Abstract: A substrate carrier is used for carrying a plurality of back electrode substrates into a furnace. Each back electrode substrate has a precursor layer formed thereon. The furnace is used for providing a process gas to react with the precursor layer, so as to form a photoelectric transducing layer on each back electrode substrate. The substrate carrier includes a heat-resistant metal frame and a first protective layer. The heat-resistant metal frame has a plurality of slots for supporting the plurality of back electrode substrates. The first protective layer is formed on the heat-resistant metal frame for preventing a chemical reaction of the heat-resistant metal frame with the process gas.

Abstract: A rapid thermal processing system includes a rapid thermal processing furnace, a back electrode substrate, and a cover. The rapid thermal processing furnace includes a reaction chamber and a heating device. The heating device is capable of generating heat energy. The back electrode substrate is adapted to dispose in the reaction chamber and has a precursor layer and a selenium layer formed on the precursor layer. The cover is disposed at a position corresponding to the selenium layer on the back electrode substrate and has a sulfur in solid form formed thereon, so as to make the sulfur in solid form opposite to the selenium layer. After the sulfur in solid form absorbs the heat energy generated by the heating device, the sulfur in solid form reacts with the selenium layer and the precursor layer to form a photoelectric transducing layer.

Abstract: A method for manufacturing a see-through solar battery module includes disposing a first mask above a transparent substrate, forming a plurality of metal electrode layers alternately arranged on the transparent substrate, disposing a second mask above the transparent substrate, forming a photoelectric transducing layer on each metal electrode layer by the second mask, removing a part of each photoelectric transducing layer along a first direction to expose a part of each metal electrode layer, forming a transparent electrode layer on each photoelectric transducing layer and each metal electrode layer, and removing a part of each transparent electrode layer and a part of each photoelectric transducing layer to expose a part of each metal electrode layer so as to make the plurality of metal electrode layers and the transparent electrode layer in series connection along a second direction respectively.

Abstract: A solar battery module includes a substrate, striped metal electrode layers formed alternately on the substrate along a first direction, striped photoelectric transducing layers, striped transparent electrode layers, and electrode lines. Each striped photoelectric transducing layer is formed on the striped metal electrode layer and the substrate along the first direction. Each striped transparent electrode layer is formed on the striped metal electrode layer and the striped photoelectric transducing layer along the first direction. The striped transparent electrode layers and the striped metal electrode layers are in series connection along a second direction. The electrode lines are formed alternately on each striped transparent electrode layer or between each striped photoelectric transducing layer and each striped transparent electrode layer along the second direction.

Abstract: A rapid thermal processing system includes a rapid thermal processing furnace, a back electrode substrate, and a cover. The rapid thermal processing furnace includes a reaction chamber and a heating device. The heating device is capable of generating heat energy. The back electrode substrate is adapted to dispose in the reaction chamber and has a precursor layer and a selenium layer formed on the precursor layer. The cover is disposed at a position corresponding to the selenium layer on the back electrode substrate and has a sulfur in solid form formed thereon, so as to make the sulfur in solid form opposite to the selenium layer. After the sulfur in solid form absorbs the heat energy generated by the heating device, the sulfur in solid form reacts with the selenium layer and the precursor layer to form a photoelectric transducing layer.

Abstract: A chemical bath deposition system is used for forming a buffer layer and a ZnO window layer on a back electrode substrate having a photoelectric transducing layer. The chemical bath deposition system includes a first bath tank and a second bath tank. The first bath tank is used for storing a buffer-layer solution. The buffer-layer solution forms the buffer layer on the photoelectric transducing layer when the back electrode substrate is immersed in the buffer-layer solution. The second bath tank is for storing a window-layer solution. The window-layer solution forms the ZnO window layer on the buffer layer when the back electrode substrate is immersed in the window-layer solution. The first bath tank and the second bath tank are in an in-line arrangement.

Abstract: A chemical bath deposition system is used for forming a buffer layer on a back electrode substrate having a photoelectric transducing layer. The chemical bath deposition system includes a chemical bath tank, a chemical-solution purification device, and a dosing device. The chemical bath tank is used for storing a buffer-layer solution including cation and anion. The cation is adapted to react with the anion to form the buffer layer when the back electrode substrate is immersed in the buffer-layer solution. The chemical-solution purification device is communicated with the chemical bath tank for removing residual cation to obtain a purified solution after the cation reacts with the anion to form the buffer layer. The dosing device is for performing compensation of the cation according to a component ratio of a purified solution.

Abstract: A flexible solar battery module includes a flexible insulating base and a plurality of solar batteries separately disposed on the flexible insulating base. The solar battery includes a substrate disposed on the flexible insulating base, a first electrode disposed on the substrate, a photoelectric transducing layer disposed on the first electrode and exposing parts of the first electrode, and a second electrode disposed on the photoelectric transducing layer. The flexible solar battery module further includes an insulating layer disposed on the exposed first electrode of each solar battery and the exposed flexible insulating base between the adjacent solar batteries, and an auxiliary electrode disposed on the second electrode of each solar battery and the exposed first electrode of the adjacent solar battery for setting the plurality of solar batteries in a series connection.

Abstract: A method for manufacturing a see-through solar battery module includes disposing a first mask above a transparent substrate, forming a plurality of metal electrode layers alternately arranged on the transparent substrate, disposing a second mask above the transparent substrate, forming a photoelectric transducing layer on each metal electrode layer by the second mask, removing a part of each photoelectric transducing layer along a first direction to expose a part of each metal electrode layer, forming a transparent electrode layer on each photoelectric transducing layer and each metal electrode layer, and removing a part of each transparent electrode layer and a part of each photoelectric transducing layer to expose a part of each metal electrode layer so as to make the plurality of metal electrode layers and the transparent electrode layer in series connection along a second direction respectively.

Abstract: A manufacturing system for thin-film solar cell is disclosed in the present invention. The manufacturing system includes a chamber, a boat disposed inside the chamber, a solid substrate with a first precursor which has a first I B group and III A group, and a flexible substrate with a second precursor which has a second I B group and III A group, a gas controller for pouring reactant gas, and a heater for increasing the temperature of the chamber, so that the reactant gas reacts to the first precursor and the second precursor to form a chalcopyrite structure.

Abstract: A solar battery module includes a substrate, a plurality of first striped electrodes separately formed on the substrate, a plurality of striped photoelectric transducing layers respectively formed on the corresponding first striped electrode and the substrate wherein parts of the first striped electrode are exposed, a plurality of second striped electrodes respectively formed on the corresponding striped photoelectric transducing layer, and a plurality of conductive layers respectively formed on a side of the corresponding second striped electrode and the first striped electrode adjacent to the side, and not contacting the other second striped electrode.

Abstract: A solar battery module includes a substrate, a plurality of first striped electrodes formed on the substrate, and a plurality of striped photoelectric transducing layers respectively formed on the corresponding first striped electrode. The solar battery module further includes a plurality of second striped electrodes respectively formed on the corresponding striped photoelectric transducing layer, a plurality of insulating layers respectively formed between the adjacent first striped electrodes, the adjacent photoelectric transducing layers, and the adjacent second striped electrodes, and a plurality of conducting layers respectively formed between the adjacent insulating layers.

Abstract: A see-through solar battery module includes a transparent substrate, a plurality of striped metal electrodes formed on the transparent substrate along a first direction, and a plurality of striped photoelectric transducing layers respectively formed on the corresponding striped metal electrode and the transparent substrate along the first direction. Two lateral sides of each striped photoelectric transducing layer do not contact the transparent substrate. The see-through solar battery module further includes a plurality of striped transparent electrodes respectively formed on the transparent substrate, the corresponding striped metal electrode, and the corresponding striped photoelectric transducing layer along the first direction, so that the plurality of striped metal electrodes and the plurality of striped transparent electrodes are in series connection along a second direction.

Abstract: A solar tile structure includes a base, a first hook structure disposed on a first side of the base, a second hook structure dispose on a second side of the base opposite to the first side for engaging with a hook structure of an adjacent solar tile structure so as to constrain the relative movement of the base and the adjacent solar tile structure, a first slot structure disposed on a third side of the base different from the first side for draining water from the base, and a second slot structure disposed on a fourth side of the base opposite to the third side for engaging with a slot structure of other adjacent solar tile structure so as to constrain the relative movement of the base and the other adjacent solar tile structure. A combination of solar tile structures is also provided.

Abstract: A see-through solar battery module includes a transparent substrate, a plurality of striped metal electrodes formed on the transparent substrate along a first direction, and a plurality of striped photoelectric transducing layers respectively formed on the corresponding striped metal electrodes and the transparent substrate along the first direction. A side of each striped photoelectric transducing layer is formed on the transparent substrate and not contacting the adjacent striped metal electrode. The see-through solar battery module further includes a plurality of striped transparent electrodes respectively formed on the transparent substrate, the corresponding striped metal electrodes, and the corresponding striped photoelectric transducing layers along the first direction, so that the plurality of striped metal electrodes and the plurality of striped transparent electrodes are in series connection along a second direction different from the first direction.

Abstract: A see-through solar battery module includes a transparent substrate, and a plurality of first block electrodes, and each first block electrode does not contact the adjacent first block electrode along a first direction. The see-through solar battery module further includes a plurality of block photoelectric transducing layers, each block photoelectric transducing layer is formed on the corresponding first block electrode along the first direction and formed on the corresponding first block electrode and the transparent substrate along a second direction as an array, and each block photoelectric transducing layer does not contact the adjacent block photoelectric transducing layer along the first direction. The see-through solar battery module further includes a plurality of second block electrodes.

Abstract: A see-through solar battery module includes a transparent substrate, and a plurality of block metal electrodes formed on the transparent substrate as an array. Each block metal electrode does not contact the adjacent block metal electrode along a first direction. The see-through solar battery module further includes a plurality of block photoelectric transducing layers. Each block photoelectric transducing layer is formed on the block metal electrode and the transparent substrate along the first direction and formed on the block metal electrode and the transparent substrate along a second direction as an array, and each block photoelectric transducing layer does not contact the adjacent block photoelectric transducing layer along the first direction. The see-through solar battery module further includes a plurality of striped transparent electrodes.

Abstract: A solar panel heat-dissipating device for adjusting temperature of a solar panel includes a base for supporting the solar panel and a cooling plate disposed between the solar panel and the base. The cooling plate includes a cooling tube contacting a side of the solar panel so as to absorb heat generated by the solar panel. In addition, conductive fluid is accommodated inside the cooling tube for dissipating the heat of the cooling tube conducted from the solar panel.

Abstract: A solar panel tile structure capable of draining water includes a solar panel and a supporting plate for supporting the solar panel. At least one draining slot is formed on the supporting plate and disposed around the solar plate for draining the water surrounding the solar panel.