WO2018117337A1 - Solar cell cooling device - Google Patents

Abstract

The present invention relates to a solar cell cooling device arranged on a solar cell module such that the solar cell module can be cooled by convective circulation of air and, more particularly, to various embodiments having a simple structure such that at least one can be selected from a mode in which air is naturally circulated by powerless driving and a mode in which air is forcibly circulated by powered driving, and driving can then be performed in the selected mode while reducing the driving cost and improving the cooling efficiency. A solar cell cooling device according to an embodiment comprises: a heat-radiating substrate attached to a surface of a solar cell module; a plurality of heat-radiating fins arranged on the heat-radiating substrate and spaced from each other, each heat-radiating fin being shaped to have a predetermined height and to extend in the longitudinal direction by a predetermined length; and a cover that integrally surrounds all of the plurality of heat-radiating fins so as to form a plurality of funnels together with the heat-radiating substrate and each of the plurality of heat-radiating fins, each funnel corresponding to a hollow portion extending in the longitudinal direction inside the cover. Each of the plurality of funnels has an intake opening and an exhaust opening provided through both ends thereof, respectively, and has an air passage configured as an inner space between the intake opening and the exhaust opening. Outer air is drawn into the intake opening, passes through the air passage, and is discharged through the exhaust opening. The air passage has a space configured such that the same becomes gradually narrower as the distance from the intake opening toward the exhaust opening increases. The flow velocity of outer air, which has been drawn into the intake opening, is accelerated as the same passes through the air passage.

Description

Solar cell cooling device

The present invention relates to a solar cell cooling device, and more particularly, to a solar cell cooling device arranged in the solar cell module to allow the cooling of the solar cell module by the air convection circulation.

Photovoltaic power generation using a plurality of solar cell modules is widely used as renewable energy, but has a disadvantage in that power generation efficiency is lowered due to an increase in temperature when receiving sunlight. With respect to this temperature rise, it is generally reported that whenever the temperature rises by 10 ° C, the power generation efficiency of the thin film solar cell decreases by 2% and that of the crystalline solar cell decreases by 5%. In addition, the temperature of the rear side of the solar cell module has a greater effect on the power generation efficiency.

In order to prevent the reduction of power generation efficiency as described above, there is disclosed a method of circulating the cooling water by installing a spray sprinkler on the front of the solar cell module or by attaching a heat pipe to the rear of the solar cell module [eg, Patent No. 10-1037301 (published May 26, 2011) "Solar cell module cooling apparatus" and Publication No. 10-2009-0125478 (published Dec. 7, 2009) "Solar panel cooling apparatus"].

As another method, a method of efficiently cooling a solar cell module by arranging a plurality of heat dissipation fins on a rear surface of the solar cell module to increase a heat exchange area and a contact area with a cooling water is disclosed (for example, Patent Publication No. 10-2011). -0001457 (published Jan. 6, 2011) "solar cell heat dissipation cooling apparatus" and Published Patent Publication No. 10-2009-0080322 (published July 24, 2009) "solar cell heat dissipation cooling sheet"].

However, these prior arts are merely intended to increase the contact area of the cooling water by arranging a plurality of heat radiation fins on the rear surface of the solar cell module, and these devices require a separate means for forcibly supplying the cooling water, thereby greatly driving costs. It is not advantageous because it increases and the volume of the whole device increases.

The present invention has been made in view of the related art, and has an object to provide a cooling device for a solar cell having a simple structure using an air convection circulation while reducing driving costs and improving cooling efficiency.

Solar cell cooling device according to an aspect of the present invention for achieving the above object is attached to one side of the solar cell module as a solar cell cooling device for cooling by emitting heat of the solar cell module to the outside, the solar cell The heat dissipation substrate is attached to one surface of the module, and each having a predetermined length and a predetermined length extending in the longitudinal direction and a plurality of heat dissipation fins arranged on the heat dissipation substrate to be spaced apart from each other of the solar cell module A heat dissipation member for dissipating heat; The cover may include a cover that integrally surrounds the heat dissipation member to form a plurality of funnels each having a hollow extending along the heat dissipation member. The plurality of funnels may have inlet and exhaust ports and openings at both ends. And an air passage formed as an inner space between the exhaust ports, and the space of the air passages may be configured to narrow gradually from the intake port toward the exhaust port, and external air introduced into the intake port is discharged from each of the plurality of heat radiating fins. The solar cell module receives and transfers heat and is discharged from the exhaust port as the flow rate is gradually accelerated while passing through the air passage.

In addition, the predetermined height of the plurality of heat dissipation fins may be gradually lowered toward the exhaust port from the inlet port.

In addition, the separation distance between the plurality of heat dissipation fins may be gradually smaller toward the exhaust port from the intake port.

In addition, the heat dissipation substrate may be integrated with the cover.

In addition, the solar cell cooling apparatus according to another aspect of the present invention is a solar cell cooling apparatus attached to one surface of the solar cell module for cooling by emitting heat of the solar cell module to the outside, one surface of the solar cell module And a plurality of heat dissipation fins arranged on the heat dissipation substrate so as to have a heat dissipation substrate attached to the heat dissipation substrate, and having a predetermined height and a predetermined length extending in a longitudinal direction, and arranged to be spaced apart from each other. A heat dissipation member; The cover may include a cover that integrally surrounds the heat dissipation member to form a plurality of funnels each having a hollow extending along the heat dissipation member. The plurality of funnels may have inlet and exhaust ports and openings at both ends. And an air passage formed as an inner space between the exhaust ports, and the space of the air passages may be configured to be gradually narrowed toward the exhaust port from the intake port, and disposed to be adjacent to the intake port to blow external air into the intake port. Means; A blower means further comprising a power source of the blower means, the blower means being disposed adjacent to the inlet port to draw external air into the inlet port; It may further include a power source of the blowing means, the outside air is forced into the intake vent when the blower is in operation, the natural air intake into the intake vent when the blower is inactive, the outside air introduced into the intake vent The solar cell module receives and transfers heat from the solar cell module discharged from each of the plurality of heat sink fins and is discharged to the outside from the exhaust port as the flow rate is gradually accelerated while passing through the air passage.

In addition, the power source is one surface is attached to the solar cell module is applied the first temperature of the solar cell module and the other side is connected to the underground, fluid or external cooling means of the underground, fluid or external cooling means The second temperature may be applied to generate a thermoelectric element generated by a difference between the first temperature and the second temperature.

In addition, the predetermined height of the plurality of heat dissipation fins may be gradually lowered toward the exhaust port from the inlet port.

In addition, the separation distance between the plurality of heat dissipation fins may be gradually smaller toward the exhaust port from the intake port.

In addition, the solar cell cooling device according to another aspect of the present invention is attached to one surface of the solar cell module is a solar cell cooling device for cooling by releasing the heat of the solar cell module to the outside, one of the solar cell module A heat dissipation substrate attached to the surface, and a plurality of heat dissipation fins arranged on the heat dissipation substrate so as to have a shape having a predetermined height and a predetermined length extending in a longitudinal direction, and spaced apart from each other. A heat radiating member for emitting; An air inlet and an exhaust port disposed in contact with an upper portion of each of the plurality of heat dissipation fins and extending at both ends thereof, and an air passage formed into an inner space between the intake and exhaust ports, wherein the intake port has a larger cross-sectional area than the exhaust port; The cross-sectional area of the furnace may include a convection guide tube made of a sloped funnel configured to gradually decrease from the inlet port toward the exhaust port, and external air introduced into the inlet port of the convection guide tube may be formed from each of the plurality of heat dissipation fins. The solar cell module receives and transfers heat and is discharged from the exhaust port as the flow rate is gradually accelerated while passing through the air passage.

The solar cell cooling device may further include: a blowing means arranged to be adjacent to the intake port to draw external air into the intake port, and a power source of the blower means; Forced intake into the intake vents and natural intake into the intake vents when the blower is inactive.

In addition, the power source is one surface is attached to the solar cell module is applied the first temperature of the solar cell module and the other side is connected to the underground, fluid or external cooling means of the underground, fluid or external cooling means The second temperature may be applied to generate a thermoelectric element generated by a difference between the first temperature and the second temperature.

The present invention is a novel structure for cooling the solar cell module using the convection circulation of the atmosphere by attaching to the back of the panel of the solar cell module, the natural air circulation mode by non-powered driving and forced air circulation mode by power driving One or more of them can be selectively driven, thereby reducing driving costs and improving cooling efficiency while having a simple structure.

1 is a perspective view showing the configuration of a solar cell cooling apparatus of the present invention showing that the cover is covered on a heat sink provided with a plurality of heat dissipation fins in the solar cell cooling apparatus according to the first embodiment of the present invention.

Figure 2 is a perspective view showing that the solar cell cooling device of Figure 1 is attached to the rear of the solar cell module.

Figure 3 is a side view showing that the solar cell cooling device of Figure 1 is attached to the rear of the solar cell module.

4 is a cross-sectional view taken along the line IV-IV of FIG. 3.

5 is a side view showing that the solar cell module with the solar cell cooling device of Figure 1 is installed on the support.

Figure 6 is a side view showing a cooling device for a solar cell according to a second embodiment of the present invention.

FIG. 7 is a partially enlarged cross-sectional view of FIG. 6.

8 is a perspective view showing one heat dissipation fin configuration in the solar cell cooling apparatus according to the third embodiment of the present invention.

9 is a perspective view showing that the solar cell cooling apparatus according to the third embodiment of the present invention is attached to the rear of the solar cell module.

10 is a side view showing that the solar cell cooling apparatus according to the third embodiment of the present invention is attached to the rear of the solar cell module.

FIG. 11 is a cross-sectional view taken along the line XI-XI of FIG. 10.

12 is a side view showing that a solar cell module with a cooling device for solar cells according to a third embodiment of the present invention is installed on a support.

In an aspect, the present invention vertically arranges a plurality of heat dissipation fins parallel to the rear of the solar cell module in a vertical direction and has a wide bottom portion and a narrow upper portion, and covers the upper and lower portions of the heat dissipation fins so that the upper and lower portions of the heat dissipation fins are parallel. The top is formed with a number of narrow beveled funnels. As a result, a convection circulation solar cell cooling device is provided in which convective circulation of the cooled air from the bottom to the upper side through these inclined funnels enables efficient cooling of the solar cell module.

According to another aspect of the present invention, a plurality of heat dissipation fins are arranged in parallel to the rear of the solar cell module in a vertical direction, and the lower part is wide and the upper part is narrow and parallel to the end of each of the heat dissipation fins. This formed convection induction pipe is constructed. There is provided a cooling device for a convective circulation solar cell, which allows efficient cooling of the solar cell module while convective circulation of the cooled air around the convection through the inclined funnel of the convection induction pipe.

Hereinafter, various embodiments of the present invention will be described in detail with reference to the drawings.

First, Figures 1 to 5 show a cooling device according to a first embodiment of the present invention, Figure 1 is a perspective view showing the configuration of the cooling device of the present invention showing that the cover is covered on a heat sink provided with a plurality of heat radiation fins 2 is a perspective view showing that the cooling apparatus of the present invention is attached to the rear of the solar cell module.

1 and 2, the solar cell cooling apparatus according to the present invention includes a heat dissipation substrate 14 attached to a rear panel 12 of a solar cell module 10 that is generally plate-shaped, and the heat dissipation substrate 14. It includes a plurality of heat radiation fins 16 arranged over the upper surface of the. This heat dissipation substrate 14 and heat dissipation fins 16 may generally be of any known thermally conductive material, including aluminum.

The heat dissipation substrate 14 is closely attached to the panel 12 by a thermally conductive adhesive material, and the thermally conductive adhesive material is one of epoxy, acrylic resin, glass, polyvinyl chloride, polyethylene, polystyrene, polycarbonate, and silicon. However, the present invention is not limited thereto, and all known thermally conductive adhesive materials generally used may be used.

The plurality of heat dissipation fins 16 have a vertical shape with respect to the solar cell module 10 and a length extending in the longitudinal direction, respectively. In addition, the plurality of heat dissipation fins 16 are arranged at a predetermined distance from each other, in particular, the plurality of heat dissipation fins 16 from the position where the air enters from the position into which the air escapes from the arrangement of the heat dissipation fins 16. The height of is designed to be gradually lowered. A cover 20 having a side portion 18 is covered on an upper portion of the arrangement of the plurality of heat dissipation fins 16, and the side portion 18 of the cover 20 is bonded, welded, or screwed to the heat dissipation substrate 14. The arrangement structure is fixed by being fixed by the fixture. The cover 20 may also be generally comprised of all known thermally conductive materials, including aluminum.

In this way, the plate-shaped heat dissipation substrate 14 and the cover 20 are partitioned by a plurality of heat dissipation fins 16, the upper and lower portions of which are opened, and the height of the heat dissipation fins 16 from the inlet port 22 to the exhaust port 24. A plurality of inclined funnels 26 are formed so as to be gradually lowered, and thus the air passages become narrower. And. Such a solar cell module 10 is installed on a suitable support 28 to produce solar power (best shown in Figure 5).

3 is a side view illustrating the solar cell cooling apparatus of the present invention attached to the rear surface of the solar cell module, and FIG. 4 is a cross-sectional view taken along line IV-IV of FIG. Is a side view showing that the solar cell module with a cooling device for solar cells of the present invention is installed on a support.

3 and 5, in the structure of the plurality of inclined funnels 26, a plurality of heat dissipation fins 16 are arranged therein, and the height of each of the heat dissipation fins 16 is inlet 22. It is designed to gradually decrease from the exhaust port 24 to the exhaust port 24, and eventually narrow the air passage. As a result, the flow rate of the air intaken and exhausted in the air passage of the funnel 26 is greatly increased. That is, the heat generated from the solar cell module 10 is transmitted to the plurality of heat dissipation fins 16, and the heat is dissipated, so that the air sucked into the wide intake port 22 is gradually narrowed by the so-called chimney effect of the inclined funnel 26. The flow velocity of the air is accelerated through the air passage and exhausted through the narrow exhaust port 24, thereby accelerating the natural convection circulation and the solar cell module 10 is effectively cooled. Therefore, according to this embodiment, since the flow rate of the intake and exhaust air is accelerated, cooling can be achieved by natural convection circulation without a separate power source.

In addition, as a modified embodiment of the structure of Figures 3 and 5 above, the present invention, in addition to forming the height of the heat radiation fins 16 from the inlet 22 to the exhaust port 24 as described above, instead of Alternatively, the air passage may be formed to be narrower by arranging the separation distance between the heat dissipation fins 16 from the intake port 22 toward the exhaust port 24. That is, in the latter case, the width of the inlet port 22 is formed to be relatively wider than the width of the exhaust port 24, and each of the heat dissipation fins 16 has a narrower separation distance from each other toward the exhaust port 24 from the inlet port 22. Lose.

In addition, the heat dissipation substrate 14 may be integral with or separate from the cover 20 as a part forming the bottom surface of the cover 20 as part of the cover 20.

In addition, although the cover 20 is shown in a rectangular cross-sectional shape for convenience in FIGS. 1 and 2, the present invention is not limited thereto, and the cover 20 is an inner space between the heat dissipation substrate 14 and the plurality of heat dissipation fins 16 and the cover 20. Any shape that can form the funnel 26 can be applied to the cover 20.

On the other hand, the above structure of the present invention is a structure capable of natural convection circulation itself has a good cooling efficiency, but as another embodiment of the present invention further by adding a separate blowing means to add a forced circulation of the atmosphere cooling efficiency Can be further increased.

That is, FIGS. 6 and 7 illustrate a cooling apparatus in which a natural convection circulation and a forced circulation are combined according to the second embodiment of the present invention. FIG. 6 is a structural diagram of the cooling apparatus, and FIG. Partial enlarged cross section.

6 and 7, the cooling device according to the second embodiment of the present invention shares the structure of the cooling device shown in FIGS. 1 to 5, but the blower 30 is located near the intake port 22 of the funnel 26. ) Is further arranged to force the atmosphere into the inlet port 22 by the power of the blower 30. Thus, the cooling device of the present embodiment is accelerated due to the air passage structure that narrows toward the exhaust port 26 after the atmosphere is forced into the intake port 22, the exhaust velocity is accelerated and exhausted from the exhaust port 26 to double the cooling efficiency. Can be.

In addition, the cooling device further includes a thermoelectric element 32 disposed on the rear of the rear panel 12 of the solar cell module 10, whereby the power source of the blower 30 is the thermoelectric element 32 The solar cell module 10 is supplied with electric power generated from heat generated. Therefore, according to the present embodiment, it is not necessary to have an external power source separately to drive the blower 30.

More specifically, the thermoelectric element 32 may be any known thermoelectric element that generally uses the Seebeck effect, which is generated by the difference between the two external temperatures applied thereto. In particular, in this embodiment, in order to increase the difference between the external temperature applied to the thermoelectric element 32, one surface 32a of the thermoelectric element 32 is provided on the rear panel 12 of the solar cell module 10 that generates heat. The other side 32b is attached to the lead portion 38 in which the ground connection portion 34 is embedded in the ground 36 and extended. The lead portion 38 and the ground connection portion 34 may be made of a known thermally conductive material, and the attachment may be made through, for example, a thermally conductive adhesive material. Thus, the thermoelectric element 32 is thermoelectrically generated due to a temperature difference between one surface 32a in contact with the heat generating unit and the other surface 32b in contact with the ground 36. ).

Here, FIG. 7 shows a structure in which the other surface 32b of the thermoelectric element 32 receives the temperature of the ground 36 through the ground connection portion 34 embedded in the ground 36, but the present invention is limited thereto. In addition, the ground connection portion 34 of the lead portion 38 is configured to float in a fluid containing water or cooling water other than the ground 36, or a relatively low external temperature in contact with other known cooling means. It may be applied to the other surface 32b of the thermoelectric element 32.

In addition, as an example, one surface 32a of the thermoelectric element 32 may be selectively attached to a portion having a high heat generation temperature on the rear panel 12 of the solar cell module 10, and as another example, the thermoelectric element 32 may extend to cover the full width or less than the full width of the panel 12 of the solar cell module 10 to have a structure having a width equal to or less than the full width of the panel 12, and a lead portion attached thereto. (38) may also have a corresponding size.

In addition, the present embodiment may further include a voltage adjusting circuit (not shown) to supply electric power matched to the rating of the blower 30, and may be electrically connected to the blower 30.

According to this embodiment, due to the air passage structure that is narrowed toward the exhaust port 24 after the atmosphere is forced into the intake port 22, the flow rate is accelerated and exhausted from the exhaust port 24 can be doubled the cooling efficiency have. In addition, regardless of the degree of sunlight due to the weather, the thermoelectric element 32 is capable of generating power from the solar heat incident on the solar cell module 10 and accumulated at a predetermined level or more, driving the blower 30 to cool the atmosphere. (26) It can be forced in and can be cooled regardless of the weather. Naturally, when the thermoelectric element 32 is unable to generate power to supply electric power to the blower 30, external air is naturally supplied to the intake port 22 according to the first embodiment illustrated in FIGS. 1 to 5. By entering, it performs cooling function.

8 to 12 show a solar cell cooling apparatus according to a third embodiment of the present invention. 8 exemplarily shows only one heat dissipation fin 116 in the cooling apparatus according to the third embodiment of the present invention. 9, a plurality of heat dissipation fins 116 are arranged on the heat dissipation substrate 114, and the heat dissipation substrate 114 is attached to the rear panel 112 of the solar cell module 110.

The heat dissipation fin 116 is in the form of a plate, and when viewed from the disposed position, the width becomes narrower toward the bottom and wider toward the top. At the end of the heat dissipation fin 116, a convection guide tube 140 in which an inclined funnel 126 is formed along its entire length is installed. This convection guide tube 140 is in the form of a rectangular cross section that is wider toward the bottom and narrower toward the top when viewed from the disposed position, and thus the inclined funnel 126 formed therein has a wide intake port at the bottom thereof. 122 and an upper, relatively narrow exhaust port 124 are formed. That is, the inclined funnel 126 which induces convection of air to substantially cool the heat dissipation fin 116 is formed by the convection induction tube 140 directly installed on the heat dissipation fin 116.

In this embodiment, the inclined funnel 126 of each convective conduit 140 disposed on each of the heat dissipation fins 116 is gradually smaller in cross-section size from the lower inlet 122 to the upper exhaust port 124. Eventually, since the air passage becomes narrower, the air passing through the funnel 26 increases the flow velocity toward the exhaust port 124.

That is, heat generated from the solar cell module 110 is radiated through the plurality of heat dissipation fins 116, and the heat dissipated is carried by the air sucked into the wide inlet 122 by the chimney effect of the inclined funnel 126. As the flow rate is accelerated through the narrowing air passage, the exhaust gas is exhausted through the narrow exhaust port 124, thereby accelerating the natural convection circulation and effectively cooling the solar cell module 110. Therefore, since the flow rate of the intake and exhaust air in the inclined funnel 126 is accelerated, cooling can be achieved by natural convection circulation without a separate power source.

In addition, as in the above-described embodiments, each of the heat dissipation fins 116 on which the convection guide body 140 having the inclined funnel 126 is formed is coupled to the heat dissipation substrate 114. The heat dissipation substrate 114 is coupled to the rear panel 112 of the solar cell module 110, the solar cell module 110 may be installed on a suitable support 128 for photovoltaic power generation.

In addition, although the cross-sectional shape of the funnel 126 is shown as a square cross-sectional shape for convenience in FIGS. 8 and 9, the present invention is not limited thereto, and all the cross-sectional shapes that can be formed in a plurality of arrays while allowing convection circulation described above ( For example, a honeycomb of hexagonal cross section) may be applied to the funnel 126.

As described above, the present invention is a novel structure that cools the solar cell module using the convection circulation of the atmosphere by attaching to the rear of the panel of the solar cell module, the natural air circulation mode by the non-powered driving and forced air by the power drive Since one or more of the circulation modes can be selectively driven, the driving cost is reduced and the cooling efficiency is improved while having a simple structure.

Preferred embodiments and embodiments of the present invention are disclosed for purposes of illustration, and any person skilled in the art may make various modifications, changes, additions, and the like within the spirit and scope of the present invention. Changes, additions, etc. should be considered to be within the scope of the claims.

As an example, the second embodiment of the present invention shown in Figures 6 and 7 in the present specification is a blower 30 disposed near the inlet port 22 of the funnel 26 as a power source generated from the thermoelectric element 32. Although described as a structure to drive the, in addition to the thermoelectric element 32, it is only natural to those skilled in the art that it is possible to drive the blower 30 using a conventional power source (for example, an external power source or a battery). It will also be included in the scope of the present invention.

As another example, in the third embodiment of the present invention shown in FIG. 12, a power source and a blower (such as a thermoelectric element 32) in the same manner as the second embodiment of the present invention shown in FIGS. 30) may be additionally arranged to selectively drive one or more of the natural air circulation mode by no-power drive and the forced air circulation mode by power drive.

Claims (11)

In the solar cell cooling device is attached to one side of the solar cell module for cooling by emitting heat of the solar cell module to the outside, The heat dissipation substrate is attached to one surface of the solar cell module, and a plurality of heat dissipation fins are arranged on the heat dissipation substrate so as to have a predetermined height and a predetermined length extending in the longitudinal direction and spaced apart from each other A heat dissipation member for dissipating heat of the battery module; And a cover integrally enclosing the heat dissipation member so as to form a plurality of funnels each having a hollow extending in the length together with the heat dissipation member, The plurality of funnels have air passages formed at both ends of the inlet and exhaust ports and the inner space between the inlet and exhaust ports, and the space of the air passages is configured to gradually narrow toward the exhaust port from the inlet port. The outside air is transported by receiving heat from the solar cell module discharged from each of the plurality of radiating fins and is discharged to the outside from the exhaust port as the flow rate is gradually accelerated through the air passage. . The method of claim 1, The predetermined height of the plurality of heat dissipation fins is gradually lowered toward the exhaust port from the inlet port, characterized in that the cooling device for a solar cell. The method of claim 1, The separation distance between the plurality of heat radiating fins is characterized in that the gradually decreasing toward the exhaust port from the inlet port. The method of claim 1, The heat dissipation substrate is a solar cell cooling device, characterized in that integral with the cover. In the solar cell cooling device is attached to one side of the solar cell module for cooling by emitting heat of the solar cell module to the outside, The heat dissipation substrate is attached to one surface of the solar cell module, and a plurality of heat dissipation fins are arranged on the heat dissipation substrate so as to have a predetermined height and a predetermined length extending in the longitudinal direction and spaced apart from each other A heat dissipation member for dissipating heat of the battery module; And a cover integrally enclosing the heat dissipation member so as to form a plurality of funnels each having a hollow extending in the length together with the heat dissipation member, The plurality of funnels have air passages formed at both ends of the inlet and exhaust ports and the inner space between the inlet and the exhaust port, and the space of the air passage is configured to gradually narrow toward the exhaust port from the inlet. A blowing means arranged to be adjacent to the intake port to draw external air into the intake port; Further comprising a power source of the blowing means, The outside air is forced into the intake port when the blower is in operation, and naturally intakes into the intake port when the blower is inactive. The outside air introduced into the intake port is discharged from each of the plurality of heat radiating fins. Cooling device for a solar cell, characterized in that the transfer of heat is transferred to and passing through the air passage is gradually accelerated to discharge from the exhaust port to the outside. The method of claim 5, The power source has one surface attached to the solar cell module so that the first temperature of the solar cell module is applied and the other surface is connected to underground, fluid, or external cooling means, and the second ground, fluid, or external cooling means is connected to the solar cell module. Cooling device for a solar cell, characterized in that the temperature is applied and the thermoelectric element is generated by the difference between the first temperature and the second temperature. The method of claim 5, The predetermined height of the plurality of heat dissipation fins is gradually lowered toward the exhaust port from the inlet port, characterized in that the cooling device for a solar cell. The method of claim 5, The separation distance between the plurality of heat radiating fins is characterized in that the gradually decreasing toward the exhaust port from the inlet port. In the solar cell cooling device is attached to one side of the solar cell module for cooling by emitting heat of the solar cell module to the outside, And a heat dissipation substrate attached to one surface of the solar cell module, and a plurality of heat dissipation fins arranged on the heat dissipation substrate so as to have a predetermined height and a predetermined length extending in a length direction, and spaced apart from each other. A heat dissipation member for dissipating heat of the solar cell module; An air inlet and an exhaust port disposed in contact with an upper portion of each of the plurality of heat dissipation fins and extending at both ends thereof, and an air passage formed into an inner space between the intake and exhaust ports, wherein the intake port has a larger cross-sectional area than the exhaust port; The cross-sectional area of the furnace includes a plurality of convection guides made of inclined funnels configured to gradually decrease from the inlet to the outlet, External air introduced into the intake port of the plurality of convection inductors receives and transfers heat from the solar cell module discharged from each of the plurality of heat dissipation fins, and is gradually accelerated while passing through the air passage. Cooling device for solar cells, characterized in that discharged to. The method of claim 9, A blowing means arranged to be adjacent to the intake port to draw external air into the intake port; Further comprising a power source of the blowing means, External air is forced into the intake port when the blower is in operation, and naturally intakes into the intake port when the blower is inactive. The method of claim 10, The power source has one surface attached to the solar cell module so that the first temperature of the solar cell module is applied and the other surface is connected to underground, fluid, or external cooling means, and the second ground, fluid, or external cooling means is connected to the solar cell module. Cooling device for a solar cell, characterized in that the temperature is applied and the thermoelectric element is generated by the difference between the first temperature and the second temperature.

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