Fujifilm Corporation

Fuji Photo Film Company, Limited

Fuji Xerox Co., Ltd.

Fujiflim Corporation

Shinji Imai

Toshitaka Agano

Yasunori Ohta

Hideyuki Suzuki

Naoyuki Nishino

Hiroaki Yasuda

Yutaka Yoshida

Eiichi Kito

Keiji Tsubota

Yasuhiro Seto

Yasuhiko Goto

Mitsuru Sawano

Kazuo Horikawa

Masaru Noguchi

Fumito Nariyuki

Masaharu Ogawa

Shin Ozawa

Haruyasu Nakatsugawa

Wataru Ito

Kaku Irisawa

Shigeru Nakamura

Kenji Takahashi

Masaya Nakayama

Dai Murakoshi

Kiyoteru Miyake

Toshiyuki Nabeta

Tomomasa Sato

Toshihiro Nakatani

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.

Non-aqueous electrolytic solution secondary battery, separator formed of non-aqueous electrolytic solution secondary battery, and method of manufacturing non-aqueous electrolytic solution secondary battery

Provided are a method of manufacturing a solid electrolyte sheet including: heating a preformed body that is obtained by performing pre-pressure-forming on inorganic solid electrolyte particles containing solid particles plastically deformable at 250° C. or lower at a specific temperature or on inorganic solid electrolyte particles containing solid particles that have a thermal decomposition temperature of 250° C. or lower and that are plastically deformable at 250° C. or lower at a specific temperature and then performing pre-pressure-forming at a specific temperature to form a solid electrolyte layer consisting of inorganic solid electrolyte particles, a method of manufacturing a negative electrode sheet for an all-solid state secondary battery, and a method of manufacturing an all-solid state secondary battery, which include the method of manufacturing a solid electrolyte sheet.

Solid electrolyte sheet, negative electrode sheet for all-solid state secondary battery, and method of manufacturing all-solid state secondary battery

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.

Method of manufacturing solid electrolyte sheet, method of manufacturing negative electrode sheet for all-solid state secondary battery, and method of manufacturing all-solid state secondary battery

Provided are an inorganic solid electrolyte material including a sulfide-based inorganic solid electrolyte and an electron-insulating inorganic material that coats a surface of the sulfide-based inorganic solid electrolyte, is solid at 100&#xb0; C., and fuses at a specific temperature, a slurry using the same, a solid electrolyte film for an all-solid state secondary battery, a solid electrolyte sheet for an all-solid state secondary battery, a positive electrode active material film for an all-solid state secondary battery, a negative electrode active material film for an all-solid state secondary battery, an electrode sheet for an all-solid state secondary battery, an all-solid state secondary battery, and a method for manufacturing an all-solid state secondary battery.

Solid electrolyte film for all-solid state secondary battery, solid electrolyte sheet for all-solid state secondary battery, positive electrode active material film for all-solid state secondary battery, negative electrode active material film for all-solid state secondary battery, electrode sheet for all-solid state secondary battery, all-solid state secondary battery, and method for manufacturing all-solid state secondary battery

An object of the present invention is to provide a thermoelectric conversion module which is obtained by combining an insulating member, a heat dissipation member, or the like with a bellows-like thermoelectric conversion module and has good structural stability and handleability and good flexibility, a heat conductive laminate used for the thermoelectric conversion module, and methods of producing the same. The object is achieved by providing a thermoelectric conversion module including a module main body having a bellows-like support, thermoelectric conversion layers formed on the support and are separated from each other, connection electrodes which connect the thermoelectric conversion layers adjacent to each other; one or more bellows-like members provided such that concave and convex portions thereof are fitted to those of the module main body; and a flexible linear member which penetrates sloped surfaces of a bellows of the module main body and sloped surfaces of a bellows of one or more bellows-like members so as to be inserted through the module main body and the one or more bellows-like members.

Thermoelectric conversion module, heat conductive laminate, and method of producing thermoelectric conversion module

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.

Thermoelectric conversion module

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.

Photoelectric conversion element and imaging device

A radiological imaging device has a panel section which houses radiation conversion panels for converting radiation to a radiological image, and a control section which is disposed on the panel section and which controls the radiation conversion panels. The control section is thicker than the panel section, or protrudes from the panel section.

Radiological imaging device

There is provided a method of manufacturing a field-effect transistor, in which on a electroconductive layer including a source electrode, a drain electrode and pixel electrode formed by a conductive layer-forming, an inorganic insulating layer containing an inorganic material as a main component is formed so as to cover the electroconductive layer and an oxide semiconductive layer, and after a photoresist film is formed on the inorganic insulating layer and is exposed in a pattern shape, a resist pattern is formed by being developed using a developer in development, and by removing the area exposed from the resist pattern in the inorganic insulating layer by using the developer as an etching liquid, a part of the electroconductive layer is exposed, thereby forming a contact hole; a field-effect transistor, a display device and an electromagnetic wave detector.

Method of manufacturing field-effect transistor, field-effect display device and electromagnetic wave detector

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 &#x2212;50 MPa to +60 MPa in the whole of the protective film.

Imaging device and method for manufacturing imaging device

Pixel electrodes have end portions inclined at inclination angles &#x3b1;, where 30&#xb0;&#x2266;&#x3b1;&#x2266;85&#xb0;, relative to a substrate surface of a substrate. An organic layer disposed on the pixel electrodes is formed by vapor deposition using deposition beams that enter the substrate surface at incident angles &#x3b8; smaller than 90&#xb0;&#x2212;&#x3b1;, where &#x3b1;is the maximum inclination angle among the inclination angles of the end portions of the pixel electrodes, under a deposition substrate temperature condition lower than the glass transition temperature of the organic layer.

Organic image sensor and method of producing the same

A radiographic phase-contrast imaging apparatus obtains a phase-contrast image using two gratings including the first grating and the second grating. The first and second gratings are adapted to form a moire pattern when a periodic pattern image formed by the first grating is superimposed on the second grating. Based on the moire pattern detected by the radiographic image detector, image signals of the fringe images, which correspond to pixel groups located at different positions with respect to a predetermined direction, are obtained by obtaining image signals of pixels of each pixel group, which includes pixels arranged at predetermined intervals in the predetermined direction, as the image signal of each fringe image, where the predetermined direction is a direction parallel to or intersecting a period direction of the moire pattern other than a direction orthogonal to the period direction. Then, a phase-contrast image is generated based on the obtained fringe images.

Radiographic phase-contrast imaging apparatus

An electronic device includes: a substrate; a lower electrode which is provided on the substrate and has an edge portion cross-section having a taper angle of 60&#xb0; or less; a SiOfilm which is provided on the lower electrode, the SiOfilm including hydrogen atoms in a ratio of 3 atomic % or less, and having a refractive index n of 1.475 or less at a wavelength of 650 nm; and an upper electrode which is provided on the SiOfilm and has an overlapping portion with the lower electrode.

Electronic device, method of producing the same, and display device

Disclosed is an electromagnetic wave information detection apparatus, including a photoelectric converter including first and second electrode layers; a charge generation layer that generates positive and negative charges by irradiation of an electromagnetic wave; and a charge transport layer; an electric potential imparting unit that imparts electric potentials to the first and second electrode layers; a detection unit; and a control unit controlling the electric potential imparting unit and the detection unit such that the electric potentials of the first and second electrode layers are equalized during a predetermined period of time between a process of imparting detection electric potentials to the first and second electrode layers to detect information carried by an electromagnetic wave of a previous irradiation and a process of imparting the detection electric potentials to the first and second electrode layers to detect information carried by an electromagnetic wave of a subsequent irradiation.

Electromagnetic wave information detection apparatus and electromagnetic wave information detection method

This invention provides a radiographic imaging device, having: a scintilator layer which converts transmitted radiation incident with emission of radiation to an imaging target to light; a first organic photoelectric conversion layer which is continuous and converts a first light containing the maximum peak wavelength from the scintilator layer to a charge; an insulating substrate having a storage capacitor and a thin film transistor for reading the charge generating in the first organic photoelectric conversion layer for each image detection pixel; a second organic photoelectric conversion layer which converts a second light from the scintilator layer to a charge; and a radiation dose detection circuit for reading the charge generating in the second organic photoelectric conversion layer for each radiation dose detection pixel and a radiographic imaging system using the same.

Growing community of inventors

Kanagawa, Japan

Shinji Imai