Solar energy storage radio illumination system

Abstract

The embodiment of the utility model provides a solar energy storage radio type lighting system, which relates to the field of photovoltaic application and comprises a photovoltaic solar panel, at least one lighting lamp and an energy storage radio. The photovoltaic solar cell panel is electrically connected with the energy storage radio; at least one illuminating lamp is electrically connected with the energy storage radio; the side surface of the energy storage radio is provided with a USB external charging port.

Description

Technical Field

[0001] This utility model relates to the field of photovoltaic applications, and in particular to a solar energy storage radio-style lighting system. Background Technology

[0002] Traditional radios typically rely on batteries or AC power, which presents numerous limitations in their use. Without a power source, users can only purchase expensive lithium batteries. Traditional radios as lighting products usually only have a single, simple power supply; their energy storage system requires AC power. Because of their cumbersome cords and inconvenient portability, users cannot use them anywhere, which is far from meeting the needs of modern lifestyles.

[0003] In the process of developing this utility model, the applicant discovered at least the following problems in the prior art:

[0004] Traditional radio lighting products can only rely on mains power or battery replacement, which cannot meet the needs of ubiquitous use. Utility Model Content

[0005] This utility model provides a solar-powered radio-style lighting system to solve the technical problem that traditional radio lighting products can only rely on mains power or battery replacement for power, and cannot meet the needs of ubiquitous use.

[0006] To achieve the above objectives, one embodiment of this utility model provides a solar-powered radio-style lighting system, characterized in that it includes: a photovoltaic solar panel, at least one lighting lamp, and a solar-powered radio;

[0007] The photovoltaic solar panel is electrically connected to the energy storage radio.

[0008] The at least one lighting lamp is electrically connected to the energy storage radio;

[0009] The energy storage radio has a USB external charging port on its side.

[0010] Furthermore, the side of the energy storage radio is provided with the same number of power output sockets as the at least one lighting lamp;

[0011] Each light is connected to one end of its own power cord, and a light switch is connected in series in the middle of each power cord. A power plug is connected to the other end of each power cord.

[0012] The lighting power plug and the power output socket are pluggable and detachable, corresponding to each other.

[0013] Furthermore, the photovoltaic solar panel is equipped with photovoltaic cables, one end of which is connected to a photovoltaic power output plug;

[0014] The energy storage radio has a photovoltaic charging interface on its side, which is pluggable to the photovoltaic power output plug.

[0015] Furthermore, the photovoltaic solar panel also includes: coated tempered glass, a first layer of EVA film, 210 solar cells, a second layer of EVA film, and a TPE black back film, which are sequentially laminated from the sun side to the back side of the photovoltaic solar panel.

[0016] Furthermore, the photovoltaic solar panel also includes: an aluminum frame, aluminum corner brackets, a junction box, and corner protectors; the aluminum frame surrounds and is disposed around the edge of the photovoltaic solar panel.

[0017] The aluminum corner bracket is set at the corner of the aluminum frame and connects the aluminum frame on both sides of the corner.

[0018] The junction box is mounted on the aluminum frame and is electrically connected to the solar cell.

[0019] The aluminum angle bracket is wrapped with the corner protector sleeve;

[0020] The junction box is connected to photovoltaic cables.

[0021] Furthermore, the 210 battery cell is a double-sided battery cell.

[0022] Furthermore, the coated tempered glass is double-layer coated tempered glass.

[0023] Furthermore, the energy storage radio includes: function buttons, a power switch button, a PCB motherboard, an antenna, a lithium battery, a front cover, a bottom cover, a speaker, and a lithium battery pressure plate;

[0024] The lithium battery is detachably fixed inside the bottom shell;

[0025] The lithium battery pressure plate presses onto the lithium battery and is connected to the bottom shell by screws;

[0026] The function buttons and the power switch button are located on the PCB motherboard;

[0027] The PCB motherboard is mounted on the inner side of the front cover using self-tapping screws. The front cover has function button holes that mate with the function buttons, and a power switch button hole that mates with the power switch button. The side of the front cover has USB external charging mounting holes, power output mounting holes, and photovoltaic charging mounting holes that respectively mate with the USB external charging port, power output jack, and photovoltaic charging interface. The USB external charging port, power output jack, and photovoltaic charging interface are located at the edge of the PCB motherboard.

[0028] The antenna is electrically connected to the PCB motherboard, and the antenna is fixed to the faceplate by self-tapping screws. The antenna extends to the outside of the faceplate through an antenna hole located at the corner of the top surface of the faceplate.

[0029] The speaker is mounted on the inside of the faceplate and is electrically connected to the PCB motherboard.

[0030] The faceplate is attached to the top of the bottom shell.

[0031] Furthermore, the energy storage radio also includes: a liquid crystal display screen and a display lens;

[0032] The display lens is bonded to the surface of the liquid crystal display screen;

[0033] The right side of the faceplate is provided with a liquid crystal display mounting hole;

[0034] The liquid crystal display screen is disposed on the right side of the upper side of the PCB motherboard and is assembled with the liquid crystal display screen mounting holes.

[0035] The lithium battery is detachably fixed to the left side of the inner side of the bottom shell;

[0036] The projections of the lithium battery and the liquid crystal display screen on the bottom shell do not overlap.

[0037] Furthermore, the function keys include two sets, namely a first spring key and a second spring key; the first spring key consists of multiple keys arranged in a matrix; the second spring key consists of multiple keys arranged in a row.

[0038] The energy storage radio also includes: a button cap for a first spring button, a button cap for a second spring button, and a power switch button cap;

[0039] The first spring button is located on the left side of the upper side of the PCB motherboard;

[0040] The second spring button is located on the edge of the PCB motherboard;

[0041] The power switch button is located on the edge of the PCB motherboard;

[0042] The keycap of the first spring button is fixed to the left side of the faceplate at the position where it mates with the first spring button by a hot-melt post;

[0043] The keycap of the second spring button is fixed to the side of the faceplate at the position where it mates with the second spring button by a hot-melt post;

[0044] The power switch button cap is fixed to the side of the housing at the position where it mates with the power switch button by a hot-melt pin.

[0045] Furthermore, the energy storage radio also includes: a rectangular silicone pad, silicone screw caps, a housing self-tapping screw, and an external protective layer;

[0046] The front shell and the bottom shell are rectangular;

[0047] The rectangular silicone pads are disposed on the surfaces of the four corners of the front shell, perpendicular to the edges of the bottom shell;

[0048] Connecting posts are provided at the four corners of the bottom shell, and the top shell and the bottom shell are connected by self-tapping screws of the shell that are screwed into the connecting posts from the bottom surface of the bottom shell;

[0049] The self-tapping screws of the housing are fitted with silicone screw caps;

[0050] The outer protective layer is fitted over the outer shell and the bottom shell.

[0051] The above technical solution has the following beneficial effects: using photovoltaic solar panels to provide DC power to the energy storage radio lighting system allows users to power the energy storage radio lighting system in sunny outdoor environments, extends the working time of the solar energy storage radio lighting system, and facilitates users to continuously use the solar energy storage radio lighting system outdoors. Attached Figure Description

[0052] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0053] Figure 1 This is a schematic diagram of the architecture of a solar-powered radio-style lighting system, one of the embodiments of this utility model;

[0054] Figure 2This is a schematic diagram of the structure of a photovoltaic solar panel according to one embodiment of the present invention;

[0055] Figure 3 This is an exploded view of the assembly of an energy storage radio, one of the embodiments of this utility model;

[0056] Figure 4 This is a front view of an energy storage radio according to one embodiment of the present utility model;

[0057] Figure 5 This is a top view of an energy storage radio, one of the embodiments of this utility model;

[0058] Figure 6 This is a bottom view of an energy storage radio, one of the embodiments of this utility model;

[0059] Figure 7 This is a right view of an energy storage radio, one of the embodiments of this utility model;

[0060] Figure 8 This is a left view of an energy storage radio, one of the embodiments of this utility model;

[0061] Figure 9 This is a rear view of an energy storage radio, one of the embodiments of this utility model.

[0062] The attached reference numerals represent: 1. Photovoltaic solar panel; 2. Lighting lamp; 3. Energy storage radio; 11. Photovoltaic cable; 12. Photovoltaic power output plug; 13. Coated tempered glass; 14. First layer EVA film; 15. 210 solar cell; 16. Second layer EVA film; 17. TPE black back film; 21. Lighting power cord; 22. Lighting switch; 23. Lighting power plug; 31. USB external charging port; 32. Power output socket; 33. Photovoltaic charging interface; 34. Function button; 35. Power switch button; 36. PCB motherboard; 37. Antenna; 38. Lithium battery; 39. Front cover; 40. Bottom 41. Shell; 42. Speaker; 43. Lithium battery pressure plate; 44. Function button hole; 45. Power switch button hole; 46. LCD screen; 47. Display lens; 48. LCD screen mounting hole; 49. Rectangular silicone pad; 50. Silicone screw cap; 311. Shell self-tapping screw; 321. USB external charging mounting hole; 331. Power output mounting hole; 342. Photovoltaic charging mounting hole; 343. First spring button; 344. Second spring button; 351. First spring button cap; 36. Second spring button cap; 371. Power switch button cap; 401. Antenna mounting hole; 48. Connecting post. Detailed Implementation

[0063] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0064] like Figure 1 As shown, this utility model embodiment provides a solar energy storage radio-type lighting system, including: a photovoltaic solar panel 1, at least one lighting lamp 2, and an energy storage radio 3;

[0065] The photovoltaic solar panel 1 is electrically connected to the energy storage radio 3;

[0066] The at least one lighting lamp 2 is electrically connected to the energy storage radio 3;

[0067] The energy storage radio 3 has a USB external charging port 31 on its side.

[0068] Preferably, the energy storage radio 3 may have a lithium battery inside for charging and energy storage, providing power to the solar energy storage radio lighting system when there is no external power supply.

[0069] The embodiments of the present invention have the following technical effects: using photovoltaic solar panels to provide DC power to the energy storage radio allows users to power and charge the energy storage radio in a sunny outdoor environment, extending the working time of the solar energy storage radio lighting system and facilitating continuous mobile use of the solar energy storage radio lighting system outdoors. The energy storage radio 3 is electrically connected to multiple lighting lamps 2, which can provide lighting function at night. The side of the energy storage radio 3 is provided with a USB external charging port, which can be powered and charged by a mobile power supply 6 or by using AC power through a power adapter.

[0070] Furthermore, such as Figure 1 As shown, the side of the energy storage radio 3 is provided with the same number of power output sockets 32 as the at least one lighting lamp 2;

[0071] Each light 2 is connected to one end of its respective lighting power cord 21, and a lighting switch 22 is connected in series in the middle of each lighting power cord 21. A lighting power plug 23 is connected to the other end of each lighting power cord 21.

[0072] The lighting power plug 23 and the power output socket 32 ​​are pluggable and detachable in a one-to-one correspondence.

[0073] In some embodiments, the energy storage radio 3 and the light 2 are connected by a connector (power output jack 32 and lighting power plug 23), so that the energy storage radio 3 and the light 2 can be separated, making it convenient to use the energy storage radio 3 independently during the day and to use the energy storage radio 3 and / or the light 2 at night.

[0074] Furthermore, such as Figure 1 As shown, a photovoltaic cable 11 is provided on the photovoltaic solar panel 1, and one end of the photovoltaic cable 11 is connected to a photovoltaic power output plug 12;

[0075] The energy storage radio 3 has a photovoltaic charging interface 33 on its side, which is pluggable to the photovoltaic power output plug 12.

[0076] In some embodiments, the energy storage radio 3 and the photovoltaic solar panel 1 are connected by a connector (photovoltaic power output plug 12 and photovoltaic charging interface 33), which makes it convenient to connect the photovoltaic solar panel 1 when photovoltaic power supply and charging are needed, and to remove the photovoltaic solar panel 1 when photovoltaic power supply and charging are not needed, making it more convenient to use. Moreover, by using the photovoltaic cable 11, the orientation of the energy storage radio 3 and the photovoltaic solar panel 1 can be adjusted independently, which can receive more solar energy while keeping the energy storage radio 3 easy to operate and use.

[0077] Furthermore, such as Figure 2 As shown, the photovoltaic solar panel 1 includes: the photovoltaic solar panel 1 further includes: coated tempered glass 13, a first layer of EVA film 14, 210 solar cells 15, a second layer of EVA film 16, and a TPE black back film 17, which are sequentially laminated from the sun side to the back side of the photovoltaic solar panel 1.

[0078] Furthermore, the photovoltaic solar panel 1 also includes: an aluminum frame, aluminum corner brackets, a junction box, and corner protectors; the aluminum frame surrounds and is disposed around the edge of the photovoltaic solar panel 1.

[0079] The aluminum corner bracket is set at the corner of the aluminum frame and connects the aluminum frame on both sides of the corner.

[0080] The junction box is mounted on the aluminum frame and is electrically connected to the solar cell.

[0081] The aluminum angle bracket is wrapped with the corner protector sleeve;

[0082] The junction box is connected to a photovoltaic cable 11.

[0083] Furthermore, the 210 solar cell 15 is a bifacial solar cell. The bifacial nature of the solar cell improves the photoelectric conversion efficiency of the 210 solar cell 15.

[0084] Furthermore, the coated tempered glass 13 is double-layer coated tempered glass. Double-layer coated tempered glass can improve the photoelectric conversion efficiency of the 210 solar cell 15.

[0085] Furthermore, such as Figure 1 , Figure 3 , Figure 4 , Figure 5 , Figure 6 , Figure 7 , Figure 8 and Figure 9 As shown, the energy storage radio 3 includes: function button 34, power switch button 35, PCB motherboard 36, antenna 37, lithium battery 38, front shell 39, bottom shell 40, speaker 41, and lithium battery pressure plate 42.

[0086] The lithium battery 38 is detachably fixed inside the bottom shell 40;

[0087] The lithium battery pressure plate 42 presses onto the lithium battery 38 and is connected to the bottom shell 40 by screws.

[0088] The function button 34 and the power switch button 35 are disposed on the PCB motherboard 36;

[0089] The PCB motherboard 36 is mounted on the inner side of the front cover 39 using self-tapping screws. The front cover 39 has function button holes 43 that cooperate with the function buttons 34, and a power switch button hole 44 that cooperates with the power switch button 35. The side of the front cover 39 has USB external charging mounting holes 311, power output mounting holes 321, and photovoltaic charging mounting holes 331 that respectively cooperate with the USB external charging port 31, power output socket 32, and photovoltaic charging interface 33. The USB external charging port 31, power output socket 32, and photovoltaic charging interface 33 are located at the edge of the PCB motherboard.

[0090] The antenna 37 is electrically connected to the PCB motherboard 36. The antenna 37 is fixed to the faceplate 39 by self-tapping screws. The antenna 37 extends to the outside of the faceplate 39 through the antenna hole 371 provided at the corner of the top surface of the faceplate 39.

[0091] The speaker 41 is installed on the inner side of the faceplate 39, and the speaker 41 is electrically connected to the PCB motherboard 36;

[0092] The faceplate 39 is fastened to the top of the bottom shell 40.

[0093] In some embodiments, the photovoltaic solar panel 1 is electrically connected to the lithium battery 38; the DC power output by the photovoltaic solar panel 1 charges the lithium battery 38, thereby allowing the user to charge the lithium battery 38 outdoors when there is no mains power supply, thus extending the outdoor working time of the solar energy storage radio-style lighting system, and also allowing the lithium battery 38 to be charged when there is sunlight, and to continue working using the pre-stored electrical energy in the lithium battery 38 when there is no sunlight, such as at night.

[0094] Furthermore, such as Figure 1 , Figure 3 , Figure 4 , Figure 5 , Figure 6 , Figure 7 , Figure 8 and Figure 9 As shown, the energy storage radio 3 also includes: a liquid crystal display screen 45 and a display screen lens 46;

[0095] The display lens 46 is bonded to the surface of the liquid crystal display screen 45;

[0096] The right side of the faceplate 39 is provided with a liquid crystal display mounting hole 47;

[0097] The liquid crystal display screen 45 is disposed on the right side of the upper side of the PCB motherboard 36 and is assembled with the liquid crystal display screen mounting hole 47.

[0098] The lithium battery 38 is detachably fixed to the left side of the inner side of the bottom shell 40;

[0099] The projections of the lithium battery 38 and the liquid crystal display screen 45 on the bottom shell 40 do not overlap.

[0100] In some embodiments, staggering the lithium battery 38 and the liquid crystal display 45 can prevent the liquid crystal display 45 from overheating due to the heat generated by the lithium battery during charging and discharging, thus affecting the performance of the liquid crystal display 45.

[0101] Furthermore, such as Figure 1 , Figure 3 , Figure 4 , Figure 5 , Figure 6 , Figure 7 , Figure 8 and Figure 9 As shown, the function key 34 includes two groups, namely a first spring key 341 and a second spring key 342; the first spring key 341 consists of multiple keys arranged in a matrix; the second spring key 342 consists of multiple keys arranged in a row.

[0102] The energy storage radio 3 also includes: a button cap 343 for a first spring button, a button cap 344 for a second spring button, and a power switch button cap 351;

[0103] The first spring button 341 is located on the left side of the upper side of the PCB motherboard 36;

[0104] The second spring button 342 is located on the edge of the PCB motherboard 36;

[0105] The power switch button 35 is located on the edge of the PCB motherboard 36;

[0106] The button cap 343 of the first spring button is fixed to the left side of the face shell 39 at the position where it mates with the first spring button 341 by a hot-melt post;

[0107] The button cap 344 of the second spring button is fixed to the side of the face shell 39 at the position where it mates with the second spring button 342 by a hot-melt post;

[0108] The power switch button cap 351 is fixed to the side of the faceplate 39 at the position where it mates with the power switch button 35 by a hot-melt post.

[0109] Furthermore, such as Figure 1 , Figure 3 , Figure 4 , Figure 5 , Figure 6 , Figure 7 , Figure 8 and Figure 9 As shown, the energy storage radio 3 also includes: a rectangular silicone pad 48, a silicone screw cap 49, a housing self-tapping screw 50, and an external protective layer;

[0110] The front shell 39 and the bottom shell 40 are rectangular;

[0111] The rectangular silicone pad 48 is disposed on the surface of the four corners of the front shell 39, perpendicular to the edge of the bottom shell 40;

[0112] Connecting posts 401 are provided at the four corners of the bottom shell 40. The self-tapping screws 50 are screwed into the connecting posts 401 from the bottom surface of the bottom shell 40 to connect the front shell 39 and the bottom shell 40.

[0113] A silicone screw cap 49 is installed on the screw cap of the self-tapping screw 50 of the housing;

[0114] The outer protective layer is fitted onto the outside of the front shell 38 and the bottom shell 40.

[0115] Furthermore, the energy storage radio 3 also includes: an AC adapter that converts AC mains power into DC power output; the AC adapter is electrically connected to the USB external charging port 31, and charges or powers the solar energy storage radio-style lighting system through the USB external charging port 31.

[0116] Furthermore, the PCB motherboard is equipped with a processor and a WIFI communication module, and the processor is communicatively connected to the WIFI communication module;

[0117] The WIFI communication module is used to communicate wirelessly with the mobile APP, receive control and query commands from the mobile APP, and forward control and query results sent to the mobile APP by the processor.

[0118] The processor is used to execute control and query commands of the mobile APP, control the energy storage radio lighting system and generate control results, query the system information of the energy storage radio lighting system and generate query results, and send the control results and query results to the mobile APP via the WIFI communication module.

[0119] Preferably, the PCB motherboard includes an electronic switch circuit, a processor, and a Wi-Fi connection. The lithium battery is connected to the emergency light via the electronic switch circuit, which is also connected to the processor. The processor is further connected to one of the function buttons. The function buttons include multiple buttons. The processor samples the press and release action of one of the function buttons, and controls the on / off state of the electronic switch circuit based on the action of that button, thereby controlling the light's illumination. Alternatively, a mobile app can wirelessly send control commands to the processor via a Wi-Fi communication module to control the light's illumination.

[0120] The technical solutions of the present invention will be described in detail below with reference to specific application examples. For technical details not described in the implementation process, please refer to the relevant description above.

[0121] The inventors observed that with the rapid development of technology, widespread network coverage, and the emergence of various smart products, radios are gradually fading from people's view, with new wireless products marking their exit from the historical stage. However, for some remote mountainous areas and regions with underdeveloped power grids and networks, radios remain an indispensable part of people's lives, allowing them to learn about the outside world. Traditional radios rely on batteries and mains power or portable power banks for charging, and in the absence of electricity, expensive lithium batteries are the only option. Traditional energy storage systems require mains power, but their wiring is cumbersome and inconvenient to carry, preventing users from using them anywhere. Existing electrical equipment systems require connection to mains power to generate electricity, which is far from meeting the needs of modern lifestyles. Furthermore, traditional radio lighting products only provide a simple, single power supply and cannot meet the needs of modern multifunctional electrical devices. Moreover, existing radio lighting products are bulky, have limited functions, are not moisture-proof, and do not diffuse light effectively. With the accelerating global consumption of fossil fuels and the continuous deterioration of the ecological environment, especially the increasingly severe global climate change caused by greenhouse gas emissions, the sustainable development of human society is seriously threatened. Countries around the world have formulated their own energy development strategies to address the limited availability of conventional fossil fuel resources and the environmental problems caused by their development and utilization.

[0122] This invention provides a solar-powered radio-style lighting system (or device) that utilizes solar crystalline silicon solar panels to convert sunlight into direct current (DC) electricity, replenishing the battery in the system and generating solar power. This invention employs a large-capacity lithium battery pack that can be directly charged via solar panels, offering fast charging, long-lasting durability, and low cost, making it a practical product for the market. This invention is low-carbon and environmentally friendly, and can be widely applied in emergency situations, remote mountainous areas, and areas without power grids. Using photovoltaic panels for rapid charging, it can be used as an emergency light and for broadcasting. This solar-powered radio-style lighting system combines solar photovoltaic panels, a radio, and lighting functions, aiming to provide convenience for remote areas and places lacking power supply. With the rapid development of technology, various smart wireless products are gradually replacing traditional radios. However, in areas with underdeveloped power grids and networks, radios remain an important tool for people to obtain information, especially in emergency situations. Traditional radios typically rely on batteries or mains power, facing many limitations in use. In the absence of power, users can only purchase expensive lithium batteries. The solar-powered radio-style lighting system, however, uses a large-capacity lithium battery pack that can be quickly charged via solar panels. This charging method is not only highly efficient and long-lasting, but also economical, reducing operating costs and greatly facilitating users. The embodiments of this invention are applicable to a wide range of scenarios, especially in emergency rescue, remote mountainous areas, and other regions with insufficient power supply. Its low-carbon and environmentally friendly design ensures that it generates almost no additional environmental burden during use. Users can quickly charge the photovoltaic panels and use them as emergency lights and broadcast systems, helping people maintain contact with the outside world and obtain important information in special circumstances. It is not only a highly practical product, but also reflects modern technology's focus on environmental protection and resource conservation, possessing broad market prospects. It is widely applicable in places requiring electricity but where wiring is difficult, such as outdoor camping, night market stalls, night fishing, and night work.

[0123] This utility model embodiment provides a solar-powered radio-style lighting system, comprising: a photovoltaic solar panel and a solar-powered radio-style lighting system. The photovoltaic solar panel mainly consists of high-efficiency solar cells, EVA (Ethylene Vinyl Acetate Copolymer, a thermoplastic plastic copolymerized from ethylene and vinyl acetate), TPE (Thermoplastic Elastomer, combining the elasticity of rubber and the processing convenience of plastic) black back film, coated tempered glass, encapsulated aluminum frame, aluminum corner brackets, junction box, photovoltaic cables, corner protectors, etc. It uses EVA, TPE, and double-layer coated tempered glass to laminate and encapsulate the double-sided solar cells, then uses an aluminum frame to fix the edges of the solar panel, uses aluminum corner brackets to reinforce and connect the supporting structure of the solar panel, uses a junction box to connect and protect the internal circuit of the solar panel, and uses photovoltaic cables to connect the solar panel and the radio-style lighting system. The radio lighting system includes a display lens to protect the LCD screen and enhance visibility; a first spring-loaded button for operation control, providing good tactile feedback; a rectangular silicone pad for shock and slip resistance, enhancing device stability; a power switch for quick start and stop; a PCB motherboard, the core control unit, ensuring stable system operation; an antenna to improve signal reception and ensure good broadcast quality; a lithium battery for long-lasting power, supporting extended operation; silicone screw caps (round silicone pads) to protect screws from water and dust; self-tapping screws for assembly, ensuring tight fit between components; a bottom shell to protect internal components and increase overall structural strength; a speaker to provide high-definition sound quality and clear audio playback; a second spring-loaded button for auxiliary control and improved user interaction; and an external protective layer to enhance overall aesthetics and durability.

[0124] To achieve the above objectives, a novel solar-powered radio-style lighting system was developed. Its main components include a solar panel, front cover, bottom cover, mainboard with LCD screen, speaker, lithium battery pack, antenna, power switch button, combination switch button, and digital combination switch button. During assembly, the solar panels are first laminated and encapsulated. Then, the front cover, power switch button, combination switch button, and digital combination switch button are pre-installed. Next, the display screen lens is fixed to the front cover. Subsequently, the PCB mainboard, antenna, and speaker are sequentially installed inside the front cover. Finally, the bottom cover is secured to the lithium battery. After all components are installed, the front cover and bottom cover are firmly fixed together with screws, thus completing the assembly of the entire device.

[0125] The specific implementation process involves laminating and encapsulating the solar panels to ensure their stability and durability; bonding the display lens: using 3M adhesive to bond the display lens to the housing to ensure it is secure and clearly visible; fixing the power switch button: using hot-melt anchors to fix the power switch button to the housing to ensure smooth operation; fixing the function combination buttons: also using hot-melt anchors to fix the function combination buttons to the housing; fixing the numeric combination buttons: using hot-melt anchors to securely fix the numeric combination buttons to the housing; fixing the PCB motherboard: using self-tapping screws to securely fix the PCB motherboard to the housing; and fixing the antenna. Secure the antenna to the front cover using self-tapping screws to ensure good signal reception; Speaker mounting: Securely mount the speaker to the front cover using self-tapping screws to ensure sound quality output; Lithium battery mounting: Place the lithium battery in the battery slot on the bottom cover and secure it with a pressure plate to ensure safety; Front cover and bottom cover mounting: Finally, firmly secure the front cover and bottom cover together using self-tapping screws; Rectangular silicone pad bonding: Attach a rectangular silicone pad to the front cover using 3M adhesive to increase shock absorption; Circular silicone pad bonding: Attach a circular silicone pad to the screw holes on the bottom cover using 3M adhesive to prevent water and dust from entering.

[0126] The present invention has the following technical effects:

[0127] This utility model provides a solar-powered radio-style lighting system, which is an environmentally friendly, efficient, and energy-saving emergency energy storage system. It features a simple, stylish, lightweight, and practical design; requires no wiring, is easy to install and carry; operates at low voltage, ensuring safe use; and has a wide range of applications. It is widely used in places requiring electricity but where wiring is difficult, such as outdoor camping, night market stalls, night fishing, and night work. Therefore, this solar-powered radio-style lighting system has broad application prospects.

[0128] First, compared to traditional radio lighting products, this solar-powered radio-style lighting system uses a high-efficiency solar panel or a solar-powered bag charger to quickly charge the system. It is easy to carry, safe to use, and effectively solves the problem of no mains power in remote areas. Preferably, the solar panel uses new high-efficiency 210 solar cells, resulting in higher power generation efficiency; the solar panel angle is adjustable, allowing for quick angle adjustment to achieve any angle according to customer requirements; and it uses a large-capacity lithium battery for greater durability.

[0129] Secondly, this solar-powered radio lighting system supports AC charging and can be used as an emergency power source. When the mains power fails, the radio can quickly transform into a power supply device to power AC loads, overcoming the shortcomings of the original radio products that could only output DC and had a single output.

[0130] Third, compared to the original radio lighting products, the photovoltaic solar cell modules used in this solar energy storage radio lighting system adopt the latest high-efficiency solar cells with a photoelectric conversion efficiency of more than 23%, providing high-efficiency photovoltaic conversion and improving the shortcomings of the original crystalline silicon cells with low single-sided power generation efficiency.

[0131] Fourth, this solar-powered radio-style lighting system features a flexible angle adjustment, allowing users to quickly adjust the tilt angle of the photovoltaic panels according to the specific angle of solar radiation. This flexible adjustment maximizes sunlight capture, improves power generation efficiency, and enables the equipment to perform optimally in different geographical locations and seasons.

[0132] Fifth, this solar-powered radio lighting system is equipped with a high-capacity lithium battery, providing a longer lifespan and ensuring continuous power supply to the device in critical moments. It replaces lead-acid batteries, offering a longer lifespan and lighter weight.

[0133] Sixth, this solar-powered radio lighting system features a large-size backlit LCD screen with backlighting, making information clearly visible and easy to read under any lighting conditions. It displays real-time battery level, charging power consumption, and operating power consumption, improving upon the shortcomings of previous radio lighting products that lacked status display, which caused inconvenience to users.

[0134] Seventh, this solar-powered radio lighting system adopts a portable digital system design, supports mobile APP function, connects to mobile phone via WIFI to remotely monitor the working status of energy storage box, improves the intelligence of the product, makes the equipment operation simpler and more intuitive, enhances the user experience, is easy to carry, and improves the shortcomings of the original radio products that could not be remotely controlled.

[0135] Eighth, this solar-powered radio-lighting system integrates the radio and emergency lighting into a single design, providing a more convenient user experience and allowing users to respond more calmly in emergencies. This enhances the product's versatility and improves upon the shortcomings of the original radio-lighting products, which had limited functionality.

[0136] Ninth, this solar-powered radio-style lighting system is made with environmentally friendly materials, ensuring that the product will not cause pollution to the environment during use or disposal.

[0137] Tenth, this solar-powered radio lighting system has a UL94-V0 protection rating, providing excellent heat resistance and fire resistance, ensuring safe use of the equipment.

[0138] Eleventh, this solar-powered radio lighting system uses PC+ABS engineering materials and a special structural design to effectively prevent damage from minor drops, increasing durability.

[0139] Twelfth, this solar-powered radio lighting system features a built-in high-definition speaker to ensure clear, noise-free audio playback and provide an exceptional listening experience.

[0140] The following description uses another embodiment as an example:

[0141] The photovoltaic panel components include: 210 high-efficiency solar cells, EVA, TPE black back film, coated tempered glass, encapsulated aluminum frame, aluminum corner brackets, junction box, photovoltaic cables, and corner protectors.

[0142] The energy storage radio section includes: display screen lens, spring button A (first spring button), rectangular silicone pad, power switch, PCB motherboard, antenna, lithium battery, silicone screw caps, self-tapping screws, bottom shell, speaker, spring button B (second spring button), and front shell;

[0143] Manufacturing Process: To achieve the above objectives, a novel solar-powered radio lighting system (or device) is proposed, comprising a solar panel, a front cover, a bottom cover, a mainboard with an LCD screen, a speaker, a lithium battery pack, an antenna, a power switch button, a combination switch button, and a number combination switch button. After the solar panels are laminated and encapsulated, the front cover is pre-installed with the power switch button, the combination switch button, and the number combination switch button. A display screen lens is then installed with the front cover, a PCB mainboard is installed with the front cover, an antenna is installed with the front cover, and a speaker is installed with the front cover. Finally, the bottom cover is fixedly installed with the lithium battery, and the front cover is secured to the bottom cover with screws, completing the assembly.

[0144] Process Implementation: The battery panel is laminated and encapsulated; the display lens is bonded to the housing using 3M adhesive; the power switch button is fixed to the housing using hot-melt anchors; the function combination buttons are fixed to the housing using hot-melt anchors; the number combination buttons are fixed to the housing using hot-melt anchors; the PCB motherboard is fixed to the housing using self-tapping screws; the antenna is fixed to the housing using self-tapping screws; the speaker is fixed to the housing using self-tapping screws; the lithium battery is placed in the battery slot of the bottom housing and fixed with a pressure plate; the housing and bottom housing are fixed together using self-tapping screws; a rectangular silicone pad is bonded to the housing using 3M adhesive; a circular silicone pad is bonded to the screw holes of the bottom housing using 3M adhesive.

[0145] The embodiments of this invention have the following technical advantages: the solar panel uses a new type of high-efficiency 210 solar cell, resulting in higher power generation efficiency; the solar panel angle can be quickly adjusted to any angle according to customer requirements; the use of a large-capacity lithium battery makes it more durable; a large-size LCD screen with backlight display; the use of a digital system makes it more portable; the use of environmentally friendly materials results in no pollution; the protection level is UL94-V0; the use of PC+ABS engineering materials and a special structure can prevent minor drops; the speaker has high-definition sound quality with no noise; the emergency light and radio are integrated for greater convenience and practicality; and the cost is lower compared to traditional products on the market.

[0146] It should be understood that the specific order or hierarchy of steps in the disclosed process is an example of an exemplary method. Based on design preferences, it should be understood that the specific order or hierarchy of steps in the process may be rearranged without departing from the scope of this disclosure. The appended method claims provide elements of various steps in an exemplary order and are not intended to limit the scope to the specific order or hierarchy described.

[0147] In the above detailed description, various features are combined together in a single embodiment to simplify this disclosure. This approach to disclosure should not be construed as reflecting an intention that embodiments of the claimed subject matter require more features than are explicitly stated in each claim. Rather, as reflected in the appended claims, the invention is presented with fewer features than all of the features in a single disclosed embodiment. Therefore, the appended claims are hereby explicitly incorporated into the detailed description, with each claim representing a separate preferred embodiment of the invention.

[0148] The disclosed embodiments have been described above to enable any person skilled in the art to implement or use this invention. Various modifications to these embodiments will be apparent to those skilled in the art, and the general principles defined herein can be applied to other embodiments without departing from the spirit and scope of this disclosure. Therefore, this disclosure is not limited to the embodiments given herein, but is consistent with the widest scope of the principles and novel features disclosed in this application.

[0149] The foregoing description includes examples of one or more embodiments. It is certainly impossible to describe all possible combinations of components or methods in order to describe the above embodiments, but those skilled in the art will recognize that further combinations and arrangements of the various embodiments are possible. Therefore, the embodiments described herein are intended to cover all such changes, modifications, and variations falling within the scope of the appended claims. Furthermore, the term "comprising" as used in the specification or claims is used in a manner similar to the term "including." Additionally, the use of any term "or" in the specification of the claims is intended to mean "non-exclusive or."

[0150] The specific embodiments described above further illustrate the purpose, technical solution, and beneficial effects of this utility model. It should be understood that the above description is only a specific embodiment of this utility model and is not intended to limit the scope of protection of this utility model. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of this utility model should be included within the scope of protection of this utility model.

Claims

1. A solar-powered radio-style lighting system, characterized in that, include: A photovoltaic solar panel (1), at least one lighting lamp (2) and an energy storage radio (3); The photovoltaic solar panel (1) is electrically connected to the energy storage radio (3); The at least one lighting lamp (2) is electrically connected to the energy storage radio (3); The energy storage radio (3) has a USB external charging port (31) on its side.

2. The solar-powered radio-style lighting system as described in claim 1, characterized in that, The side of the energy storage radio (3) is provided with the same number of power output sockets (32) as the at least one lighting lamp (2). Each light (2) is connected to one end of its respective lighting power cord (21), and a lighting switch (22) is connected in series in the middle of each lighting power cord (21). A lighting power plug (23) is connected to the other end of each lighting power cord (21). The lighting power plug (23) and the power output socket (32) are pluggable and detachable in a one-to-one correspondence.

3. The solar-powered radio-style lighting system as described in claim 2, characterized in that, A photovoltaic cable (11) is provided on the photovoltaic solar panel (1), and one end of the photovoltaic cable (11) is connected to a photovoltaic power output plug (12). The energy storage radio (3) is provided with a photovoltaic charging interface (33) on its side, and the photovoltaic charging interface (33) is pluggable and detachable from the photovoltaic power output plug (12).

4. The solar-powered radio-style lighting system as described in claim 1, characterized in that, The photovoltaic solar panel (1) further includes: coated tempered glass (13), a first layer of EVA film (14), 210 solar cell (15), a second layer of EVA film (16), and TPE black back film (17) sequentially laminated from the sun side to the back side of the photovoltaic solar panel (1).

5. The solar-powered radio-style lighting system as described in claim 4, characterized in that, The 210 battery cell (15) is a bifacial battery cell.

6. The solar-powered radio-style lighting system as described in claim 4, characterized in that, The coated tempered glass (13) is double-layer coated tempered glass.

7. The solar-powered radio-style lighting system as described in claim 3, characterized in that, The energy storage radio (3) includes: function buttons (34), power switch button (35), PCB motherboard (36), antenna (37), lithium battery (38), front shell (39), bottom shell (40), speaker (41), and lithium battery pressure plate (42). The lithium battery (38) is detachably fixed inside the bottom shell (40); The lithium battery plate (42) presses on the lithium battery (38) and is connected to the bottom shell (40) by screws; The function button (34) and the power switch button (35) are located on the PCB motherboard (36); The PCB motherboard (36) is mounted on the inner side of the front cover (39) by self-tapping screws. The front cover (39) is provided with function button holes (43) that cooperate with the function button (34), and the front cover (39) is provided with power switch button holes (44) that cooperate with the power switch button (35). The side of the front cover (39) is provided with USB external charging mounting holes (311), power output mounting holes (321), and photovoltaic charging mounting holes (331) that respectively cooperate with the USB external charging port (31), power output socket (32), and photovoltaic charging interface (33). The USB external charging port (31), power output socket (32), and photovoltaic charging interface (33) are located on the edge of the PCB motherboard. The antenna (37) is electrically connected to the PCB motherboard (36). The antenna (37) is fixed to the faceplate (39) by self-tapping screws. The antenna (37) extends to the outside of the faceplate (39) through the antenna hole (371) provided at the corner of the top surface of the faceplate (39). The speaker (41) is installed on the inside of the faceplate (39), and the speaker (41) is electrically connected to the PCB motherboard (36); The face shell (39) is fastened to the top of the bottom shell (40).

8. The solar-powered radio-style lighting system as described in claim 7, characterized in that, The energy storage radio (3) also includes: a liquid crystal display (45) and a display lens (46). The display lens (46) is bonded to the surface of the liquid crystal display (45); The right side of the faceplate (39) is provided with a liquid crystal display mounting hole (47). The liquid crystal display screen (45) is located on the right side of the upper side of the PCB motherboard (36) and is assembled with the liquid crystal display screen mounting hole (47); The lithium battery (38) is detachably fixed to the left side of the inner side of the bottom shell (40); The projections of the lithium battery (38) and the liquid crystal display (45) on the bottom shell (40) do not overlap.

9. The solar-powered radio-style lighting system as described in claim 7, characterized in that, The function keys (34) include two sets, namely a first spring key (341) and a second spring key (342); the first spring key (341) consists of multiple keys in a matrix layout; the second spring key (342) consists of multiple keys in a row layout. The energy storage radio (3) further includes: a button cap (343) for a first spring button, a button cap (344) for a second spring button, and a power switch button cap (351). The first spring button (341) is located on the left side of the upper side of the PCB motherboard (36); The second spring button (342) is located on the edge of the PCB motherboard (36); The power switch button (35) is located on the edge of the PCB motherboard (36); The button cap (343) of the first spring button is fixed to the left side of the face shell (39) at the position where it mates with the first spring button (341) by a hot melt post; The button cap (344) of the second spring button is fixed to the side of the face shell (39) and the position where it mates with the second spring button (342) by a hot melt post; The power switch button cap (351) is fixed to the side of the faceplate (39) at the position where it mates with the power switch button (35) by a hot melt post.

10. The solar-powered radio-style lighting system as described in claim 7, characterized in that, The energy storage radio (3) also includes: a rectangular silicone pad (48), a silicone screw cap (49), a housing self-tapping screw (50), and an outer protective layer; The front shell (39) and the bottom shell (40) are rectangular; The rectangular silicone pad (48) is disposed on the surface of the edge perpendicular to the bottom shell (40) at the four corners of the front shell (39); The bottom shell (40) is provided with connecting posts (401) at the four corners respectively. The front shell (39) and the bottom shell (40) are connected by the shell self-tapping screws (50) that are screwed into the connecting posts (401) from the bottom surface of the bottom shell (40). The self-tapping screw (50) of the housing is fitted with a silicone screw cap (49). The outer protective layer is fitted onto the outside of the front shell (39) and the bottom shell (40).

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