Abstract: A heat dissipation structure is provided and includes a plurality of heat conduction bases and at least one flexible fin. Each of the heat conduction bases includes a first surface and a second surface. A positioning groove is formed in the first surface of each of the heat conduction bases, and the second surface of each of the heat conduction bases is assembled to a backlight surface of a solar module. The fin is coupled to the positioning grooves and connected between the heat conduction bases.

Abstract: A solar module is disclosed. The solar module includes a back sheet, a transparent substrate, a plurality of solar cells disposed between the back sheet and the transparent substrate, and an encapsulant for fastening the solar cells therebetween. The back sheet includes a light-receiving surface facing the solar cells, and a back surface opposite to the light-receiving surface. The reflectivity of the light-receiving surface is greater than 90%, and the reflectivity of the back surface is less than 10%. Therefore, the back sheet can have high reflectivity and high thermal radiation rate.

Abstract: An apparatus for patterning a ribbon includes a holding device, a heating device, and an embossing device. The holding device is utilized for positioning the ribbon on a surface of a solar cell. The first solder layer contacts the solar cell. The heating device is utilized for melting the ribbon for string tabbing on the solar cell. The embossing device is utilized for contacting the melted ribbon to form a pattern on the ribbon. A surface energy between the ribbon and the solar cell is greater than a surface energy between the ribbon and the embossing device.

Abstract: A photovoltaic device provided in the present disclosure includes a superstrate, a lower substrate, a plurality of photovoltaic cells and a package structure. The superstrate is light-transmissive, and arranged in parallel with the substrate. The photovoltaic cells are disposed side-by-side at intervals with each other between the superstrate and the substrate, and a gap zone is defined by two facing lateral surfaces of every two of the neighboring photovoltaic cells. The package structure is sandwiched between the superstrate and the substrate, and encapsulates the photovoltaic cells between the superstrate and the substrate in which a reflection portion is provided in the package structure, and located in the gap zone for reflecting lights from the superstrate back to the photovoltaic cells.

Abstract: A photovoltaic device comprises a photovoltaic panel and a heat sink module. The heat sink module is fastened on a rear surface of the photovoltaic panel. The heat sink module comprises a plurality of fins arranged at intervals, and one surface of each fin defines a wind-facing surface.

Abstract: A heat dissipation structure is provided and includes a plurality of heat conduction bases and at least one flexible fin. Each of the heat conduction bases includes a first surface and a second surface. A positioning groove is formed in the first surface of each of the heat conduction bases, and the second surface of each of the heat conduction bases is assembled to a backlight surface of a solar module. The fin is coupled to the positioning grooves and connected between the heat conduction bases.

Abstract: A solar panel module includes a solar panel, a supporting stand and a deflecting device. The supporting stand is structurally connected to the solar panel for supporting the solar panel. The solar panel is disposed inclinedly, and the solar panel has a tilt angle with respect to a horizontal plane. The deflecting device is disposed underneath the solar panel for deflecting wind blowing from lateral directions toward a wind exiting direction, which faces a bottom surface of the solar panel.