Abstract: A sealed photovoltaic module comprising a first substrate, a second substrate, a seal between the first and second substrates positioned at or near the edges of the substrates and forming a sealed chamber defined by the first and second substrates and the seal, and at least one thin film photovoltaic element positioned between the first and second substrate and at least partly within the chamber.

Abstract: A method for manufacturing a thin film photovoltaic module comprising series connected cells, the cells comprising a front contact, a back contact and a photovoltaically active region positioned between the front and back contacts, the series connected cell being formed by scribing a front contact layer, a photovoltaically active layer and a back contact layer on a substrate, the method comprising laser scribing at least one of the front contact layer, the photovoltaically active layer or the back contact layer to form laser scribes using a laser beam scanned rapidly over the layer.

Abstract: A photovoltaic cell comprising a supporting substrate, a front contact layer on the substrate, a layer or layers of semiconductor material and a back contact layer comprising a metal, the back contact having areas without metal thereby permitting the passage of light through the cell.

Abstract: A photovoltaic cell comprising a supporting substrate, a front contact layer on the substrate, a layer or layers of semiconductor material and a back contact layer comprising a metal, the back contact having areas without metal thereby permitting the passage of light through the cell.

Abstract: A method for manufacturing a thin film photovoltaic module comprising series connected cells, the cells comprising a front contact, a back contact and a photovoltaically active region positioned between the front and back contacts, the series connected cell being formed by scribing a front contact layer, a photovoltaically active layer and a back contact layer on a substrate, the method comprising laser scribing at least one of the front contact layer, the photovoltaically active layer or the back contact layer to form laser scribes using a laser beam scanned rapidly over the layer.

Abstract: A sealed photovoltaic module comprising a first substrate, a second substrate, a seal between the first and second substrates positioned at or near the edges of the substrates and forming a sealed chamber defined by the first and second substrates and the seal, and at least one thin film photovoltaic element positioned between the first and second substrate and at least partly within the chamber.

Abstract: A continuous process for depositing a thin film layer or layers on a substrate during the production of thin film photovoltaic devices comprising moving the substrate at an elevated temperature in a reduced pressure environment past one or more sources of material to be deposited thereby forming on the substrate at least one thin film of the material from the source.

Abstract: A continuous process for depositing a thin film layer or layers on a substrate during the production of thin film photovoltaic devices comprising moving the substrate at an elevated temperature in a reduced pressure environment past one or more sources of material to be deposited thereby forming on the substrate at least one thin film of the material from the source.

Abstract: A photovoltaic cell comprising a supporting substrate, a front contact layer on the substrate, a layer or layers of semiconductor material and a back contact layer comprising a metal, the back contact having areas without metal thereby permitting the passage of light through the cell.

Abstract: A photovoltaic cell comprising a supporting substrate, a front contact layer on the substrate, a layer or layers of semiconductor material and a back contact layer comprising a metal, the back contact having areas without metal thereby permitting the passage of light through the cell.

Abstract: A method of removing electrical shorts and shunts from a thin-film semiconductor device having pairs of electrodes with exposed contact surfaces wherein each pair of electrodes is separated by a semiconductor film. The disclosed method comprises the steps of coating the exposed contact surfaces with an ionic solution and successively applying a reverse-bias voltage between the exposed contact surfaces of each pair of electrodes. The ionic solution has an etching rate that increases with increased temperature so that the leakage current flowing through shorts and shunts located between each respective pair of electrodes in response to the reverse-bias voltage will create a local temperature increase at the shorts and shunts and selectively etch or oxidize the shorts and shunts, rendering them substantially nonconductive. The exposed contact surfaces can be coated using a sponge applicator or spray apparatus.