Canon Kabushiki Kaisha

Hidetoshi Tsuzuki

Yasuyoshi Takai

Masaki Kuribayashi

Soichiro Kawakami

Kazunori Ueno

Akihiro Senoo

Yuichi Hashimoto

Tetsuya Yano

Masahiro Kanai

Takao Ogura

Masaya Asao

Naoya Kobayashi

Hiroshi Shimoda

Tetsuya Matsuda

Teruyuki Kondo

Takeshi Kosuzu

Hidehito Tochio

Koichi Sato

Makoto Kubota

Akira Tsuboyama

Hideo Tamura

Kazunori Katakura

Masaru Kamio

Tomonari Nakayama

Noboru Toyama

Yoshinori Tomida

Hiroyuki Tokunaga

Kimihiro Yoshimura

Akiharu Takabayashi

Daisuke Miura

Akane Masumoto

Shotaro Okabe

Yusuke Miyamoto

Yuichi Sonoda

Haruo Tomono

Yuji Matsuo

Toshinobu Ohnishi

Katsuaki Kuge

Hiroki Miura

Hiroshi Tsujita

Zainul Abedin Siddique

Shingo Matsuki

Michiko Narazaki

Makiko Miyachi

Shinjiro Okada

Yutaka Inaba

Toshiki Ito

Osamu Ikeda

Ryo Hayashi

Hideaki Takao

Koichi Matsuda

Hisanori Tsuda

Kazuyuki Sato

Shigenori Itoyama

Masato Minami

Masaaki Matsushita

Hiroyuki Ozaki

Takuya Tsujimoto

Tadashi Hori

Seiji Mashimo

Hiroshi Echizen

Fumio Yamauchi

Toshiaki Aiba

Hidehisa Makita

Takeshi Honma

Yuzo Koda

Toru Sasaki

Masatoshi Watanabe

Kota Iwasaki

Koichiro Moriyama

Rie Ueno

Jun Kato

Takaaki Mukai

Toshihiro Yamashita

Shinsuke Sando

Shimpei Tezuka

Takeshi Shishido

Yasuhiro Aoyama

Masumitsu Iwata

Masahiro Shirakawa

Yuko Yokoyama

Hironao Kimura

Ryo Ezure

Hisatsugu Yamada

Yoshinori Hasegawa

Yu Kimura

Fuminori Sugihara

A radiation imaging apparatus comprising an imaging region where conversion elements used for an imaging operation of obtaining a radiation image corresponding to incident radiation are arranged, detecting portions in each of which a detecting element used to detect a radiation dose entering the imaging region is arranged, and a controller is provided. The controller is configured to perform, before the imaging operation, an offset readout operation of reading out offset signals of the detecting elements from the detecting portions, detect, in the imaging operation, the radiation dose entering the imaging region by using signals output from the detecting elements during irradiation with radiation and the offset signals, and be capable of changing, during a period of the offset readout operation, an order of reading out the offset signals from the detecting portions.

Radiation imaging apparatus and radiation imaging system

Provided is a method of producing a cured product pattern, including: a first step (arranging step) of arranging a layer formed of a curable composition (&#x3b1;') that is the components of the curable composition (&#x3b1;) except the component (D) serving as a solvent on a substrate; and a second step (applying step) of applying droplets of a curable composition (&#x3b1;) discretely onto the layer formed of the curable composition (&#x3b1;), the curable composition (&#x3b1;) having a number concentration of particles each having a particle diameter of 0.07 &#x3bc;m or more of less than 2,021 particles/mL, and the curable composition (&#x3b1;&#x2032;) having a surface tension larger than that of the curable composition (&#x3b1;).

Method of forming pattern of cured product as well as production methods for processed substrate, optical component, circuit board, electronic component, imprint mold and imprint pretreatment coating material

As a substance used as a contrast agent for a method of nuclear magnetic resonance analysis or a method of magnetic resonance imaging, a substance with high selectivity and high sensitivity was demanded. According to the present invention, when a polymer having, in a side chain thereof, a sequence of aH&#x2014;C&#x2014;N,H&#x2014;N&#x2014;C orH&#x2014;C&#x2014;C bond, that is, a structure labeled with stable isotopes ofC andN, is used, the abundance of such a sequence in one molecule can be increased, and hence, high selectivity and higher sensitivity can be attained when used as a contrast agent.

Polymer, contrast agent for nuclear magnetic resonance analysis or magnetic resonance imaging using the polymer, compound and method of nuclear magnetic resonance analysis and method of magnetic resonance imaging using the polymer

A spectral data processing apparatus includes an analyzer configured to perform principal component analysis of spectral data acquired for each of a plurality of regions of a sample, wherein the analyzer obtains an eigenvector by performing the principal component analysis of first spectral data of a first region out of the plurality of regions, and performs the principal component analysis of second spectral data of a second region different from the first region out of the plurality of regions using the obtained eigenvector.

Spectral data processing apparatus, spectral data processing method, and recording medium

A core of a cyclic structure represented by (&#x2014;N&#x2014;(CH)&#x2014;)is bonded to a dendrimer-type side chain with a specific branched structure at all nitrogen atoms in the core to produce a compound with a specific structure for producing a metal complex that exhibits a T1-reducing effect, and the resulting compound is coordinated to a metal ion that has a T1-reducing effect to obtain a metal complex that exhibits an excellent T1-reducing effect which is useful as an effective component of an MRI contrast agent and an MRI contrast agent using the same.

Aza metal complexes

An image processing apparatus which processes virtual slide image data to be displayed in an image display apparatus includes an image data obtaining unit which obtains image data obtained by capturing an image of a target object, and an image data generation unit which generates display image data corresponding to the image of the target object to be displayed in the image display apparatus in a display magnification corresponding to a predetermined field number of a microscope.

Image processing apparatus, image processing system, image processing method, and image processing program

AZA compounds and production method thereof, and metal complexes as MRI contrast agents

A powder material which can electrochemically store and release lithium ions rapidly in a large amount is provided. In addition, an electrode structure for an energy storage device which can provide a high energy density and a high power density and has a long life, and an energy storage device using the electrode structure are provided. In a powder material which can electrochemically store and release lithium ions, the surface of particles of one of silicon metal and tin metal and an alloy of any thereof is coated by an oxide including a transition metal element selected from the group consisting of W, Ti, Mo, Nb, and V as a main component. The electrode structure includes the powder material. The battery device includes a negative electrode having the electrode structure, a lithium ion conductor, and a positive electrode, and utilizes an oxidation reaction of lithium and a reduction reaction of lithium ion.

Powder material, electrode structure using the powder material, and energy storage device having the electrode structure

There is provided a field effect transistor having an organic semiconductor layer, including: an organic semiconductor layer containing at least porphyrin; and a layer composed of at least a polysiloxane compound, the layer being laminated on the organic semiconductor layer so as to be in intimate contact with the organic semiconductor layer. As a result, there can be provided a field effect transistor which enables an organic semiconductor layer having high crystallinity and high orientation to be formed and which exhibits a high mobility.

Field effect transistor, method of producing the same, and method of producing laminated member

An electrode material for a rechargeable lithium battery, characterized in that said electrode material comprises a fine powder of a silicon-based material whose principal component is silicon element, said fine powder having an average particle size (R) in a range of 0.1 &#x3bc;m&#x2266;R&#x3c;0.5 &#x3bc;m. An electrode structural body for a rechargeable lithium battery, having an electrode material layer comprising said silicon-based material fine powder. A rechargeable lithium battery whose anode comprising said electrode structural body.

Electrode material for rechargeable lithium battery, electrode structural body comprising said electrode material, rechargeable lithium battery having said electrode structural body, process for the production of said electrode structural body, and process for the production of said rechargeable lithium battery

A method for forming a deposited film containing microcrystalline silicon on a moving substrate by plasma-enhanced CVD includes forming a deposited film containing microcrystalline silicon on a moving substrate by plasma-enhanced CVD under conditions such that when a deposited film having a thickness of 300 nm or more is formed on a substrate while the substrate is in a stationary state, an area of the microcrystalline silicon region in which an intensity of Raman scattering attributed to a crystalline substance in the deposited film is equal to or higher than three times an intensity of Raman scattering attributed to an amorphous is 50% or more of the total area based on the area of the microcrystalline silicon region and the area of a region composed of the amorphous.

Method for forming deposited film and photovoltaic element

Electrode material for rechargeable lithium battery and electrode structural body comprising said electrode material

A chemical-reaction inducing means is provided in an exhaust line connecting a processing space for subjecting a substrate or a film to plasma processing to an exhaust means, and at least either an unreacted gas or byproduct exhausted from the processing space are caused to chemically react without allowing plasma in the processing space to reach the chemical-reaction inducing means, thereby improving the processing ability of the chemical-reaction inducing means to process the unreacted gas or byproduct.

Exhaust processing method, plasma processing method and plasma processing apparatus

Growing community of inventors

Kanagawa, Japan

Hidetoshi Tsuzuki