Abstract: A photoelectric panel assembly includes a photoelectric panel, a support rail coupled to a rear surface of the photoelectric panel, the support rail including a base portion parallel to and spaced apart from the photoelectric panel, flange portions parallel to and adhered to the photoelectric panel, slope portions between the base portion and respective ones of the flange portions, and rounded portions between the base portion and the slope portions and between the slope portions and the flange portions.

Abstract: A solar cell module includes a substrate, a lower electrode layer, a semiconductor layer and an upper electrode layer for an embodiment. The lower electrode layer may include a plurality of area-separating grooves separating the substrate into an active area and a peripheral area surrounding the active area, and a plurality of first cell-separating grooves formed in the active area. The semiconductor layer is formed on the lower electrode layer. The semiconductor layer includes a plurality of second cell-separating grooves that are spaced apart from the first cell-separating grooves. The upper electrode layer is formed on the semiconductor layer. The upper electrode layer includes a plurality of third cell-separating grooves that are spaced apart from the second separating grooves.

Abstract: A solar cell module according to the present invention includes photoelectric converting cells, interconnect wiring, and a bus bar, wherein the interconnect wiring is attached by a conductive adhesive layer, and the bus bar is attached by an insulating adhesive layer. A method for manufacturing the solar cell module includes attaching the interconnect wiring and the bus bar by the conductive adhesive layer and the insulating adhesive layer, and according to the method, a solar cell module with excellent characteristics can be manufactured through a simple and inexpensive method.

Abstract: A thin film solar cell module includes a front substrate; a plurality of thin film solar cells disposed on the front substrate; a rear substrate disposed on the thin film solar cells; a plurality of inter-connection terminals electrically connected to the thin film solar cells, respectively, and exposed to an exterior surface of at least one of the front and rear substrates; and a connector electrically connecting the inter-connection terminals in a series or parallel configuration.

Abstract: A solar cell module includes a substrate, a lower electrode layer, a semiconductor layer and an upper electrode layer for an embodiment. The lower electrode layer may include a plurality of area-separating grooves separating the substrate into an active area and a peripheral area surrounding the active area, and a plurality of first cell-separating grooves formed in the active area. The semiconductor layer is formed on the lower electrode layer. The semiconductor layer includes a plurality of second cell-separating grooves that are spaced apart from the first cell-separating grooves. The upper electrode layer is formed on the semiconductor layer. The upper electrode layer includes a plurality of third cell-separating grooves that are spaced apart from the second separating grooves.

Abstract: A thin film solar cell module includes a front substrate; a plurality of thin film solar cells disposed on the front substrate; a rear substrate disposed on the thin film solar cells; a plurality of inter-connection terminals electrically connected to the thin film solar cells, respectively, and exposed to an exterior surface of at least one of the front and rear substrates; and a connector electrically connecting the inter-connection terminals in a series or parallel configuration.

Abstract: A method of controlling an Automatic Guided Vehicle (AGV) system having a plurality of AGVs includes setting a moving path with task times of all the AGVs taken into account, and controlling the AGVs according to the set moving path. The setting the moving path includes calculating respective costs required for the AGVs to perform a plurality of tasks and calculating a number of cases occurring by allocation of each of the tasks to the AGVs. The setting the moving path also includes calculating respective total costs required for the AGVs to perform a corresponding task or corresponding tasks for all of the cases, determining a smallest and largest value out of the respective total costs for each of the cases, and setting the moving path of the AGVs according to the case having the smallest value.

Abstract: A method of controlling an Automatic Guided Vehicle (AGV) system having a plurality of AGVs includes setting a moving path with task times of all the AGVs taken into account, and controlling the AGVs according to the set moving path. The setting the moving path includes calculating respective costs required for the AGVs to perform a plurality of tasks and calculating a number of cases occurring by allocation of each of the tasks to the AGVs. The setting the moving path also includes calculating respective total costs required for the AGVs to perform a corresponding task or corresponding tasks for all of the cases, determining a smallest and largest value out of the respective total costs for each of the cases, and setting the moving path of the AGVs according to the case having the smallest value.