A battery auxiliary management mechanism for wearable electronic devices and its usage method

Abstract

This application provides a battery auxiliary management mechanism for wearable electronic devices and its usage method, including: a display screen embedded and attached to the inner wall of a mirror protective shell; positioning conductive elements are inserted into both sides of the inner wall of the mirror protective shell at the location where the display screen is connected; the positioning conductive elements are inserted into and electrically connected to the display screen; an integrated frame is embedded inside the mirror protective shell, and the two ends of the integrated frame are inserted into the inner top of the positioning conductive elements; the present invention, through the design of the positioning conductive elements inside the mirror protective shell, can form a snap-lock for the display screen while also having the function of assembling intermediate conductive elements, allowing the display screen to be connected to the integrated frame using a snap-lock connection; the design of the integrated frame improves the practicality and actual use value of the device; the back is connected to the battery through a locking plug, enabling the closed circuit connection of all electrical components inside the mirror protective shell to form a loop.

Description

Technical Field

[0001] This invention relates to the field of battery auxiliary management for wearable electronic devices, and more specifically, to a battery auxiliary management mechanism for wearable electronic devices and its usage method. Background Technology

[0002] The battery auxiliary management mechanism, also known as the battery management system (BMS), consists of multiple modules such as control unit, voltage, current and temperature sensors, equalization circuit, and safety protection circuit. It has the ability to detect and control the internal battery current and operating status with high precision. It is mainly used to regulate and control battery management. It has advanced status detection and data acquisition as well as energy management and equalization control modules. However, with the rapid development of the times and the rapid upgrading of BMS, the old equipment has gradually become obsolete.

[0003] Due to the rapid updates and replacements of BSM (Body Smart System), the functionality of older devices gradually becomes insufficient, and newer devices require higher prices for replacement, resulting in higher costs. Meanwhile, the hardware components inside the devices used to control the BSM system cannot be updated, making it difficult to maintain the practicality of wearable electronic devices for a long time, thus gradually reducing purchasing power.

[0004] Therefore, we have made improvements to this by proposing a battery auxiliary management mechanism for wearable electronic devices and its usage method. Summary of the Invention

[0005] The purpose of this invention is to address the problems of the current BSM management system in wearable electronic devices, which is difficult to update, the inability to update hardware functions, the gradual inadequacy of the performance of the adjustment and control system, the gradual decrease in detection effect, and the high cost.

[0006] To achieve the above-mentioned objectives, the present invention provides a battery auxiliary management mechanism for wearable electronic devices and a method for using it, in order to improve the aforementioned problems.

[0007] The application is as follows:

[0008] A battery auxiliary management mechanism for wearable electronic devices includes:

[0009] A display screen is embedded and fitted to the inner wall of a mirror-finish protective shell. Positioning conductive elements are inserted into both sides of the inner wall of the protective shell at the location where the display screen connects. These positioning conductive elements are inserted into and electrically connected to the display screen. An integrated frame is embedded inside the protective shell, with both ends of the integrated frame inserted into the inner top of the positioning conductive elements. The insertion of the integrated frame into the positioning conductive elements simultaneously drives the positioning conductive elements to lock onto the inner wall of the protective shell. A battery is embedded in the side of the integrated frame facing away from the display screen. A locking block is provided on one side of the battery. When the locking block is activated, the battery engages with the display screen via the locking block. The integrated frame and the positioning conductive component are electrically connected. An integrated groove is provided at the connection position between the integrated frame and the positioning conductive component. The integrated groove contains an in-groove conductive core. The front of the integrated frame has equidistantly arranged circuit board grooves. Screw grooves are provided at the top and bottom ends of the circuit board grooves. A battery cell slot is provided on one side of the circuit board groove. An integrated circuit board is embedded in the circuit board groove. The integrated circuit board is fixedly connected to the inside of the circuit board groove by screws passing through the screw grooves. One end of the integrated circuit board has a plug-in conductive core, which is plugged into the in-groove conductive core.

[0010] As a preferred technical solution of this application, the upper and lower ends of the mirror protective shell are hinged with restraint straps, an integrated compartment is opened on the inner side of the back of the mirror protective shell, a sealing groove is opened at the top of the integrated compartment, a sealing plate fixed by screws is embedded in the sealing groove, and symmetrical screen locking grooves are opened on the upper and lower sides of the inner wall of the integrated compartment, with the bottom end of the screen locking groove parallel to the surface of the display screen.

[0011] As a preferred technical solution of this application, a screen protection frame is fitted on the outer side of the display screen, the outer wall of the screen protection frame is fitted and embedded in the inner wall of the integrated compartment, and an isolation protection sheet is attached to the back of the display screen and the screen protection frame. The isolation protection sheet has insertion conductive grooves at its upper and lower ends, and the insertion conductive grooves are electrically connected to the display screen.

[0012] As a preferred technical solution of this application, one end of the positioning conductive component is inserted into the screen locking groove, and the end of the positioning conductive component away from the screen locking groove is provided with a screen plug plate. Symmetrical telescopic movable grooves are opened on both sides inside the screen plug plate. A pressing block is inserted inside the telescopic movable groove. A positioning sliding frame is connected to the outer wall of the middle part of the pressing block. A conductive frame is connected to the side of the pressing block near the insertion conductive groove. The conductive frame is inserted into the insertion conductive groove. An embedded pull ring is hinged to the surface of the pressing block.

[0013] As a preferred technical solution of this application, the positioning conductive component has an integrated combination groove located above the screen plug-in board. A cable management groove communicating with the inside of the integrated combination groove is formed on one side, and the other end of the cable management groove is connected to the inside of the conductive frame. A plug-in sliding nozzle is slidably connected to the inner wall of the integrated combination groove. Positioning slide plates are fixedly connected to both sides of the outer wall of the plug-in sliding nozzle. Symmetrical positioning slide grooves are formed on both sides of the inner wall of the integrated combination groove. The positioning slide plates are limited to slide on the inner wall of the positioning slide grooves. A guide groove is formed inside the plug-in sliding nozzle. The guide groove is plugged into the integrated frame. A driving inclined surface is formed on the side of the plug-in sliding nozzle located inside the integrated combination groove. A wire is connected to the side of the plug-in sliding nozzle near the cable management groove. The wire passes through the inside of the cable management groove and is fixedly connected to the conductive frame.

[0014] As a preferred technical solution of this application, a transmission cavity is formed inside the positioning conductive component on the side where the insertion sliding nozzle has a driving inclined surface. Protrusions penetrating both sides of the outer wall of the positioning conductive component are formed deep within the transmission cavity. A reciprocating sliding cavity is formed in the middle of the protrusions. A transmission top block slides on the inner wall of the transmission cavity. A driven inclined surface is formed on the side of the transmission top block that is close to the driving inclined surface. The driven inclined surface abuts against the driving inclined surface. Transmission inclined surfaces are formed on both sides of the end of the transmission top block away from the driving inclined surface. A bidirectional top block slides and is limited inside the protrusions. A limiting frame is connected to the outer wall of the middle part of the bidirectional top block. The bidirectional top block slides and is limited by the limiting frame on the inner wall of the reciprocating sliding cavity. A force-bearing inclined surface is formed at the end of the bidirectional top block inside the transmission cavity, abutting against the transmission inclined surface.

[0015] As a preferred technical solution of this application, the conductive core in the groove is inserted into the inner wall of the conductive groove, the integrated frame has a battery groove on the side away from the circuit board groove, a pressure driving groove is formed on one side of the battery groove, a telescopic displacement groove communicating with the middle of the battery groove is formed in the middle of the pressure driving groove, and symmetrical pressure limiting grooves are formed on the upper and lower sides inside the pressure driving groove.

[0016] As a preferred technical solution of this application, the locking block includes a battery assembly block and a drive bar. The battery assembly block slides inside the telescopic displacement groove. An insulating frame is provided on the side of the battery assembly block near the battery groove. A battery connector core is connected to the center of the insulating frame. An oblique T-shaped limiting groove is provided at the top of the end of the battery assembly block opposite to the battery connector core. The drive bar slides vertically on the inner wall of the downward driving groove. Limiting sliders are fixedly connected to the outer walls of the upper and lower ends of the drive bar. The drive bar slides on the inner wall of the downward limiting groove by the limiting sliders. An inclined convex locking block is connected to the end of the drive bar located inside the downward driving groove. The convex locking block slides in the T-shaped limiting groove. A threaded hole is provided at the center of one end of the drive bar. A nut storage hole is provided at the top of the threaded hole. A threaded rod threaded into the threaded hole is threadedly connected to it. The nut at the top of the threaded rod is stored inside the nut storage hole.

[0017] As a preferred technical solution of this application, the battery is embedded inside the battery slot, and a sealing groove is provided on the side of the battery near the battery connector core. A sealing frame is provided inside the sealing groove, and a conductive socket is provided at the center of the sealing frame. The battery connector core is inserted into the conductive socket.

[0018] The present invention provides a method for using a battery auxiliary management mechanism for wearable electronic devices, comprising the following steps: S1: Remove the sealing sheet on the back of the mirror protective shell, and then the integrated frame or battery can be removed directly according to the required steps;

[0019] S2: When the battery needs maintenance or replacement, use an Allen wrench to turn the threaded rod so that it penetrates into the inner bottom of the lower drive groove. As the threaded rod continues to rotate, it will push the drive bar upward. At this time, the drive bar will drive the convex locking block to slide obliquely inside the T-shaped limit groove and move upward, causing the battery assembly block to retract and the battery connector core to separate from the battery. After removing the battery and replacing it with a new battery, reset the threaded rod and press the drive bar to complete the insertion of the battery and the battery assembly block into the battery assembly block and the pressing and fixing of the battery.

[0020] S3: When the hardware of the integrated circuit board needs to be updated, take out the integrated frame, separate the integrated circuit board that needs to be updated from the circuit board slot on the front of the integrated frame, insert the new integrated circuit board, embed the integrated frame inside the integrated compartment, and complete the connection between the integrated frame and the positioning conductive parts.

[0021] S4: When the display screen needs to be replaced, remove the integrated frame. As the integrated frame separates from the mirror protective shell, the conductive core inside the slots at both ends of the integrated frame will pull the insertion sliding nozzle inside the integrated combination slot upwards. At this time, the bidirectional top blocks on both sides of the positioning conductive component will lose their pushing force and separate from the inner wall of the screen locking slot. After the integrated frame is removed, pull the embedded pull ring to separate the conductive frame from the insertion conductive slot of the isolation protective sheet. After removing the positioning conductive component, the display screen will lose its lock. Remove the display screen and replace it with a new one. Then, install the positioning conductive component and the integrated frame.

[0022] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0023] In this application, the design of the internal positioning conductive parts of the mirror protective shell enables the display screen to be locked in a snap-fit ​​manner while also functioning as an intermediate connecting part. This allows the display screen to be connected to the integrated frame via a snap-fit ​​connection. The integrated frame design allows for the separate installation and connection of various integrated circuit boards in different positions, enabling the hardware used to control electronic devices to be quickly replaced during updates, thus improving the practicality and actual use value of the equipment. The back is connected to the battery via a locking plug, which allows for the quick connection of the battery and the automatic use of the internal wiring of the integrated frame to complete the electrical connection between the circuit and multiple integrated circuit boards, thereby achieving a closed circuit connection and forming a loop for all electrical components inside the mirror protective shell.

[0024] 1. The present invention has a screen plug-in board and an integrated combination slot respectively inside the positioning conductive component. After the screen plug-in board and the display screen are connected together, the integrated frame and the integrated combination slot are plugged and fixed, while providing a thrust to the transmission top block. This allows the bidirectional top blocks on both sides to lock into the inner wall of the mirror protective shell, which not only ensures the stable connection of the circuit, but also enables the display screen and the inner wall of the mirror protective shell to form a high-strength connection.

[0025] 2. The present invention has a conductive core in the center of the integrated frame that is electrically connected to the battery assembly block inside the interlocking block, so that they are integrated into one unit. This can completely eliminate the leakage of the circuit and improve the working stability of the internal circuit of the device. At the same time, the working principle of the drive bar pushing the battery assembly block at an angle can improve the convenience of connecting the battery to the internal circuit of the integrated frame. It can also fix the battery while connecting the circuit, which is beneficial to the overall safety of the electronic equipment. Attached Figure Description

[0026] Figure 1 A schematic diagram of the overall structure of a battery auxiliary management mechanism and its usage method for a wearable electronic device provided by the present invention;

[0027] Figure 2 for Figure 1 The diagram shown is an exploded and enlarged view of the internal structure of the mirror-finish protective shell.

[0028] Figure 3 for Figure 2 The diagram shows the structure of the positioning conductive element.

[0029] Figure 4 for Figure 3 The diagram shows an exploded view of the structure for locating the conductive component.

[0030] Figure 5 for Figure 4 The diagram shows an exploded cross-sectional view of one end of the positioning conductive element.

[0031] Figure 6 for Figure 5 The diagram shows an exploded cross-sectional view of the middle section of the positioning conductive component.

[0032] Figure 7 for Figure 6 A schematic diagram of the transmission structure at the position of the transmission top block;

[0033] Figure 8 for Figure 2 The diagram shown is an exploded and enlarged view of the front structure of the integrated frame.

[0034] Figure 9 for Figure 8 The diagram shows an exploded view of the back of the integrated frame.

[0035] Figure 10 for Figure 9 The diagram shows an exploded cross-sectional view of the location of the interlocking locking block.

[0036] The image shows:

[0037] 1. Mirror-finish protective shell; 11. Restraint straps; 12. Integrated compartment; 13. Sealing groove; 14. Sealing sheet; 15. Screen locking groove;

[0038] 2. Display screen; 21. Screen protection frame; 22. Isolation protection sheet; 23. Connecting conductive groove;

[0039] 3. Positioning conductive component; 31. Screen body plug board; 311. Telescopic movable groove; 312. Pressing block; 313. Positioning sliding frame; 314. Conductive frame; 315. Embedded pull ring;

[0040] 32. Integrated combination slot; 321. Insertion sliding nozzle; 322. Positioning slide plate; 323. Positioning slide groove; 324. Guide groove; 325. Drive slope; 326. Wire; 33. Cable management groove;

[0041] 34. Transmission cavity; 341. Protrusion; 342. Reciprocating sliding cavity; 343. Transmission top block; 344. Driven inclined surface; 345. Transmission inclined surface; 346. Bidirectional top block; 347. Limiting frame; 348. Force-bearing inclined surface;

[0042] 4. Integrated frame; 41. Integrated slot; 411. Conductive core inside the slot;

[0043] 42. Circuit board slot; 421. Screw slot; 422. Battery cell slot; 423. Integrated circuit board; 424. Connecting conductive core;

[0044] 43. Battery slot; 431. Telescopic displacement slot; 432. Press-down drive slot; 433. Press-down limit slot;

[0045] 5. Plug-in locking block; 51. Battery assembly block; 511. Insulating sleeve frame; 512. Battery connector core; 513. T-shaped limiting groove;

[0046] 52. Drive bar; 521. Convex locking block; 522. Threaded hole; 523. Nut storage hole; 524. Threaded rod; 53. Limiting slider;

[0047] 6. Storage battery; 61. Sealing groove; 62. Sealing frame; 63. Conductive socket. Detailed Implementation

[0048] To enable those skilled in the art to better understand the present invention, the technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present invention. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort should fall within the scope of protection of the present invention.

[0049] As described in the background section, wearable electronic devices suffer from problems such as difficulty in updating and upgrading their internal BSM management systems, inability to update hardware functions, gradually insufficient performance of the adjustment and control system, decreasing detection effectiveness, and high costs.

[0050] To address this technical problem, the present invention provides a battery auxiliary management mechanism for wearable electronic devices and its usage method. It is applied to the modular combination and inheritance design of wearable electronic devices, enabling the separate design of various components inside the electronic device, allowing for disassembly and reassembly. This allows the device to be replaced as the latest hardware is released, thereby improving the practicality of the electronic device, enhancing its actual value, and increasing its service life. At the same time, the assembled structure uses a snap-fit ​​connection, which can ensure the stability of the connections between circuits and its shock resistance.

[0051] For details, please refer to Figures 1-10 The battery auxiliary management mechanism of the wearable electronic device specifically includes:

[0052] A display screen 2 is embedded and attached to the inner wall of a mirror protective shell 1. Positioning conductive elements 3 are inserted into both sides of the inner wall of the mirror protective shell 1 at the position where the display screen 2 is connected. The positioning conductive elements 3 are inserted into and electrically connected to the display screen 2. An integrated frame 4 is embedded inside the mirror protective shell 1. The two ends of the integrated frame 4 are inserted into the inner top of the positioning conductive elements 3. When the integrated frame 4 is inserted into the positioning conductive elements 3, the positioning conductive elements 3 are locked to the inner wall of the mirror protective shell 1. A battery 6 is embedded in the side of the integrated frame 4 away from the display screen 2. A locking block 5 is provided on one side of the battery 6. When the locking block 5 is driven, the battery 6 is electrically connected to the integrated frame 4 and the positioning conductive elements 3 through the locking block 5.

[0053] This invention provides a battery auxiliary management mechanism for wearable electronic devices. Through the design of the internal positioning conductive element 3 of the mirror protective shell 1, it can form a snap-lock for the display screen 2 while also having the function of assembling intermediate conductive elements. This allows the display screen 2 to be connected to the integrated frame 4 via a snap-lock connection. The design of the integrated frame 4 allows for the separate installation and connection of various integrated circuit boards 423 in different positions, enabling the hardware used to control the electronic device to be quickly replaced during updates, thus improving the practicality and actual use value of the device. The back is connected to the battery 6 via a locking plug, which can quickly complete the assembly connection of the battery 6 and automatically use the internal circuitry of the integrated frame 4 to complete the electrical connection between the circuit and multiple integrated circuit boards 423, realizing a closed circuit connection of all electrical components inside the mirror protective shell 1 to form a loop.

[0054] To enable those skilled in the art to better understand the present invention, the technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings.

[0055] It should be noted that, unless otherwise specified, the embodiments and features and technical solutions in the present invention can be combined with each other.

[0056] It should be noted that similar labels and letters in the following figures indicate similar items. Therefore, once an item is defined in one figure, it does not need to be further defined and explained in subsequent figures.

[0057] Example 1

[0058] Please refer to Figures 1-10A battery auxiliary management mechanism for wearable electronic devices, wherein the upper and lower ends of the mirror protective shell 1 are hinged with restraint straps 11, the inner side of the back of the mirror protective shell 1 is provided with an integrated compartment 12, the top of the integrated compartment 12 is provided with a sealing groove 13, a sealing plate 14 fixed by screws is embedded inside the sealing groove 13, and symmetrical screen locking grooves 15 are provided on the upper and lower sides of the inner wall of the integrated compartment 12, the bottom end of the screen locking groove 15 is parallel to the surface of the display screen 2.

[0059] The outer side of the display screen 2 is fitted with a screen protection frame 21. The outer wall of the screen protection frame 21 is fitted and embedded in the inner wall of the integrated compartment 12. An isolation protection sheet 22 is attached to the back of the display screen 2 and the screen protection frame 21. The isolation protection sheet 22 has insertion conductive grooves 23 at both ends. The insertion conductive grooves 23 are electrically connected to the display screen 2.

[0060] One end of the positioning conductive component 3 is inserted into the screen locking groove 15. The end of the positioning conductive component 3 away from the screen locking groove 15 is provided with a screen plug plate 31. Symmetrical telescopic movable grooves 311 are opened on both sides inside the screen plug plate 31. A pressing block 312 is inserted inside the telescopic movable groove 311. A positioning sliding frame 313 is connected to the outer wall of the middle part of the pressing block 312. A conductive frame 314 is connected to the side of the pressing block 312 near the insertion conductive groove 23. The conductive frame 314 is inserted into the insertion conductive groove 23. An embedded pull ring 315 is hinged to the surface of the pressing block 312.

[0061] An integrated combination groove 32 is formed inside the positioning conductive component 3 above the screen plug-in board 31. A cable management groove 33 communicating with the inside of the integrated combination groove 32 is formed on one side of the integrated combination groove 32. The other end of the cable management groove 33 is connected to the inside of the conductive frame 314. A plug-in sliding nozzle 321 is slidably connected to the inner wall of the integrated combination groove 321. Positioning slide plates 322 are fixedly connected to both sides of the outer wall of the plug-in sliding nozzle 321. Symmetrical positioning slide grooves 323 are formed on both sides of the inner wall of the integrated combination groove 322. The positioning slide plates 322 are limited to slide on the inner wall of the positioning slide grooves 323. A guide groove 324 is formed inside the plug-in sliding nozzle 321. The guide groove 324 is plugged into the integrated frame 4. A driving inclined surface 325 is formed on the side of the plug-in sliding nozzle 321 inside the integrated combination groove 32. A wire 326 is connected to the side of the plug-in sliding nozzle 321 near the cable management groove 33. The wire 326 passes through the inside of the cable management groove 33 and is fixedly connected to the conductive frame 314.

[0062] Inside the positioning conductive component 3, on the side where the insertion sliding nozzle 321 has a driving inclined surface 325, a transmission cavity 34 is formed. Protrusions 341 penetrating the outer wall of the positioning conductive component 3 are formed on both sides of the depth of the transmission cavity 34. A reciprocating sliding cavity 342 is formed in the middle of the protrusions 341. A transmission top block 343 slides on the inner wall of the transmission cavity 34. A driven inclined surface 344 is formed on the side of the transmission top block 343 that is close to the driving inclined surface 325. The driven inclined surface 344 and the driving inclined surface 325... 25. The transmission top block 343 has transmission inclined surfaces 345 on both sides at the end away from the driving inclined surface 325. The protrusion 341 has a bidirectional top block 346 that slides within it. The outer wall of the middle part of the bidirectional top block 346 is connected to a limiting frame 347. The bidirectional top block 346 slides within the reciprocating slide cavity 342 through the limiting frame 347. The end of the bidirectional top block 346 located inside the transmission cavity 34 has a force-bearing inclined surface 348 that fits and abuts against the transmission inclined surface 345.

[0063] The positioning conductive component 3 is equipped with a screen plug-in board 31 and an integrated combination slot 32 inside. After the screen plug-in board 31 and the display screen 2 are connected together, the integrated frame 4 and the integrated combination slot 32 are plugged and fixed, while providing a thrust to the transmission top block 343. This allows the bidirectional top blocks 346 on both sides to lock onto the inner wall of the mirror protective shell 1, which ensures a stable circuit connection and enables the display screen 2 to form a high-strength connection with the inner wall of the mirror protective shell 1.

[0064] Example 2

[0065] The battery auxiliary management mechanism for a wearable electronic device provided in Embodiment 1 is further optimized, specifically, as follows: Figures 1-10 An integrated slot 41 is provided at the connection position between the integrated frame 4 and the positioning conductive component 3. An internal conductive core 411 is provided inside the integrated slot 41 and is inserted into the inner wall of the conductive groove 324. The front of the integrated frame 4 has equidistantly arranged circuit board slots 42. Screw slots 421 are provided at the top and bottom ends of the circuit board slots 42. A battery cell slot 422 is provided on one side of the circuit board slots 42. An integrated circuit board 423 is embedded inside the circuit board slots 42 and is mounted on the screws. The wire groove 421 is fixedly connected inside the circuit board groove 42. One end of the integrated circuit board 423 is provided with a plug-in conductive core 424, which is plugged into the conductive core 411 inside the groove. The integrated frame 4 has a battery groove 43 on the side facing away from the circuit board groove 42. A pressing drive groove 432 is provided on one side of the battery groove 43. A telescopic displacement groove 431 communicating with the middle of the battery groove 43 is provided in the middle of the pressing drive groove 432. Symmetrical pressing limit grooves 433 are provided on the upper and lower sides inside the pressing drive groove 432.

[0066] The locking block 5 includes a battery assembly block 51 and a drive bar 52. The battery assembly block 51 slides inside the telescopic displacement groove 431. An insulating frame 511 is formed on the side of the battery assembly block 51 near the battery groove 43. A battery connector core 512 is connected to the center of the insulating frame 511. An oblique T-shaped limiting groove 513 is formed on the top of the end of the battery assembly block 51 facing away from the battery connector core 512. The drive bar 52 slides vertically on the inner wall of the downward driving groove 432. Limiting sliders 53 are fixedly connected to the outer walls of the upper and lower ends of the drive bar 52. The drive bar 52 is limited to slide within the inner wall of the pressure limiting groove 433 by the limiting slider 53. One end of the drive bar 52 located inside the pressure driving groove 432 is connected to an inclined convex locking block 521. The convex locking block 521 is limited to slide within the T-shaped limiting groove 513. A threaded hole 522 is provided at the center of one end of the drive bar 52. A nut storage hole 523 is provided at the top of the threaded hole 522. A threaded rod 524 threadedly connected to the threaded rod 524 is passed through the threaded hole 522. The nut at the top of the threaded rod 524 is stored inside the nut storage hole 523.

[0067] The battery 6 is embedded inside the battery slot 43. A sealing groove 61 is provided on the side of the battery 6 near the battery connector core 512. A sealing frame 62 is provided inside the sealing groove 61. A conductive socket 63 is provided at the center of the sealing frame 62. The battery connector core 512 is inserted into the conductive socket 63.

[0068] The integrated frame 4 has a conductive core 411 in the center of the slot that is electrically connected to the battery assembly block 51 inside the locking block 5, making them integrated into one unit. This completely eliminates the leakage of the circuit and improves the working stability of the internal circuit of the device. At the same time, the working principle of the drive bar 52 pushing the battery assembly block 51 at an angle can improve the convenience of connecting the battery to the internal circuit of the integrated frame 4. It can also fix the battery 6 while connecting the circuit, which is beneficial to the overall safety of the electronic equipment.

[0069] Please see Figures 1-10 The present invention provides a method for using a battery auxiliary management mechanism for a wearable electronic device, the method comprising the following steps:

[0070] S1: Remove the sealing sheet 14 on the back of the mirror protective shell 1, and then you can directly remove the integrated frame 4 or the battery 6 according to the required steps.

[0071] S2: When the battery 6 needs maintenance or replacement, use an Allen wrench to rotate the threaded rod 524, so that the threaded rod 524 penetrates into the inner bottom surface of the lower drive groove 432. As the threaded rod 524 continues to rotate, the threaded rod 524 will push the drive bar 52 upward. At this time, the drive bar 52 will drive the convex locking block 521 to slide obliquely inside the T-shaped limit groove 513 and move upward, so that the battery assembly block 51 retracts, allowing the battery connector core 512 to separate from the battery 6. After removing the battery and replacing it with a new battery, reset the threaded rod 524 and press the drive bar 52 to complete the insertion of the battery 6 and the battery assembly block 51 and the pressing and fixing of the battery 6 by the battery assembly block 51.

[0072] S3: When the hardware of the integrated circuit board 423 needs to be updated, take out the integrated frame 4, separate the integrated circuit board 423 that needs to be updated inside the circuit board slot 42 on the front of the integrated frame 4, insert the new integrated circuit board 423, embed the integrated frame 4 inside the integrated compartment 12, and complete the connection between the integrated frame 4 and the positioning conductive part 3.

[0073] S4: When the display screen 2 needs to be replaced, remove the integrated frame 4. As the integrated frame 4 is removed, as it separates from the mirror protective shell 1, the conductive core 411 inside the integrated groove 41 at both ends of the integrated frame 4 will pull the insertion sliding nozzle 321 inside the integrated combination groove 32 upward. At this time, the bidirectional top blocks 346 on both sides of the positioning conductive component 3 will lose their pushing force and separate from the inner wall of the screen locking groove 15. After the integrated frame 4 is removed, pull the embedded pull ring 315 to separate the conductive frame 314 from the insertion conductive groove 23 of the isolation protective plate 22. After removing the positioning conductive component 3, the display screen 2 will lose its lock. Remove the display screen 2 and replace it with a new one. Then, install the positioning conductive component 3 and the integrated frame 4.

[0074] The usage process of the battery auxiliary management mechanism for wearable electronic devices provided by this invention is as follows:

[0075] When assembling this invention:

[0076] The screen protection frame 21 is embedded deep inside the inner wall of the integrated compartment 12. Then, the display screen 2 is embedded in the inner wall of the integrated compartment 12 so that the side of the display screen 2 that can be displayed is in contact with the mirror surface of the front of the mirror protective shell 1. At this time, if the display screen 2 is lit up, the data displayed on the display screen 2 can be displayed on the outside of the mirror surface of the mirror protective shell 1.

[0077] After the display screen 2 is installed, the isolation protection plate 22 is attached to the outside of the display screen 2 and the screen body protection frame 21, so that the isolation protection plate 22 completely separates and protects the display screen 2 from the rear. After the isolation protection plate 22 is attached to the display screen 2, the two ends of the isolation protection plate 22 facing away from the insertion conductive groove 23 will be snapped into the power plug position of the display screen 2, so that the display screen 2 and the insertion conductive groove 23 of the isolation protection plate 22 complete the circuit connection.

[0078] After the isolation protection plate 22 is installed, the positioning conductive component 3 is inserted into the screen locking groove 15, so that the screen plug board 31 is opposite to the plug-in conductive groove 23. Then, the pressing block 312 is pressed, which will drive the positioning sliding frame 313 and the conductive frame 314 to slide inside the telescopic movable groove 311. At this time, the conductive frame 314 will be inserted into the plug-in conductive groove 23, completing the circuit connection between the plug-in conductive groove 23 and the positioning conductive component.

[0079] When the power supply board 31 of the screen body is engaged with the insertion conductive groove 23 of the isolation protection plate 22, the positioning conductive component 3 will be positioned by the insertion conductive groove 23.

[0080] Then, the side of the inheritance frame with the inheritance groove is embedded into the integrated compartment 12. At this time, as the integrated frame 4 goes deeper, the conductive core 411 inside the groove of the integrated groove 41 will be inserted into the guide groove 324 opened inside the insertion sliding nozzle 321, thus completing the circuit connection between the positioning conductive component 3 and the integrated frame 4.

[0081] As the integrated frame 4 continues to penetrate deeper, the integrated slot 41 will be pressed by the conductive core 411 inside the slot to push the insertion sliding nozzle 321 into the integrated combination slot. When the insertion sliding nozzle 321 slides into the integrated combination slot, the driving slope 325 at the bottom of the insertion sliding nozzle 321 will push the transmission top block 343 inside the transmission cavity 34 to slide. The sliding of the transmission top block 343 will push the two sets of bidirectional top blocks 346 to slide to both sides, so that the bidirectional top blocks 346 are pressed against the inner wall of the screen locking slot 15, completing the locking of the positioning conductive component 3. At the same time, the integrated frame 4 will be completely embedded inside the integrated compartment 12.

[0082] It should be noted that before the integrated frame 4 is installed into the integrated compartment 12, the integrated circuit board 423 to be installed can be installed into the circuit board slot 42 to complete the pre-installation.

[0083] After the integrated frame 4 is installed, the battery is embedded into the battery slot 43. Pressing the locking block 5 will cause the locking block 5 to slide through the convex locking block 521 connected obliquely to its bottom surface, which in turn pushes the T-shaped limiting groove 513 to slide. The movement of the T-shaped limiting groove 513 will push the battery assembly block 51 to slide. The sliding of the battery assembly block 51 will cause the battery connector core 512 to be inserted into the conductive socket 63 opened on one side of the battery 6, thus completing the connection between the battery 6 and the internal circuit of the integrated frame 4.

[0084] Once the battery 6 is connected, the display screen 2 will be powered on and can be used normally. At this time, the sealing sheet 14 is placed inside the sealing groove 13 and fixed to complete the assembly of the equipment.

[0085] When the device needs to replace the battery 6, remove the sealing plate 14, use an Allen wrench to turn the threaded rod 524 so that the threaded rod 524 abuts against the bottom surface of the pressure drive groove 432, push the drive bar 52 upward, and the convex locking block 521 can drive the T-shaped limiting groove 513 to separate the battery assembly block 51 from the battery 6. At this time, the battery 6 can be replaced, and the connection can be completed by pressing the drive bar 52.

[0086] It should be noted that: In this invention, the circuits located inside the integrated frame 4 are all electrically connected to the battery 6 via wires 326, including the integrated circuit board and the conductive core 411 in the slot. The battery assembly block 51 is connected to the battery via the battery connector core 512, and its outer wall is electrically connected to the internal circuits of the integrated frame 4 via wires 326 (not explicitly shown in the figure in this invention, but the wires 326 actually connect the internal circuits in a loop).

[0087] In this invention, unless otherwise explicitly specified and limited, the terms "installation," "connection," "linking," and "fixing," etc., should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral part; they can refer to a mechanical connection, an electrical connection, or a connection that allows communication between them; they can refer to a direct connection or an indirect connection through an intermediate medium; they can refer to the internal communication of two components or the interaction between two components, unless otherwise explicitly limited. Those skilled in the art can understand the specific meaning of the above terms in this invention according to the specific circumstances.

[0088] Obviously, the embodiments described above are merely some embodiments of the present invention, not all embodiments. The accompanying drawings show preferred embodiments of the present invention, but do not limit the patent scope of the present invention. The present invention can be implemented in many different forms; rather, these embodiments are provided to provide a more thorough and complete understanding of the disclosure of the present invention. Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing specific embodiments, or make equivalent substitutions for some of the technical features. Any equivalent structures made using the content of this specification and drawings, directly or indirectly applied to other related technical fields, are similarly within the patent protection scope of this invention.

Claims

1. A battery-assisted management mechanism for a wearable electronic device, comprising: The utility model relates to a mirror protective shell (1) is connected in the position of display screen (2) inside, and the both sides of the position of display screen (2) inside are inserted with the positioning conductive part (3) of the two sides of the position of display screen (2) inside, and the positioning conductive part (3) is inserted with display screen (2) and is electrically connected, and the inside of mirror protective shell (1) is embedded with integrated frame (4), and the inside of the both ends of integrated frame (4) is inserted in the top of positioning conductive part (3), and integrated frame (4) is inserted with positioning conductive part (3) simultaneously drive positioning conductive part (3) to be locked in the inner wall of mirror protective shell (1), and the one side of integrated frame (4) is embedded with battery (6) away from display screen (2), and one side of battery (6) is equipped with the insertion lock block (5), and the insertion lock block (5) drive state battery (6) is electrically connected with integrated frame (4) and positioning conductive part (3) through insertion lock block (5), and the position of integrated frame (4) and positioning conductive part (3) is provided with integrated embedding groove (41), and the inside of integrated embedding groove (41) is equipped with groove inside conductive core (411), and the front of integrated frame (4) is provided with equidistantly arranged circuit board groove (42), and the inside of circuit board groove (42) is provided with screw groove (421) in the upper and lower ends, and one side of circuit board groove (42) is provided with electric core insertion slot (422), and the inside of circuit board groove (42) is embedded with integrated circuit board (423), and integrated circuit board (423) is fixedly connected in the inside of circuit board groove (42) through the screw of being arranged in the inside of screw groove (421), and one end of integrated circuit board (423) is equipped with insertion conductive core (424), and insertion conductive core (424) is inserted in the inside of groove inside conductive core (411). The utility model relates to the utility model discloses a mirror protective shell (1) is connected in the position of display screen (2) inside, and the both sides of the position of display screen (2) inside are inserted with the positioning conductive part (3) of the two sides of the position of display screen (2) inside, and the positioning conductive part (3) is inserted with display screen (2) and is electrically connected, and the inside of mirror protective shell (1) is embedded with integrated frame (4), and the inside of the both ends of integrated frame (4) is inserted in the top of positioning conductive part (3), and integrated frame (4) is inserted with positioning conductive part (3) simultaneously drive positioning conductive part (3) to be locked in the inner wall of mirror protective shell (1), and the one side of integrated frame (4) is embedded with battery (6) away from display screen (2), and one side of battery (6) is equipped with the insertion lock block (5), and the insertion lock block (5) drive state battery (6) is electrically connected with integrated frame (4) and positioning conductive part (3) through insertion lock block (5), and the position of integrated frame (4) and positioning conductive part (3) is provided with integrated embedding groove (41), and the inside of integrated embedding groove (41) is equipped with groove inside conductive core (411), and the front of integrated frame (4) is provided with equidistantly arranged circuit board groove (42), and the inside of circuit board groove (42) is provided with screw groove (421) in the upper and lower ends, and one side of circuit board groove (42) is provided with electric core insertion slot (422), and the inside of circuit board groove (42) is embedded with integrated circuit board (423), and integrated circuit board (423) is fixedly connected in the inside of circuit board groove (42) through the screw of being arranged in the inside of screw groove (421), and one end of integrated circuit board (423) is equipped with insertion conductive core (424), and insertion conductive core (424) is inserted in the inside of groove inside conductive core (411).

2. The battery-assisted management mechanism of a wearable electronic device according to claim 1, wherein, ​ 3. The battery-assisted management mechanism of a wearable electronic device according to claim 2, wherein, ​ 4. The battery-assisted management mechanism of a wearable electronic device according to claim 3, wherein, The positioning conductive part (3) is inserted in the screen body locking groove (15), and the end of the positioning conductive part (3) away from the screen body locking groove (15) is provided with a screen body plug-in board (31), the screen body plug-in board (31) is provided with symmetrical telescopic grooves (311) on both sides, the telescopic grooves (311) are provided with pressing blocks (312), the pressing blocks (312) are connected with positioning sliding frames (313), the pressing blocks (312) are connected with conductive frames (314) on one side, the conductive frames (314) are inserted in the plug-in conductive grooves (23), and the pressing blocks (312) are hinged with embedded pull rings (315).

5. The battery-assisted management mechanism of a wearable electronic device according to claim 4, wherein, The positioning conductive part (3) is inserted in the screen body locking groove (15), and the end of the positioning conductive part (3) away from the screen body locking groove (15) is provided with a screen body plug-in board (31), the screen body plug-in board (31) is provided with symmetrical telescopic grooves (311) on both sides, the telescopic grooves (311) are provided with pressing blocks (312), the pressing blocks (312) are connected with positioning sliding frames (313), the pressing blocks (312) are connected with conductive frames (314) on one side, the conductive frames (314) are inserted in the plug-in conductive grooves (23), and the pressing blocks (312) are hinged with embedded pull rings (315). The positioning conductive part (3) is inserted in the screen body locking groove (15), and the end of the positioning conductive part (3) away from the screen body locking groove (15) is provided with a screen body plug-in board (31), the screen body plug-in board (31) is provided with symmetrical telescopic grooves (311) on both sides, the telescopic grooves (311) are provided with pressing blocks (312), the pressing blocks (312) are connected with positioning sliding frames (313), the pressing blocks (312) are connected with conductive frames (314) on one side, the conductive frames (314) are inserted in the plug-in conductive grooves (23), and the pressing blocks (312) are hinged with embedded pull rings (315).

6. The battery-assisted management mechanism of a wearable electronic device according to claim 5, wherein, The positioning conductive part (3) is internally located on the side of the plug-in sliding nozzle (321) provided with the driving slope (325) and is provided with a transmission cavity (34), the deep part of the transmission cavity (34) is provided with protruding outlets (341) penetrating through the two sides of the outer wall of the positioning conductive part (3), the middle part of the protruding outlet (341) is provided with a reciprocating sliding cavity (342), the transmission cavity (34) is slidably provided with a transmission top block (343), one side of the transmission top block (343) close to the driving slope (325) is provided with a driven slope (344), the driven slope (344) is abutted with the driving slope (325), the transmission top block (343) is provided with transmission slopes (345) on the two sides of the end away from the driving slope (325), the inside of the protruding outlet (341) is limitedly slidably provided with a bidirectional top block (346), the middle outer wall of the bidirectional top block (346) is connected with a limiting frame (347), the bidirectional top block (346) is limitedly slidably arranged in the reciprocating sliding cavity (342) through the limiting frame (347), one end of the bidirectional top block (346) located in the transmission cavity (34) is provided with a stress slope (348) abutted with the transmission slope (345).

7. The battery-assisted management mechanism of a wearable electronic device according to claim 6, wherein, The slot conductive core (411) is inserted into the inner wall of the guide slot (324), one side of the integrated frame (4) away from the circuit board slot (42) is provided with a battery slot (43), one side of the battery slot (43) is provided with a downward driving slot (432), the middle part of the downward driving slot (432) is provided with an expansion displacement slot (431) in communication with the middle part of the battery slot (43), the inside of the downward driving slot (432) is provided with symmetrical downward limiting slots (433) on the upper and lower sides.

8. The battery-assisted management mechanism of a wearable electronic device according to claim 7, wherein, The plug-in lock block (5) comprises a battery combination block (51) and a driving bar (52), the battery combination block (51) is slidably arranged in the expansion displacement slot (431), one side of the battery combination block (51) close to the battery slot (43) is provided with an insulating sleeve frame (511), the center of the insulating sleeve frame (511) is connected with a battery plug-in core (512), one end of the battery combination block (51) away from the battery plug-in core (512) is provided with an inclined T-shaped limiting slot (513) at the top, the driving bar (52) is vertically slidably arranged in the inner wall of the downward driving slot (432), the outer walls of the upper and lower ends of the driving bar (52) are fixedly connected with limiting sliding blocks (53), the driving bar (52) is limitedly slidably arranged in the inner wall of the downward limiting slot (433) through the limiting sliding blocks (53), one end of the driving bar (52) located in the inside of the downward driving slot (432) is connected with an inclined convex lock block (521), the convex lock block (521) is limitedly slidably arranged in the inside of the T-shaped limiting slot (513), one end of the driving bar (52) is provided with a threaded hole (522) at the center, the top of the threaded hole (522) is provided with a nut storage hole (523), a threaded rod (524) is penetratingly arranged in the threaded hole (522) and is screwed with the threaded hole (522), the top end of the threaded rod (524) is stored in the inside of the nut storage hole (523).

9. The battery-assisted management mechanism of a wearable electronic device according to claim 8, wherein, The battery (6) is embedded in the battery groove (43), one side of the battery (6) is provided with a sealing embedding groove (61) close to the battery plug-in core (512), the sealing embedding groove (61) is provided with a sealing rubber frame (62), the center of the sealing rubber frame (62) is provided with a conductive socket (63), and the battery plug-in core (512) is plugged into the conductive socket (63).

10. The method of claim 1-9, wherein, The method comprises the following steps: S1: remove the sealing sheet (14) on the back of the mirror protective shell (1), then directly remove the integrated frame (4) or the battery (6) according to the required steps; S2: when the battery (6) needs to be maintained and replaced, the hexagonal wrench is used to rotate the threaded rod (524), so that the threaded rod (524) is deeply pressed into the inner bottom surface of the driving groove (432), and with the continuous rotation of the threaded rod (524), the driving bar (52) is pushed out upwards, at this time, the driving bar (52) drives the inclined sliding of the convex lock block (521) in the T-shaped limiting groove (513) and moves upwards, so that the battery combination block (51) is contracted, the battery plug-in core (512) is separated from the battery (6), then the battery is removed and a new battery is taken, the threaded rod (524) is reset, and the driving bar (52) is pressed to complete the insertion of the battery (6) and the battery combination block (51) and the compression and fixation of the battery combination block (51) on the battery (6); S3: when the hardware of the integrated circuit board (423) needs to be updated, the integrated frame (4) is taken out, the integrated circuit board (423) in the circuit board groove (42) of the front surface of the integrated frame (4) is separated, a new integrated circuit board (423) is inserted, then the integrated frame (4) is embedded and installed in the integrated bin (12), and the insertion of the integrated frame (4) and the positioning conductive part (3) is completed; S4: when the display screen (2) needs to be replaced, the integrated frame (4) is taken out, at the same time that the integrated frame (4) is taken out, with the separation of the integrated frame (4) and the mirror protective shell (1), the slot conductive core (411) in the integrated embedding groove (41) at the upper and lower ends of the integrated frame (4) pulls the insertion sliding push nozzle (321) in the integrated combination groove (32) to move upwards, at this time, the bidirectional jack (346) on both sides of the positioning conductive part (3) loses the pushing force and is separated from the inner wall of the screen body locking groove (15), after the integrated frame (4) is taken out, the embedded pull ring (315) is pulled, the conductive frame (314) is separated from the insertion conductive groove (23) of the isolation protective sheet (22), the positioning conductive part (3) and the display screen (2) are taken out, the display screen (2) is locked, the display screen (2) is taken down and replaced with a new one, then the positioning conductive part (3) and the integrated frame (4) are installed.

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