Abstract: The invention relates to a solar cell connecting apparatus, for example a solar cell connecting apparatus, for manufacturing solar cell strings from individual solar cells and electrically conductive strips, having a first module for joining solar cells and strips together; a second module which is connected to the first module for connection, for example, soldering of the strips to the solar cells; and a third module for transportation of the solar cells from the first module through the second module. The connecting apparatus is characterized in that the first module has an apparatus for placing a strip retaining element on to a solar cell with strips, in order to fix the strips on the solar cell, and the third module is adapted in order to also transport the retaining element together with the solar cell (FIG. 2).

Abstract: The invention relates to a solar cell connecting apparatus, for example a solar cell connecting apparatus, for manufacturing solar cell strings from individual solar cells and electrically conductive strips, having a first module for joining solar cells and strips together; a second module which is connected to the first module for connection, for example, soldering of the strips to the solar cells; and a third module for transportation of the solar cells from the first module through the second module. The connecting apparatus is characterized in that the first module has an apparatus for placing a strip retaining element on to a solar cell with strips, in order to fix the strips on the solar cell, and the third module is adapted in order to also transport the retaining element together with the solar cell.

Abstract: A solar energy module includes one or more solar cells, each having a front side for receiving light and an opposite back side. An encapsulant material covers at least the front side of each of the solar cells. The solar energy module also includes a backskin layer formed from a cross-linked mixture of high density polyethylene (HDPE) and acid copolymer bonded to the back side of each of the solar cells.

Abstract: Enhanced efficiency solar cells and methods of manufacture of such cells are described herein. In an illustrative example, the solar cell includes at least one or more collector lens bars each of which extend on sides of front contacts and positioned over a respective active area of one or more active areas in such as position as to guide light onto the one or more active areas. A protective layer covers the at least one or more collector lens bars.

Abstract: A method for fabricating a thin film solar cell includes providing a soda lime glass substrate comprising a surface region and a concentration of sodium oxide of greater than about 10 wt % and treating the surface region with one or more cleaning process, using a deionized water rinse, to remove surface contaminants having a particles size of greater than three microns. The method also includes forming a barrier layer overlying the surface region, forming a first molybdenum layer in tensile configuration overlying the barrier layer, and forming a second molybdenum layer in compressive configuration using a second process overlying the first molybdenum layer. Additionally, the method includes patterning the first molybdenum layer and the second molybdenum layer to form a lower electrode layer and forming a layer of photovoltaic material overlying the lower electrode layer. Moreover, the method includes forming a first zinc oxide layer overlying the layer of photovoltaic materials.

Abstract: The present invention provides a thermoelectric material useful for a thermoelectric converter having excellent energy conversion efficiency, and a method for producing the thermoelectric material. The thermoelectric material comprising an oxide containing Ti, M, and O and the oxide is represented by Formula (1). Ti1-xMxOy??(1) M represents at least one selected from the group consisting of V, Nb, and Ta, x is not less than 0.05 and not more than 0.5, and y is not less than 1.90 and not more than 2.02.

Abstract: A solar module includes a protective shell with at least two sealed sections formed by moisture barrier sealants. Each sealed section is separated from the adjacent sections and includes at least a portion of a solar cell. In this sectioned configuration, any local defect through the protective shell will only affect the performance of the portions of the solar cells within a particular section that contains this defect and will not affect the portions of the solar cells that are in other sections.

Abstract: A solar cell module includes interconnected solar cells, a transparent cover over the front sides of the solar cells, and a backsheet on the backsides of the solar cells. The solar cell module includes an electrical insulator between the transparent cover and the front sides of the solar cells. An encapsulant protectively packages the solar cells. To prevent polarization, the insulator has resistance suitable to prevent charge from leaking from the front sides of the solar cells to other portions of the solar cell module by way of the transparent cover. The insulator may be attached (e.g., by coating) directly on an underside of the transparent cover or be a separate layer formed between layers of the encapsulant. The solar cells may be back junction solar cells.

Abstract: The invention concerns a photovoltaic cell comprising a heterojunction between a crystalline semiconductor substrate (210) of first conductivity type and a first amorphous layer (220) in the same semiconductor material and of a second conductivity type opposite the first type and having a dopant concentration of between 1.1019 and 1.1022 atoms/cm3. The photovoltaic cell further comprises a second amorphous layer (225) of same conductivity type as the first layer and having a dopant concentration of between 1.1016 and 1.1018 atoms/cm3, said second layer being deposited directly on a first face of the substrate and being coated with said first layer. Finally, on a second face of the substrate opposite the first face, the cell comprises a third amorphous layer (260), in the same material as the substrate and of same conductivity type with a dopant concentration of between 1.1019 and 1.1022 atoms/cm3.

Abstract: This disclosure relates to a photovoltaic cell containing first and second electrodes, a photoactive layer between the first and second electrodes, and a hole transport layer between the first electrode and the photoactive layer. The hole transport layer consists of an ionic copolymer.

Abstract: Disclosed is a photoelectric conversion device comprising a first conductive support having a layer containing a semiconductor, a second conductive support arranged opposite to the first conductive support and having a counter electrode, and a charge transfer layer interposed between the first conductive support and the second conductive support at a certain distance from the supports, and a sealing agent which is arranged around the charge transfer layer in the form of a single or more than single layer for bonding the first conductive support and the second conductive support together.

Abstract: A solar cell module is provided that comprises: a solar cell; a connection electrode provided on each of a light-receiving surface and back surface of the solar cell; a conductive resin adhesive arranged on an upper surface of the connection electrode; and a wiring material electrically connected to the solar cell and connected with the connection electrode and the conductive resin adhesive, wherein the conductive resin adhesive changes color upon curing, and the conductive resin adhesive on the upper surface of the connection electrode provided on the light-receiving surface of the solar cell is arranged within a region corresponding to at least one of the connection electrode and the wiring material, on a projection plane parallel with the light-receiving surface and exposed on a light-receiving surface side.

Abstract: The subject of the invention is a transparent substrate, especially made of glass, which is provided with an electrode, especially for a solar cell, comprising a conductive layer based on molybdenum Mo with a thickness of at most 500 nm, especially at most 400 nm or at most 300 nm or at most 200 nm.

Abstract: A high capacity dye-sensitized solar cell module where a plurality of unit cells are simultaneously formed at a substrate in a simplified manner with increased light absorption efficiency. The dye-sensitized solar cell module includes first and second conductive substrates facing one another with regions for a plurality of unit cells. First and second electrodes are formed on the first or the second substrate such that the first and the second electrodes face one another at the respective unit cells. A dye is adsorbed at the first electrode. The space between the first and the second substrates at the respective unit cells is filled with an electrolyte. Insulation regions are formed on at least one of the first and the second substrates between a pair of unit cells neighboring to one another. The pattern of insulation regions, on one or both of the substrates, results in the unit cells being coupled in series, in parallel, or in a combination manner.

Abstract: The photovoltaic system includes a plurality of photovoltaic modules which are connected to form a string or several strings connected in parallel, thereby forming a photovoltaic generator having a positive terminal and negative terminal. A DC constant voltage source connected to the photovoltaic generator to raise the potential of the positive terminal relative to ground potential. This reduces the flow of electrons out of the TCO layer of the modules, thereby reducing or completely eliminating cathode discharges which damage the modules.

Abstract: Semiconductor integrated thermoelectric devices are provided, which are formed having high-density arrays of thermoelectric (TE) elements using semiconductor thin-film and VLSI (very large scale integration) fabrication processes. Thermoelectric devices can be either separately formed and bonded to semiconductor chips, or integrally formed within the non-active surface of semiconductor chips, for example.

Abstract: A light scattering film having the structure which guides electrical signal to a desired position and scatters incident light and the surface of which is substantially flat, and a photoelectric device using the same. The light scattering film includes a medium made of transparent conductive material and a light scatterer embedded in the medium. The light scattering film realizes conductivity and the light-scattering characteristic by single component. It is not necessary to make the texture of a surface with concavity and convexity deliberately to achieve the light-scattering characteristic. Desirably, the surface is substantially flat. When a semiconductor layer is formed on the surface, the defects are suppressed because of the flatness of the surface. The photoelectric device having the light scattering film and the semiconductor device on the surface of the film can achieve high photoelectric conversion efficiency.

Abstract: The present invention provides a dye-sensitized solar cell of high safety, of improved ionic conductivity, and, therefore, of excellent cell performance. The present invention is related to a dye-sensitized solar cell comprising an ionic substance having an anion represented by the following general formula (1): (wherein X represents at least one element selected from among B, C, N, O, Al, Si, P, As, and Se. M1 and M2 are the same or different and each represents an organic linking group. Q represents an organic group. a is an integer of not less than 1, and b, c, d, and e each is an integer of not less than 0).

Abstract: A solar cell includes a substrate, a protective layer located over a first surface of the substrate, a first electrode located over a second surface of the substrate, at least one p-type semiconductor absorber layer located over the first electrode, an n-type semiconductor layer located over the p-type semiconductor absorber layer, and a second electrode over the n-type semiconductor layer. The p-type semiconductor absorber layer includes a copper indium selenide (CIS) based alloy material, and the second electrode is transparent and electrically conductive. The protective layer has an emissivity greater than 0.25 at a wavelength of 2 ?m, has a reactivity with a selenium-containing gas lower than that of the substrate, and may differ from the first electrode in at least one of composition, thickness, density, emissivity, conductivity or stress state. The emissivity profile of the protective layer may be uniform or non-uniform.

Abstract: A solar cell includes a substrate, a protective layer located over a first surface of the substrate, a first electrode located over a second surface of the substrate, at least one p-type semiconductor absorber layer located over the first electrode, an n-type semiconductor layer located over the p-type semiconductor absorber layer, and a second electrode over the n-type semiconductor layer. The p-type semiconductor absorber layer includes a copper indium selenide (CIS) based alloy material, and the second electrode is transparent and electrically conductive. The protective layer has an emissivity greater than 0.25 at a wavelength of 2 ?m, has a reactivity with a selenium-containing gas lower than that of the substrate, and may differ from the first electrode in at least one of composition, thickness, density, emissivity, conductivity or stress state. The emissivity profile of the protective layer may be uniform or non-uniform.