Keyless intelligent faucet lock

Abstract

The utility model relates to a keyless intelligent bibcock lock which comprises a lock shell, a lock pin and a sliding seat, a through hole for the lock pin to slide is formed in the lock shell, the sliding direction of the lock pin is the same as the axis direction of the through hole, the lock pin is arranged on the sliding seat, the keyless intelligent bibcock lock further comprises a sliding assembly, the sliding assembly comprises a cam, and a convex column is arranged on the cam. A rotating groove is formed in the sliding seat, the length direction of the rotating groove is perpendicular to the sliding direction of the lock pin, and the convex column is located in the rotating groove and slides in the rotating groove in the length direction of the rotating groove; the driving mechanism drives the cam to rotate and comprises a motor, the motor drives the cam to rotate, the motor rotates forwards and reversely to drive the cam to rotate in a reciprocating mode, and the cam rotates to drive the sliding base to slide away from or close to the through hole so that the faucet lock can be unlocked or locked. The faucet lock has the advantages that the size and cost of the lock are reduced, meanwhile, the faucet lock structure is few in part, and assembling is convenient.

Description

Technical Field

[0001] The present application relates to the field of lock technology, and in particular to a keyless smart faucet lock. Background Art

[0002] Steering wheel locks are generally used for electric vehicles or motorcycles. They are mainly used to lock the steering wheel of an electric vehicle or motorcycle after it is parked to prevent the electric vehicle or motorcycle from being stolen.

[0003] Common faucet locks utilize a locking pin and a slider in a linked connection. The key is turned to drive the pin's movement, unlocking the lock. However, the lock body, which requires a key, is bulky, resulting in a larger lockset. Therefore, a drive mechanism is incorporated into the faucet lock to drive the pin's movement. This drive mechanism incorporates an electric power source to achieve this, significantly reducing the lockset's size and cost. However, this drive mechanism typically consists of a motor coupled with a gear and rack. The gear and rack mesh, and the motor drives the gear to rotate, causing the rack to slide. The locking pin, connected to the rack, slides synchronously with the rack to unlock the lockset. This type of structure has numerous parts, making assembly difficult and inconvenient to manufacture. Utility Model Content

[0004] In order to reduce the size and cost of the lock and have fewer structural parts, the present application provides a keyless smart faucet lock.

[0005] This application provides a keyless smart faucet lock, which adopts the following technical solutions:

[0006] A keyless smart faucet lock includes a lock shell, a lock pin and a sliding seat. The lock shell is provided with a through hole for the lock pin to slide, the sliding direction of the lock pin is the same as the axial direction of the through hole, the lock pin is arranged on the sliding seat, and also includes a sliding component, the sliding component includes a cam, the cam is provided with a boss, the sliding seat is provided with a rotating groove, the length direction of the rotating groove is perpendicular to the sliding direction of the lock pin, the boss is located in the rotating groove, and the boss slides in the rotating groove along the length direction of the rotating groove; it also includes a driving mechanism for driving the cam to rotate, the driving mechanism includes a motor, the motor drives the cam to rotate, the forward and reverse rotation of the motor drives the cam to rotate reciprocatingly, and the rotation of the cam drives the sliding seat to slide away from or close to the through hole to realize unlocking or closing the faucet lock.

[0007] By adopting the above technical solution, the setting of the motor enables the faucet lock structure to be driven by electricity, and can be used in conjunction with the circuit board to make the faucet lock more intelligent. The motor drives the cam to rotate, thereby driving the sliding seat to slide, causing the lock pin to slide, and the forward and reverse rotation of the motor to realize the unlocking and locking of the faucet lock. The faucet lock does not need to be unlocked and locked by inserting a key, the size and cost of the lock are reduced, and the faucet lock structure has fewer parts.

[0008] Optionally, the sliding seat includes a sliding block and a connecting block, the connecting block is arranged at one end of the lock pin located in the lock shell, the connecting block is slidingly connected to the sliding block, and the sliding direction of the sliding block is the same as the sliding direction of the lock pin; the sliding assembly also includes a sliding spring, the connecting block is provided with a plug-in hole for the sliding block to slide on the side away from the lock pin, the side wall of the connecting block is provided with a first side groove, the side wall of the sliding block is provided with a second side groove, the first side groove and the second side groove are connected, the sliding spring is arranged in the second side groove, the elastic direction of the sliding spring is the same as the sliding direction of the lock pin, and the radial ends of the sliding spring are located in the first side groove; when the cam rotates to drive the sliding block to slide, the sliding block drives the connecting block to slide away from or close to the through hole through the sliding spring.

[0009] By adopting the above technical solution, the sliding block and the connecting block cooperate to realize the unlocking and locking of the faucet lock. The sliding block and the connecting block enable the faucet lock to be installed in a distributed manner and installed by plugging. At the same time, the sliding spring is installed after plugging, which simplifies the assembly of the faucet lock. The sliding spring improves the sliding stability. At the same time, when the lock pin is stuck and cannot return to its position, the motor will not be damaged.

[0010] Optionally, an emergency block is slidingly provided on the connecting block, and the sliding direction of the emergency block is the same as the sliding direction of the lock pin. An abutment block is provided on the connecting block, and one end of the emergency block abuts against the abutment block toward the lock pin. It also includes a pulling member provided on the emergency block, and when the pulling member is pulled, the emergency block is driven to slide away from the lock pin. The emergency block drives the connecting block to slide away from the through hole to unlock the faucet lock.

[0011] By adopting the above technical solution, when the driving mechanism fails and the sliding block cannot slide, the emergency block can be slid by pulling the pulling piece, thereby driving the connecting block to slide away from the through hole, thereby unlocking the faucet lock.

[0012] Optionally, an emergency component is also included, which includes a sensing button. When the emergency block slides away from the through hole, the emergency block presses the sensing button. The sensing button is connected to a control module. When the sensing button is pressed, the control module controls the speed limit of the electric vehicle.

[0013] By adopting the above technical solution, when the emergency block slides, the locking pin is unlocked and the sensing button is pressed at the same time, putting the electric vehicle into an emergency state and limiting the maximum speed to 25km / h, thereby improving the safety of the rider.

[0014] Optionally, the emergency component also includes an emergency shell and a ball slidably set on the emergency shell, the ball is located at the pressing end of the sensing button, and the ball protrudes from the surface of the emergency shell. When the emergency block slides to a position away from the through hole, the emergency block abuts against the ball to drive the ball to press the sensing button.

[0015] By adopting the above technical solution, the ball is pressed against the sensing button by abutting against the ball, which effectively reduces the wear of the sensing switch directly abutting against the emergency block and improves its service life.

[0016] Optionally, a rotating shell is provided in the lock shell, and a limiting groove for the rotation of the cam is provided on the rotating shell, and an unlocking abutment surface and a locking abutment surface are provided on the wall of the limiting groove. When the cam rotates to the unlocking or locking state, the cam abuts against the unlocking abutment surface or the locking abutment surface.

[0017] By adopting the above technical solution, the rotating shell can better position the protrusion, and the unlocking abutment surface and the locking abutment surface can limit the rotation of the protrusion, preventing the motor from being damaged and driving the cam to rotate continuously, so that the faucet lock cannot be unlocked or locked normally.

[0018] Optionally, a circuit board is provided in the lock housing, and a first unlocking Hall sensor, a first locking Hall sensor, a second unlocking Hall sensor and a second locking Hall sensor are electrically connected to the circuit board, and the circuit board is used to connect to the background; a first magnetic block is provided on the sliding block, and a second magnetic block is provided on the connecting block. When the cam rotates and drives the sliding block to slide in the direction away from the through hole, the first magnetic block approaches the first unlocking Hall sensor, and the second magnetic block approaches the second unlocking Hall sensor, the background displays unlocked; when the cam rotates and drives the sliding block to slide in the direction close to the through hole, the first magnetic block approaches the first locking Hall sensor, and the second magnetic block approaches the second locking Hall sensor, the background displays locked.

[0019] By adopting the above technical solution, the Hall sensor improves the security of the faucet lock. Only when the first magnetic block and the second magnetic block are close to the unlocking Hall sensor or the locking Hall sensor, the background will display unlocking or locking. If the two sets of unlocking or locking Hall sensors do not detect the approach of the magnetic blocks at the same time, the background will display an emergency status.

[0020] Optionally, two opposite side walls of the first side groove are provided with protrusions, and the sliding spring is sleeved on the protrusions.

[0021] By adopting the above technical solution, the protrusion prevents the sliding spring from escaping from the first side groove.

[0022] Optionally, a clamping spring is provided on the connecting block, the elastic direction of the clamping spring is horizontal, one end of the clamping spring is provided on the rotating shell, and the other end is provided at one end of the connecting block close to the locking pin, and the clamping spring drives the connecting block to slide toward the direction close to the through hole.

[0023] By adopting the above technical solution, when the faucet lock is in the locked state, the pressing spring can always press against the connecting block to prevent the connecting block from slipping, so that the locking pin always remains in the locked state, thereby improving the safety of the locking pin when locked.

[0024] In summary, this application includes at least one of the following beneficial technical effects:

[0025] 1. The motor drives the cam to rotate, simplifying the faucet lock structure and reducing the number of drive components. This facilitates intelligent control of the faucet lock's opening and closing. The faucet lock no longer requires a key to unlock or close, reducing the size and cost of the lock.

[0026] 2. If the driving mechanism fails and the sliding block cannot drive the connecting block to slide, the emergency block can be pulled to slide and unlock the faucet lock, which is convenient for unlocking when the motor is damaged;

[0027] 3. The Hall sensor improves the safety of the faucet lock and provides timely feedback in the background. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] Figure 1 1 is an overall schematic diagram of an emergency faucet lock according to an embodiment.

[0029] Figure 2 This is a partial structural diagram of an emergency faucet lock of an embodiment. Figure 1 , mainly displaying emergency blocks and pulling parts.

[0030] Figure 3 2 is a schematic structural diagram of a sliding assembly according to an embodiment.

[0031] Figure 4 yes Figure 1 Cross-section at AA.

[0032] Figure 5 This is a partial structural diagram of an emergency faucet lock of an embodiment. Figure 2 , mainly showing the sliding drive mechanism.

[0033] Figure 6 This is a partial structural diagram of an emergency faucet lock of an embodiment. Figure 3 , mainly showing the rotating shell and cam.

[0034] Figure 7 This is a partial structural diagram of an emergency faucet lock of an embodiment. Figure 4 , mainly showing circuit boards.

[0035] Explanation of the reference numerals: 1. lock housing; 2. lock pin; 3. sliding seat; 31. sliding block; 32. connecting block; 41. through hole; 42. boss; 43. rotating groove; 44. plug-in hole; 45. emergency block; 46. abutment block; 47. pulling member; 491. first side groove; 492. second side groove; 5. sliding assembly; 51. cam; 52. sliding spring; 6. driving mechanism; 61. motor; 62. turbine; 63. worm; 64. gear Mechanism; 71. Rotating shell; 72. Limiting groove; 73. Circuit board; 74. First unlocking Hall sensor; 75. First locking Hall sensor; 76. Second unlocking Hall sensor; 77. Second locking Hall sensor; 8. Emergency component; 81. Ball; 82. Emergency shell; 83. Sensor button; 91. First magnetic block; 92. Second magnetic block; 93. Protrusion; 94. Pressing spring; 95. Unlocking contact surface; 96. Locking contact surface. DETAILED DESCRIPTION

[0036] The present application is further described in detail below with reference to the accompanying drawings and examples.

[0037] The present application embodiment discloses a keyless smart faucet lock. Figure 1 、 Figure 2 、 Figure 3 The keyless smart faucet lock includes a lock housing 1, a lock pin 2, and a sliding seat 3. The lock housing 1 defines a through hole 41 for the sliding movement of the lock pin 2. The lock pin 2 slides in the same direction as the axis of the through hole 41. The lock pin 2 is fixed to the sliding seat 3. The keyless smart faucet lock also includes a sliding assembly 5, which includes a cam 51 with a boss 42 fixed thereto. The sliding seat 3 defines a rotation groove 43, the length of which is perpendicular to the sliding direction of the lock pin 2. The boss 42 is located within the rotation groove 43 and slides along the length of the rotation groove 43.

[0038] Reference Figure 3 、 Figure 4 、 Figure 5 The keyless smart faucet lock also includes a driving mechanism 6 that drives the cam 51 to rotate. The driving mechanism 6 includes a turbine 62, a worm 63, a gear mechanism 64 and a motor 61. The worm 63 is coaxially fixed on the rotating shaft of the motor 61. The turbine 62 and the worm 63 are engaged for transmission. The turbine 62 is coaxially fixed with the input gear of the gear mechanism 64. The output end of the gear mechanism 64 is coaxially fixed on the cam 51. The motor 61 drives the cam 51 to rotate. The forward and reverse rotation of the motor 61 drives the cam 51 to rotate back and forth. The rotation of the cam 51 drives the sliding seat 3 to slide away from or close to the through hole 41 to unlock or close the faucet lock.

[0039] Reference Figure 2 、 Figure 3 、 Figure 4The sliding seat 3 includes a sliding block 31 and a connecting block 32. The connecting block 32 is fixed to one end of the lock pin 2 located inside the lock housing 1. The connecting block 32 is slidably connected to the sliding block 31, and the sliding direction of the sliding block 31 is the same as the sliding direction of the lock pin 2. The sliding assembly 5 also includes a sliding spring 52. The connecting block 32 is provided with a plug hole 44 for the sliding block 31 to slide on the side away from the lock pin 2. The side wall of the connecting block 32 is provided with a first side groove 491, and the side wall of the sliding block 31 is provided with a second side groove 492. The first side groove 491 and the second side groove 492 are connected. The sliding spring 52 is disposed in the second side groove 492. The elastic direction of the sliding spring 52 is the same as the sliding direction of the lock pin 2. The radial ends of the sliding spring 52 are located in the first side groove 491. The opposite side walls of the first side groove 491 are fixed with protrusions 93, and the sliding spring 52 is sleeved on the protrusions 93. When the cam 51 rotates to drive the sliding block 31 to slide, the sliding block 31 drives the connecting block 32 to slide away from or close to the through hole 41 through the sliding spring 52 .

[0040] Reference Figure 2 An emergency block 45 is slidably connected to the connecting block 32. The emergency block 45 slides in the same direction as the lock pin 2. An abutment block 46 is fixed to the connecting block 32. One end of the emergency block 45 abuts against the abutment block 46 on the side facing the lock pin 2. A pulling member 47 is also included on the emergency block 45. When the pulling member 47 is pulled, the emergency block 45 slides away from the lock pin 2. The emergency block 45 then drives the connecting block 32 to slide away from the through hole 41, thereby unlocking the faucet lock.

[0041] Reference Figure 2 、 Figure 4 The keyless smart faucet lock also includes an emergency assembly 8, which includes a ball 81, an emergency housing 82, and a sensor button 83. The ball 81 is slidably connected to the emergency housing 82. The ball 81 is located at the pressing end of the sensor button 83 and protrudes from the surface of the emergency housing 82. When the emergency block 45 slides to a position away from the through hole 41, the emergency block 45 abuts the ball 81, driving the ball 81 to press the sensor button 83. The sensor button 83 is connected to the control module. When the sensor button 83 is pressed, the control module controls the speed limit of the electric vehicle.

[0042] Reference Figure 4 、 Figure 6 、 Figure 7A rotating shell 71 is fixed in the lock housing 1. A limiting groove 72 is provided on the rotating shell 71 for the cam 51 to rotate. The output end of the gear mechanism 64 is connected to the limiting groove 72. An unlocking abutment surface 95 and a locking abutment surface 96 are fixed on the wall of the limiting groove 72. When the cam 51 rotates to the unlocking or locking state, the cam 51 abuts against the unlocking abutment surface 95 or the locking abutment surface 96. The lock housing 1 and the rotating shell 71 are both injection-molded plastic structures with low prices. A tightening spring 94 is fixed on the connecting block 32. The elastic direction of the tightening spring 94 is horizontal. One end of the tightening spring 94 is fixed to the rotating shell 71, and the other end is fixed to the end of the connecting block 32 near the lock pin 2. The tightening spring 94 drives the connecting block 32 to slide toward the through hole 41.

[0043] Reference Figure 6 、 Figure 7 A circuit board 73 is fixed in the lock housing 1. The circuit board 73 is electrically connected to a first unlocking Hall sensor 74, a first locking Hall sensor 75, a second unlocking Hall sensor 76, and a second locking Hall sensor 77. The circuit board 73 is used to connect to the backstage. A first magnetic block 91 is fixed to the sliding block 31, and a second magnetic block 92 is fixed to the connecting block 32. When the cam 51 rotates and drives the sliding block 31 to slide away from the through hole 41, when the first magnetic block 91 approaches the first unlocking Hall sensor 74 and the second magnetic block 92 approaches the second unlocking Hall sensor 76, the backstage displays unlocked. When the cam 51 rotates and drives the sliding block 31 to slide toward the through hole 41, when the first magnetic block 91 approaches the first locking Hall sensor 75 and the second magnetic block 92 approaches the second locking Hall sensor 77, the backstage displays locked.

[0044] The implementation principle of a keyless smart faucet lock in the embodiment of the present application is as follows: the motor 61 rotates forward and reverse to drive the cam 51 to rotate back and forth, driving the sliding block 31 to slide away from or close to the through hole 41. When the sliding block 31 slides away from the through hole 41, the first magnetic block 91 approaches the first unlocking Hall sensor 74, and the second magnetic block 92 approaches the second unlocking Hall sensor 76, and the background display is unlocked; when the sliding block 31 slides toward the through hole 41, the first magnetic block 91 approaches the first locking Hall sensor 75, and the second magnetic block 92 approaches the second locking Hall sensor 77, and the background display is locked; when the driving mechanism 6 fails, pulling the pulling member 47 can make the emergency block 45 slide, driving the connecting block 32 to slide, thereby unlocking the faucet lock, and at the same time pressing the sensing button 83 puts the vehicle in an emergency state and limits its maximum speed. The lock housing 1 and the rotating housing 71 are both injection-molded plastic structures, which are relatively low in price, reduce the volume and cost of the lock, and have fewer structural parts.

[0045] The above are all preferred embodiments of the present application, and are not intended to limit the scope of protection of the present application. Therefore, any equivalent changes made based on the structure, shape, and principle of the present application should be included in the scope of protection of the present application.

Claims

1. A keyless smart faucet lock, comprising a lock housing (1), a lock pin (2) and a sliding seat (3), wherein the lock housing (1) is provided with a through hole (41) for the lock pin (2) to slide, and the sliding direction of the lock pin (2) is the same as the axial direction of the through hole (41), and is characterized in that: The lock pin (2) is arranged on the sliding seat (3) and further includes a sliding assembly (5). The sliding assembly (5) includes a cam (51). A boss (42) is arranged on the cam (51). A rotation groove (43) is provided on the sliding seat (3). The length direction of the rotation groove (43) is perpendicular to the sliding direction of the lock pin (2). The boss (42) is located in the rotation groove (43). The boss (42) slides in the rotation groove (43) along the length direction of the rotation groove (43). The driving mechanism (6) further includes a driving mechanism (6) for driving the cam (51) to rotate. The driving mechanism (6) includes a motor (61). The motor (61) drives the cam (51) to rotate. The motor (61) rotates forward and reverse to drive the cam (51) to reciprocate. The rotation of the cam (51) drives the sliding seat (3) to slide away from or close to the through hole (41) to achieve unlocking or locking of the faucet lock.

2. The keyless smart faucet lock according to claim 1, characterized in that: The sliding seat (3) includes a sliding block (31) and a connecting block (32), wherein the connecting block (32) is arranged at one end of the lock pin (2) located in the lock housing (1), and the connecting block (32) is slidingly connected to the sliding block (31), and the sliding direction of the sliding block (31) is the same as the sliding direction of the lock pin (2); the sliding assembly (5) also includes a sliding spring (52), and a plug hole (44) for the sliding block (31) to slide is provided on the side of the connecting block (32) away from the lock pin (2), and a first side groove (491) is provided on the side wall of the connecting block (32). A second side groove (492) is provided on the side wall of the sliding block (31), the first side groove (491) and the second side groove (492) are connected, the sliding spring (52) is arranged in the second side groove (492), the elastic force direction of the sliding spring (52) is the same as the sliding direction of the lock pin (2), and the radial ends of the sliding spring (52) are located in the first side groove (491); when the cam (51) rotates to drive the sliding block (31) to slide, the sliding block (31) drives the connecting block (32) to slide away from or close to the through hole (41) through the sliding spring (52).

3. The keyless smart faucet lock according to claim 2, characterized in that: An emergency block (45) is slidingly provided on the connecting block (32), and the sliding direction of the emergency block (45) is the same as the sliding direction of the lock pin (2). The connecting block (32) is provided with an abutting block (46), and one end of the emergency block (45) abuts against the abutting block (46) toward the side of the lock pin (2). The connecting block (32) also includes a pulling member (47) provided on the emergency block. When the pulling member (47) is pulled, the emergency block (45) is driven to slide away from the side of the lock pin (2). The emergency block (45) drives the connecting block (32) to slide away from the through hole (41) to unlock the faucet lock.

4. The keyless smart faucet lock according to claim 3, characterized in that: The invention also includes an emergency assembly (8), wherein the emergency assembly (8) includes a sensing button (83). When the emergency block (45) slides away from the through hole (41), the emergency block (45) presses the sensing button (83). The sensing button (83) is connected to a control module. When the sensing button (83) is pressed, the control module controls the speed limit of the electric vehicle.

5. The keyless smart faucet lock according to claim 4, characterized in that: The emergency assembly (8) further comprises an emergency housing (82) and a ball (81) slidably arranged on the emergency housing (82); the ball (81) is located at the pressing end of the sensing button (83); the ball (81) protrudes from the surface of the emergency housing (82); when the emergency block (45) slides to a position away from the through hole (41), the emergency block (45) abuts against the ball (81) to drive the ball (81) to press the sensing button (83).

6. The keyless smart faucet lock according to claim 1, characterized in that: A rotating shell (71) is provided in the lock shell (1), and a limiting groove (72) for the cam (51) to rotate is provided on the rotating shell (71), and an unlocking abutment surface (95) and a locking abutment surface (96) are provided on the groove wall of the limiting groove (72). When the cam (51) rotates to the unlocking or locking state, the cam (51) abuts against the unlocking abutment surface (95) or the locking abutment surface (96).

7. The keyless smart faucet lock according to claim 2, characterized in that: A circuit board (73) is provided in the lock housing (1), and a first unlocking Hall sensor (74), a first locking Hall sensor (75), a second unlocking Hall sensor (76) and a second locking Hall sensor (77) are electrically connected to the circuit board (73), and the circuit board (73) is used to connect to the backstage; a first magnetic block (91) is provided on the sliding block (31), and a second magnetic block (92) is provided on the connecting block (32); the cam (51) rotates to drive the sliding block (31) toward When the first magnetic block (91) slides away from the through hole (41), the first magnetic block (91) approaches the first unlocking Hall sensor (74), and the second magnetic block (92) approaches the second unlocking Hall sensor (76), and the background displays unlocking; when the cam (51) rotates and drives the sliding block (31) to slide toward the through hole (41), the first magnetic block (91) approaches the first locking Hall sensor (75), and the second magnetic block (92) approaches the second locking Hall sensor (77), the background displays locking.

8. The keyless smart faucet lock according to claim 2, characterized in that: The two opposite side walls of the first side groove (491) are both provided with protrusions (93), and the sliding spring (52) is sleeved on the protrusions (93).

9. The keyless smart faucet lock according to claim 2, characterized in that: The connecting block (32) is provided with a pressing spring (94), the elastic direction of the pressing spring (94) is horizontal, one end of the pressing spring (94) is provided on the rotating shell (71), and the other end is provided at an end of the connecting block (32) close to the lock pin (2), and the pressing spring (94) drives the connecting block (32) to slide toward the through hole (41).

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