Abstract: Embodiments of the present disclosure provide a thermoelectric laser power probe, including a heat dissipation housing and a laser power probing unit fixed inside the heat dissipation housing. The heat dissipation housing is provided with a light inlet. The laser power probing unit includes a substrate. The substrate includes a top surface and at least two outer side surfaces. The top surface is provided with an absorbent material layer. The absorbent material layer corresponds to the light inlet. The at least two outer side surfaces are symmetrically arranged about a center line of a cross section of the top surface, each of the outer side surfaces is perpendicular to the top surface or a tangent plane of the top surface, and each of the outer side surfaces is sequentially provided with an insulating layer and a thin-film thermopile.

Abstract: A method of manufacturing a thin-film thermo-electric generator includes the steps of: forming two or more PN junctions each having a three-layer structure; forming a substrate which has a first side and an opposed second side; coupling the PN junctions at the first side of the substrate to define a first group of PN junctions at the first side of the substrate; and providing two electrodes that one of the electrodes is extracted from the first group of PN junctions. Accordingly, each of the PN junctions is formed by depositing an insulating thin-film layer between a P-type thermo-electric thin-film layer and a N-type thermo-electric thin-film layer.

Abstract: A method of manufacturing a thin-film thermo-electric generator includes the steps of: forming two or more PN junctions each having a three-layer structure; forming a substrate which has a first side and an opposed second side; coupling the PN junctions at the first side of the substrate to define a first group of PN junctions at the first side of the substrate; and providing two electrodes that one of the electrodes is extracted from the first group of PN junctions. Accordingly, each of the PN junctions is formed by depositing an insulating thin-film layer between a P-type thermo-electric thin-film layer and a N-type thermo-electric thin-film layer.

Abstract: For the thin-film thermo-electric generator and fabrication method of this invention, a P-type thermo-electric thin-film layer, an insulating thin-film layer and a N-type thermo-electric thin-film layer is deposited on a substrate to form a three-layer PN junction, multiple three-layer PN junctions in series are available, an insulating thin-film layer is provided between every to serial three-layer PN junctions, and electrodes are extracted from the substrate and the outermost thin-film layer of the last three-layer thin-film PN junctions.

Abstract: For the thin-film thermo-electric generator and fabrication method of this invention, a P-type thermo-electric thin-film layer, an insulating thin-film layer and a N-type thermo-electric thin-film layer is deposited on a substrate to form a three-layer PN junction, multiple three-layer PN junctions in series are available, an insulating thin-film layer is provided between every to serial three-layer PN junctions, and electrodes are extracted from the substrate and the outermost thin-film layer of the last three-layer thin-film PN junctions.