Abstract: Disclosed is a semiconductor device manufacturing method, including a preparation step of preparing a laminated body in which a supporting member, a temporary fixation material layer that generates heat upon absorbing light, and a semiconductor member are laminated in this order, and a separation step of irradiating the temporary fixation material layer in the laminated body with incoherent light and thereby separating the semiconductor member from the supporting member.

Abstract: First and second electrodes are apart from each other in a chamber. Plates are disposed on a substrate in the second electrode. Each of the plates comprises first and second parts for supplying first and second gas to a space between the first and second electrodes, respectively, a first supply path for first gas connected to the first part, and a second supply path for second gas connected to the second part. The substrate comprises a heater for the first gas, a first introducing path for introducing the first gas to the first supply path, and a second introducing path for introducing the second gas to the second supply path. The second supply path comprises a mainstream part without the second part and branch parts with the second part. A connecting portion of the second introducing path and the mainstream part is positioned in an adjacent portion of the plates.

Abstract: Disclosed is a method for manufacturing a thin-film solar cell using plasma between a couple of parallel electrodes. In the method, a base member is placed in a chamber between a first electrode and a second electrode facing each other. A hydrogen gas is heated, and thus heated hydrogen gas and a silicon-based gas are introduced into a space between the first electrode and the second electrode. A ratio of a flow rate of the heated hydrogen gas to that of the silicon-based gas is at least 25 and no more than 58. A plasma is generated between the first electrode and the second electrode by applying high-frequency power to the second electrode while a pressure in the chamber is 1000 Pa or higher, and an optically active layer containing crystalline silicon is deposited on the base material.

Abstract: In order to form a high quality film without causing in-plane nonuniformity in film quality, an apparatus for forming deposited film according to an aspect of the present invention includes: a chamber; a first electrode located in the chamber; a second electrode that is located in the chamber with a predetermined spacing from the first electrode and includes a plurality of supply parts configured to supply material gases; an introduction path connected to the supply parts, through which the material gases are introduced; a heater located in the introduction path; and a cooling mechanism configured to cool the second electrode.

Abstract: A solar cell element and a solar cell module are disclosed. The solar cell element includes a polycrystalline silicon substrate and an aluminum oxide layer on the p-type semiconductor layer. The polycrystalline silicon substrate includes a p-type semiconductor layer located at the uppermost position. The aluminum oxide layer is primarily amorphous. The solar cell module includes the above-mentioned solar cell element.

Abstract: Disclosed is a method for manufacturing a thin-film solar cell using plasma between a couple of parallel electrodes. In the method, a base member is placed in a chamber between a first electrode and a second electrode facing each other. A hydrogen gas is heated, and thus heated hydrogen gas and a silicon-based gas are introduced into a space between the first electrode and the second electrode. A ratio of a flow rate of the heated hydrogen gas to that of the silicon-based gas is at least 25 and no more than 58. A plasma is generated between the first electrode and the second electrode by applying high-frequency power to the second electrode while a pressure in the chamber is 1000 Pa or higher, and an optically active layer containing crystalline silicon is deposited on the base material.

Abstract: A photoelectric conversion module comprises: a substrate having a first surface on which a light is incident and a second surface located at the opposite side of the first surface; a photoelectric conversion element provided on the second surface of the substrate; a light-transmitting member provided on the photoelectric conversion element; and a reflecting member provided on the light-transmitting member and configured to reflect a light having transmitted through the light-transmitting member. The reflecting member comprises an inclined light reflection surface that allows a light reflected from the reflecting member to be totally reflected at the first surface of the substrate.

Abstract: First and second electrodes are apart from each other in a chamber. Plates are disposed on a substrate in the second electrode. Each of the plates comprises first and second parts for supplying first and second gas to a space between the first and second electrodes, respectively, a first supply path for first gas connected to the first part, and a second supply path for second gas connected to the second part. The substrate comprises a heater for the first gas, a first introducing path for introducing the first gas to the first supply path, and a second introducing path for introducing the second gas to the second supply path. The second supply path comprises a mainstream part without the second part and branch parts with the second part. A connecting portion of the second introducing path and the mainstream part is positioned in an adjacent portion of the plates.

Abstract: In order to form a high quality film without causing in-plane nonuniformity in film quality, an apparatus for forming deposited film according to an aspect of the present invention includes: a chamber; a first electrode located in the chamber; a second electrode that is located in the chamber with a predetermined spacing from the first electrode and includes a plurality of supply parts configured to supply material gases; an introduction path connected to the supply parts, through which the material gases are introduced; a heater located in the introduction path; and a cooling mechanism configured to cool the second electrode.

Abstract: First and second electrodes are provided in a chamber. The second electrode includes a first part supplying a first gas to a space between the first electrode and the second electrode, a plurality of second parts supplying a second gas to the space, a first supply path of the first gas connected to the first part, and a second supply path of the second gas connected to the second parts. The second supply path includes a main part with a first inlet of the second gas, and a branch part including a plurality of gas flow paths with a second inlet of the second gas. A number of the second parts are connected to each of the gas flow paths. The main part and the branch part are structured so that the second material gas does not flow into the second parts from the first inlet as a straight flow.

Abstract: Provided is a superstrate type a-Si:H thin film solar cell of which the device characteristics are improved as compared with conventional ones. The solar cell device is manufactured by a process comprising depositing phosphorus on a transparent conductive film formed on a transparent substrate and sequentially forming a p-type layer, an i-type layer, and an n-type layer which are formed of a-Si:H on the transparent conductive film by a plasma CVD method. The phosphorus is deposited, for example, by plasmatization of phosphorus-containing gas. Alternatively, the phosphorus is deposited by etching a phosphorus source provided in a margin region where a plasma excitation voltage is applied but no transparent substrate is placed, with hydrogen plasma at the start of the formation of the p-type layer by the plasma CVD method.