Abstract:
The present invention addresses the problem of providing a thermoelectric conversion module which can be manufactured by a so-called roll-to-roll process with high productivity, a method of manufacturing the thermoelectric conversion module, and a thermally conductive substrate used for a thermoelectric conversion module and the like. The thermoelectric conversion module includes a long insulating support having flexibility, a plurality of metal layers which are formed on one surface of the support with intervals in a longitudinal direction of the support, a plurality of thermoelectric conversion layers which are formed on the same surface of the support on which the metal layers are formed with intervals in the longitudinal direction of the support, and a connection electrode which connects the thermoelectric conversion layers adjacent to each other in the longitudinal direction of the support, in which the metal layer has low stiffness portions having stiffness lower than that of other regions in parallel with a width direction of the support, an interval between the low stiffness portions is constant, and further, the module is alternately bent in a mountain-folded manner and a valley-folded manner at the low stiffness portions of the metal layer in the longitudinal direction.
Abstract:
An imaging device includes a substrate, lower electrodes formed on the substrate, an organic layer formed on the lower electrodes and generating electric charges in response to irradiation with light, an upper electrode formed on the organic layer and transmitting the light, a protective film formed on the upper electrode, and a patterned organic film formed on the protective film. The protective film is composed of at least one layer and has a total thickness of 30 to 500 nm. The protective film of a single layer type has an internal stress of −50 MPa to +60 MPa in the whole of the protective film.
Abstract:
A photoelectric converter includes a pair of electrodes and a plurality of organic layers. The pair of electrodes is provided above a substrate. The plurality of organic layers is interposed between the pair of electrodes and includes a photoelectric conversion layer and a given organic layer being formed on one electrode of the pair of electrodes. The one electrode is one of pixel electrodes arranged two-dimensionally. The given organic layer has a concave portion that is formed in a corresponding position located above a step portion among the arranged pixel electrodes. An angle θ of the concave portion is less than 50°, where an inclination angle of a tangent plane at a given point on the concave portion to a surface plane of the substrate is defined as θ.
Abstract:
Provided are a non-aqueous electrolytic solution secondary battery, a separator formed of the non-aqueous electrolytic solution secondary battery, and a method of manufacturing the non-aqueous electrolytic solution secondary battery. The non-aqueous electrolytic solution secondary battery includes a positive electrode, a negative electrode, and a composite separator that is disposed between the positive electrode and the negative electrode, in which in the composite separator, a thermally expandable capsule is sandwiched in an interlayer of a laminate formed of at least two separator sheets.
Abstract:
A solid electrolyte-containing sheet includes a laminate of three or more solid electrolyte layers, in which the solid electrolyte layer includes an inorganic solid electrolyte and a binder, the inorganic solid electrolytes included in two solid electrolyte layers that are disposed on both surface sides of the laminate among the solid electrolyte layers are formed of particles having an average particle size of 0.3 to 0.9 the inorganic solid electrolyte included in at least one of solid electrolyte layers that are disposed between the two solid electrolyte layers disposed on both the surface sides of the laminate is formed of particles having an average particle size of 1 to 5 μm, and the binder included in the at least one solid electrolyte layer is particulate.
Abstract:
Provided are a method of manufacturing a solid electrolyte sheet including: a step of performing preforming on inorganic solid electrolyte particles containing solid particles plastically deformable at 250° C. or lower; and a step of performing shearing processing on one surface of the obtained preformed body, in which a solid electrolyte layer consisting of the inorganic solid electrolyte particles is formed, and a method of manufacturing a negative electrode sheet for an all-solid state secondary battery and an all-solid state secondary battery, which include the method of manufacturing a solid electrolyte sheet.
Abstract:
Provided are an all-solid state secondary battery having a battery element member having a collector, a solid electrolyte layer, and a positive electrode active material layer, an axial core having the battery element member disposed on a side surface outer circumference, and a battery exterior body that is configured to store the battery element member and the axial core, in which a reinforcement coating body is provided on the side surface outer circumference of the battery exterior body, and, in a discharged state, a compressive stress of 0.5 MPa or more at 25° C. is provided between the axial core and the battery exterior body and between the battery exterior body and the battery element member; and a manufacturing method therefor.
Abstract:
Provided is a thermoelectric conversion module which is folded in a bellows-like shape and is capable of preventing a thermoelectric conversion layer from coming into contact with other member even in a state in which bellows is closed and performing highly effective power generation. This thermoelectric conversion module includes a bellows-like substrate, P-type and N-type thermoelectric conversion layers which are alternately provided on each sloped surface of the substrate on one surface of the substrate, a top portion electrode which connects the P-type and N-type thermoelectric conversion layers over a top portion and a bottom portion electrode which connects P-type and N-type thermoelectric conversion layers over a bottom portion, in which the P-type and N-type thermoelectric conversion layers do not extend over the top portion and the bottom portion, and positions of the P-type thermoelectric conversion layer and the N-type thermoelectric conversion layer which face each other are not overlapped as viewed in the arrangement direction.
Abstract:
Provided is a thermoelectric conversion device including a plurality of thermoelectric conversion modules each of which has an insulating support having flexibility, a plurality of p-type thermoelectric conversion layers and n-type thermoelectric conversion layers which are alternately formed on one surface of the support with intervals, and connection electrodes each of which electrically connects the p-type thermoelectric conversion layer and the n-type thermoelectric conversion layer adjacent to each other on the support, and is formed in a bellows structure by being alternately mountain-folded or valley-folded at a position of the connection electrode between the p-type thermoelectric conversion layer and the n-type thermoelectric conversion layer adjacent to each other in one direction, in which the plurality of thermoelectric conversion modules are laminated such that mountain fold portions of one thermoelectric conversion module and valley fold portions of a thermoelectric conversion module adjacent to the one thermoelectric conversion module are overlapped with each other as viewed from a longitudinal direction of the support.
Abstract:
A photoelectric conversion element is formed by laminating, in order, a substrate, a lower electrode, an organic layer which generates electric charge by light irradiation, an upper electrode which transmits light, a buffer layer and a protective film. The buffer layer is formed from hydrogenated silicon oxide containing hydrogen ions, and has a thickness of 1 to 100 nm. The protective film contains hydrogenated silicon nitride containing hydrogen ions or hydrogenated silicon oxynitride containing hydrogen ions and has a thickness of 30 to 500 nm.