Fujifilm Corporation

International Business Machines Corporation

Fuji Photo Film Company, Limited

Sony Corporation

Lenovo (singapore) Pte. Ltd.

Tokyo Electron Limited

Sony Semiconductor Solutions Corporation

Sony Computer Entertainment Inc.

Sumitomo Osaka Cement Co., Ltd.

Tomoyuki Takahashi

Hideaki Kataoka

Tetsuya Takatori

David Wayne Hill

Katsuyoshi Asakura

Aaron Michael Stewart

Keigo Nakamura

Hideo Tanaka

Richard F Sapper

Koichi Takahashi

Yasuharu Sasaki

Kazuo Nakada

Hisashi Shima

Kenji Yazawa

Yoshiyuki Manabe

Kazuhiro Kimura

Kazutoshi Asada

Tadao Nishii

Michiaki Takeshi

Kazuhiko Yamazaki

Akimasa Kaya

Toshitaka Imai

Haruo Ichikawa

Kenji Kobayashi

Hisashi Kikuchi

Fusanobu Nakamura

Eiji Shinohara

Hiroyuki Noguchi

Osamu Matsuura

Naohiko Okunishi

Katsuyuki Koizumi

Hideyuki Usui

Kuniharu Kitagawa

Dai Kitagawa

Nozomu Nagashima

David Andrew Sawin

Hiroki Hirano

Go Osaki

Howard J Locker

Takashi Sato

John Peter Karidis

Daisuke Hayashi

Hideaki Hasegawa

Yuji Yamada

Randall W Martin

Michael Terrell Vanover

Sadato Akahori

John David Swansey

Masahiko Yamada

Hiroaki Agata

Mitsuo Horiuchi

Kazunori Mizuno

Mamoru Kosakai

Takayuki Morino

Yoshio Hara

Masayuki Amano

Hiroshi Komatsuzaki

Noriaki Ida

Yasumichi Tsukamoto

Myron F Davis

Mikio Takenaka

Samuel A Lucente

Yukio Miura

Yoshiharu Uchiyama

Naoki Takatori

Shigeaki Maruyama

Nariaki Mieki

Kaoru Oohashi

Shinichi Maeta

Kiichiro Kitagawa

Toshitsugu Mito

Shigeki Mori

Takane Fujino

Hidenori Kinoshita

Markus D Oates

Ted F Kelley, Jr

Nobuo Sugiyama

Tadashi Aoto

Takehiko Noguchi

Shigeru Senzaki

John A Wiseman

Takashi Mizutani

Ernest Wittner

Yoshifumi Natsuyama

Peter Geoffrey Gaucher

Shinnosuke Takahashi

Kei Furuuchi

Masashi Katoh

Kenichi Tanaka

Tetsuya Tanaka

Toshiharu Naito

Koichi Hatakeyama

Yukihiro Sugimoto

Takeo Hyodoh

Masashi Kato

Harris C N Ganey

Mikio Okajima

Naraiki Mieki

A processor, specifies a target bone, which is a target of evaluation, by excluding a fracture and an artificial object in a bone part image in which at least a bone component of a subject is extracted, and derives an evaluation result indicating a state of a bone of the subject based on the target bone.

Image processing device, image processing method, and image processing program

A radiation image processing device includes: a first estimation section that estimates components of radiation Ra having passed through a subject Obj using a first radiation image taken from the subject Obj; a second estimation section that estimates components of the radiation Ra, which have passed through an additional scattering element EL, using an estimation result of the first estimation section and scattering characteristics f(X) of the additional scattering element EL; and a first image generation section that generates a second radiation image, which has been transmitted through the subject Obj and the additional scattering element EL, using an estimation result of the second estimation section.

Radiation image processing device and radiation image processing method

A processor acquires a first radiographic image and a second radiographic image that include the same subject and have different S/N ratios. The processor derives a processing content of a first graininess suppression process on the first radiographic image having a higher S/N ratio of the first radiographic image and the second radiographic image and derives a processing content of a second graininess suppression process on the second radiographic image on the basis of the processing content of the first graininess suppression process. The processor performs a graininess suppression process on the second radiographic image on the basis of the processing content of the second graininess suppression process.

Radiographic image processing device, radiographic image processing method, and radiographic image processing program

A plasma processing apparatus includes a stage for supporting a target object in a chamber defined by a chamber body. The stage includes a lower electrode, an electrostatic chuck provided on the lower electrode, heaters provided in the electrostatic chuck, and terminals electrically connected to the heaters. A conductor pipe electrically connects a high frequency power supply and the lower electrode and extends from the lower electrode to the outside of the chamber body. Power supply lines supply power from a heater controller to the heaters. Filters partially forming the power supply lines prevent the inflow of high frequency power from the heaters to the heater controller. The power supply lines include wirings which respectively connect the terminals and the filters and extend to the outside of the chamber body through an inner bore of the conductor pipe.

Plasma processing apparatus

A measuring circuit is provided including a reception strength acquisition unit () that acquires reception strengths of received signals received from respective transmitting stations by an antenna () having a predetermined directivity; a direction component information acquisition unit () that acquires azimuth angle information and elevation angle information, obtained from each of the received signals with respect to a position of the antenna () used as a reference, of the each of the transmitting stations; a pattern generation unit () that maps a three-dimensional vector of the azimuth angle information, the elevation angle information, and the reception strength of each of the received signals to a virtual three-dimensional space with the antenna () being an origin to generate a first reception strength pattern; and a comparison unit () that compares the generated first reception strength pattern with a second reception strength pattern that is a known reception strength pattern to acquire an inclination of the antenna ().

Measuring circuit, measuring device, and program

A stage on which a substrate is disposed includes: a base embedded with an adsorption electrode therein; a focus ring provided above the adsorption electrode and adsorbed and held on the base; and a deposit control ring provided radially inside the focus ring on the base. A gap is formed between the focus ring and the deposit control ring in a radial direction to separate the focus ring and the deposit control ring.

Stage and plasma processing apparatus

A region detection image is obtained by the detection of a subject region of a radiographic image in which radiation is transmitted through a subject and reaches a radiation detection unit and a direct radiation region of the radiographic image in which the radiation directly reaches the radiation detection unit without being transmitted through the subject. A scattered radiation image about scattered radiation components is obtained on the basis of the region detection image and scattered-radiation-spread information about the spread of scattered radiation. A radiographic image from which the scattered radiation components have been removed is obtained by the subtraction of the scattered radiation image from the radiographic image.

Radiographic image processing device, method of operating radiographic image processing device, and radiographic image processing program

A radiographic image processing device includes a radiographic image acquisition unit that acquires a radiographic image taken from a subject using radiation, a region discrimination unit that discriminates a plurality of regions using the radiographic image, a scattered radiation component-estimation section that estimates scattered radiation components of the radiation of each region using scattered radiation component-estimation processing varying for each region, a scattered radiation component-subtraction section that subtracts the scattered radiation components of each region, and an image processing unit that generates a scattered radiation component-subtracted image where the scattered radiation components have been subtracted by sequentially estimating and subtracting the scattered radiation components of each region using the scattered radiation component-estimation section and the scattered radiation component-subtraction section.

Radiographic image processing device and radiographic image processing method

A body thickness estimation unit estimates a body thickness of a subject for each pixel of at least one radiographic image among a plurality of radiographic images each of which includes a primary ray component and a scattered ray component, on the basis of the at least one radiographic image. A bone part pixel value acquisition unit acquires a bone part pixel value which is a pixel value of a bone region of the subject, on the basis of the at least one radiographic image. An information acquisition unit acquires bone mineral information indicating a bone mineral content of the bone region for each pixel of the bone region on the basis of imaging conditions in a case in which the at least one radiographic image has been acquired, the body thickness for each pixel, and the bone part pixel value.

Bone mineral information acquisition apparatus, bone mineral information acquisition method, and bone mineral information acquisition program

A body thickness estimation unit estimates a body thickness of a subject for each pixel of a radiographic image including a primary ray component and a scattered ray component, on the basis of the radiographic image. A bone part pixel value acquisition unit acquires a bone part pixel value which is a pixel value of a bone region of the subject, on the basis of the radiographic image. An information acquisition unit acquires bone mineral information indicating a bone mineral content of the bone region for each pixel of the bone region on the basis of imaging conditions in a case in which the radiographic image has been acquired, the body thickness for each pixel, and the bone part pixel value.

Disclosed is an electrostatic chuck including a circular placing region configured to place a processing target object thereon. The placing region includes a bottom surface and a plurality of protrusions configured to protrude from the bottom surface. Further, the plurality of protrusions is formed at a plurality of positions set at a regular interval on each of a plurality of circles set concentrically and at a regular interval around a center of the placing region. Furthermore, among the plurality of positions, a plurality of positions set on each of any two adjacent circles is set not to be positioned on the same straight line extending from the center.

Electrostatic chuck, placing table and plasma processing apparatus

A feature amount calculation unit calculates, based on a radiation image acquired by irradiating a photographic subject with radiation, a feature amount of a density of the radiation image. A target density calculation unit calculates, based on the radiation image, a target density for converting the feature amount. An image processing unit performs image processing including gradation processing on the radiation image, such that the feature amount becomes the target density, to acquire a processed radiation image.

Radiation-image processing device and method

A density region setting unit sets a specific density region having a preset width with respect to a subject region of a radiation image. A compression processing unit performs a dynamic range compression process with respect to the radiation image on the basis of a first compression amount for compressing at least one of the maximum value or the minimum value among pixel values of the subject region into the specific density region and a preset second compression amount for compressing at least one of a high-density region or a low-density region in the specific density region, to generate a dynamic range compression image.

Image processing apparatus, image processing method, and image processing program for performing dynamic range compression process

There is provided a temperature control mechanism comprising: a plurality of combinations of a heater and a thyristor, wherein at least one combination of the heater and the thyristor is provided on a zone-by-zone basis, and wherein an area of an electrostatic chuck for mounting a substrate is divided into a plurality of zones; a power supply configured to supply current to heaters of the plurality of combinations respectively through the thyristors of the plurality of combinations; a pair of filters disposed at a power supply line for supplying electric power from the power supply to the heaters and configured to eliminate high frequency power applied to the power supply.

Temperature control mechanism, temperature control method and substrate processing apparatus

Growing community of inventors

Kanagawa, Japan

Tomoyuki Takahashi