Intelligent solar photovoltaic panel

Abstract

The invention discloses an intelligent solar photovoltaic panel, and relates to the technical field of light energy utilization equipment, the intelligent solar photovoltaic panel comprises a photovoltaic panel, and the back of the photovoltaic panel is provided with a flow guide mechanism; a heat conduction mechanism is further arranged on the back of the photovoltaic panel; the heat conduction mechanism is connected to the outer side of the flow guide mechanism in a sleeving mode, the heat conduction mechanism comprises a plurality of medium sleeves installed on the side face of the heat conduction plate, every two medium sleeves are connected, and each medium sleeve is connected to the outer side of the S-shaped bent pipe in a sleeving mode; water circulation is carried out on the back of the photovoltaic panel through the flow guide mechanism, heat transfer is carried out on the flow guide mechanism in cooperation with the heat conduction mechanism, the photovoltaic panel is cooled, the light energy conversion efficiency of the photovoltaic panel is improved, and meanwhile heat energy generated by the photovoltaic panel is utilized together. The intelligent solar photovoltaic panel disclosed by the invention has the effects of high working efficiency and multifunctionality.

Description

Technical Field

[0001] The present invention relates to the technical field of light energy utilization equipment, and in particular to an intelligent solar photovoltaic panel. Background Art

[0002] Photovoltaic power generation is a technology that uses the photovoltaic effect of semiconductor interfaces to directly convert light energy into electrical energy. It is mainly composed of three parts: solar panels (modules), controllers and inverters. The main components are made of electronic components. Solar cells are packaged and protected after being connected in series to form large-area solar cell modules, which are then combined with power controllers and other components to form photovoltaic power generation devices.

[0003] Publication (Announcement) No.: CN102136514A; A PVT system based on photovoltaic cells is disclosed. The technical problem to be solved by the invention is to provide a PVT system based on photovoltaic cells with a simple structure, convenient manufacture, low cost and stable heat gain. The technical solution to this problem is: a PVT system based on photovoltaic cells, characterized in that it includes a first heat exchange loop, a second heat exchange loop and a heat exchanger for controlling the above two loops to exchange heat; wherein the first heat exchange loop includes a collector and an insulated liquid storage tank connected in series through a pipeline to form a loop, and a heat exchange channel on one side of the heat exchanger is connected in series between the outlet end of the collector and the insulated liquid storage tank; the second heat exchange loop includes a compressor and a heat storage tank with a heat exchange function connected in series through a pipeline to form a loop, and the heat exchange channel on the other side of the heat exchanger is connected in series between the inlet end of the compressor and the outlet end of the heat storage tank. The invention is mainly used to generate heat and electricity using sunlight.

[0004] Solar panels mainly use the photovoltaic effect to convert solar energy into electrical energy, and the photoelectric conversion efficiency of solar photovoltaic panels will decrease as the surface temperature increases, thus affecting the working efficiency of the equipment. In order to improve the power generation efficiency of the photovoltaic system and timely convert and utilize the heat generated by the heating of photovoltaic components during operation, a solar photovoltaic thermal PVT device system that combines solar photovoltaic silicon panels, batteries, heaters, and fin heat exchangers can not only improve the power generation efficiency but also meet the user's 24-hour hot water demand. However, the structure of the existing solar photovoltaic thermal PVT device is relatively simple, and the utilization rate of the surface heat energy of the photovoltaic panel is low. Summary of the invention

[0005] The invention discloses an intelligent solar photovoltaic panel, aiming to solve the problem that the utilization rate of the surface heat energy of the photovoltaic panel is low due to its relatively simple structure.

[0006] In order to achieve the above object, the present invention adopts the following technical solutions: An intelligent solar photovoltaic panel, comprising a photovoltaic panel, wherein a flow guiding mechanism for transferring heat to the surface of the photovoltaic panel is arranged on the back of the photovoltaic panel, wherein the flow guiding mechanism comprises a heat conducting plate fixed to the back of each photovoltaic panel, wherein a serpentine curved pipe is installed inside each of the heat conducting plates, and the serpentine curved pipes are connected to each other in pairs; The back of the photovoltaic panel is also provided with a heat conducting mechanism to assist the flow guiding mechanism in heat transfer; the heat conducting mechanism is sleeved on the outside of the flow guiding mechanism, and the heat conducting mechanism includes a plurality of dielectric sleeves installed on the side of the heat conducting plate, and the dielectric sleeves are connected to each other in pairs, and each of the dielectric sleeves is evenly sleeved on the outside of the serpentine bend pipe; The water is circulated on the back of the photovoltaic panel through the guide mechanism, and the heat is transferred to the guide mechanism in cooperation with the heat conduction mechanism, and the photovoltaic panel is cooled at the same time, so as to improve the light energy conversion efficiency of the photovoltaic panel and utilize the heat energy generated by the photovoltaic panel.

[0007] A flow guide mechanism is provided on the back of the photovoltaic panel to transfer heat to the surface of the photovoltaic panel, and a heat conducting mechanism is wrapped on the outside of the flow guide mechanism. The flow guide mechanism is used to drive cold water to flow slowly from the back of the photovoltaic panel, thereby taking away the heat of the photovoltaic panel, dissipating heat and cooling the photovoltaic panel to maintain the photoelectric conversion efficiency of the photovoltaic panel. At the same time, the heat of the photovoltaic panel itself can heat the cold water inside the flow guide mechanism, and the heated cold water can be used as domestic water at night to achieve thermal efficiency. The heat conducting mechanism assists the operation of the flow guide mechanism to transfer the heat of the photovoltaic panel itself more evenly to the inside of the flow guide mechanism, thereby improving the utilization rate of thermal energy of the photovoltaic panel and ensuring the functionality and operation perfection of the equipment.

[0008] In a preferred embodiment, the flow diversion mechanism also includes a plurality of the serpentine bends connected to each other through a type-one connecting pipe to form a closed loop and are commonly connected to a water tank, the water tank is horizontally distributed on the side of the photovoltaic panel, and a type-one pump is installed on the outer side of the type-one connecting pipe.

[0009] By arranging a heat conducting plate structure with a serpentine bend on the back of the photovoltaic panel, the heat of the photovoltaic panel itself is introduced into the inside of the serpentine bend by using the heat conducting plate, and the continuous operation of a type of pump and a type of connecting pipe is coordinated to continuously transport cold water inside the serpentine bend and continuously absorb heat from the photovoltaic panel. On the one hand, the temperature of the photovoltaic panel itself is reduced and the efficiency of the photovoltaic panel's photoelectric conversion is improved. On the other hand, the heated water flow inside the serpentine bend can be stored in the water tank as domestic water for users' domestic water use at night, thereby utilizing the heat energy of the photovoltaic panel during operation and reducing heat energy waste.

[0010] In a preferred solution, the heat conduction mechanism also includes a second type of pump fixedly installed on the outer side of the heat conduction plate, and a plurality of the medium sleeves connected to each other form a closed loop through a second type of connecting pipe and are commonly connected to the second type of pump.

[0011] By further arranging a sleeved medium casing on the outer side of the serpentine elbow, a second-class connecting pipe is used to form a closed loop and connected to a second-class pump, the second-class pump drives the heat-conducting medium inside the medium casing to circulate along the inside of the medium casing, so as to better introduce the heat energy of the photovoltaic panel into the inside of the serpentine elbow through the medium, complete the heat transfer between the serpentine elbow and the photovoltaic panel, and further improve the utilization rate of heat energy of this equipment.

[0012] In a preferred embodiment, the medium sleeve includes an inner sleeve installed on the side of the heat conduction plate by bolts, an outer sleeve is rotatably installed on the outer side of the inner sleeve, the inner sleeve and the outer sleeve are closed and sleeved on the outer side of the serpentine elbow, a liquid guide elbow is connected between the tops of the inner sleeve and the outer sleeve, and a liquid guide hose is connected between the outer sleeve and the adjacent bottom of the inner sleeve.

[0013] By providing a plurality of inner and outer sets of structures that are rotatably engaged with the outside of the serpentine elbow, the heat-conducting medium inside the inner and outer sets is utilized to better assist the serpentine elbow and the photovoltaic panel in heat transfer. At the same time, the inner and outer sets are connected by a liquid guiding elbow, and a liquid guiding hose is connected through the bottom of the outer set and the adjacent inner set. Since the heat rate of the inner set close to the photovoltaic panel is greater than that of the outer set, along with the operation of the second type of pump, in conjunction with the connection relationship between the liquid guiding elbow and the liquid guiding hose, the heat-conducting medium moves from the inner set to the outer set, and then from the outer set to the adjacent inner set, and reciprocates in sequence, so that the heat-conducting medium inside the inner and outer sets can be heated more evenly, thereby ensuring the efficiency and effect of heat transfer between the photovoltaic and serpentine elbow parts.

[0014] As can be seen from the above, the intelligent solar photovoltaic panel provided by the present invention has the following improvements and advantages compared with the prior art: First, a heat-conducting plate structure with a serpentine bend is provided on the back of the photovoltaic panel, and the heat of the photovoltaic panel itself is introduced into the inside of the serpentine bend by using the heat-conducting plate. With the continuous operation of a type of pump and a type of connecting pipe, the cold water inside the serpentine bend is continuously transported and the photovoltaic panel is continuously absorbed. On the one hand, the temperature of the photovoltaic panel itself is reduced and the efficiency of the photovoltaic panel's photoelectric conversion is improved. On the other hand, the heated water flow inside the serpentine bend can be stored in the water tank as domestic water for users' domestic water use at night, thereby utilizing the heat energy of the photovoltaic panel during operation and improving the functionality of traditional photovoltaic panels.

[0015] Secondly, a sleeve medium sleeve is further provided on the outer side of the serpentine elbow, a second-class connecting pipe is used to form a closed loop and connected to the second-class pump. The medium sleeve is composed of an inner sleeve and an outer sleeve. The heat-conducting medium inside the inner sleeve and the outer sleeve is used to better assist the serpentine elbow and the photovoltaic panel in heat transfer. At the same time, the inner sleeve and the outer sleeve are connected by a liquid guide elbow, and a liquid guide hose is connected between the outer sleeve and the bottom of the adjacent inner sleeve. Since the heating rate of the inner sleeve close to the photovoltaic panel is greater than that of the outer sleeve, along with the operation of the second-class pump, the heat-conducting medium moves from the inner sleeve to the outer sleeve, and then from the outer sleeve to the adjacent inner sleeve, and reciprocates in sequence, so that the heat-conducting medium with a temperature difference inside the inner sleeve and the outer sleeve is heated more evenly, thereby ensuring the efficiency and effect of heat transfer between the photovoltaic panel and the serpentine elbow, and better introducing the heat energy of the photovoltaic panel into the interior of the serpentine elbow through the medium, completing the heat transfer between the serpentine elbow and the photovoltaic panel, and further improving the utilization rate of heat energy of the equipment. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 This is a schematic diagram of the overall structure of an intelligent solar photovoltaic panel proposed by the present invention.

[0017] Figure 2 This is a schematic diagram of the overall back structure of an intelligent solar photovoltaic panel proposed by the present invention.

[0018] Figure 3 This is a schematic diagram of the internal structure of an intelligent solar photovoltaic panel proposed by the present invention.

[0019] Figure 4 This is an exploded diagram of the overall structure of an intelligent solar photovoltaic panel proposed by the present invention.

[0020] Figure 5 This is a schematic diagram of the structure of a flow diversion mechanism of an intelligent solar photovoltaic panel proposed by the present invention.

[0021] Figure 6 This is a schematic diagram of the heat conduction mechanism structure of an intelligent solar photovoltaic panel proposed by the present invention.

[0022] Figure 7 A smart solar photovoltaic panel proposed by the present invention Figure 6 A magnified view of the structure at center.

[0023] Figure 8 This is a schematic diagram of the heat conduction plate structure of an intelligent solar photovoltaic panel proposed by the present invention.

[0024] In the figure: 1. photovoltaic panel; 2. flow guide mechanism; 201. heat conduction plate; 2011. curved embedded groove; 2012. straight embedded groove; 202. serpentine elbow; 203. back plate; 204. first-class connecting pipe; 205. water tank; 206. first-class pump; 207. controller; 208. bolt sleeve; 3. heat conduction mechanism; 301. medium sleeve; 3011. inner set; 3012. outer set; 3013. liquid guide elbow; 3014. liquid guide hose; 302. second-class pump; 303. second-class connecting pipe; 4. stand. DETAILED DESCRIPTION

[0025] The technical solutions in the embodiments of the present invention will be described clearly and completely below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments.

[0026] The invention discloses a smart solar photovoltaic panel which is mainly used in scenarios of light energy conversion.

[0027] Reference Figures 1 to 8 , a smart solar photovoltaic panel, comprising a photovoltaic panel 1, a guide mechanism 2 for transferring heat to the surface of the photovoltaic panel 1 is arranged on the back of the photovoltaic panel 1, the guide mechanism 2 comprises a heat conducting plate 201 fixed to the back of each photovoltaic panel 1, a serpentine elbow 202 is installed inside each heat conducting plate 201, and the serpentine elbows 202 are connected to each other; The back of the photovoltaic panel 1 is also provided with a heat conducting mechanism 3 for assisting the flow guiding mechanism 2 in heat transfer; the heat conducting mechanism 3 is sleeved on the outside of the flow guiding mechanism 2, and the heat conducting mechanism 3 includes a plurality of dielectric sleeves 301 installed on the side of the heat conducting plate 201, and the dielectric sleeves 301 are connected to each other, and each dielectric sleeve 301 is evenly sleeved on the outside of the serpentine elbow 202; Water circulates on the back of the photovoltaic panel 1 through the guide mechanism 2, and cooperates with the heat conduction mechanism 3 to transfer heat to the guide mechanism 2, while cooling the photovoltaic panel 1, thereby improving the light energy conversion efficiency of the photovoltaic panel 1 and utilizing the heat energy generated by the photovoltaic panel 1.

[0028] In this embodiment: the photovoltaic panel 1 is exposed to thermal light, and while converting light energy into electrical energy, the photovoltaic panel 1 itself will also generate a relatively high amount of heat. At this time, the operator controls the operation of the diversion mechanism 2, and the diversion mechanism 2 will slowly guide the cold water into the inside of the serpentine bend 202 on the back of the photovoltaic panel 1. At the same time, the heat conduction mechanism 3 will more evenly guide the heat generated by the photovoltaic panel 1 into the inside of the serpentine bend 202, and use the cold water inside the serpentine bend 202 to cool the photovoltaic panel 1 all over, so as to maintain the photoelectric conversion efficiency of the photovoltaic panel 1, and the cold water inside the serpentine bend 202 will eventually become hot water as the heat of the photovoltaic panel 1 is transferred and stored in the inside of the diversion mechanism 2 to meet the user's water needs at night.

[0029] In the above scheme, it is considered that the photovoltaic panel 1 mainly utilizes the photovoltaic effect to convert solar energy into electrical energy, and the photoelectric conversion efficiency of the photovoltaic panel 1 will decrease with the increase of the surface temperature. Therefore, in high temperature weather, the photoelectric conversion efficiency of the photovoltaic panel 1 will gradually decrease. At this time, it is necessary to maintain the operating efficiency of the photovoltaic panel 1. The specific operations are as follows.

[0030] Reference Figures 1 to 5 , Figure 8 In a preferred embodiment, the flow guide mechanism 2 also includes a plurality of serpentine bends 202 connected to each other to form a closed loop through a first-class connecting pipe 204 and are commonly connected to a water tank 205. The water tank 205 is horizontally distributed on the side of the photovoltaic panel 1. A first-class pump 206 is installed on the outer side of the first-class connecting pipe 204.

[0031] In this embodiment: the photovoltaic panel 1 is irradiated with thermal light, and while converting light energy into electrical energy, the photovoltaic panel 1 itself will also generate relatively high heat. At this time, the operator controls a type of pump 206 to start, and a type of pump 206 will slowly conduct the cold water located on the upper layer of the water tank 205 into the interior of the serpentine bend 202 on the back of the photovoltaic panel 1. At the same time, the heat conduction mechanism 3 and the heat conduction plate 201 will more evenly conduct the heat generated by the photovoltaic panel 1 into the interior of the serpentine bend 202, and use the cold water inside the serpentine bend 202 to cool the photovoltaic panel 1 all over, so as to maintain the temperature of the photovoltaic panel 1. Photoelectric conversion efficiency, and the cold water inside the serpentine bend 202 will eventually become hot water as the heat is transferred from the photovoltaic panel 1 and will be re-guided back from the inside of the first connecting pipe 204 through the operation of the first pump 206 and stored in the bottom of the water tank 205 to meet the user's water needs at night; wherein, the ends of two adjacent serpentine bends 202 are threadedly connected by bolt sleeves 208, and a controller 207 is installed on the outside of the first connecting pipe 204, and the controller 207 is distributed on the side of the first pump 206, and the operation of the first pump 206 is controlled by the controller 207.

[0032] Furthermore, it should be noted that: a back plate 203 is mounted on the back of each heat conducting plate 201 by bolts, the heat conducting plate 201 and the back plate 203 are both made of heat conducting aluminum material, and a stand 4 is fixedly mounted on the outer side of the back plate 203, and the stand 4 is supported on the ground.

[0033] In the above scheme, in order to further improve the heat transfer efficiency between the serpentine bend pipe 202 and the photovoltaic panel 1, the specific operation is as follows.

[0034] Reference Figure 3 to Figure 4 , Figure 6 to Figure 7In a preferred embodiment, the heat conducting mechanism 3 also includes a second type of pump 302 fixedly installed on the outer side of the heat conducting plate 201, and a plurality of interconnected medium sleeves 301 form a closed loop through a second type of connecting pipe 303 and are commonly connected to the second type of pump 302.

[0035] In this embodiment: while the first type pump 206 is running, the second type pump 302 is running synchronously, driving the heat-conducting medium inside a plurality of medium casings 301 to circulate continuously along the inside of the medium casing 301 and the second type connecting pipe 303. At the same time, the heat-conducting medium can assist in the heat transfer between the cold water inside the serpentine bend 202 and the photovoltaic panel 1.

[0036] Reference Figure 6 to Figure 7 In a preferred embodiment, the medium sleeve 301 includes an inner sleeve 3011 bolted to the side of the heat conducting plate 201, an outer sleeve 3012 is rotatably mounted on the outer side of the inner sleeve 3011, the inner sleeve 3011 and the outer sleeve 3012 are closed and sleeved on the outer side of the serpentine elbow 202, a liquid guiding elbow 3013 is connected between the tops of the inner sleeve 3011 and the outer sleeve 3012, and a liquid guiding hose 3014 is connected between the outer sleeve 3012 and the bottom of the adjacent inner sleeve 3011.

[0037] In this embodiment, while the first type of pump 206 is running, the second type of pump 302 is running synchronously, driving the heat transfer medium inside the inner set 3011 to flow through the liquid guide elbow 3013 to the inside of the outer set 3012, and then from the inside of the outer set 3012 to the inside of the adjacent inner set 3011 through the liquid guide hose 3014. Since the heat transfer rate of the inner set 3011 close to the photovoltaic panel 1 is greater than that of the outer set 3012, the heat transfer medium reciprocates in the above-mentioned flow direction, and the heat transfer medium between the inner set 3011 and the outer set 3012 is discharged. 2 The heat-conducting medium with a temperature difference inside is heated more evenly, thereby ensuring the efficiency and effect of heat transfer between the photovoltaic panel 1 and the serpentine curved pipe 202; wherein, a curved embedded groove 2011 is opened inside the heat-conducting plate 201, the inner sleeve 3011 is installed inside the curved embedded groove 2011 by bolts, the serpentine curved pipe 202 is installed inside the curved embedded groove 2011 through the inner sleeve 3011, and a straight embedded groove 2012 is opened inside the heat-conducting plate 201, and the second type of connecting pipe 303 is engaged inside the straight embedded groove 2012.

[0038] Working principle: When in use, the photovoltaic panel 1 is irradiated with thermal light, and while converting light energy into electrical energy, the photovoltaic panel 1 itself will also generate a relatively high amount of heat. At this time, the operator controls the first type of pump 206 to start, and the first type of pump 206 will slowly guide the cold water located on the upper layer of the water tank 205 into the inside of the serpentine elbow 202 on the back of the photovoltaic panel 1. At the same time, the second type of pump 302 runs synchronously, driving the heat-conducting medium inside the inner kit 3011 to flow through the liquid guiding elbow 3013 to the inside of the outer kit 3012, and then from the inside of the outer kit 3012 to the inside of the adjacent inner kit 3011 through the liquid guiding hose 3014. Since the inner kit 3011 close to the photovoltaic panel 1 is heated at a higher rate, The heat-conducting medium is larger than the outer set 3012, and the heat-conducting medium reciprocates in the above-mentioned flow direction, which will make the heat-conducting medium with a temperature difference inside the inner set 3011 and the outer set 3012 heated more evenly, so that the photovoltaic panel 1 and the serpentine bend pipe 202 can perform stable and uniform heat transfer, and the cold water inside the serpentine bend pipe 202 is used to cool the photovoltaic panel 1 all over to maintain the photoelectric conversion efficiency of the photovoltaic panel 1. The cold water inside the serpentine bend pipe 202 will eventually become hot water as the heat of the photovoltaic panel 1 is transferred, and through the operation of a type of pump 206, it will be re-directed from the inside of a type of connecting pipe 204 and stored at the bottom of the water tank 205 to meet the user's water needs at night.

[0039] The above description is only a preferred specific implementation manner of the present invention, but the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can make equivalent replacements or changes according to the technical scheme and inventive concept of the present invention within the technical scope disclosed by the present invention, which should be covered by the protection scope of the present invention.

Claims

1. A smart solar photovoltaic panel, comprising a photovoltaic panel (1), characterized in that: The back of the photovoltaic panel (1) is provided with a flow guiding mechanism (2) for transferring heat to the surface of the photovoltaic panel (1), the flow guiding mechanism (2) comprising a heat conducting plate (201) fixed to the back of each photovoltaic panel (1), each heat conducting plate (201) having a serpentine curved pipe (202) installed inside, and the serpentine curved pipes (202) are connected to each other in pairs; The back of the photovoltaic panel (1) is also provided with a heat conducting mechanism (3) for assisting the flow guiding mechanism (2) in heat transfer; the heat conducting mechanism (3) is sleeved on the outside of the flow guiding mechanism (2), the heat conducting mechanism (3) comprises a plurality of dielectric sleeves (301) installed on the side of the heat conducting plate (201), the dielectric sleeves (301) are connected to each other in pairs, and each dielectric sleeve (301) is sleeved evenly on the outside of the serpentine bend (202); Water is circulated on the back of the photovoltaic panel (1) through the flow guide mechanism (2), and heat is transferred to the flow guide mechanism (2) in cooperation with the heat conduction mechanism (3), thereby cooling the photovoltaic panel (1) at the same time.

2. The intelligent solar photovoltaic panel according to claim 1, characterized in that: The flow guiding mechanism (2) further comprises a plurality of the serpentine curved pipes (202) connected to each other, forming a closed loop through a first-class connecting pipe (204) and connected to a water tank (205) in common, wherein the water tank (205) is horizontally distributed on the side of the photovoltaic panel (1), and a first-class pump (206) is installed on the outside of the first-class connecting pipe (204).

3. The intelligent solar photovoltaic panel according to claim 1, characterized in that: The heat conduction mechanism (3) further comprises a second type of pump (302) fixedly mounted on the outer side of the heat conduction plate (201), and a plurality of the medium sleeves (301) connected to each other form a closed loop through a second type of connecting pipe (303) and are commonly connected to the second type of pump (302).

4. The intelligent solar photovoltaic panel according to claim 1, characterized in that: The medium sleeve (301) comprises an inner sleeve (3011) bolted to the side of the heat conducting plate (201); an outer sleeve (3012) is rotatably mounted on the outer side of the inner sleeve (3011); the inner sleeve (3011) and the outer sleeve (3012) are closed and sleeved on the outer side of the serpentine elbow (202); a liquid guiding elbow (3013) is connected between the tops of the inner sleeve (3011) and the outer sleeve (3012); and a liquid guiding hose (3014) is connected between the bottoms of the outer sleeve (3012) and the adjacent inner sleeve (3011).

5. The intelligent solar photovoltaic panel according to claim 4, characterized in that: A curved embedded groove (2011) is provided inside the heat conducting plate (201), the inner sleeve (3011) is installed inside the curved embedded groove (2011) by means of bolts, and the serpentine curved pipe (202) is installed inside the curved embedded groove (2011) by means of the inner sleeve (3011).

6. The intelligent solar photovoltaic panel according to claim 3, characterized in that: A straight embedded groove (2012) is provided inside the heat conducting plate (201), and the second type connecting pipe (303) is engaged inside the straight embedded groove (2012).

7. The intelligent solar photovoltaic panel according to claim 1, characterized in that: The ends of two adjacent serpentine curved pipes (202) are threadedly connected via a bolt sleeve (208).

8. The intelligent solar photovoltaic panel according to claim 2, characterized in that: A controller (207) is installed on the outside of the first-class connecting pipe (204), and the controller (207) is distributed on the side of the first-class pump (206).

9. The intelligent solar photovoltaic panel according to claim 1, characterized in that: A back plate (203) is mounted on the back of each heat conducting plate (201) via bolts, and both the heat conducting plate (201) and the back plate (203) are made of heat conducting aluminum material.

10. The intelligent solar photovoltaic panel according to claim 9, characterized in that: A stand (4) is fixedly mounted on the outer side of the back plate (203), and the stand (4) is supported on the ground.

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