Translation type power bank locking mechanism
Through the translational power bank locking mechanism, the driving assembly drive swing and translational parts are used to solve the problem that the power bank is easily stolen, and a stable locking and unlocking function is achieved to prevent abnormal unlocking.
Patent Information
- Application Number
- CN202422380229.4
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-09-29
- Publication Date
- 2025-08-15
- Estimated Expiration
- 2034-09-29
AI Technical Summary
The existing power bank locking mechanism is susceptible to insertion of tools such as thin films and lead to misunderstandings, resulting in theft of power bank.
The sliding power bank locking mechanism is adopted to drive the first swing member or the second swing member to swing through the driving assembly, and drive the first or second swing member to translate, overcome the elastic force of the translation spring, so that the lock block is removed from the power bank to unlock. During locking, the lock block extends along the insertion direction of the power bank to prevent abnormal unlocking.
Effectively prevent power banks from being stolen, ensure that even if tools such as thin sheets cannot be pushed back, improving lock stability and security in locking state.
Smart Images

Figure CN223230634U_ABST
Abstract
Description
Technical Field
[0001] This utility model patent relates to the technical field of power bank locking mechanisms, specifically, to a translational power bank locking mechanism. Background Art
[0002] A power bank, also known as a mobile power source, is a portable charger that integrates power supply and charging functions. It can charge or provide standby power for digital devices such as mobile phones anytime and anywhere. The power bank can be rented and returned through a cabinet. The cabinet includes a locking mechanism, which can be used to lock or unlock the power bank, thereby realizing the rental and return of the power bank.
[0003] At present, the locking mechanism has two-way unlocking and locking, which reduces space occupancy and reduces costs; for example, the prior patent with authorization number CN215773929U discloses a two-way locking structure for a power bank, including a control panel, a motor, a driver, a first swinging member and a second swinging member. The first swinging member and the second swinging member are respectively used to lock or unlock the power bank. The control panel and the motor are electrically connected. The motor is used to drive the driver to be arranged in a rotational manner. The driver has a first driving part and a second driving part. The first driving part is used to cause the first swinging member to be in an unlocked state, and the second driving part is used to cause the second swinging member to be in an unlocked state.
[0004] In the prior art, the first swing member or the second swing member is easily pushed back to unlock by a tool such as a thin sheet, causing the power bank to be mistakenly unlocked, making the power bank easy to be stolen. Utility Model Content
[0005] The purpose of the utility model is to provide a translational power bank locking mechanism, aiming to solve the problem in the prior art that the power bank is easily stolen.
[0006] The utility model is implemented as follows: a translation-type power bank locking mechanism includes a driving assembly, a first swinging member, a second swinging member and a translation assembly, the translation assembly includes a first translation member, a translation spring and a second translation member, the two ends of the translation spring are respectively arranged to be docked with the first translation member and the second translation member, and the translation spring is used to apply elastic force to urge the first translation member or the second translation member to a locked state, the first swinging member is assembled with the first translation member, and the second swinging member is assembled with the second translation member, the driving assembly is used to drive the first swinging member or the second swinging member to a swinging state, the swinging of the first swinging member is used to drive the first translation member to an unlocked state, and the swinging of the second swinging member is used to drive the second translation member to an unlocked state; the first translation member includes a first locking block, the first locking block is used to lock or unlock the power bank, the first locking block has a first locking surface, the first locking surface is extended along the insertion direction of the power bank, the second translation member includes a second locking block, the second locking block is used to lock or unlock the power bank, the second locking block has a second locking surface, the second locking surface is extended along the insertion direction of the power bank.
[0007] Furthermore, the first translation member includes a first translation shell and a first fixed pendulum part, the two ends of the first fixed pendulum part are respectively docked with the first translation shell and the first locking block, and one end of the translation spring is docked with the first translation shell; the first fixed pendulum part has a first pendulum groove, and the upper part of the first swinging member is embedded with the first swinging groove, and the first swinging member is used to drive the first fixed pendulum part to be arranged in translation and cause the translation spring to be in a compressed state.
[0008] Furthermore, along the direction toward the first swinging member, the first swinging groove is arranged in a flared shape.
[0009] Furthermore, the first translation member includes a first detection portion, which is arranged in a docking relationship with the first fixed pendulum portion; the translation-type power bank locking mechanism includes a first touch switch, which is arranged correspondingly to the first touch switch, and the first touch switch is used to feedback a pressure signal, and the first fixed pendulum portion is used to drive the first detection portion to translate toward the direction of the first touch switch.
[0010] Furthermore, the second translation member includes a second translation shell and a second fixed pendulum part, the two ends of the second fixed pendulum part are respectively docked with the second translation shell and the second locking block, and the other end of the translation spring is docked with the second translation shell; the second fixed pendulum part has a second pendulum groove, and the upper part of the second swinging member is embedded with the second swinging groove, and the second swinging member is used to drive the second fixed pendulum part to be arranged in translation and cause the translation spring to be in a compressed state.
[0011] Furthermore, the first translation shell and the second translation shell are arranged in an overlapping manner, the first translation shell has a first shell groove, the second translation shell has a second shell groove, the first shell groove and the second shell groove are arranged in communication, and the first shell groove and the second shell groove are respectively extended in the horizontal direction, and the first shell groove and the second shell groove are respectively embedded in the two ends of the translation spring.
[0012] Furthermore, the translational power bank locking mechanism includes a mechanism shell, and the drive assembly, the first swinging member, the second swinging member and the translation assembly are respectively arranged on the mechanism shell; the mechanism shell includes the first shell and the second shell, and the first shell and the second shell are assembled, the first shell has a first transverse groove, the first translation member includes a first positioning part, the first positioning part is movably embedded in the first transverse groove, and the first transverse groove is used to position the first positioning part, the second shell has a second transverse groove, the second translation member includes a second positioning part, the second positioning part is movably embedded in the second transverse groove, and the second transverse groove is used to position the second positioning part.
[0013] Furthermore, the first positioning portion has a plurality of first hollow grooves, each of which is arranged in an array along the transverse direction; the second positioning portion has a plurality of second hollow grooves, each of which is arranged in an array along the transverse direction.
[0014] Furthermore, the drive assembly includes a drive motor, a drive housing and a rotating member, the drive motor and the drive housing are docked, the rotating member and the drive housing are embedded, the drive housing is used to drive the rotating member to rotate, the rotating member is located between the first swinging member and the second swinging member, the rotating member includes a first boss and a second boss, the first boss is used to drive the first swinging member to swing, and the second boss is used to drive the second swinging member to swing.
[0015] Furthermore, the rotating member includes a rotating seat, the driving shell is embedded in the rotating seat, and the first boss and the second boss are respectively arranged on the rotating seat; the first boss has a first inclined surface and a first plane, the first inclined surface is arranged to be inclined and extended in a direction away from the rotating seat, the first inclined surface and the first plane are arranged to be docked, the first plane and the rotating seat are arranged to be parallel and spaced apart, and the first inclined surface is used to gradually drive the lower part of the first swinging member to be in a swinging arrangement; the second boss has a second inclined surface and a second plane, the second inclined surface is arranged to be inclined and extended in a direction away from the rotating seat, the second inclined surface and the second plane are arranged to be docked, the second plane and the rotating seat are arranged to be parallel and spaced apart, and the second inclined surface is used to gradually drive the lower part of the second swinging member to be in a swinging arrangement.
[0016] Compared with the prior art, the translational power bank locking mechanism provided by the present invention, when normally unlocked, outputs a driving force through the driving assembly, prompting the first swinging member or the second swinging member to be arranged in a swinging manner, so that the first translation member or the second translation member is translated toward the direction of the translation spring, overcoming the elastic force of the translation spring, and driving the first locking block or the second locking block to separate from the power bank, thereby unlocking the power bank; when locked, the driving assembly cancels the driving force, and under the elastic force of the translation spring, prompts the first translation member and the second translation member to be translated in the direction toward the power bank until the first locking block or the second locking block locks different power banks, thereby achieving locking or unlocking in both directions; and, in the locked state, since the first locking surface and the second locking surface are respectively extended along the insertion direction of the power bank, even if a thin tool such as a sheet is inserted, the first locking block or the second locking block cannot be pushed back, thereby avoiding abnormal unlocking of the power bank and preventing the power bank from being stolen. BRIEF DESCRIPTION OF THE DRAWINGS
[0017] Figure 1 This is an exploded schematic diagram of the locking mechanism of the translational power bank provided by the present invention;
[0018] Figure 2 This is a three-dimensional schematic diagram of the translation assembly of the translation type power bank locking mechanism provided by the utility model;
[0019] Figure 3 This is a schematic diagram of the internal main view of the locking mechanism of the translational power bank provided by the present invention;
[0020] Figure 4 This is an exploded schematic diagram of the drive assembly of the translational power bank locking mechanism provided by the present invention;
[0021] Figure 5 It is a three-dimensional schematic diagram of the drive assembly of the translational power bank locking mechanism provided by the utility model. DETAILED DESCRIPTION
[0022] In order to make the purpose, technical solutions and advantages of the present invention more clearly understood, the present invention is further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present invention and are not intended to limit the present invention.
[0023] The implementation of the present invention is described in detail below with reference to specific embodiments.
[0024] The same or similar numbers in the drawings of this embodiment correspond to the same or similar parts; in the description of this utility model, it should be understood that if there are terms such as "upper", "lower", "left", "right", etc. indicating directions or positional relationships, they are based on the directions or positional relationships shown in the drawings. This is only for the convenience of describing the utility model and simplifying the description, and does not indicate or imply that the device or element referred to must have a specific direction, be constructed and operated in a specific direction. Therefore, the terms describing the positional relationship in the drawings are only used for illustrative purposes and cannot be understood as limiting this patent. For ordinary technicians in this field, the specific meanings of the above terms can be understood according to specific circumstances.
[0025] Reference Figure 1-5 The figure shows a preferred embodiment of the present invention.
[0026] The translation type power bank locking mechanism includes a driving assembly 1, a first swinging member 2, a second swinging member 3 and a translation assembly 4. The translation assembly 4 includes a first translation member 41, a translation spring 43 and a second translation member 42. The two ends of the translation spring 43 are respectively arranged to be docked with the first translation member 41 and the second translation member 42, and the translation spring 43 is used to apply elastic force to cause the first translation member 41 or the second translation member 42 to be in a locked state. The first swinging member 2 is assembled with the first translation member 41, and the second swinging member 3 is assembled with the second translation member 42. The driving assembly 1 is used to drive the first swinging member 2 or the second swinging member 3 to swing. state, the first swinging member 2 swings to drive the first translation member 41 to an unlocked state, and the second swinging member 3 swings to drive the second translation member 42 to an unlocked state; the first translation member 41 includes a first locking block 411, and the first locking block 411 is used to lock or unlock the power bank, and the first locking block 411 has a first locking surface 416, and the first locking surface 416 is extended along the insertion direction of the power bank, and the second translation member 42 includes a second locking block 421, and the second locking block 421 is used to lock or unlock the power bank, and the second locking block 421 has a second locking surface 425, and the second locking surface 425 is extended along the insertion direction of the power bank.
[0027] When the locking mechanism of the above-mentioned translation type power bank is normally unlocked, the driving assembly 1 outputs a driving force to cause the first swinging member 2 or the second swinging member 3 to be arranged in a swinging manner, so that the first translation member 41 or the second translation member 42 is translated toward the direction of the translation spring 43, overcoming the elastic force of the translation spring 43, and driving the first locking block 411 or the second locking block 421 to separate from the power bank, thereby unlocking the power bank; when locked, the driving assembly 1 cancels the driving force, and under the elastic force of the translation spring 43, the first translation member 41 and the second translation member 42 are translated in the direction toward the power bank until the first locking block 411 or the second locking block 421 locks different power banks, thereby achieving locking or unlocking in both directions; and, in the locked state, since the first locking surface 416 and the second locking surface 425 are respectively extended along the insertion direction of the power bank, even if a thin tool such as a sheet is inserted, the first locking block 411 or the second locking block 421 cannot be pushed back, thereby preventing the power bank from being abnormally unlocked and the power bank from being stolen.
[0028] The first locking block 411 has a first inclined surface 417, which extends to the first locking surface 416. The first inclined surface 417 is arranged to extend obliquely along the insertion direction away from the power bank. In this way, when it is necessary to switch to the locked state, the first inclined surface 417 facilitates the embedding of the power bank into the first locking block 411, thereby facilitating the locking of the power bank. At the same time, it guides the translation of the first locking block 411 to ensure the embedding of the first locking block 411 and the power bank.
[0029] The second locking block 421 has a second inclined surface 426, which extends to the second locking surface 425. The second inclined surface 426 is arranged to extend obliquely along the insertion direction away from the power bank. In this way, when it is necessary to switch to the locked state, the second inclined surface 426 facilitates the embedding of the second locking block 421 into the power bank, thereby facilitating the locking of the power bank. At the same time, it guides the translation of the second locking block 421 to ensure the embedding of the second locking block 421 and the power bank.
[0030] The first translation member 41 includes a first translation shell 412 and a first fixed pendulum portion 413. The two ends of the first fixed pendulum portion 413 are respectively docked with the first translation shell 412 and the first locking block 411, and one end of the translation spring 43 is docked with the first translation shell 412; the first fixed pendulum portion 413 has a first pendulum groove 415, and the first pendulum groove 415 is embedded in the upper part of the first swinging member 2. The first swinging member 2 is used to drive the first fixed pendulum portion 413 to be arranged in a translational manner and to cause the translation spring 43 to be in a compressed state.
[0031] In this way, under the action of the first swinging groove 415, the first swinging member 2 is positioned, the assembly effect of the first swinging member 2 and the first fixed swing part 413 is improved, and at the same time, the first swinging member 2 is facilitated to drive the first fixed swing part 413 when it swings.
[0032] Along the direction toward the first swinging member 2, the first swinging groove 415 is arranged in a flared shape; this facilitates the assembly of the first swinging member 2 and the first fixed swing portion 413. At the same time, when switching to unlocking, the first swinging member 2 has a swinging space. The first swinging member 2 first swings and then drives the first translation shell 412 to translate, so that unlocking or locking has a buffering effect, thereby improving the stability of unlocking or locking.
[0033] The first translation member 41 includes a first detection portion 414, which is arranged in a docking relationship with the first fixed pendulum portion 413; the translational power bank locking mechanism includes a first touch switch 6, and the first detection portion 414 is arranged correspondingly to the first touch switch 6. The first touch switch 6 is used to feedback the pressure signal, and the first fixed pendulum portion 413 is used to drive the first detection portion 414 to translate toward the direction of the first touch switch 6.
[0034] In this way, when unlocking is required, the first translation member 41 is driven by the first swinging member 2 to translate until the first detection portion 414 is arranged in a conflicting manner with the first touch switch 6. The first touch switch 6 feeds back a pressure signal, the drive assembly 1 stops applying the driving force, the unlocking is completed, and the control of the drive assembly 1 is more precise.
[0035] The second translation member 42 includes a second translation shell 422 and a second fixed pendulum part, the two ends of the second fixed pendulum part are respectively docked with the second translation shell 422 and the second locking block 421, and the other end of the translation spring 43 is docked with the second translation shell 422; the second fixed pendulum part has a second pendulum groove, and the second pendulum groove is embedded in the upper part of the second swinging member 3, and the second swinging member 3 is used to drive the second fixed pendulum part to be arranged in translation and cause the translation spring 43 to be in a compressed state.
[0036] In this way, under the action of the second swing groove, the second swing member 3 is positioned, the assembly effect of the second swing member 3 and the second fixed swing part is improved, and at the same time, the driving of the first fixed swing part 413 when the second swing member 3 swings is facilitated.
[0037] The first translation shell 412 and the second translation shell 422 are arranged in an overlapping manner, which reduces the occupied assembly space, facilitates the arrangement of the first translation shell 412 and the second translation shell 422, and also facilitates the arrangement of the translation spring 43.
[0038] The first translation shell 412 has a first shell groove, and the second translation shell 422 has a second shell groove. The first shell groove and the second shell groove are connected and extended in the transverse direction respectively. The first shell groove and the second shell groove are respectively embedded in the two ends of the translation spring 43.
[0039] Along the direction toward the second swing member 3, the second swing groove is arranged in a flared shape; this facilitates the assembly of the second swing member 3 and the second fixed swing part. At the same time, when switching to unlocking, the second swing member 3 has a swing space. The second swing member 3 first swings and then drives the second translation shell 422 to translate, so that unlocking or locking has a buffering effect, thereby improving the stability of unlocking or locking.
[0040] The second translation member 42 includes a second detection portion 423, which is arranged in a docking relationship with the second fixed pendulum portion; the translational power bank locking mechanism includes a second touch switch 7, and the second detection portion 423 is arranged correspondingly to the second touch switch 7. The second touch switch 7 is used to feedback the pressure signal, and the second fixed pendulum portion is used to drive the second detection portion 423 to translate toward the direction of the second touch switch 7.
[0041] In this way, when unlocking is required, the second translation member 42 is driven by the second swinging member 3 to translate until the second detection portion 423 is in contact with the second touch switch 7. The second touch switch 7 feeds back a pressure signal, the drive assembly 1 stops applying the driving force, the unlocking is completed, and the control of the drive assembly 1 is more precise.
[0042] The locking mechanism of the translational power bank includes a mechanism shell 5, and the driving assembly 1, the first swinging member 2, the second swinging member 3 and the translation assembly 4 are respectively arranged on the mechanism shell 5; the mechanism shell 5 includes a first shell 51 and a second shell 52, and the first shell 51 and the second shell 52 are assembled. The first shell 51 has a first transverse groove, and the first translation member 41 includes a first positioning portion, and the first positioning portion is movably embedded in the first transverse groove, and the first transverse groove is used to position the first positioning portion. The second shell 52 has a second transverse groove, and the second translation member 42 includes a second positioning portion 424, and the second positioning portion 424 is movably embedded in the second transverse groove, and the second transverse groove is used to position the second positioning portion 424.
[0043] In this way, under the cooperation of the first transverse groove and the first positioning part, a limiting effect is played on the translation of the first translation member 41, ensuring that the first translation member 41 translates in a straight line, ensuring the switching between the unlocked state and the locked state; under the cooperation of the second transverse groove and the second positioning part 424, a limiting effect is played on the translation of the second translation member 42, ensuring that the second translation member 42 translates in a straight line, ensuring the switching between the unlocked state and the locked state.
[0044] The first positioning portion has a plurality of first hollow grooves, each of which is arranged in an array along the transverse direction; the second positioning portion 424 has a plurality of second hollow grooves, each of which is arranged in an array along the transverse direction; in this way, it helps to reduce the dead weight of the first translation member 41 and the second translation member 42, facilitates the movement of the first translation member 41 and the second translation member 42, and saves energy.
[0045] The drive assembly 1 includes a drive motor 11, a drive housing 12 and a rotating member 13. The drive motor 11 and the drive housing 12 are docked, and the rotating member 13 and the drive housing 12 are embedded. The drive housing 12 is used to drive the rotating member 13 to rotate. The rotating member 13 is located between the first swinging member 2 and the second swinging member 3.
[0046] In this way, when unlocking is required, the drive motor 11 outputs a driving force to cause the drive shell 12 to rotate forward or reverse, driving the rotating member 13 to rotate forward or reverse, thereby driving the first swing member 2 or the second swing member 3 to lock or unlock different power banks set in both directions.
[0047] The rotating member 13 includes a first boss 131 and a second boss 132. The first boss 131 is used to drive the first swinging member 2 to be in a swinging arrangement, and the second boss 132 is used to drive the second swinging member 3 to be in a swinging arrangement. Under the action of the first boss 131 and the second boss 132, it is convenient to drive the first swinging member 2 or the second swinging member 3.
[0048] The rotating member 13 includes a rotating seat, the driving shell 12 is embedded in the rotating seat, and the first boss 131 and the second boss 132 are respectively arranged on the rotating seat; the first boss 131 has a first inclined surface 417 and a first plane, the first inclined surface 417 is arranged to extend obliquely in the direction away from the rotating seat, the first inclined surface 417 is docked with the first plane, the first plane is arranged parallel to the rotating seat, and the first inclined surface 417 is used to gradually drive the lower part of the first swinging member 2 to be in a swinging arrangement; the second boss 132 has a second inclined surface 426 and a second plane, the second inclined surface 426 is arranged to extend obliquely in the direction away from the rotating seat, the second inclined surface 426 is docked with the second plane, the second plane is arranged parallel to the rotating seat, and the second inclined surface 426 is used to gradually drive the lower part of the second swinging member 3 to be in a swinging arrangement.
[0049] In this way, under the action of the first inclined surface 417, a pushing force is gradually applied to the first swinging member 2 until the power bank is unlocked. At this time, the first plane collides with the first swinging member 2, which plays a role in positioning and stopping the increase of the pushing force, and applies a constant pushing force to the first locking block 411 to ensure the stability of the locked state and avoid the first locking block 411 from being reset by mistake and causing unsuccessful unlocking.
[0050] In this way, under the action of the second inclined surface 426, a pushing force is gradually applied to the second swinging member 3 until the power bank is unlocked. At this time, the second plane collides with the second swinging member 3, which plays a role in positioning and stopping the increase of the pushing force, and applies a constant pushing force to the second locking block 421 to ensure the stability of the locked state and avoid the second locking block 421 from being reset by mistake and causing unsuccessful unlocking.
[0051] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent replacements and improvements made within the spirit and principles of the present invention should be included in the scope of protection of the present invention.
Claims
1. The locking mechanism of the translation type power bank is characterized by: The cam is adapted to move the first and second translating members into a locked position, wherein the first translating member is adapted to move the first translating member into an unlocked position, and the second translating member is adapted to move the second translating member into an unlocked position. The cam is adapted to move the first translating member into an unlocked position, and the second translating member is adapted to move the second translating member into an unlocked position. The cam comprises a first locking block, which is adapted to lock or unlock the power bank, and has a first locking surface, which is extended along the insertion direction of the power bank. The cam comprises a second locking block, which is adapted to lock or unlock the power bank, and has a second locking surface, which is extended along the insertion direction of the power bank.
2. The locking mechanism of the translational power bank according to claim 1, characterized in that: The first translation member includes a first translation shell and a first fixed pendulum part, the two ends of the first fixed pendulum part are respectively docked with the first translation shell and the first locking block, and one end of the translation spring is docked with the first translation shell; the first fixed pendulum part has a first pendulum groove, and the upper part of the first swinging member is embedded with the first swinging groove, and the first swinging member is used to drive the first fixed pendulum part to be arranged in translation and cause the translation spring to be in a compressed state.
3. The locking mechanism of the translational power bank according to claim 2, characterized in that: Along the direction toward the first swing member, the first swing slot is arranged in a flared shape.
4. The locking mechanism of the translational power bank according to claim 2, characterized in that: The first translation member includes a first detection portion, which is arranged in a docking relationship with the first fixed pendulum portion; the translational power bank locking mechanism includes a first touch switch, which is arranged correspondingly to the first touch switch, and the first touch switch is used to feedback a pressure signal, and the first fixed pendulum portion is used to drive the first detection portion to translate toward the direction of the first touch switch.
5. The locking mechanism of the translational power bank according to claim 2, characterized in that: The second translation member includes a second translation shell and a second fixed pendulum part, the two ends of the second fixed pendulum part are respectively docked with the second translation shell and the second locking block, and the other end of the translation spring is docked with the second translation shell; the second fixed pendulum part has a second pendulum groove, and the upper part of the second swinging member is embedded with the second swinging groove, and the second swinging member is used to drive the second fixed pendulum part to be arranged in translation and cause the translation spring to be in a compressed state.
6. The locking mechanism of the translational power bank according to claim 5, characterized in that: The first translation shell and the second translation shell are arranged in a superimposed manner, the first translation shell has a first shell groove, the second translation shell has a second shell groove, the first shell groove and the second shell groove are arranged in communication, and the first shell groove and the second shell groove are respectively extended in the horizontal direction, and the first shell groove and the second shell groove are respectively embedded in the two ends of the translation spring.
7. The translational power bank locking mechanism according to any one of claims 1 to 6, characterized in that: The translational power bank locking mechanism includes a mechanism shell, and the drive assembly, the first swinging member, the second swinging member and the translation assembly are respectively arranged on the mechanism shell; the mechanism shell includes a first shell and a second shell, and the first shell and the second shell are assembled, the first shell has a first transverse groove, the first translation member includes a first positioning part, the first positioning part is movably embedded in the first transverse groove, and the first transverse groove is used to position the first positioning part, the second shell has a second transverse groove, the second translation member includes a second positioning part, the second positioning part is movably embedded in the second transverse groove, and the second transverse groove is used to position the second positioning part.
8. The locking mechanism of the translational power bank according to claim 7, characterized in that: The first positioning portion has a plurality of first hollow grooves, each of which is arranged in an array along the transverse direction; the second positioning portion has a plurality of second hollow grooves, each of which is arranged in an array along the transverse direction.
9. The translational power bank locking mechanism according to any one of claims 1 to 6, characterized in that: The drive assembly includes a drive motor, a drive housing and a rotating member. The drive motor and the drive housing are docked, and the rotating member and the drive housing are embedded. The drive housing is used to drive the rotating member to rotate. The rotating member is located between the first swinging member and the second swinging member. The rotating member includes a first boss and a second boss. The first boss is used to drive the first swinging member to swing, and the second boss is used to drive the second swinging member to swing.
10. The translational power bank locking mechanism according to claim 9, characterized in that: The rotating member includes a rotating seat, the driving shell is embedded in the rotating seat, and the first boss and the second boss are respectively arranged on the rotating seat; the first boss has a first inclined surface and a first plane, the first inclined surface is arranged to be inclined and extended in a direction away from the rotating seat, the first inclined surface and the first plane are arranged to be docked, the first plane and the rotating seat are arranged to be parallel and spaced apart, and the first inclined surface is used to gradually drive the lower part of the first swinging member to be swinging; the second boss has a second inclined surface and a second plane, the second inclined surface is arranged to be inclined and extended in a direction away from the rotating seat, the second inclined surface and the second plane are arranged to be docked, the second plane and the rotating seat are arranged to be parallel and spaced apart, and the second inclined surface is used to gradually drive the lower part of the second swinging member to be swinging.
Citation Information
Patent Citations
Bidirectional locking structure applying power bank
CN215773929U