Abstract: An integrated apparatus with multiple solar panel modules has a plurality of solar panel modules electrically connected with each other. Each solar panel module has at least one solar panel. The at least one solar panel has a plurality of solar cell units electrically connected with each other. There is only single one bypass diode provided in the integrated apparatus.

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 solar panel apparatus has a first solar panel module. The first solar panel module has a first front surface configured to subject to sun light, a first back surface configured to be away from the sun light, at least a first solar panel having a plurality of first solar cell units electrically connected with each other, and a first anode and a first cathode. The first solar panel module further has a first anode junction box and a first cathode junction box, a first anode auxiliary junction box and a first cathode auxiliary junction box, and a first anode cable and a first cathode cable. The first anode junction box and the first cathode junction box are disposed along one short edge of the first back surface and are electrically connected to the first anode and the first cathode respectively. The first anode auxiliary junction box and the first cathode auxiliary junction box are disposed along the other short edge of the first back surface opposite to the one short edge.

Abstract: A flexible solar panel module has a plurality of solar panels, a plurality of cover panels, a plurality of flexible back sheets and a flexible polymer thin film. The plurality of cover panels correspond to the plurality of solar panels and covers front sides of the plurality of solar panels respectively. The plurality of back sheets correspond to the plurality of solar panels and disposed at back sides of the plurality of solar panels respectively. The flexible polymer thin film has a plurality of openings therein correspond to the plurality of solar panels and a size of each of the plurality of openings is smaller than a size of each of the plurality of cover panels and bigger than a size of each of the plurality of solar panels. The flexible polymer thin film is disposed between the plurality of back sheets and the plurality of cover 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.

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 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 cell module structure is disclosed, which at least comprises a frame and a solar cell. The frame is composed of four sidebars that are mounted respectively at four sides of the solar cell. Each of the two opposite ends of each sidebar is formed with a 45-degree angle cut while each sidebar is composed of a top tongue plate, a bottom tongue plate, and a junction plate in a manner that the top tongue plate is arranged parallel to or near parallel to the bottom tongue plate while allowing the junction plate to connected and disposed perpendicular to the top and bottom tongue plates in respective. In addition, the solar cell is arranged at a position enclosed between the junction plate and the top and bottom tongue plates while being disposed at a distance respectively from the three plates.

Abstract: A ground apparatus applicable to an array of solar cell modules includes at least one first ground unit and a plurality of second ground units, and a plurality of depression plates. The first ground unit mounted to a lateral side of one specific solar cell module includes a grounding dock coupling to an out-extending ground line. The second ground unit mounted at a lateral side of each respective solar cell module also has another grounding dock. Any of the grounding docks is formed as a -shape metal plate having two opposing prolonged ends to extend outward, in which each of the ends has at least one matching member, or in which each of the ends is extended to a respective matching frame of the solar cell modules. In addition, the ground apparatus is fixed with a predetermined fastening pattern.

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 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 ground apparatus applicable to an array of solar cell modules includes at least one first ground unit and a plurality of second ground units, and a plurality of depression plates. The first ground unit mounted to a lateral side of one specific solar cell module includes a grounding dock coupling to an out-extending ground line. The second ground unit mounted at a lateral side of each respective solar cell module also has another grounding dock. Any of the grounding docks is formed as a -shape metal plate having two opposing prolonged ends to extend outward, in which each of the ends has at least one matching member, or in which each of the ends is extended to a respective matching frame of the solar cell modules. In addition, the ground apparatus is fixed with a predetermined fastening pattern.

Abstract: A method for disassembling a low-pressure process apparatus. The method provide a transmission device and a low-pressure process apparatus; and moves the housing to a transmission device in a first horizontal direction via the first roller set.

Abstract: A solar cell module comprises: a cover glass, a glass substrate, an aluminum frame, and a filling material. The glass substrate of the solar cell module is formed in a size smaller than that of the cover glass, whereas the cover glass is arranged above the glass substrate while spacing from the same by a first distance; the space ranged between the perimeter of the cover glass and the perimeter of the glass substrate is filled by the filling material while allowing the cross section of the filling material to be an acute triangle. Moreover, the bottom of the filling material is engaged with a contact end of a lower tongue piece of the aluminum frame that is disposed away from a sidewall of the aluminum frame by a contact point while allowing the contact point to be spaced from the perimeter of the glass substrate by a second distance.

Abstract: A solar cell module structure is disclosed, which at least comprises a frame and a solar cell. The frame is composed of four sidebars that are mounted respectively at four sides of the solar cell. Each of the two opposite ends of each sidebar is formed with a 45-degree angle cut while each sidebar is composed of a top tongue plate, a bottom tongue plate, and a junction plate in a manner that the top tongue plate is arranged parallel to or near parallel to the bottom tongue plate while allowing the junction plate to connected and disposed perpendicular to the top and bottom tongue plates in respective. In addition, the solar cell is arranged at a position enclosed between the junction plate and the top and bottom tongue plates while being disposed at a distance respectively from the three plates.

Abstract: A method for disassembling a low-pressure process apparatus. The method provide a transmission device and a low-pressure process apparatus; and moves the housing to a transmission device in a first horizontal direction via the first roller set.

Abstract: A frame structure for solar cell module, in which each of the four sidebars that constructs the frame structure is comprised of a bottom, a first vertical wall, a second vertical wall, a first horizontal wall and a second horizontal wall. Substantially, the present invention provides a a frame structure constructed using parts of different curvatures, that is capable of preventing any filling material from overflowing on the front side of a solar cell element during the integration of the solar cell element and the front structure, without having the so-constructed solar cell module to be processed by an additional machining process for processing the overflowed filling material after the integration, and thus not only the sidebars of the frame structure can be prevented from being broken by the stress resulting from the machining process, but also the manufacturing time required for the consequent solar cell module can be reduced.

Abstract: A low-pressure process apparatus for processing a substrate comprises a base, a stage, a housing and at least one first roller set. The stage is disposed on the base for supporting the substrate. The housing is detachably disposed on the base moving between a first position and a second position, wherein when the housing is in a first position, the housing and the base form a chamber to receive the stage. When the housing is detached, the first roller set contacts and supports the housing to facilitate movement thereof in a first horizontal direction.

Abstract: A frame structure for solar cell module, in which each of the four sidebars that constructs the frame structure is comprised of a bottom, a first vertical wall, a second vertical wall, a first horizontal wall and a second horizontal wall. Substantially, the present invention provides a frame structure constructed using parts of different curvatures, that is capable of preventing any filling material from overflowing on the front side of a solar cell element during the integration of the solar cell element and the front structure, without having the so-constructed solar cell module to be processed by an additional machining process for processing the overflowed filling material after the integration, and thus not only the sidebars of the frame structure can be prevented from being broken by the stress resulting from the machining process, but also the manufacturing time required for the consequent solar cell module can be reduced.