A device for recovering heat energy from solar panels

Abstract

This invention discloses a device for recovering heat energy from solar panels, comprising: a heat-absorbing mechanism, which includes a first base frame, a second base frame, and a heat-absorbing component. A placement frame is rotatably connected between the top ends of the first and second base frames. Multiple guide frames are equidistantly embedded in the top of the placement frame, and a heat-conducting strip is fixedly connected to the top of each guide frame. Multiple solar panel bodies are equidistantly fixedly connected between the tops of the multiple heat-conducting strips. In use, a suitable amount of water is added to some of the guide frames, and simultaneously, a suitable amount of water is stored inside the heat storage frame and the sliding tube. At the same time, a suitable amount of readily evaporable liquid is injected into the space formed between the inner wall of the storage tube and the outer surface of the heat-conducting tube. This allows the heat-conducting strips to effectively transfer the heat from the solar panel bodies to the inside of the guide frames, thereby effectively raising the temperature inside the guide frames. When the temperature inside the guide frames rises to a certain level, the water inside the guide frames evaporates rapidly.

Description

Technical Field

[0001] This invention belongs to the field of solar energy equipment technology, specifically a device for recovering heat energy from solar power panels. Background Technology

[0002] Solar energy is a renewable energy source, referring to the sun's thermal radiation energy, mainly manifested as sunlight. In modern times, it is generally used for power generation or to provide energy for water heaters.

[0003] However, in existing technologies, existing solar panels often require prolonged exposure to sunlight during actual use. This causes the panels to absorb high temperatures during the process of converting light energy into electrical energy, which can negatively impact their lifespan and conversion efficiency. Excessive heat needs to be dissipated, requiring water mist cooling, but this water mist also affects the energy conversion efficiency of the solar panels. Furthermore, the heat absorbed and generated by the panels cannot be effectively utilized, resulting in suboptimal performance. Summary of the Invention

[0004] The purpose of this invention is to provide a device for recovering the heat energy of a solar panel that can efficiently collect the heat generated by the solar panel itself during use and effectively reduce the temperature of the solar panel during use, thereby enabling the solar panel to efficiently convert and process electrical energy.

[0005] The technical solution adopted in this invention is as follows: A device for recovering heat energy from solar power panels, comprising: a heat-absorbing mechanism, the heat-absorbing mechanism including a first base frame, a second base frame, and a heat-absorbing component; a placement frame is rotatably connected between the top ends of the first base frame and the second base frame; multiple guide frames are equidistantly embedded in the top of the placement frame; a heat-conducting strip is fixedly connected to the top of each guide frame; multiple solar panel bodies are equidistantly fixedly connected between the top ends of the multiple heat-conducting strips; a liquid collection frame is fixedly connected between the inner bottom surfaces of the second base frame; a liquid storage frame is fixedly connected to the inner bottom surface of the liquid collection frame; and the heat-absorbing component is disposed on the second base frame; and

[0006] The functional mechanism includes a heat storage frame and a pressurizing component. The heat storage frame is fixedly connected to the bottom surface inside the first base frame, and the pressurizing component is disposed on the heat storage frame.

[0007] In this configuration, a first guide pipe is connected between the outer surfaces of one side of two adjacent guide frames, and a second guide pipe is connected between the outer surfaces of the other side of two adjacent guide frames. An extension pipe is connected between the opposite outer surfaces of one side of two guide frames.

[0008] The heat-absorbing component includes two collection frames, both of which are fixedly connected inside the placement frame.

[0009] One of the flow collecting frames has a drain pipe connected to one side of its outer surface, with one end of the drain pipe connected to the outer surface of the corresponding flow guide frame. One of the flow collecting frames also has a drain check valve connected to one side of its outer surface. Another flow collecting frame has an injection pipe connected to one side of its outer surface, with one end of the injection pipe connected to the outer surface of the corresponding flow guide frame. The other flow collecting frame also has an injection check valve connected to one side of its outer surface.

[0010] The liquid collection frame is fixedly connected to a filter frame on one side of its inner surface wall. One end of the flow-injection check valve is connected to an injection pipe, one end of which extends into the interior of the liquid storage frame. A liquid storage pipe is connected to the outer surface of one side of the liquid storage frame.

[0011] The pressurizing component includes a pressurizing frame and a cooling frame. The cooling frame is fixedly connected to the outer surface of one side of the heat storage frame, and the pressurizing frame is fixedly connected to the top of the cooling frame. An air inlet one-way valve is connected to the top of the pressurizing frame. An insulation frame is fixedly connected to the outer surface of one side of the cooling frame. A storage tube is embedded inside the insulation frame. A temperature-conducting tube is inserted inside the storage tube. Temperature-conducting fins are equidistantly inserted through the inner wall of the temperature-conducting tube. A sliding tube is connected to the outer surface of one side of the storage tube. A support spring and a sealing block are slidably embedded inside the sliding tube. One end of the sliding tube extends into the interior of the pressurizing frame.

[0012] The temperature-conducting tube is fixedly connected to the input end and the drain one-way valve output end. A connecting pipe is provided at the bottom end of the temperature-conducting tube, and one end of the connecting pipe is fixedly connected to one end of the liquid storage tube.

[0013] The outer surface of one side of the pressurizing frame is connected to a pressurizing one-way valve, and one end of the pressurizing one-way valve is connected to a pressurizing pipe, with one end of the pressurizing pipe extending into the interior of the liquid storage frame.

[0014] The outer surface of the slide tube is connected to a cooling tube, one end of which penetrates the interior of the cooling frame. A cooling one-way valve is connected to one end of the cooling tube, and a return pipe is connected to one end of the cooling one-way valve. One end of the return pipe extends into the interior of the storage tube.

[0015] The cooling frame has multiple temperature-conducting plates that are equidistantly inserted through one side of its inner surface wall. One end of each temperature-conducting plate extends into the interior of the heat storage frame. Multiple flow channels are equidistantly opened on one side of the outer surface of each temperature-conducting plate.

[0016] In summary, due to the adoption of the above technical solution, the beneficial effects of the present invention are:

[0017] In this invention, during use, a suitable amount of water is introduced into a portion of the guide frame, and simultaneously stored inside the heat storage frame and the sliding tube. A suitable amount of readily evaporable liquid is injected into the space formed between the inner wall of the storage tube and the outer surface of the heat-conducting tube. This allows the heat-conducting strip to effectively transfer the heat from the solar panel to the guide frame, thereby effectively raising the temperature inside the guide frame. When the temperature inside the guide frame rises to a certain level, the water inside the guide frame evaporates rapidly, causing the pressure inside the guide frame to continuously increase. When the pressure flow inside the guide frame increases to a certain level, the high pressure inside the guide frame... The warm airflow can be effectively injected into the corresponding collector frame through the drain pipe, and then the high-pressure, high-temperature airflow can be effectively injected into the temperature-conducting pipe through the drain one-way valve. Under the action of the temperature-conducting pipe and the temperature-conducting fins, the heat in the high-pressure, high-temperature airflow can be effectively transferred to the inside of the storage pipe, thereby effectively evaporating the existing easily evaporable liquid. The evaporated liquid continuously increases the pressure in the space between the storage pipe and the temperature-conducting pipe. As the pressure in the space between the storage pipe and the temperature-conducting pipe increases, the sealing block is gradually pushed and compressed by the support spring until the sealing block effectively moves past the cooling pipe and the sliding plate. At the pipe connection, the existing easily evaporable liquid at the evaporation point between the storage pipe and the heat-conducting pipe is effectively injected into the cooling pipe. Then, supported by the spring, the sealing block returns to its original position. Simultaneously, the existing easily evaporable liquid entering the cooling pipe is cooled by the water inside the cooling frame, causing it to liquefy again. It then flows back into the storage pipe through the cooling check valve. Meanwhile, the water inside the cooling frame effectively transfers the absorbed heat to the water inside the heat storage frame through the heat-conducting plate, thus effectively absorbing and storing heat. At the same time, the sealing block... During the relocation process, the internal pressure of the pressurizing frame increases. Under the guidance of the pressurizing check valve and pressurizing pipe, the internal pressure of the pressurizing frame is effectively transferred to the liquid storage frame, thereby increasing the internal pressure of the liquid storage frame. This allows the water resources inside the liquid storage frame to be effectively injected into another collector frame through the injection pipe and injection check valve. Furthermore, the water resources can be injected into the guide frame through the injection pipe to replenish the evaporated water resources. This enables the equipment to continuously and fully recover the heat of the solar panel body, while effectively reducing and maintaining the temperature of the solar panel body, thus allowing the solar panel body to efficiently perform its intended functions. Attached Figure Description

[0018] Figure 1 This is a frontal perspective view of the present invention;

[0019] Figure 2 This is a rear perspective view of the present invention;

[0020] Figure 3 This is a frontal sectional view of the developed perspective of the present invention;

[0021] Figure 4 This is a rear cross-sectional perspective view of the heat absorption mechanism of the present invention.

[0022] Figure 5 This is a rear sectional view of the functional mechanism of the present invention, unfolded perspective view;

[0023] Figure 6 For the present invention Figure 5 Enlarged view of section A in the middle.

[0024] The diagram shows the following markings: 1. Heat absorption mechanism; 101. First base frame; 102. Placement frame; 103. Flow guide frame; 104. First flow guide pipe; 105. Second flow guide pipe; 106. Drain pipe; 107. Extension pipe; 108. Heat conduction strip; 109. Solar panel body; 110. Collector frame; 111. Drain check valve; 112. Liquid collection frame; 113. Filter frame; 114. Injection check valve; 115. Injection pipe; 116. Liquid storage frame; 11 7. Liquid storage tube; 2. Functional mechanism; 201. Heat storage frame; 202. Cooling frame; 203. Temperature guide plate; 204. Pressure boosting frame; 205. Inlet check valve; 206. Cooling tube; 207. Cooling check valve; 208. Pressure boosting check valve; 209. Storage tube; 210. Sealing block; 211. Temperature guide tube; 212. Temperature guide plate; 213. Insulation frame; 214. Pressure boosting tube; 215. Connecting tube; 216. Slide tube; 217. Support spring. Detailed Implementation

[0025] To make the objectives, technical solutions, and advantages of this invention clearer, the invention will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative and not intended to limit the invention.

[0026] Example 1

[0027] Reference Figures 1-6A device for recovering heat energy from solar panels includes a heat-absorbing mechanism 1 and a functional mechanism 2. The heat-absorbing mechanism 1 includes a first base frame 101, a second base frame, and heat-absorbing components. The first base frame 101, in conjunction with the second base frame, provides a foundation for installing other functional components of the device, allowing the device to be stably placed in a designated location. A placement frame 102 is rotatably connected between the top of the first base frame 101 and the top of the second base frame. The placement frame 102 facilitates the installation of other functional components. Multiple flow guide frames 103 are equidistantly embedded in the top of the placement frame 102. The flow guide frames 103 can temporarily store water resources and facilitate the installation of other functional components. A heat-conducting strip 108 is fixedly connected to the top of each flow guide frame 103. The heat-conducting strips 108 enable the temperature of the solar panel body 109 to be effectively transferred to the interior of the flow guide frame 103. Multiple solar panel bodies 109 are fixedly connected at equal intervals between the tops of multiple heat-conducting strips 108. A liquid collection frame 112 is fixedly connected between the inner bottom surfaces of the second base frame. The liquid collection frame 112 facilitates the collection and storage of water resources. A liquid storage frame 116 is fixedly connected to the inner bottom surface of the liquid collection frame 112. The liquid storage frame 116 can effectively seal and store water resources. The heat-absorbing component is set on the second base frame. The functional mechanism 2 includes a heat storage frame 201 and a pressurizing component. The heat storage frame 201 can effectively store water resources temporarily. The heat storage frame 201 is fixedly connected to the inner bottom surface of the first base frame 101. The pressurizing component is set on the heat storage frame 201.

[0028] Reference Figures 3-6A first guide pipe 104 is connected between the outer surfaces of two adjacent guide frames 103 on one side. The establishment of the first guide pipe 104, in conjunction with the second guide pipe 105, enables effective communication between the interiors of adjacent guide frames 103. A second guide pipe 105 is also connected between the outer surfaces of two adjacent guide frames 103 on the other side. An extension pipe 107 is connected between the opposite outer surfaces of two guide frames 103 on one side. The extension pipe 107 effectively divides the multiple guide frames 103 into two parts. The heat absorption component includes a collection frame 110. The collection frame 110 effectively guides the temporary storage of water resources. Two collection frames 110 are provided, and both collection frames 110 are fixedly connected inside the placement rack 102. A drain pipe 106 is connected to one outer surface of a flow collector 110. The drain pipe 106 allows high-temperature, high-pressure airflow to be effectively injected into the corresponding flow collector 110. One end of the drain pipe 106 is connected to one outer surface of a corresponding guide frame 103. A drain check valve 111 is connected to one outer surface of one flow collector 110. The drain check valve 111 restricts the flow direction of the high-temperature, high-pressure airflow. A flow injection pipe is connected to one outer surface of another flow collector 110. The flow injection pipe allows water resources to be effectively injected into the corresponding guide frame 103. One end of the flow injection pipe is connected to one outer surface of a corresponding guide frame 103. A flow injection check valve 114 is connected to one outer surface of another flow collector 110. A flow restriction is established to effectively limit the flow of water resources inside the liquid storage frame 116. A filter frame 113 is fixedly connected to the inner wall of one side of the liquid collection frame 112. The filter frame 113 can filter the natural water resources injected into the liquid collection frame 112. One end of the flow-injection check valve 114 is connected to an injection pipe 115. The injection pipe 115 allows the water resources inside the liquid storage frame 116 to be effectively injected into the corresponding collection frame 110. One end of the injection pipe 115 extends into the liquid storage frame 116. A liquid storage pipe 117 is connected to the outer surface of one side of the liquid storage frame 116. The liquid storage pipe 117 allows the water resources inside the connecting pipe 215 to be effectively reinjected into the liquid storage frame 116. The pressurization component includes a pressurization frame 204 and a cooling frame 202. The pressurization frame 204... The structure 4 provides an effective enclosed space. The cooling frame 202 can effectively store water resources temporarily and transfer the temperature of the cooling pipe 206 to the water resources. The cooling frame 202 is fixedly connected to the outer surface of one side of the heat storage frame 201. The pressurization frame 204 is fixedly connected to the top of the cooling frame 202. The top of the pressurization frame 204 is connected to an air inlet one-way valve 205, which allows only external airflow to enter the pressurization frame 204. An insulation frame 213 is fixedly connected to the outer surface of one side of the cooling frame 202. The insulation frame 213 can effectively prevent excessive temperature loss. A storage pipe 209 is embedded inside the insulation frame 213, which facilitates the installation of other functional components of the equipment.A temperature-conducting tube 211 is inserted inside the storage tube 209. The temperature-conducting tube 211 effectively transports high-temperature and high-pressure airflow. Temperature-conducting fins 212 are equidistantly inserted through the inner wall of the temperature-conducting tube 211, allowing the temperature of the high-temperature and high-pressure airflow to be effectively transferred to the interior of the storage tube 209. A sliding tube 216 is connected to one side of the outer surface of the storage tube 209. The sliding tube 216 facilitates the installation of other functional components of the equipment. A support spring 217 and a sealing block 210 are slidably embedded inside the sliding tube 216. The support spring 217 is designed to... The sealing block 210 can be effectively restored to its original position. The sealing block 210 effectively seals the slide pipe 216. One end of the slide pipe 216 extends into the pressure-boosting frame 204. The inlet end of the temperature-conducting pipe 211 and the outlet end of the drain check valve 111 are fixedly connected. A connecting pipe 215 is connected to the bottom end of the temperature-conducting pipe 211. The connecting pipe 215 effectively re-injects the reliquefied water into the storage frame 116. One end of the connecting pipe 215 is fixedly connected to one end of the storage pipe 117. A pressure-boosting check valve is connected to the outer surface of one side of the pressure-boosting frame 204. Valve 208, the pressure boosting check valve 208, effectively prevents the flow of air inside the pressure boosting pipe 214. One end of the pressure boosting check valve 208 is connected to the pressure boosting pipe 214, which effectively injects the flowing air into the liquid storage frame 116. One end of the pressure boosting pipe 214 extends into the liquid storage frame 116. A cooling pipe 206 is connected to the outer surface of the slide pipe 216. The cooling pipe 206 effectively reliquefies the existing easily evaporable liquid and simultaneously allows heat to be effectively transferred to the water resources inside the cooling frame 202. The cooling pipe 206... The cooling pipe 206 penetrates the interior of the cooling frame 202. One end of the cooling pipe 206 is connected to a cooling one-way valve 207. The cooling one-way valve 207 effectively prevents easily evaporable liquid existing in the storage tube 209 from flowing back into the cooling pipe 206. One end of the cooling one-way valve 207 is connected to a return pipe, which extends into the storage tube 209. Multiple temperature-conducting plates 203 are equidistantly inserted through the inner wall of one side of the cooling frame 202. One end of each temperature-conducting plate 203 extends into the heat storage frame 201. Multiple flow-guiding grooves are equidistantly formed on the outer surface of one side of each temperature-conducting plate 203.

[0029] In use, a suitable amount of water is added to part of the guide frame 103, and a suitable amount of water is also stored inside the heat storage frame 201 and the sliding tube 216. Simultaneously, a suitable amount of readily evaporable liquid is injected into the space formed between the inner wall of the storage tube 209 and the outer surface of the heat-conducting tube 211. This allows the heat-conducting strip 108 to effectively transfer the heat from the solar panel body 109 to the inside of the guide frame 103, effectively raising the internal temperature of the guide frame 103. When the internal temperature of the guide frame 103 rises to a certain level, the water inside the guide frame 103 evaporates rapidly, causing the internal pressure of the guide frame 103 to continuously increase. When the pressure flow inside the guide frame 103 increases to a certain level, the high-pressure, high-temperature airflow inside the guide frame 103 can... The high-pressure, high-temperature gas flow is effectively injected into the corresponding collector frame 110 through the drain pipe 106, and then effectively injected into the temperature-conducting pipe 211 through the drain one-way valve 111. Under the action of the temperature-conducting pipe 211 and the temperature-conducting plate 212, the heat in the high-pressure, high-temperature gas flow can be effectively transferred to the storage pipe 209, thereby effectively evaporating the existing easily evaporable liquid. The evaporated liquid continuously increases the pressure in the space between the storage pipe 209 and the temperature-conducting pipe 211. As the pressure in the space between the storage pipe 209 and the temperature-conducting pipe 211 increases, the sealing block 210 is gradually pushed and compressed by the support spring 217 until the sealing block 210 effectively moves past the cooling pipe 206 and the sliding pipe. At the connection point of 216, the existing easily evaporable liquid at the evaporation point between the storage tube 209 and the heat-conducting tube 211 is effectively injected into the cooling tube 206. Then, supported by the support spring 217, the sealing block 210 returns to its original position. Simultaneously, the existing easily evaporable liquid entering the cooling tube 206 is cooled by the water resources inside the cooling frame 202, allowing it to liquefy again. It then flows back into the storage tube 209 through the cooling one-way valve 207. Meanwhile, the water resources inside the cooling frame 202 effectively transfer the absorbed temperature to the water resources inside the heat storage frame 201 through the heat-conducting plate 203. This allows for effective heat absorption and storage through the water resources inside the heat storage frame 201. At the same time, the sealing block 210... During the positional shift of 10, the internal pressure of the pressurizing frame 204 increases. Under the guidance of the pressurizing check valve 208 and the pressurizing pipe 214, the internal pressure of the pressurizing frame 204 is effectively transferred to the liquid storage frame 116, thereby increasing the internal pressure of the liquid storage frame 116. This allows the water resources inside the liquid storage frame 116 to be effectively injected into another collector frame 110 through the injection pipe 115 and the injection check valve 114. Furthermore, the water resources can be injected into the guide frame 103 through the injection pipe to replenish the evaporated water resources. This enables the equipment to continuously and fully recover the heat of the solar panel body 109, while effectively reducing and maintaining the temperature of the solar panel body, thus enabling the solar panel body 109 to efficiently perform its intended functions.

[0030] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A device for recovering thermal energy from solar power panels, characterized in that, Include: Heat absorbing mechanism (1), the heat absorbing mechanism (1) includes first chassis (101), second chassis and heat absorbing component, the first chassis (101) and second chassis top rotationally connected with the placement rack (102) between, the placement rack (102) top equidistantly embedded with multiple flow guide frame (103), each the top of flow guide frame (103) is fixedly connected with heat conduction strip (108), multiple the top of heat conduction strip (108) is equidistantly fixedly connected with multiple solar panel body (109), the second chassis inside bottom surface is fixedly connected with the liquid collecting frame (112), the inside bottom surface of liquid collecting frame (112) is fixedly connected with the liquid storage frame (116), the heat absorbing component is arranged on the second chassis, the heat absorbing component includes the flow collecting frame (110), the flow collecting frame (110) is commonly provided with two, two The flow collecting frame (110) is fixedly connected in the placement rack (102), one side outer surface of one flow collecting frame (110) is communicated and is provided with the flow discharge pipe (106), one end of flow discharge pipe (106) and the outer surface of corresponding flow guide frame (103) one side is communicated and is connected, one side outer surface of one flow collecting frame (110) is communicated and is provided with the flow discharge check valve (111), one side outer surface of another flow collecting frame (110) is communicated and is provided with the flow injection pipe, one end of flow injection pipe and the outer surface of corresponding flow guide frame (103) one side is communicated and is connected, one side outer surface of another flow collecting frame (110) is communicated and is provided with the flow injection check valve (114), the inside wall of one side of liquid collecting frame (112) is fixedly connected with the filter frame (113), the one end of flow injection check valve (114) is communicated and is provided with the liquid injection pipe (115), one end of liquid injection pipe (115) extends to the inside of liquid storage frame (116), one side outer surface of liquid storage frame (116) is communicated and is provided with the liquid storage pipe (117);And The utility model provides a function mechanism (2), the function mechanism (2) includes heat storage frame (201) and pressure increasing component, heat storage frame (201) fixedly connected to the inside bottom surface of first chassis (101), the pressure increasing component sets up on heat storage frame (201), the pressure increasing component includes pressure increasing frame (204) and cooling frame (202), cooling frame (202) fixedly connected to one side outer surface of heat storage frame (201), pressure increasing frame (204) fixedly connected to cooling frame (202) top, the top of pressure increasing frame (204) is connected with the one-way valve (205) of air inlet, cooling frame (202) one side outer surface fixedly connected with heat preservation frame (213), the inside of heat preservation frame (213) is embedded with storage pipe (209), the inside of storage pipe (209) is inserted with temperature guide pipe (211), temperature guide piece (212) is equidistantly penetrated in the inner wall of temperature guide pipe (211), one side outer surface of storage pipe (209) is connected with slide pipe (216), the inside of slide pipe (216) is slidably embedded with supporting spring (217) and sealing block (210), one end of slide pipe (216) extends to the inside of pressure increasing frame (204), the input end of temperature guide pipe (211) is fixedly connected with the output end of exhaust one-way valve (111), the bottom end of temperature guide pipe (211) is connected with connecting pipe (215), one end of connecting pipe (215) is fixedly connected with one end of liquid storage pipe (117), one side outer surface of pressure increasing frame (204) is connected with pressure increasing one-way valve (208), one end of pressure increasing one-way valve (208) is connected with pressure increasing pipe (214), one end of pressure increasing pipe (214) extends to the inside of liquid storage frame (116), the outer surface of slide pipe (216) is connected with cooling pipe (206), one end of cooling pipe (206) penetrates the inside of cooling frame (202), one end of cooling one-way valve (207) is connected with cooling pipe (206), one end of cooling one-way valve (207) is connected with return pipe, one end of return pipe extends to the inside of storage pipe (209), one side inner wall of cooling frame (202) is equidistantly penetrated with a plurality of temperature guide plates (203), one end of a plurality of temperature guide plates (203) extends to the inside of heat storage frame (201), and a plurality of guide grooves are equidistantly formed in one side outer surface of each temperature guide plate (203).

2. A device for recovering thermal energy from a solar panel as defined in claim 1, characterized in that: The outer surface of one side of two adjacent guide frames (103) is connected with first guide pipe (104), the outer surface of the other side of two adjacent guide frames (103) is connected with second guide pipe (105), and the outer surface of one side of two guide frames (103) is connected with extension pipe (107).

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