Abstract: A solar panel module including a cover, a back plate, at least two solar panels, and at least a dark insulating layer is provided. The solar panels are configured between the cover and the back plate and arranged along a direction. There is a separating gap of a width arranged between the two adjacent solar panels. In addition, the dark insulating layer is disposed in the separating gap.

Abstract: A reactive heat treatment apparatus is provided to treat a thin-film device. The reactive heat treatment apparatus includes a furnace pipe. The furnace pipe extends in a direction and has a first end and a second end. The furnace pipe further includes a high-temperature portion, a low-temperature portion, and a furnace door. The high-temperature portion is disposed close to the second end and configured to receive the thin-film device. The low-temperature portion is disposed close to the first end and provided with an airtight configuration. The furnace door is disposed close to the first end. An inner side wall of the low-temperature portion has a sunken portion. A height differential is formed between the sunken portion and an inner side wall of the high-temperature portion.

Abstract: A flexible solar panel module is provided having a plurality of non-flexible solar panels, a plurality of non-flexible covers and a flexible back sheet. Each of the non-flexible solar panels has a photoreactive device layer, a positive ribbon and a negative ribbon. The non-flexible covers correspond to the non-flexible solar panels respectively and are disposed on front surfaces of the non-flexible solar panels. Each of the non-flexible covers is bigger in size than each of the non-flexible solar panels. The flexible back sheet is disposed under back surfaces of the non-flexible solar panels and has a plurality of openings therein. A first water-resistant sealant is disposed between adjacent non-flexible covers and physically contacts the flexible back sheet. A second water-resistant sealant is disposed between the non-flexible covers and the flexible back sheet and covers sidewalls of the non-flexible solar panels.

Abstract: A solar power module includes a solar panel, a metallic frame, a soft insulation glue material, and a hard insulation spacer. The solar panel is embedded in the metallic frame. The metallic frame includes an upper portion, an intermediate portion, and a lower portion. The soft insulation glue material is adapted to wrap at least one portion of an edge of the solar panel. The soft insulation glue material is fixedly disposed in the metallic frame. The soft insulation glue material to wrap the solar panel is divided into an upper part, an intermediate part, and a lower part. The hard insulation spacer is disposed between the solar panel and the lower portion of the metallic frame.

Abstract: A solar power system and a method for manufacturing the same are provided. The solar power system includes at least one solar power module and a bypass diode module. The at least one solar power module comprises a plurality of solar panels connected in parallel. The bypass diode module has a plurality of bypass diodes connected in series. The at least one solar power module and the bypass diode module are connected in parallel.

Abstract: A solar panel module including a cover, a back plate, at least two solar panels, and at least a dark insulating layer is provided. The solar panels are configured between the cover and the back plate and arranged along a direction. There is a separating gap of a width arranged between the two adjacent solar panels. In addition, the dark insulating layer is disposed in the separating gap.

Abstract: A solar panel using a light guiding component for receiving external light includes at least one solar cell, a transparent back plate, a transparent cover plate, a light guiding component and a packaging material. The transparent back plate is located on a first side of the solar cell. The transparent cover plate is located on a second side of the solar cell for passing and projecting the light to the solar cell and the transparent back plate. The light guiding component is located on the first side of the solar cell. The packaging material is disposed between the transparent cover plate and the transparent back plate for packaging the solar cell. The solar cell is packaged between the transparent back plate and the transparent cover plate, such that after the light projects to the light guiding component, the light guiding component scatters the light.

Abstract: A corrugated roof sheet has a bottom, a first-side roof sheet edge portion, a second-side roof sheet edge portion, a retaining cap and a protruding portion. The first-side roof sheet edge portion has a height H1 from the bottom. The retaining cap covers the first-side roof sheet edge portion and has a lower fringe. The lower fringe has a height h2 from the bottom. The protruding portion is between the first-side roof sheet edge portion and the second-side roof sheet edge portion and has a height h3 from the bottom. The height h2 is greater than the height h3.

Abstract: A flexible solar panel module is provided having a plurality of non-flexible solar panels, a plurality of non-flexible covers and a flexible back sheet. Each of the non-flexible solar panels has a photoreactive device layer, a positive ribbon and a negative ribbon. The non-flexible covers correspond to the non-flexible solar panels respectively and are disposed on front surfaces of the non-flexible solar panels. Each of the non-flexible covers is bigger in size than each of the non-flexible solar panels. The flexible back sheet is disposed under back surfaces of the non-flexible solar panels and has a plurality of openings therein. A first water-resistant sealant is disposed between adjacent non-flexible covers and physically contacts the flexible back sheet. A second water-resistant sealant is disposed between the non-flexible covers and the flexible back sheet and covers sidewalls of the non-flexible solar panels.

Abstract: An aluminum frame structure for packaging solar panel, comprising: a vertical support member; an U-shaped member, coupled to the vertical support member while allowing the opening of the U-shaped member to face toward a level direction; and at least one protruding member, disposed inside the U-shaped member, each having at least one protrusion arranged at the opening of the U-shaped member and at a position neighboring to the vertical support member while allowing the gap between the highest point of the at least one protrusion and an imaginary line representing the contact slope to be formed larger than the thickness of the back film, and also enabling the contact area of the at least one protrusion and the contact slope to be at least larger than 50% of the area of the contact slope.

Abstract: A solar panel module is provided having a plurality of solar panels disposed in juxtaposed relation. Each of the solar panels has a positive ribbon at one side of said solar panel and a negative ribbon at the other side opposite to said one side. Two adjacent ribbons of two adjacent solar panels are both positive ribbons or both negative ribbons.

Abstract: A solar panel module is provided having a plurality of solar panels disposed in juxtaposed relation. Each of the solar panels has a positive ribbon at one side of said solar panel and a negative ribbon at the other side opposite to said one side. Two adjacent ribbons of two adjacent solar panels are both positive ribbons or both negative ribbons.

Abstract: A reinforcing structure for solar panel module is provided. The solar panel module has multiple solar panels and a frame at a periphery region of the solar panel module surrounding the multiple solar panels. The reinforcing structure is disposed in a region incapable of generating power between two said solar panels.

Abstract: A reinforcing structure for solar panel module is provided. The solar panel module has multiple solar panels and a frame at a periphery region of the solar panel module surrounding the multiple solar panels. The reinforcing structure is disposed in a region incapable of generating power between two said solar panels.

Abstract: A surface treatment apparatus, disposed around a conveying device conveying a substrate in a predetermined conveying direction, includes: first and second liquid nozzles, disposed at an adjustable angle above the conveying device, each having an axial direction perpendicular to an axial direction of the conveying device, in which the second liquid nozzle is spaced apart from the first liquid nozzle by a first predetermined distance in the predetermined conveying direction, and the first and second liquid nozzles incline at a first angle facing each other; and first and second liquid level baffles, disposed on two sides of the conveying device respectively and spaced apart from the conveying device by a gap, in which the first and second liquid level baffles are located within the first predetermined distance spaced apart between the first and second liquid nozzles.