Abstract: An installation including a pipe supplying or discharging a cooling fluid, at least one hybrid solar panel, the panel including: a photovoltaic module, a heat exchanger in which a cooling fluid flows, and a connector connecting the heat exchanger to the pipe. The connector includes a tubular body around the pipe, a tube on an external wall of the tubular body, which provides fluid communication between the pipe and the heat exchanger, the tube and external wall form a single piece, the heat exchanger has a wall in which a hole is made, wherein the tube fits freely into the hole, the tube has a seal that makes the connection between the tube and hole sealed to fluids, the tubular body is assembled by elastic fitting on the heat exchanger which fitting is carried out by means of members which are separate from the hole and fit the tube.

Abstract: The invention relates to a hybrid solar panel comprising: a photovoltaic module; a heat exchanger arranged opposite in the rear surface of said photovoltaic module; a cooling fluid circulating in said exchanger; the heat exchanger including a heat exchange area; inner channels extending over the entire surface of the exchange area; the heat exchange area is made up of a double cellular plate with cells provided in the form of adjacent inner channels in fluid communication with the intake and discharge areas, characterised in that: the side ends are sealed; the plate comprises openings made in the lower wall in order to establish fluid communication between each channel and the intake and discharge areas, respectively; and the intake and discharge areas are provided in the form of collectors placed on the lower wall at the openings, so that said upper wall remains planar over the entire surface thereof.

Abstract: Hybrid solar panel including a photovoltaic module having a front face and a rear face, a heat exchanger having a lower face and an upper face, said upper face being arranged facing the rear face of the photovoltaic module, a rigid frame surrounding the photovoltaic module and the heat exchanger, at least one elastic element adapted to exert a compression force against the lower face of the exchanger in such a way that the exchanger is thrust against the rear face of the photovoltaic module, the elastic element bears against at least one bearing element, and the bearing element being in connection with the frame in such a way that at least one portion of the compression force exerted by the elastic element on the bearing element is taken up by the frame.

Abstract: Hybrid solar panel including a photovoltaic module having a front face and a rear face, a heat exchanger having a lower face and an upper face, said upper face being arranged facing the rear face of the photovoltaic module, a rigid frame surrounding the photovoltaic module and the heat exchanger, at least one elastic element adapted to exert a compression force against the lower face of the exchanger in such a way that the exchanger is thrust against the rear face of the photovoltaic module, the elastic element bears against at least one bearing element, and the bearing element being in connection with the frame in such a way that at least one portion of the compression force exerted by the elastic element on the bearing element is taken up by the frame.

Abstract: The invention relates to a hybrid solar panel comprising: a photovoltaic module; a heat exchanger arranged opposite in the rear surface of said photovoltaic module; a cooling fluid circulating in said exchanger; the heat exchanger including a heat exchange area; inner channels extending over the entire surface of the exchange area; the heat exchange area is made up of a double cellular plate with cells provided in the form of adjacent inner channels in fluid communication with the intake and discharge areas, characterised in that: the side ends are sealed; the plate comprises openings made in the lower wall in order to establish fluid communication between each channel and the intake and discharge areas, respectively; and the intake and discharge areas are provided in the form of collectors placed on the lower wall at the openings, so that said upper wall remains planar over the entire surface thereof.

Abstract: The invention relates to a hybrid solar panel comprising: photovoltaic elements having a front face and a rear face; a heat exchanger arranged opposite the rear face of said photovoltaic elements; and a cooling fluid circulating in said exchanger in such a way as to cool the photovoltaic elements, said exchanger comprising a heat exchange region through which said fluid flows, arranged beneath said photovoltaic elements, said exchange region comprising elements that enable the flow of the fluid to be disrupted in such a way as to stimulate the heat exchanges in the exchange region.

Abstract: The invention relates to a hybrid solar panel comprising: photovoltaic elements (1) having a front face and a rear face; a heat exchanger (E) arranged opposite the rear face of said photovoltaic elements (1); and a cooling fluid circulating in said exchanger (E) in such a way as to cool the photovoltaic elements (1), said exchanger (E) comprising a heat exchange region (ZE) through which said fluid flows, arranged beneath said photovoltaic elements (1), said exchange region comprising elements (20) that enable the flow of the fluid to be disrupted in such a way as to stimulate the heat exchanges in the exchange region (ZE).

Abstract: At best, photovoltaic solar modules only convert 20% of solar energy into electrical energy, the rest of this energy being dissipated. This heat stored in the photovoltaic module reduces efficiency, which decreases in an inversely proportional manner to the temperature of the photovoltaic module. To dissipate and recover this heat, it is common to associate the photovoltaic module with a heat exchanger which, in addition to cooling the photovoltaic module, will supply heat, for example to heat the sanitary water of a building. This assembly forms a hybrid solar module, whose main limitation is its weight and relatively short service life. The invention described in the present document solves these two problems by replacing the first layer of the hybrid solar module, which is conventionally a glass sheet, with a material which is lighter, less rigid, more transparent, and more compatible with the material from which is constructed the heat exchanger, which now provides the system with its rigidity.