Fuji Photo Film Company, Limited

Fujifilm Corporation

Honda Elesys Co., Ltd.

Fuji Photo Co., Ltd.

Seiji Yamashita

Shunji Takada

Haruyasu Nakatsugawa

Naoto Ohshima

Takayoshi Oyamada

Hiroyuki Mifune

Takashi Honda

Tetsuro Kojima

Eiichi Okutsu

Mikio Ihama

Hirotomo Sasaki

Toshiki Fujiwara

Mitsuo Saitou

Shinya Sugimoto

Tatsuya Ishizaka

Shigeru Shibayama

Susumu Osawa

Hiroshi Ishizaki

Amane Murao

Hitoshi Kuroyanagi

Tomoyuki Masubuchi

Tomoyuki Ozeki

Tamotsu Teshima

Tadashi Ito

Tadashi Ikeda

Shigeo Hirano

Masaki Okazaki

Toru Harada

Toshihiro Ise

Koki Nakamura

Shinichiro Sonoda

Minoru Sakai

Kohzaburoh Yamada

Koichi Nakamura

Ichizo Toya

Keiichi Suzuki

Hiroaki Kimura

Hideki Naito

Hirohiko Tsuzuki

Kouta Fukui

Masashi Shirata

Munetaka Kato

Tadanobu Sato

Yuichi Ohashi

Junji Kanamoto

Shinnichi Morishima

Masatoshi Nakanishi

Akira Kase

Yuji Yoshida

Jun Kawagoe

Takekimi Shiozawa

Masahiro Miyamori

Shinya Deguchi

There are provided a sample acquisition information management device, a sample acquisition information management system, and a sample acquisition information management method that allow a subject who is to collect a sample by oneself to reliably perform a sample acquisition operation. Each of the sample acquisition information management device and the sample acquisition information management system includes an image acquisition unit () that acquires an image and a video of a sample acquisition operation of a subject using a sample examination kit, an output unit () that outputs acquisition means information and operation check information, and a processing unit () that determines whether or not the image or the video acquired by the image acquisition unit () corresponds to a correct sample acquisition operation and controls display of the acquisition means information and the operation check information. Further, the sample acquisition information management method uses the sample acquisition information management system.

Sample acquisition information management device, sample acquisition information management system, and sample acquisition information management method

An object of the present invention is to provide a blood test kit and a blood analysis method capable of performing a blood test with a small amount of blood at high accuracy by visualizing a volume of blood collection and keeping the volume constant. According to the present invention, a blood test kit including a diluent solution for diluting components of a blood sample; and at least one transparent container for storing the components of the blood sample and the diluent solution, in which at least one constituent component included in the blood test kit is marked with a graduation for measuring the components of the blood sample and a liquid volume of the diluent solution, is provided.

Blood test kit and blood analysis method

An object of the present invention is to provide a blood test kit of which a component in a small volume of blood can be mailed in a safe state by controlling the influence of the outside temperature during the mailing, and a highly accurate blood analysis method in which coefficient of variation of a measurement value is reduced. According to the present invention, a blood test kit including a diluent solution for diluting a blood sample; a separating means for recovering blood plasma components from the diluted blood sample; a container for storing the blood plasma components recovered from the diluted blood sample; and a cold insulation means for cold-insulating the container, is provided.

A radiation detector () which has a multilayer structure that includes: a first electrode (); a second electrode () that is disposed so as to face the first electrode; a selenium layer () that is disposed between the first electrode and the second electrode and contains amorphous selenium; a first blocking organic layer () that is adjacent to the selenium layer, between the first electrode and the selenium layer, and that contains a hole transport material having an electron affinity of 3.7 eV or less; and a second blocking organic layer () that is adjacent to the selenium layer, between the second electrode and the selenium layer, and that contains an electron transport material having an ionization potential of 5.9 eV or more. This radiation detector () has low dark current, excellent durability, and less afterimages.

Radiation detector comprising amorphous selenium

An electronic component unit manufacturing method includes: preparing a circuit board including a heat generating element mounted thereon and a bonding metal foil layer formed thereon, a heat transfer board including an insulative layer formed on one face thereof and a heat transfer metal foil layer formed on the insulative layer, and a heat sink; applying a cream solder to form a solder layer on the board bonding metal foil layer or the heat transfer metal foil layer; superimposing the bonding metal foil layer and the heat transfer metal foil layer with each other via the solder layer; re-melting the solder layer to solder the bonding metal foil layer and the heat transfer metal foil layer; and superimposing the other face of the heat transfer board with the heat sink to thereby assemble the circuit board with the heat sink via the heat transfer board.

Method of manufacturing electronic component unit

A scintillator includes a plurality of columnar crystals. A surface protection film is made of poly-para-xylyene and covers a surface of the scintillator, and the front ends of the columnar crystals penetrate thereinto. A photoelectric conversion panel includes a glass substrate and an element unit formed on the glass substrate. The element unit includes a plurality of pixels, is disposed opposite to the front ends of the columnar crystals, and detects visible light which is emitted from the front ends and is transmitted through the surface protection film in a light receiving region of each pixel so as to be converted into electric charge. To improve an SN ratio, a penetration amount P of the front end into the surface protection film and an area A of the light receiving region of each pixel are set to satisfy a relationship of 0 m&#x3c;P/A&#x2266;1.4&#xd7;10m.

Radiological image detection device

According to embodiments, there is provided an electronic component unit, including: a circuit board including: a heat generating element that generates a heat; and a bonding metal foil layer formed on a face thereof; a heat transfer board including: a board body having a thermal conductivity higher than that of the circuit board; an insulative layer formed on a first face of the board body; and a heat transfer metal foil layer formed to cover the insulative layer; and a heat sink, wherein the circuit board is assembled with the heat sink via the heat transfer board such that (1) the heat transfer metal foil layer is soldered to the bonding metal foil layer and (2) the second face of the board body is superimposed on the heat sink.

Electronic component unit and manufacturing method thereof

A surface emitting-type electroluminescent device capable of being driven by a DC power source and excellent in durability is provided. A surface emitting-type electroluminescent device containing a stacked structure in which a transparent electrical conductor layer, a transparent semiconductor layer and/or a transparent insulator layer, a light-emitting layer and a back electrode layer are arrayed in this order, the transparent electrical conductor layer, the transparent semiconductor layer and the transparent insulator layer each containing a metal oxide.

Surface emitting-type electroluminescent device

An electroluminescent fluorescent substance, which is composed of electroluminescent fluorescent particles having an average particle diameter of 0.5 &#x3bc;m to 20 &#x3bc;m and a variation coefficient of particle diameter of 35% or less, and having at least 50% have stacking faults arranged in 10 layers or more at intervals of 5 nm or less, the particles containing copper 1&#xd7;10to 1&#xd7;10mol/mol and gold 1&#xd7;10to 5&#xd7;10mol/mol, to the particles; a sheet-shaped electroluminescence device, which has the electroluminescent fluorescent substance; and an electroluminescence device system; which utilizes the sheet-shaped electroluminescence device.

Electroluminescent fluorescent substance

An occupant determination apparatus and an occupant determination method accurately determine a size of an occupant, with a simple configuration where a plurality of electrodes are arranged on one layer, and eliminate errors due to the capacitance between an occupant and surrounding car-body metal parts or the like, and thus suppress erroneous determination. The apparatus includes a sensor having a plurality of seat section electrodes arranged on a sitting section, and a determination section. The determination section includes an oscillator, a capacitance detecting section which detects the current flowing through a seat section electrode in order to detect the capacitance, a switching circuit which switches the connection of the capacitance detecting section to the seat section electrode, and a controlling section which outputs a switch control signal.

Occupant determination apparatus and occupant determination method

An electroluminescence device, including phosphor particles, which phosphor particles give donor-acceptor type luminescence, and have an average equivalent sphere diameter of 1.0 &#x3bc;m or more and 12.0 &#x3bc;m or less and a coefficient of variation of equivalent sphere diameters of 3% or more and 30% or less.

Electroluminescence device having phosphor particles which give donor-acceptor type luminescence

The invention provides a silver halide emulsion, comprising: silver halide grains containing silver chloride as a primary component and further containing silver bromide; wherein, when an average value of a silver bromide content of the silver halide grains is represented by Y (mol %), a silver bromide content of at least 68% of the silver halide grains is from 0.82&#xd7;Y (mol %) to 1.18&#xd7;Y (mol %). Further, the invention provides a method of producing the silver halide emulsion, comprising the step of reacting at least a silver ion, a chlorine ion and a bromine ion; wherein a growth speed at a time of forming a silver bromine-containing phase in the reaction process is at least 60% of a critical growth speed.

Silver halide emulsion and method for producing same

A silver halide emulsion comprising a silver halide grain having a high silver iodide-containing phase, the surface of the silver halide grain being adsorbed with a substance capable of reducing by 50% or more the light emission intensity at 460 nm attributable to the high silver iodide-containing phase at 77&deg; K.

Silver halide emulsion

The present invention provides silver halide grains in which a difference in ionic conductivity between a region exhibiting highest ionic conductivity and a region exhibiting lowest ionic conductivity is at least 100 times. The invention also provides a silver halide emulsion comprising the silver halide grains as well as a silver halide color photographic photosensitive material comprising the silver halide emulsion.

Silver halide grains, silver halide emulsion, and silver halide color photographic photosensitive material

A photothermographic element has on a support a photosensitive layer containing an emulsion of silver halide fine grains having a mean equivalent spherical diameter of 10-50 nm. (1) The silver halide emulsion has been formed independent of an organic fatty acid silver salt rather than by partial halogen conversion of a non-photosensitive organic silver salt, and mixed with the organic silver salt before coating. (2) A reducing agent for silver ion is contained. (3) The silver halide fine grains have been chemically sensitized in the presence of a spectral sensitizing dye. The element is improved in sensitivity and restrained from fog increase during storage in daylight after processing.

Photothermographic element

Growing community of inventors

Kanagawa, Japan

Seiji Yamashita