A photovoltaic power generation material electrical energy structure applied to the surface of eyeglasses

Abstract

This invention provides a photovoltaic power generation material electrical structure applied to the surface of eyeglasses, relating to the field of power supply technology for smart wearable devices. It includes a power generation mechanism mounted on the frame and temples of the smart eyeglasses. A first mounting groove is formed on the top side of the frame, and second mounting grooves are formed on the opposite sides of the two temples. The power generation mechanism includes a first photovoltaic power generation panel and a second photovoltaic power generation panel respectively mounted in the first and second mounting grooves via mounting components, and a heat dissipation component disposed on the frame and temples to dissipate heat from the first and second photovoltaic power generation panels. This invention enables real-time charging of smart eyeglasses through photovoltaic power generation technology, improving battery life while avoiding the use of additional charging materials and equipment, reducing operating costs, and enhancing the user experience.

Description

Technical Field

[0001] This utility model relates to the field of power supply technology for smart wearable devices, specifically a photovoltaic power generation material electrical energy structure that is applied to the surface of glasses. Background Technology

[0002] Currently, smart glasses, as a wearable device integrating a variety of advanced technologies, are widely used in many fields such as video playback, live streaming, navigation, and health monitoring.

[0003] However, existing smart glasses technology suffers from significant battery life issues, specifically low battery capacity and short usage time. Typically, when using video playback or live streaming functions, the battery life is often less than half an hour, which severely limits the practicality and user experience of smart glasses.

[0004] To address the aforementioned battery life issue, existing technologies primarily employ the following charging solutions:

[0005] 1. Users need to connect the smart glasses to the power adapter via a data cable for charging. While this method is reliable, it limits the user's freedom of use, and the device cannot be used normally while charging.

[0006] 2. Wireless charging is achieved through the principle of electromagnetic induction, but it requires a matching wireless charging base, which increases the cost of the device and the complexity of use.

[0007] 3. Users need to manually replace the battery compartment to extend the usage time, which is not only cumbersome but also increases additional costs.

[0008] While the aforementioned existing technical solutions have alleviated the battery life problem of smart glasses to some extent, they all have obvious drawbacks, such as inconvenience in use, increased cost, and inability to charge in real time, and cannot fundamentally solve the problem of short battery life of smart glasses. Utility Model Content

[0009] To address the aforementioned problems, this invention provides a photovoltaic power generation material electrical energy structure that is applied to the surface of eyeglasses.

[0010] To achieve the above objectives, this utility model provides the following technical solution: a photovoltaic power generation material electrical energy structure applied to the surface of eyeglasses, including a power generation mechanism installed on the frame and temples of smart eyeglasses, a first mounting groove is provided on the top side of the frame, and a second mounting groove is provided on the opposite sides of the two temples, the power generation mechanism includes a first photovoltaic power generation plate and a second photovoltaic power generation plate respectively installed in the first mounting groove and the second mounting groove through mounting components, and a heat dissipation component disposed on the frame and temples to dissipate heat from the first photovoltaic power generation plate and the second photovoltaic power generation plate;

[0011] The mounting components include a connecting block mounted on the bottom wall of the first mounting groove and the second mounting groove, two elastic rods symmetrically and vertically arranged at both ends of the top side of the connecting block, two first protrusions fixedly arranged on the opposite sides of the two elastic rods away from the connecting block, a connecting rod arranged on the first photovoltaic power generation panel and the second photovoltaic power generation panel and capable of passing through the position between the corresponding two elastic rods, and two second protrusions fixedly arranged on the symmetrical side of the end of the connecting rod away from the first photovoltaic power generation panel or the second photovoltaic power generation panel.

[0012] Preferably, the mounting assembly further includes a disassembly component, which includes a disassembly rod that vertically penetrates the connecting block and is located between two corresponding elastic rods, a first control rod that passes through the frame or temple and is connected to the corresponding disassembly rod, a disassembly block that passes through the frame or temple via an elastic element and is located in a disassembly groove at a position away from the first and second mounting grooves, and a second control rod that is disposed on the first control rod and connected to the disassembly block, the second control rod being movably inserted through the bottom wall of the disassembly groove.

[0013] Preferably, the elastic element includes a positioning spring that passes through the disassembly groove and is sleeved on the second control rod. The two ends of the positioning spring are respectively connected to the bottom wall of the disassembly groove and the disassembly block. When the positioning spring is in the normal extended state, the disassembly rod is located between the second protrusion and the connecting block.

[0014] Preferably, the heat dissipation assembly includes a heat-conducting plate installed on the end face of the first photovoltaic power generation panel and the second photovoltaic power generation panel near the end face of the first mounting groove and the second mounting groove, multiple heat dissipation columns evenly installed on the end face of the heat-conducting plate away from the first photovoltaic power generation panel and the second photovoltaic power generation panel, and a heat dissipation component disposed on the end of the temple and controlling the airflow through the first mounting groove and the second mounting groove. The first mounting groove and the second mounting groove are connected by a first through hole, and a second through hole is provided at the end of the second mounting groove away from the frame.

[0015] Preferably, air inlets are provided on both sides of the frame, which are connected to the middle of the first mounting groove. The heat dissipation component includes a mounting block with a positioning strip vertically arranged on the end face near the temple, a miniature fan disposed in an exhaust hole on the end face of the mounting block near the temple, and elastic curved strips disposed on both sides of the bottom end of the positioning strip. The temple end is provided with a positioning groove that matches the positioning strip vertically, and the bottom symmetrical groove walls of the positioning groove are provided with slots that match the elastic curved strips.

[0016] The beneficial effects of this utility model are:

[0017] 1. By using photovoltaic power generation technology, the smart glasses can be replenished with power in real time during use, significantly extending their battery life and solving the problem of short usage time of existing smart glasses.

[0018] 2. No additional charging materials or equipment are required, reducing the user's cost and economic burden.

[0019] 3. Real-time charging avoids the hassle of frequent charging and battery replacement, improving the wearing comfort and ease of use of smart glasses. Attached Figure Description

[0020] The accompanying drawings are provided to further illustrate the present invention and form part of the specification. They are used together with the embodiments of the present invention to explain the present invention, but do not constitute a limitation thereof. In the drawings:

[0021] Figure 1 This is a simplified structural diagram of the photovoltaic power generation material for attaching to the surface of eyeglasses, as proposed in this utility model.

[0022] Figure 2 This is a schematic diagram of the unfolded temple structure of the present invention.

[0023] Figure 3 This is a schematic diagram of the other side of the temple of the present invention when unfolded.

[0024] Figure 4 This is a schematic diagram of the disassembly components of this utility model.

[0025] In the diagram: 1. Frame; 2. First mounting slot; 3. First photovoltaic power generation panel; 4. Temple; 5. Mounting block; 6. Second mounting slot; 7. Second photovoltaic power generation panel; 8. Air inlet; 9. Heat-conducting plate; 10. Heat dissipation column; 11. Connecting block; 12. Elastic rod; 13. First protrusion; 14. Disassembly rod; 15. Exhaust hole; 16. Positioning slot; 17. Positioning strip; 18. Elastic curved strip; 19. Connecting rod; 20. Second protrusion; 21. Slot; 22. First control rod; 23. Second control rod; 24. Disassembly slot; 25. Disassembly block; 26. Positioning spring. Detailed Implementation

[0026] To make the technical means, creative features, and achieved objectives and effects of this utility model easier to understand, the present utility model is further described below with reference to specific embodiments and accompanying drawings. However, the following embodiments are only preferred embodiments of this utility model and not all of them. Other embodiments obtained by those skilled in the art based on the embodiments described in the embodiments without creative effort are all within the protection scope of this utility model.

[0027] Example 1: Reference Figures 1-3The photovoltaic power generation material electrical structure shown is applied to the surface of eyeglasses. It includes a power generation mechanism installed on the smart eyeglass frame 1 and temple 4. A first mounting groove 2 is opened on the top side of the frame 1, and a second mounting groove 6 is opened on the opposite sides of the two temples 4. The power generation mechanism includes a first photovoltaic power generation plate 3 and a second photovoltaic power generation plate 7 respectively installed in the first mounting groove 2 and the second mounting groove 6 by mounting components, and a heat dissipation component disposed on the frame 1 and temple 4 to dissipate heat from the first photovoltaic power generation plate 3 and the second photovoltaic power generation plate 7.

[0028] The mounting components include a connecting block 11 mounted on the bottom wall of the first mounting groove 2 and the second mounting groove 6, two elastic rods 12 symmetrically and vertically arranged at both ends of the top side of the connecting block 11, two first protrusions 13 fixedly arranged on the opposite sides of the two elastic rods 12 away from the connecting block 11, a connecting rod 19 arranged on the first photovoltaic power generation panel 3 and the second photovoltaic power generation panel 7 and capable of passing through the position between the corresponding two elastic rods 12, and two second protrusions 20 fixedly arranged on the symmetrical side of the end of the connecting rod 19 away from the first photovoltaic power generation panel 3 or the second photovoltaic power generation panel 7.

[0029] In this embodiment, firstly, the connecting block 11 is fixedly installed on the bottom wall of the first mounting groove 2 of the smart glasses frame 1 and the bottom wall of the second mounting groove 6 of the two temples 4. Then, two symmetrically vertically arranged elastic rods 12 are installed at the top ends of the connecting block 11, and two first protrusions 13 are fixedly installed on the opposite sides of the two elastic rods 12 away from the connecting block 11. Next, the connecting rods 19 on the first photovoltaic power generation panel 3 and the second photovoltaic power generation panel 7 are inserted between the corresponding two elastic rods 12. At this time, the two second protrusions 20 on the connecting rods 19 first push the two first protrusions 13 away from each other, and finally, the second protrusions 20 engage with the first protrusions 13, thereby firmly installing the photovoltaic power generation panel in the mounting groove. In daily use, the first photovoltaic power generation panel 3 and the second photovoltaic power generation panel 7 absorb energy from sunlight or ambient light and convert it into electrical energy. This electrical energy is then transmitted to the battery inside the smart glasses for storage or directly powers the device. To ensure that the photovoltaic power generation panel maintains stable performance during long-term operation, the heat dissipation component begins to function. The heat-conducting plate 9 is positioned close to the photovoltaic power generation panel, rapidly transferring the heat generated during power generation to the heat dissipation column 10. The heat dissipation column 10 accelerates heat dissipation by increasing the heat dissipation area. Simultaneously, a micro fan blows cool air into the mounting groove through the exhaust port 15, further promoting heat removal and maintaining the operating temperature of the photovoltaic power generation panel within a reasonable range.

[0030] In this embodiment, the photovoltaic power generation material applied to the surface of the glasses achieves a stable installation of the photovoltaic panel on the smart glasses through an installation component. It utilizes the photovoltaic effect to convert light energy into electrical energy, providing continuous power support for the smart glasses. Simultaneously, the heat dissipation component effectively controls the operating temperature of the photovoltaic panel, ensuring its stable operation, thereby extending the battery life of the smart glasses and improving the user experience.

[0031] The first photovoltaic panel 3 and the second photovoltaic panel 7 are disassembled. This embodiment provides the following solution:

[0032] like Figure 2-4 As shown, the mounting assembly also includes a disassembly component, which includes a disassembly rod 14 that vertically penetrates the connecting block 11 and is located between two corresponding elastic rods 12; a first control rod 22 that passes through the frame 1 or temple 4 and is connected to the corresponding disassembly rod 14; a disassembly block 25 that passes through the frame 1 or temple 4 at a position away from the first mounting groove 2 and the second mounting groove 6 via an elastic element and is located within a disassembly groove 24; and a second control rod 23 that is disposed on the first control rod 22 and connected to the disassembly block 25. The second control rod 23 is movably inserted through the bottom wall of the disassembly groove 24. The elastic element includes a positioning spring 26 that passes through the disassembly groove 24 and is sleeved on the rod of the second control rod 23. The two ends of the positioning spring 26 are respectively connected to the bottom wall of the disassembly groove 24 and the disassembly block 25. When the positioning spring 26 is in its normal extended state, the disassembly rod 14 is located between the second protrusion 20 and the connecting block 11.

[0033] In this embodiment, when the photovoltaic power generation panel needs to be disassembled, the user operates the disassembly block 25 (which is inserted into the disassembly groove 24 of the frame 1 or temple 4 via an elastic element, i.e., a positioning spring 26) to move it along the disassembly groove 24. Since the disassembly block 25 is connected to the second control rod 23, this action will cause the second control rod 23 to move synchronously. The second control rod 23 is connected to the first control rod 22, thereby causing the first control rod 22 to move in conjunction. Finally, the first control rod 22 drives the disassembly rod 14 to move towards the connecting rod 19, pushing the connecting rod 19 to set the second protrusion 20 away from the connecting block 11. When the positioning spring 26 is in its normal extended state, the disassembly rod 14 is located between the second protrusion 20 and the connecting block 11. This position design allows the disassembly rod 14 to lift or push the second protrusion 20 when it moves upward, separating it from the first protrusion 13. Originally, the second protrusion 20 and the first protrusion 13 were engaged to fix the connecting rod 19 on the photovoltaic power generation panel. Now that this engagement is released, the connecting rod 19 can be easily removed from between the two elastic rods 12, thereby enabling the rapid disassembly of the photovoltaic power generation panel.

[0034] The design of the disassembly components in this embodiment makes the disassembly process of the photovoltaic power generation panel simple and quick. Users do not need to use complicated tools or perform cumbersome operations. They can disassemble the photovoltaic power generation panel simply by pushing it, which improves the maintainability and ease of use of the equipment.

[0035] Example 2: Regarding how to dissipate the heat generated when the first photovoltaic power generation panel 3 and the second photovoltaic power generation panel 7 are in operation, this example provides the following solution.

[0036] like Figures 1-3 As shown, the heat dissipation assembly includes a heat-conducting plate 9 installed on the end face of the first photovoltaic power generation panel 3 and the second photovoltaic power generation panel 7 near the end face of the first mounting groove 2 and the second mounting groove 6, multiple heat dissipation columns 10 evenly installed on the end face of the heat-conducting plate 9 away from the first photovoltaic power generation panel 3 and the second photovoltaic power generation panel 7, and a heat dissipation component set on the end of the temple 4 to control airflow through the first mounting groove 2 and the second mounting groove 6. The first mounting groove 2 and the second mounting groove 6 are connected by a first through hole, and a second through hole is opened at the end of the second mounting groove 6 away from the frame 1.

[0037] In this embodiment, during the operation of the photovoltaic power generation panels (first photovoltaic power generation panel 3 and second photovoltaic power generation panel 7), a certain amount of heat is generated when light energy is converted into electrical energy. If this heat is not dissipated in time, it will lead to a decrease in the performance of the power generation panels or even damage. At this time, the heat-conducting plate 9 is installed close to the photovoltaic power generation panels, quickly conducting the heat generated by the power generation panels to itself. Multiple heat dissipation columns 10 are evenly installed on the heat-conducting plate 9, increasing the heat dissipation area, and the heat is quickly diffused to the surrounding air through the heat dissipation columns 10. At the same time, the heat dissipation component set on the end of the temple 4 starts to work, controlling the airflow through the first mounting groove 2 and the second mounting groove 6. Since the first mounting groove 2 and the second mounting groove 6 are connected by a first through hole, and a second through hole is opened at the end of the second mounting groove 6 away from the frame 1, an airflow channel is formed. The heat dissipation component causes external cold air to enter from one end through hole, flow around the heat dissipation column 10, absorb heat and become hot air, and then be discharged from the other end through hole, thereby continuously carrying away the heat generated by the photovoltaic power generation panels. The heat is quickly transferred from the photovoltaic power generation panel through the heat conduction plate 9, and the heat dissipation column 10 is used to increase the heat dissipation area. In addition, the airflow is controlled by heat dissipation components to form an effective heat dissipation cycle, ensuring that the photovoltaic power generation panel maintains a suitable temperature during operation, ensuring its stable and efficient operation, and thus extending the service life of the entire smart glasses photovoltaic power generation system.

[0038] It is understood that airflow through the first mounting slot 2 and the second mounting slot 6 can be controlled in various ways to dissipate heat from the first photovoltaic panel 3 and the second photovoltaic panel 7. This embodiment provides the following solution:

[0039] like Figure 2As shown, air inlets 8 are provided on both sides of the frame 1, which are connected to the middle of the first mounting groove 2. The heat dissipation component includes a mounting block 5 with a positioning strip 17 vertically arranged on one end face near the temple 4, a miniature fan in an exhaust hole 15 on one end face of the mounting block 5 near the temple 4, and elastic curved strips 18 on both sides of the bottom end of the positioning strip 17. The temple 4 has a positioning groove 16 that matches the positioning strip 17 vertically at the end. The bottom symmetrical groove walls of the positioning groove 16 have slots 21 that match the elastic curved strips 18.

[0040] When the smart glasses in this embodiment are in working condition, the miniature fan in the heat sink starts to operate. External cold air enters the first mounting groove 2 through air inlets 8 on both sides of the frame 1, which communicate with the center of the first mounting groove 2. The cold air flows within the first mounting groove 2, absorbing the heat generated by the first photovoltaic panel 3. Simultaneously, since the first mounting groove 2 and the second mounting groove 6 are connected by a first through hole, and a second through hole is provided at the end of the second mounting groove 6 away from the frame 1, some cold air enters the second mounting groove 6 through the first through hole, absorbing the heat generated by the second photovoltaic panel 7. The heated air, after absorbing heat, is exhausted through exhaust holes 15 on the end face of the mounting block 5 near the temple 4, forming a complete airflow circulation.

[0041] In this embodiment, the heat sink is securely installed at the end of the temple 4 through the cooperation of the positioning strip 17 and the positioning groove 16, and the elastic curved strip 18 and the slot 21, ensuring the stability of the heat sink structure. The airflow circulation generated by the operation of the micro fan, together with the air inlet 8 and the exhaust vent 15, can promptly remove the heat generated by the first photovoltaic power generation panel 3 and the second photovoltaic power generation panel 7, effectively reducing the operating temperature of the power generation panels, ensuring that the photovoltaic power generation panels work stably and efficiently in a suitable temperature environment, extending their service life, and thus ensuring the performance and reliability of the entire smart glasses photovoltaic power generation system.

[0042] The first photovoltaic power generation panel 3 and the second photovoltaic power generation panel 7 utilize photovoltaic power generation materials attached to their outer surfaces. At the rear end of the panels, they are connected to battery charging contacts via cables, or to a charging chip for battery charging, thus achieving real-time charging. Taking perovskite thin-film light-absorbing power generation materials as an example, the theoretical power generation of the first photovoltaic power generation panel 3 and the second photovoltaic power generation panel 7 under low-light conditions such as cloudy days is 20% higher than that of crystalline silicon batteries. Using a standard smart glasses size and a 230mAh battery as an example, attaching photovoltaic power generation materials to the outer sides of the glasses frame 1 and temples 4 can more than double the overall usage time of the glasses.

[0043] The foregoing has shown and described the basic principles, main features, and advantages of this utility model. Those skilled in the art should understand that this utility model is not limited to the above embodiments. The embodiments and descriptions in the specification are merely preferred examples and are not intended to limit the utility model. Various changes and modifications can be made to this utility model without departing from its spirit and scope, and all such changes and modifications fall within the scope of the claimed utility model. The scope of protection of this utility model is defined by the appended claims and their equivalents.

Claims

1. A photovoltaic power generation material electrical energy structure applied to the surface of eyeglasses, comprising a power generation mechanism mounted on the frame (1) and temples (4) of smart eyeglasses, characterized in that, The top side of the frame (1) is provided with a first mounting groove (2), and the back sides of the two temples (4) are provided with second mounting grooves (6). The power generation mechanism includes a first photovoltaic power generation panel (3) and a second photovoltaic power generation panel (7) which are respectively installed in the first mounting groove (2) and the second mounting groove (6) by mounting components, and a heat dissipation component set on the frame (1) and the temples (4) to dissipate heat from the first photovoltaic power generation panel (3) and the second photovoltaic power generation panel (7). The mounting components include a connecting block (11) mounted on the bottom wall of the first mounting groove (2) and the second mounting groove (6), two elastic rods (12) symmetrically and vertically arranged at both ends of the top side of the connecting block (11), two first protrusions (13) fixedly arranged on the opposite side of the two elastic rods (12) away from the connecting block (11), a connecting rod (19) arranged on the first photovoltaic power generation panel (3) and the second photovoltaic power generation panel (7) and can be inserted between the corresponding two elastic rods (12), and two second protrusions (20) fixedly arranged on the symmetrical side of the end of the connecting rod (19) away from the first photovoltaic power generation panel (3) or the second photovoltaic power generation panel (7).

2. The photovoltaic power generation material electrical energy structure applied to the surface of eyeglasses according to claim 1, characterized in that: The mounting assembly also includes a disassembly component, which includes a disassembly rod (14) that passes vertically through the connecting block (11) and is located between two corresponding elastic rods (12), a first control rod (22) that passes through the frame (1) or temple (4) and is connected to the corresponding disassembly rod (14), a disassembly block (25) that passes through the frame (1) or temple (4) at a position away from the first mounting groove (2) and the second mounting groove (6) and is opened in a disassembly groove (24), and a second control rod (23) that is set on the first control rod (22) and connected to the disassembly block (25). The second control rod (23) is movably inserted into the bottom wall of the disassembly groove (24).

3. The photovoltaic power generation material electrical energy structure applied to the surface of eyeglasses according to claim 2, characterized in that: The elastic element includes a positioning spring (26) that passes through the disassembly groove (24) and is sleeved on the second control rod (23). The two ends of the positioning spring (26) are respectively connected to the bottom wall of the disassembly groove (24) and the disassembly block (25). When the positioning spring (26) is in the normal extended state, the disassembly rod (14) is located between the second protrusion (20) and the connecting block (11).

4. The photovoltaic power generation material electrical energy structure applied to the surface of eyeglasses according to claim 1, characterized in that: The heat dissipation assembly includes a heat-conducting plate (9) installed on the end face of the first photovoltaic power generation plate (3) and the second photovoltaic power generation plate (7) near the first mounting groove (2) and the second mounting groove (6), multiple heat dissipation columns (10) evenly installed on the end face of the heat-conducting plate (9) away from the first photovoltaic power generation plate (3) and the second photovoltaic power generation plate (7), and a heat dissipation component set on the end of the temple (4) and controlling the airflow through the first mounting groove (2) and the second mounting groove (6). The first mounting groove (2) and the second mounting groove (6) are connected by a first through hole, and a second through hole is opened at the end of the second mounting groove (6) away from the mirror frame (1).

5. The photovoltaic power generation material electrical energy structure applied to the surface of eyeglasses according to claim 4, characterized in that: The frame (1) has air inlets (8) on both sides that are connected to the middle of the first mounting groove (2). The heat dissipation component includes a mounting block (5) with a positioning strip (17) vertically arranged on one end face near the temple (4), a miniature fan with an exhaust hole (15) in the mounting block (5) near the temple (4), and elastic curved strips (18) on both sides of the bottom end of the positioning strip (17). The temple (4) has a positioning groove (16) vertically arranged at the end that matches the positioning strip (17). The bottom of the positioning groove (16) has a slot (21) on the symmetrical groove wall that matches the elastic curved strip (18).

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