear and the dial are transmitted through a double bevel gear. The transmission structure is relatively complex, which reduces the reliability of the transmission structure. Summary of the Invention

[0004] The embodiment of the present application provides a memory component of a car rearview mirror driver, in which the first rack and the first dial are transmitted only through the first gear column, and the second rack and the second dial are transmitted only through the second gear column, thereby reducing the transmission structure, improving the stability and reliability of the transmission, making the structure more compact, and reducing the space occupied by the memory component.

[0005] To achieve the above-mentioned objectives, the present invention provides the following technical solutions: a memory component of a car rearview mirror driver, the driver comprising a base, a first rack, a second rack, and a memory component, the first rack and the second rack being cross-embedded inside the base, the memory component being arranged between the first rack and the second rack, the memory component comprising a first gear column, a second gear column, a first dial, a second dial, and a detector, one end of the first gear column being engaged with the first rack, the other end of the first gear column being engaged with the first dial, one end of the second gear column being engaged with the second rack, the other end of the second gear column being engaged with the second dial, and the first dial and the second dial being coaxially mounted on both sides of the detector.

[0006] Compared with the prior art, the advantages of the present invention are:

[0007] One end of the first gear column is engaged with the first rack, the other end of the first gear column is engaged with the first dial, one end of the second gear column is engaged with the second rack, and the other end of the second gear column is engaged with the second dial, so that the first rack and the first dial are transmitted only through the first gear column, and the second rack and the second dial are transmitted only through the second gear column. Compared with the prior art in which the rack and the dial are transmitted through the transmission gear and the double bevel gear, the transmission structure is reduced, the stability and reliability of the transmission are improved, the structure is more compact, and the space occupied by the memory component is reduced.

[0008] As an improvement, the first gear column is cross-arranged with the first dial, and the second gear column is cross-arranged with the second dial. The first gear column includes a first helical gear, and the second gear column includes a second helical gear. The first dial is provided with first helical gear teeth meshed with the first helical gear, and the second dial is provided with second helical gear teeth meshed with the second helical gear. Since the first rack and the second rack are cross-arranged, the setting directions of the first gear column and the second gear column are cross-arranged accordingly. At this time, the first gear column is cross-arranged with the first dial, and the second gear column is cross-arranged with the second dial. On the basis of not changing the setting directions of the first dial and the second dial, thereby increasing the space occupied by the memory component, the first gear column is provided with a first helical gear, the first dial is provided with first helical gear teeth meshed with the first helical gear, the second gear column is provided with a second helical gear, and the second dial is provided with second helical gear teeth meshed with the second helical gear. Compared with spur gears, the helical gears are stronger and run more smoothly.

[0009] As an improvement, the first gear column also includes a first column, which is connected to the first bevel gear, and the second gear column also includes a second column, which is connected to the second bevel gear. The base is protruding with a first limiting groove corresponding to the first column and a second limiting groove corresponding to the second column. The lower end of the first column is embedded in the interior of the first limiting groove, and the lower end of the second column is embedded in the interior of the second limiting groove. By providing the first limiting groove corresponding to the first column and the second limiting groove corresponding to the second column, it is convenient to position and install the first gear column and the second gear column.

[0010] As an improvement, the driver also includes two motors, which are arranged on both sides of the memory component and at one end inside the base together with the memory component. The memory component includes a circuit board, both sides of the circuit board are electrically connected to the motors, and the middle of the circuit board is electrically connected to the detector. The memory component and the motor are arranged at the same end inside the base, which is convenient for connection with the circuit board and can effectively reduce the space occupied by the circuit board.

[0011] As an improvement, a first spring sheet is provided on one side of the first dial, and a second spring sheet is provided on one side of the second dial. The first spring sheet and the second spring sheet protrude toward the detector and are provided with a plurality of contacts. Both sides of the detector are provided with sensing sheets corresponding to the contacts. The first spring sheet and the second spring sheet are respectively abutted against the two sides of the detector so that the contacts are connected to the sensing sheets. The contacts are connected to the sensing sheets to detect and record the rotation angle of the car rearview mirror. BRIEF DESCRIPTION OF THE DRAWINGS

[0012] The present invention will be further described in detail below with reference to the accompanying drawings and specific embodiments:

[0013] Figure 1 This is a schematic diagram of the memory component structure of a car rearview mirror driver;

[0014] Figure 2 This is a schematic diagram of the coordination structure of the first dial, the second dial and the detector;

[0015] Figure 3 Schematic diagram of the structure of the first dial and the second dial;

[0016] Figure 4 This is a schematic diagram of the structure of the cooperation between the contacts of the first and second spring pieces and the sensor piece of the detector.

[0017] The markings in the above figure are: 1, driver; 1.1, base; 1.1.1, first limiting groove; 1.1.2, second limiting groove; 1.2, first rack; 1.3, second rack; 1.4, memory assembly; 1.4.1, first gear column; 1.4.1.1, first bevel gear;

[0018] 1.4.1.2, first cylinder; 1.4.2, second gear cylinder; 1.4.2.1, second helical gear;

[0019] 1.4.2.2, second cylinder; 1.4.3, first dial; 1.4.3.1, first bevel gear;

[0020] 1.4.4, second dial; 1.4.4.1, second bevel gear; 1.4.5, detector; 1.4.6, circuit board; 1.4.7, first spring clip; 1.4.8, second spring clip; 1.4.9, contact; 1.4.10, sensor; 1.5, motor. DETAILED DESCRIPTION

[0021] In the present invention, it should be understood that the terms "length", "width", "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside", "outside", "clockwise", "counterclockwise", "axial", "planar direction", "circumferential" and the like indicate orientations or positional relationships based on the orientations or positional relationships shown in the accompanying drawings, and are only for the convenience of describing the present invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore should not be understood as a limitation on the present invention.

[0022] like Figures 1 to 2 As shown, a memory component of a car rearview mirror driver, the driver 1 includes a base 1.1, a first rack 1.2, a second rack 1.3, and a memory component 1.4. The first rack 1.2 and the second rack 1.3 are cross-embedded in the interior of the base 1.1, the memory component 1.4 is arranged between the first rack 1.2 and the second rack 1.3, and the memory component 1.4 includes a first gear column 1.4.1, a second gear column 1.4.2, a first dial 1.4.3, a second dial Disk 1.4.4, detector 1.4.5, one end of the first gear column 1.4.1 is engaged with the first rack 1.2, the other end of the first gear column 1.4.1 is engaged with the first dial 1.4.3, one end of the second gear column 1.4.2 is engaged with the second rack 1.3, the other end of the second gear column 1.4.2 is engaged with the second dial 1.4.4, and the first dial 1.4.3 and the second dial 1.4.4 are coaxially installed on both sides of the detector 1.4.5.

[0023] The first gear column 1.4.1 is arranged crosswise with the first dial 1.4.3, and the second gear column 1.4.2 is arranged crosswise with the second dial 1.4.4. The first gear column 1.4.1 includes a first bevel gear 1.4.1.1, and the second gear column 1.4.2 includes a second bevel gear 1.4.2.1. The first dial 1.4.3 is provided with first bevel gear teeth 1.4.3.1 engaged with the first bevel gear 1.4.1.1, and the second dial 1.4.4 is provided with second bevel gear teeth 1.4.4.1 engaged with the second bevel gear 1.4.2.1.

[0024] The first gear column 1.4.1 also includes a first column 1.4.1.2, which is connected to the first bevel gear 1.4.1.1. The second gear column 1.4.2 also includes a second column 1.4.2.2, which is connected to the second bevel gear 1.4.2.1. The base 1.1 is protruding with a first limiting groove 1.1.1 corresponding to the first column 1.4.1.2 and a second limiting groove 1.1.2 corresponding to the second column 1.4.2.2. The lower end of the first column 1.4.1.2 is embedded in the interior of the first limiting groove 1.1.1, and the lower end of the second column 1.4.2.2 is embedded in the interior of the second limiting groove 1.1.2.

[0025] The driver 1 also includes two motors 1.5, which are arranged on both sides of the memory component 1.4 and are arranged at one end inside the base 1.1 with the memory component 1.4. The memory component 1.4 includes a circuit board 1.4.6, and the two sides of the circuit board 1.4.6 are electrically connected to the motors 1.5, and the middle of the circuit board 1.4.6 is electrically connected to the detector 1.4.5.

[0026] like Figures 3 and 4 As shown, a first spring piece 1.4.7 is provided on one side of the first dial 1.4.3, and a second spring piece 1.4.8 is provided on one side of the second dial 1.4.4. The first spring piece 1.4.7 and the second spring piece 1.4.8 protrude toward the detector 1.4.5 and are provided with a plurality of contacts 1.4.9. Both sides of the detector 1.4.5 are provided with sensing pieces 1.4.10 corresponding to the contacts 1.4.9. The first spring piece 1.4.7 and the second spring piece 1.4.8 respectively abut against both sides of the detector 1.4.5 so that the contacts 1.4.9 are connected to the sensing pieces 1.4.10.

[0027] When the first rack 1.2 moves, the first dial 1.4.3 is rotated through the first gear column 1.4.1, and the first dial 1.4.3 drives the first spring piece 1.4.7 to rotate. At the same time, the contact 1.4.9 on the first spring piece 1.4.7 is connected to the sensing piece 1.4.10 of the detector 1.4.5, and the contact 1.4.9 rotates relative to the sensing piece 1.4.10, thereby detecting the rotation angle of the first dial 1.4.3 and recording it. When the second rack 1.3 moves, the second dial 1.4.4 is rotated through the second gear column 1.4.2, and the second dial 1.4.4 drives the second spring piece 1.4.8 to rotate. At the same time, the contact 1.4.9 on the second spring piece 1.4.8 is connected to the sensing piece of the detector 1.4.5, and the contact 1.4.9 rotates relative to the sensing piece 1.4.10, thereby detecting the rotation angle of the second dial 1.4.4 and recording it.

[0028] The above is an exemplary description of the present invention in conjunction with the accompanying drawings. It is obvious that the specific implementation of the present invention is not limited to the above-mentioned method. As long as various non-substantial improvements are made using the technical solution of the present invention, or the concept and technical solution of the present invention are directly applied to other occasions without improvement, they are all within the scope of protection of the present invention.

Claims

1. A memory assembly for a rearview mirror driver, the driver (1) comprising a base (1.1), a first rack (1.2), a second rack (1.3), and a memory assembly (1.4), wherein the first rack (1.2) and the second rack (1.3) are cross-embedded in the base (1.1), and characterized in that: The memory component (1.4) is arranged between the first rack (1.2) and the second rack (1.3); the memory component (1.4) comprises a first gear column (1.4.1), a second gear column (1.4.2), a first dial (1.4.3), a second dial (1.4.4), and a detector (1.4.5); one end of the first gear column (1.4.1) is meshed with the first rack (1.2); the other end of the first gear column (1.4.1) is meshed with the first dial (1.4.3); one end of the second gear column (1.4.2) is meshed with the second rack (1.3); the other end of the second gear column (1.4.2) is meshed with the second dial (1.4.4); the first dial (1.4.3) and the second dial (1.4.4) are coaxially mounted on both sides of the detector (1.4.5).

2. The memory component of the automobile rearview mirror driver according to claim 1, characterized in that: The first gear column (1.4.1) and the first dial (1.4.3) are arranged crosswise, and the second gear column (1.4.2) and the second dial (1.4.4) are arranged crosswise. The first gear column (1.4.1) includes a first helical gear (1.4.1.1), and the second gear column (1.4.2) includes a second helical gear (1.4.2.1). The first dial (1.4.3) is provided with first helical gear teeth (1.4.3.1) meshing with the first helical gear (1.4.1.1), and the second dial (1.4.4) is provided with second helical gear teeth (1.4.4.1) meshing with the second helical gear (1.4.2.1).

3. The memory component of the automobile rearview mirror driver according to claim 2, characterized in that: The first gear column (1.4.1) further comprises a first column (1.4.1.2), the first column (1.4.1.2) being connected to the first bevel gear (1.4.1.1), the second gear column (1.4.2) further comprises a second column (1.4.2.2), the second column (1.4.2.2) being connected to the second bevel gear (1.4.2.1), the base (1.1) being protruded with a first limiting groove (1.1.1) corresponding to the first column (1.4.1.2), a second limiting groove (1.4.2.2) corresponding to the second column (1.4.2.2), and a second limiting groove (1.4.1.1) corresponding to the first column (1.4.1.2). 1.1.2), the lower end of the first column (1.4.1.2) is embedded in the first limiting groove (1.1.1), and the lower end of the second column (1.4.2.2) is embedded in the second limiting groove (1.1.2).

4. The memory component of the automobile rearview mirror actuator according to claim 1, characterized in that: The driver (1) further comprises two motors (1.5), the two motors (1.5) being arranged on both sides of a memory component (1.4) and arranged together with the memory component (1.4) at one end inside the base (1.1), the memory component (1.4) comprising a circuit board (1.4.6), both sides of the circuit board (1.4.6) being electrically connected to the motors (1.5), and the middle of the circuit board (1.4.6) being electrically connected to the detector (1.4.5).

5. The memory component of the automobile rearview mirror actuator according to claim 1, characterized in that: A first spring piece (1.4.7) is provided on one side of the first dial (1.4.3), and a second spring piece (1.4.8) is provided on one side of the second dial (1.4.4). The first spring piece (1.4.7) and the second spring piece (1.4.8) protrude toward the detector (1.4.5) and are provided with a plurality of contacts (1.4.9). Both sides of the detector (1.4.5) are provided with sensing pieces (1.4.10) corresponding to the contacts (1.4.9). The first spring piece (1.4.7) and the second spring piece (1.4.8) respectively abut against both sides of the detector (1.4.5) so that the contacts (1.4.9) are connected to the sensing pieces (1.4.10).

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