Inductive rotary wireless charging seat
By integrating wireless charging docks for mobile phones, earphones, and watches, and combining infrared detection and gesture sensing control, the problem of dedicated chargers for devices in existing wireless charging technologies has been solved, achieving efficient utilization of desktop space and improved user experience.
Patent Information
- Application Number
- CN202423253765.4
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-28
- Publication Date
- 2026-01-27
- Estimated Expiration
- 2034-12-28
AI Technical Summary
In existing wireless charging technologies, each electronic device requires a dedicated charger, resulting in cluttered desktop space, a complicated charging process, and potential damage to the device, as well as insufficient charging compatibility.
Design an inductive rotating wireless charging dock that integrates charging functions for mobile phones, earphones, and watches. It adopts infrared detection and gesture sensing control, and realizes the rotation of the shell through a damped rotating shaft, and uses wireless charging technology to charge multiple devices.
It maximizes the use of desktop space, simplifies the charging process, improves charging efficiency and safety, reduces electronic waste, and enhances user experience and environmental benefits.
Smart Images

Figure CN223843559U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of wireless charging technology, specifically to an inductive rotating wireless charging stand. Background Technology
[0002] In the current field of wireless charging technology, users generally face a situation where each electronic device needs to be equipped with a dedicated charger. While this approach can meet the charging needs of various devices to some extent, the numerous problems that arise from it cannot be ignored.
[0003] First, providing a dedicated charger for each device not only takes up valuable desk space but also makes the desktop environment cluttered. In a limited space, various chargers and data cables are tangled together, affecting aesthetics and increasing the difficulty for users to find and organize their chargers.
[0004] Secondly, the charging process is relatively complex. Users need to place their mobile phones, earphones, watches, and other electronic devices on their respective chargers. This not only increases the number of steps but can also lead to confusion during charging. For example, mistakenly placing a mobile phone on an earphone charger will not only prevent it from charging but may also damage the device. Furthermore, the use of dedicated chargers also suffers from insufficient charging compatibility.
[0005] Therefore, it is necessary to develop an inductive rotating wireless charging dock to solve the above problems and improve the user experience. Utility Model Content
[0006] The purpose of this invention is to provide an inductive rotating wireless charging dock to solve the problems mentioned in the background art.
[0007] To achieve the above objectives, the present invention provides the following technical solution: an inductive rotating wireless charging stand, comprising a mobile phone charging shell and a lower shell, and further comprising a mobile phone charging coil magnet disposed inside the mobile phone charging shell;
[0008] A mobile phone charging coil magnet is installed inside the mobile phone charging shell via a mobile phone charging bracket. The mobile phone charging magnet and a top cover lens are sequentially arranged inside the mobile phone charging shell at the top of the mobile phone charging coil magnet. A rotating motor and a mobile phone charging motherboard are arranged inside the mobile phone charging shell below the mobile phone charging bracket. The rotating motor is connected to the mobile phone charging bracket via a motor connector.
[0009] The headphone charging coil is mounted inside the lower housing via a headphone charging bracket. A headphone charging top cover is provided on the lower housing at the top of the headphone charging coil, and a watch charging top cover is provided inside the lower housing below the headphone charging coil. A counterweight is fixed inside the lower housing below the watch charging top cover via a counterweight bracket. A headphone charging motherboard connected to the headphone charging coil is provided inside the lower housing below the counterweight.
[0010] The outer casing and the lower casing of the mobile phone charger are connected by a damping hinge. An infrared detection head is provided on one side of the outer casing of the mobile phone charger. The infrared detection head is connected to an infrared module provided inside the lower casing. The infrared module is installed inside the lower casing through a small board.
[0011] Furthermore, a magnet bracket is provided on the outside of the mobile phone charging coil magnet, and the magnet bracket has a circular structure and is connected to the mobile phone charging magnet.
[0012] Furthermore, the mobile phone charging motherboard is mounted inside the mobile phone charging housing via a motherboard bracket, and a coil pad, a motor fixing component, and a motor support frame are provided inside the mobile phone charging housing below the motherboard bracket. The rotating motor is connected to the motor support frame via the motor fixing component, and the motor support frame is connected to the mobile phone charging housing.
[0013] Furthermore, the counterweights are arranged side by side inside the counterweight bracket, and each of the four corners of the counterweight is provided with a main fixing screw, and each main fixing screw is connected to the counterweight bracket.
[0014] Furthermore, the mobile phone charging motherboard and the headphone charging motherboard are fixedly connected via a motherboard connection FPC. The headphone charging motherboard is provided with a switch button, and one side of the lower housing is provided with an opening for exposing the switch button. The other side of the lower housing is provided with a power interface connected to the headphone charging motherboard.
[0015] Furthermore, an earphone charging coil pad is provided at the connection between the earphone charging coil and the earphone charging bracket, and a watch charging lock switch is also provided on one side of the earphone charging coil, which is connected to the earphone charging coil.
[0016] Furthermore, the headphone charging top cover is connected to the headphone charging bracket via a damping hinge.
[0017] Furthermore, the bottom of the lower outer shell is provided with a lower outer shell bottom cover, and the bottom of the lower outer shell bottom cover is provided with an anti-slip pad, which is a circular ring structure.
[0018] Compared with existing technologies, this utility model of an inductive rotating wireless charging dock, while inheriting and developing the advantages of existing technologies, demonstrates significant innovation and a series of beneficial effects through ingenious design innovation, as follows:
[0019] First, the integrated design of this invention cleverly combines the charging functions of mobile phones, earphones, and watches into one unit, maximizing the use of desktop space. This design not only allows users to charge multiple devices with just one charging dock, greatly saving desktop space, but also improves efficiency. Users no longer need to prepare separate chargers for each device, reducing the clutter of charging cables; simply placing the device in the corresponding charging area easily completes the charging process, greatly simplifying the charging procedure.
[0020] The specific beneficial effects are as follows:
[0021] 1. Integrated charging design: Users don't need to perform complicated operations when charging. Simply place your phone, earphones, or watch on the charging dock, and the dock will automatically recognize and start charging. This design greatly simplifies the user experience and reduces the difficulty of charging.
[0022] 2. Infrared Detection and Gesture Sensing Function: The infrared detector and infrared module used in this invention allow users to control the rotation of the phone screen with simple gestures. This function not only increases the fun of operation but also reduces the inconvenience of physical contact, improving the user experience during charging.
[0023] 3. Flexible Rotation Design: The phone charger casing is rotatably connected to the lower casing via a damping hinge, allowing for easy adjustment of the casing's orientation. This design enables users to freely adjust the phone screen's orientation according to personal preferences and actual needs, providing a more user-friendly experience.
[0024] 4. High Charging Efficiency: The integrated charging design allows users to charge multiple devices simultaneously, significantly improving charging efficiency. Furthermore, the application of wireless charging technology reduces the use of charging cables, lowers the failure rate during charging, and ensures charging stability and reliability.
[0025] 5. Environmental benefits: This utility model reduces the need for multiple chargers, helps reduce the generation of electronic waste, conforms to the concept of green environmental protection, and has a positive significance for promoting sustainable development.
[0026] 6. Long-term cost benefits: Although certain costs may be increased during the design and manufacturing process, in the long run, the convenience, efficiency improvement and environmental benefits brought by this utility model will bring significant cost savings and economic benefits.
[0027] In conclusion, this invention, an inductive rotating wireless charging dock, has significant benefits in terms of technological innovation, user experience, efficiency improvement, and environmental protection. It not only has high practical value but also broad market prospects. Attached Figure Description
[0028] Figure 1 This is a schematic diagram of the overall exploded structure of this utility model;
[0029] Figure 2 This is a schematic diagram of the internal oblique top view structure of this utility model;
[0030] Figure 3 This is a schematic diagram of the internal oblique downward view of the present invention;
[0031] Figure 4 This is a schematic diagram of the magnetic structure of the mobile phone charging coil of this utility model;
[0032] Figure 5 This is a schematic diagram of the rotating structure of the mobile phone charging shell and the lower shell of this utility model;
[0033] Figure 6 This is a schematic diagram of the left-side structure of this utility model;
[0034] Figure 7 This is a schematic diagram of the right-side structure of this utility model;
[0035] In the diagram: 1. Top cover lens; 2. Mobile phone charging magnet; 3. Mobile phone charging coil magnet; 4. Magnet bracket; 5. Mobile phone charging stand; 6. Mobile phone charging shell; 7. Motor connector; 8. Rotating motor; 9. Mobile phone charging motherboard; 10. Motherboard bracket; 11. Coil pad; 12. Motor fixing component; 13. Motor support frame; 14. Motherboard connection FPC; 15. Damping shaft; 16. Headphone charging top cover; 17. Headphone charging stand; 18. Watch charging top cover; 19. Infrared module; 20. Counterweight; 21. Headphone charging coil pad; 22. Small board; 23. Headphone charging coil; 24. Main fixing screw; 25. Switch button; 26. Headphone charging motherboard; 27. Watch charging lock switch; 28. Counterweight bracket; 29. Lower shell; 30. Lower shell bottom cover; 31. Anti-slip pad; 32. Infrared detection head. Detailed Implementation
[0036] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of the present utility model without creative effort are within the scope of protection of the present utility model.
[0037] Please see Figure 1-7One embodiment of this utility model is an inductive rotating wireless charging stand, which includes a mobile phone charging shell 6 and a lower shell 29, and also includes a mobile phone charging coil magnet 3 disposed inside the mobile phone charging shell 6.
[0038] The mobile phone charging coil magnet 3 is installed inside the mobile phone charging shell 6 via the mobile phone charging bracket 5. The mobile phone charging magnet 2 and the top cover lens 1 are arranged sequentially inside the mobile phone charging shell 6 at the top of the mobile phone charging coil magnet 3. The rotating motor 8 and the mobile phone charging motherboard 9 are arranged inside the mobile phone charging shell 6 below the mobile phone charging bracket 5. The rotating motor 8 is connected to the mobile phone charging bracket 5 via the motor connector 7.
[0039] Mobile phone charging coil magnet 3: This mobile phone charging coil magnet 3 is made of soft magnetic material and has good magnetic conductivity. The mobile phone charging coil magnet 3 is installed inside the mobile phone charging shell 6 via the mobile phone charging bracket 5.
[0040] Phone charging bracket 5: This phone charging bracket 5 is used to fix the phone charging coil magnet 3. Its structural design allows the phone charging coil magnet 3 to be stably installed inside the phone charging shell 6.
[0041] Appendix Figure 1 The specific structure of the mobile phone charging bracket 5 is as follows:
[0042] Stand body: The main part used to support the charging coil magnet 3 of the mobile phone;
[0043] Fixing device: used to fix the mobile phone charging coil magnet 3 to the main body of the bracket;
[0044] Connector: Used to connect the main body of the bracket to the outer shell of the mobile phone charger 6.
[0045] Mobile phone charging casing 6: The mobile phone charging casing 6 is the external structure of the mobile phone charging device. Inside it are a mobile phone charging coil magnet 3, a mobile phone charging magnet 2, a top cover lens 1, a rotating motor 8, and a mobile phone charging motherboard 9.
[0046] The specific structure of the mobile phone charger casing 6 is as follows:
[0047] Main body of the outer casing: The main body used to house the mobile phone charging coil magnet 3, the mobile phone charging magnet 2, the top cover lens 1, the rotating motor 8 and the mobile phone charging motherboard 9;
[0048] Connecting device: used to connect the phone charger housing 6 to the phone charger bracket 5;
[0049] Top opening: for mounting the phone charging magnet 2 and the top cover lens 1.
[0050] Mobile phone charging magnet 2: The mobile phone charging magnet 2 is set inside the mobile phone charging shell 6 at the top of the mobile phone charging coil magnet 3. It is used to enhance the magnetic field effect, improve charging efficiency, and also to attract and fix the mobile phone device.
[0051] Top cover lens 1: The top cover lens 1 is placed above the mobile phone charging magnet 2 to protect the mobile phone charging magnet 2 and to make the magnetic field more concentrated.
[0052] Rotary motor 8: The rotary motor 8 is located inside the phone charging housing 6 below the phone charging bracket 5, and is used to drive the phone charging coil magnet 3 to rotate, thereby realizing the rotation function.
[0053] Rotary motor 8: The main body used to generate rotational force;
[0054] Motor connector 7: used to connect the rotating motor 8 to the mobile phone charging bracket 5.
[0055] Mobile phone charging motherboard 9: This mobile phone charging motherboard 9 is located inside the mobile phone charging casing 6 and is used to control the operation of the entire mobile phone charging device.
[0056] Specifically, 1. Place the phone in the opening at the top of the phone charging case 6; 2. Start the rotating motor 8 to make the phone charging coil magnet 3 start rotating; 3. The magnetic field generated by the phone charging coil magnet 3 interacts with the charging coil inside the phone, thereby achieving wireless charging.
[0057] The headphone charging coil 23 is installed inside the lower housing 29 via the headphone charging bracket 17. The headphone charging top cover 16 is provided on the lower housing 29 at the top of the headphone charging coil 23. The headphone charging top cover 16 is connected to the headphone charging bracket 17 via the damping pivot 15. The watch charging top cover 18 is provided inside the lower housing 29 below the headphone charging coil 23. The counterweight 20 is fixed inside the lower housing 29 below the watch charging top cover 18 via the counterweight bracket 28. The headphone charging main board 26 connected to the headphone charging coil 23 is provided inside the lower housing 29 below the counterweight 20.
[0058] The headphone charging bracket 17 is fixed in a predetermined position inside the lower housing 29. The headphone charging bracket 17 is made of high-strength plastic, possessing good wear resistance and stability. Screws are used to ensure a secure and reliable connection between the headphone charging coil 23 and the headphone charging bracket 17.
[0059] The headphone charging top cover 16 is preferably circular, corresponding to the top of the headphone charging coil 23, for easy user operation.
[0060] The watch charging cap 18 corresponds to the bottom of the headphone charging coil 23. The watch charging cap 18 is made of metal and has good conductivity and wear resistance.
[0061] The counterweight bracket 28 has an inner chamber shape that matches the counterweight 20, ensuring that the counterweight 20 is fully embedded.
[0062] The counterweight 20 is made of cast iron and has a large mass, which can effectively balance the center of gravity of the entire device.
[0063] The headphone charging motherboard 26 is made of high-strength circuit board material. The headphone charging motherboard 26 is connected to the headphone charging coil 23 to realize the charging function.
[0064] The outer casing 6 and the lower casing 29 of the mobile phone charger are connected by a damping hinge 15.
[0065] The lower outer shell 29 is connected to the mobile phone charging shell 6 via a damping pivot 15, allowing the mobile phone charging shell 6 to rotate freely.
[0066] An infrared detector 32 is provided on one side of the mobile phone charging casing 6. The infrared detector 32 is connected to the infrared module 19 provided inside the lower casing 29. The infrared module 19 is installed inside the lower casing 29 through a small board 22.
[0067] The infrared detector 32 is used to detect infrared signals in the external environment.
[0068] The infrared detection head 32 is connected to the infrared module 19 inside the lower housing 29 via a connecting cable or wirelessly.
[0069] The main function of the infrared module 19 is to receive the signal transmitted from the infrared detection head 32 and process it accordingly.
[0070] During implementation, the infrared module 19 is mounted inside the lower housing 29 via a small board 22. The small board 22 is fixed at a predetermined position on the lower housing 29, allowing the infrared module 19 to be stably mounted inside. The connection between the infrared module 19 and the small board 22 can be soldering or other suitable connection methods to ensure stable signal transmission.
[0071] A magnet bracket 4 is provided on the outside of the mobile phone charging coil magnet 3 and the mobile phone charging bracket 5 is a circular structure. The magnet bracket 4 is connected to the mobile phone charging magnet 2.
[0072] The mobile phone charging motherboard 9 is installed inside the mobile phone charging housing 6 via the motherboard bracket 10. The mobile phone charging housing 6 below the motherboard bracket 10 is provided with a coil pad 11, a motor fixing component 12 and a motor support frame 13. The rotating motor 8 is connected to the motor support frame 13 via the motor fixing component 12, and the motor support frame 13 is connected to the mobile phone charging housing 6.
[0073] The motherboard bracket 10 is made of high-strength engineering plastic, providing excellent support and stability. During installation, the phone charger motherboard 9 is first fixedly connected to the motherboard bracket 10, and then the entire assembly is installed inside the phone charger casing 6.
[0074] Inside the phone charger casing 6, below the motherboard bracket 10, there is a coil pad 11, a motor holder 12, and a motor support bracket 13. The coil pad 11 is located at the bottom inside the phone charger casing 6 and is used to place and support the coil, ensuring the stability of the coil and good contact. The coil pad 11 is made of elastic material and has good elasticity and wear resistance.
[0075] Motor mounting bracket 12 is used to fix the rotating motor 8, and its structure is as follows: Figure 1 As shown. The motor mounting bracket 12 includes a mounting base and a mounting rod. The mounting base is connected to the mobile phone charging housing 6, and the mounting rod passes through the mounting base and is connected to the motor support frame 13. The motor mounting bracket 12 is made of high-strength metal to ensure the stable fixing of the rotating motor 8.
[0076] The motor support frame 13 supports the rotating motor 8, ensuring its stability during operation. The motor support frame 13 is connected to the mobile phone charging housing 6, as shown in the following diagram. Figure 1 As shown. The motor support frame 13 is made of metal, providing good support and stability.
[0077] The rotating motor 8 is connected to the motor support frame 13 via the motor fixing component 12, and the specific connection method is as follows: Figure 1 As shown. The rotating shaft of the rotary motor 8 passes through the hole in the motor support frame 13 and is fixed to the motor support frame 13 by the motor fixing part 12. The rotary motor 8 adopts a miniature DC motor, which has the characteristics of small size, low power consumption and low noise.
[0078] The counterweights 20 are arranged side by side inside the counterweight bracket 28, and each of the four corners of the counterweight 20 is provided with a main fixing screw 24, and each main fixing screw 24 is connected to the counterweight bracket 28.
[0079] The mobile phone charging motherboard 9 and the headphone charging motherboard 26 are fixedly connected via the motherboard connector FPC14. The headphone charging motherboard 26 is provided with a switch button 25. One side of the lower housing 29 is provided with an opening for exposing the switch button 25, and the other side of the lower housing 29 is provided with a power interface connected to the headphone charging motherboard 26.
[0080] A headphone charging coil pad 21 is provided at the connection between the headphone charging coil 23 and the headphone charging bracket 17, and a watch charging lock switch 27 is also provided on one side of the headphone charging coil 23, which is connected to the headphone charging coil 23.
[0081] The watch charging lock switch 27 is used to switch the operating state of the headphone charging coil 23. It controls whether the headphone charging coil 23 is charging the watch or the headphones.
[0082] The bottom of the lower outer shell 29 is provided with a lower outer shell bottom cover 30, and the bottom of the lower outer shell bottom cover 30 is provided with an anti-slip pad 31, which has a circular structure.
[0083] In this embodiment, the lower casing 29 is placed on a table and connected to an external power source via a power interface on one side of the lower casing 29. When the phone is charging, the device is brought close to the top cover lens 1, and the phone is attracted by the charging magnet 2, quickly fixing the connection between the phone and the top cover lens 1. The phone charging motherboard 9 controls the charging coil magnet 3 to work, providing wireless charging for the device. During charging, the user can flip the phone charging casing 6 as needed to adjust the angle of the phone, making it easier to use the phone while charging. At the same time, the infrared detector 32 can detect the user's gestures. When the user's gesture approaches the infrared detector 32, the rotating motor 8 drives the phone charging bracket 5 to rotate, thereby rotating the phone to a horizontal position. When the user's gesture approaches the infrared detector 32 again, the mobile phone charging bracket 5 rotates. When the probe is at position 32, the rotating motor 8 drives the phone charging bracket 5 to rotate, causing the phone to rotate to a vertical position, allowing users to freely adjust the orientation of the phone screen and providing a more user-friendly experience. In addition, when charging headphones and watches, flipping the phone charging case 6 exposes the headphone charging top cover 16, allowing users to place the headphones on top of the headphone charging top cover 16. The headphone charging motherboard 26 controls the headphone charging coil 23 to work, enabling wireless charging of the headphones. Similarly, when the watch needs charging, the back of the watch is placed in contact with the watch charging top cover 18, and the watch charging lock switch 27 is adjusted. At this time, the headphone charging motherboard 26 controls the headphone charging coil 23 to charge the watch. The integrated charging design allows users to charge multiple devices simultaneously, greatly improving charging efficiency.
[0084] Obviously, the embodiments described above are only some embodiments of this utility model, and not all embodiments. Based on the embodiments of this utility model, all other embodiments obtained by those skilled in the art without creative effort should fall within the protection scope of this utility model.
[0085] It should be noted that the terminology used herein is for the purpose of describing particular embodiments only and is not intended to limit the exemplary embodiments according to this application. As used herein, the singular form is intended to include the plural form as well, unless the context clearly indicates otherwise. Furthermore, it should be understood that when the terms "comprising" and / or "including" are used in this specification, they indicate the presence of features, steps, operations, devices, components, and / or combinations thereof.
[0086] It should be noted that the terms "first," "second," etc., used in the specification, claims, and accompanying drawings of this application are used to distinguish similar objects and are not necessarily used to describe a specific order or sequence. It should be understood that such data can be interchanged where appropriate so that the embodiments of this application described herein can be implemented in sequences other than those illustrated or described herein.
[0087] The above are merely preferred embodiments of this utility model and are not intended to limit the scope of this utility model. Various modifications and variations can be made to this utility model by those skilled in the art. Any modifications, equivalent substitutions, or improvements made within the spirit and principles of this utility model should be included within the protection scope of this utility model.
Claims
1. An inductively rotating wireless charging stand, comprising a mobile phone charging housing (6) and a lower housing (29), characterized in that: It also includes a mobile phone charging coil magnet (3) disposed inside the mobile phone charging casing (6); A mobile phone charging coil magnet (3) is installed inside the mobile phone charging shell (6) via a mobile phone charging bracket (5). A mobile phone charging magnet (2) and a top cover lens (1) are sequentially arranged inside the mobile phone charging shell (6) at the top of the mobile phone charging coil magnet (3). A rotating motor (8) and a mobile phone charging motherboard (9) are arranged inside the mobile phone charging shell (6) below the mobile phone charging bracket (5). The rotating motor (8) is connected to the mobile phone charging bracket (5) via a motor connector (7). The headphone charging coil (23) is installed inside the lower housing (29) via the headphone charging bracket (17). The headphone charging top cover (16) is provided on the lower housing (29) at the top of the headphone charging coil (23), and the watch charging top cover (18) is provided inside the lower housing (29) below the headphone charging coil (23). The counterweight (20) is fixed inside the lower housing (29) below the watch charging top cover (18) via the counterweight bracket (28). The headphone charging main board (26) connected to the headphone charging coil (23) is provided inside the lower housing (29) below the counterweight (20). The mobile phone charging shell (6) and the lower shell (29) are connected by a damping pivot (15), and an infrared detection head (32) is provided on one side of the mobile phone charging shell (6). The infrared detection head (32) is connected to an infrared module (19) provided inside the lower shell (29). The infrared module (19) is installed inside the lower shell (29) through a small board (22).
2. The inductive rotating wireless charging dock according to claim 1, characterized in that: A magnet bracket (4) is provided on the mobile phone charging bracket (5) outside the mobile phone charging coil magnet (3), and the magnet bracket (4) is a circular structure. The magnet bracket (4) is connected to the mobile phone charging magnet (2).
3. The inductive rotating wireless charging dock according to claim 1, characterized in that: The mobile phone charging motherboard (9) is installed inside the mobile phone charging shell (6) via the motherboard bracket (10). The mobile phone charging shell (6) below the motherboard bracket (10) is provided with a coil pad (11), a motor fixing component (12) and a motor support frame (13). The rotating motor (8) is connected to the motor support frame (13) via the motor fixing component (12), and the motor support frame (13) is connected to the mobile phone charging shell (6).
4. The inductive rotating wireless charging dock according to claim 1, characterized in that: The counterweights (20) are arranged side by side inside the counterweight bracket (28), and each of the four corners of the counterweights (20) is provided with a main fixing screw (24), and each main fixing screw (24) is connected to the counterweight bracket (28).
5. The inductive rotating wireless charging dock according to claim 1, characterized in that: The mobile phone charging motherboard (9) and the headphone charging motherboard (26) are fixedly connected by a motherboard connection FPC (14). The headphone charging motherboard (26) is provided with a switch button (25). One side of the lower housing (29) is provided with an opening for exposing the switch button (25). The other side of the lower housing (29) is provided with a power interface connected to the headphone charging motherboard (26).
6. The inductive rotating wireless charging dock according to claim 1, characterized in that: The headphone charging coil (23) is provided with a headphone charging coil pad (21) at the connection between the headphone charging bracket (17), and a watch charging lock switch (27) is also provided on one side of the headphone charging coil (23), which is connected to the headphone charging coil (23).
7. The inductive rotating wireless charging dock according to claim 1, characterized in that: The headphone charging top cover (16) is connected to the headphone charging bracket (17) via a damping pivot (15).
8. The inductive rotating wireless charging dock according to claim 1, characterized in that: The bottom of the lower outer shell (29) is provided with a lower outer shell bottom cover (30), and the bottom of the lower outer shell bottom cover (30) is provided with an anti-slip pad (31), which is a circular ring structure.