Nikon Corporation

Mitsubishi Electric Corporation

Bridgestone Corporation

Nuflare Technology, Inc.

Disco Corporation

Dai Nippon Printing Co., Ltd.

Nippon Kogaku K.k.

Kabushiki Kaisha Audio Technica

Hideki Matsui

Nobuyoshi Hagiuda

Hiroshi Sakamoto

Tomokazu Ogomi

Sadaaki Yoshioka

Ryotaro Takayanagi

Norikazu Yokonuma

Kenji Shimohata

Toru Aramaki

Hiroshi Koike

Masaaki Okada

Yoshikazu Iida

Tatsuya Kunieda

Kazuya Makabe

Toshiaki Shoji

Miki Kagano

Zhaoxiang Chen

Hiroshi Araki

Kentaro Fujino

Masakuni Ohta

Tomoyuki Miyata

Hiroyuki Matsumoto

Munehiro Ogasawara

Shinji Yamashita

Shigenori Harada

Toshio Yoshihara

Takashi Nakamura

Hiroyuki Kawano

Shigeo Kimura

Daisuke Fukui

Hideo Hoshuyama

Hiroyuki Asano

Akiko Fujiuchi

Rieko Nishimura

Kenji Matsuo

Masami Takemoto

Jin Kuramoto

Yohei Nokami

Nobuyoshi Hagyuda

Kosuke Saeki

Naoyuki Tokida

Junichi Yanai

Naruto Fuwa

Yasushi Shirahige

Koki Takasaki

Masashi Hino

Noritoshi Akazawa

Hiroaki Kahara

Naoto Yamada

Takuya Uemura

Toshiyuki Ota

Tatsuya Murofushi

Norikazo Yokonuma

Yoshiaki Hattori

Takashi Hamada

Kazuki Miyazaki

Yuki Otomo

An image reading device () includes a lens array (), a light receiver (), and at least one light blocking member. The lens array () includes first lens bodies arranged in a line in a main scanning direction with predetermined spacing therebetween to converge light from a reading target. The light receiver () receives light converged by each first lens body. The at least one light blocking member is disposed between the light receiver () and an end of the lens array () proximate to the reading target at at least one position corresponding to the predetermined spacing in the main scanning direction. The at least one light blocking member blocks light from the reading target propagating between the first lens bodies, and each of the at least one light blocking member separates optical paths of light converged by ones of the first lens bodies adjacent to each other.

Image reading device comprising a lens array including first lens bodies and second lens bodies, a light receiver and light blocking plates that are between the light receiver and second lens bodies, the thickness of the light blocking plates equal to or greater than the second lens bodies thickness

Provided is a device housing made of materials containing at least an electrically conductive material, an image reading device, and an electrostatic capacitance detection device that can achieve electrical connection with a relatively small space while preventing deformation of the device housing. The device housing includes a housing made of materials containing at least an electrically conductive material and including an electrically conductive surface in at least part of the surface of the housing, a ground conductor being present on a plane different from the plane including the electrically conductive surface, and a ground auxiliary conductor disposed over a level difference existing between the plane including the electrically conductive surface and the plane including the ground conductor. The ground auxiliary conductor is an electrically conductive sheet to connect the electrically conductive surface to the ground conductor electrically.

Device housing, image reading device, and electrostatic capacitance detection device including a ground auxiliary conductor disposed over a level difference existing between a plane including an electrically conductive surface and a plane including a ground conductor

An optical member includes a lens array including lens bodies, and transmissive members. The transmissive members are made of a material having a uniform refractive index, and are disposed at positions nearer an object to be read or at positions farther from the object to be read than the corresponding lens bodies are disposed. The transmissive members have a columnar shape extending along the optical axes of the lens bodies, and allow light incident through one end faces to exit through the other end faces. The optical axes of the lens bodies are deviated from the central axes of the transmissive members corresponding to the respective lens bodies at least in the sub-scanning direction, and an end face of the transmissive member to which an end face of each lens body is opposed is thereby an end face of the corresponding transmissive member.

Optical member and image reading device

An optical member includes a lens array including lens bodies, and transmissive members. The transmissive members are made of a material having a uniform refractive index, and are disposed at positions nearer an object-to-be-read than the corresponding lens bodies are disposed or at positions farther from the object-to-be-read than the corresponding lens bodies are disposed. The transmissive members have a columnar shape extending along the optical axes of the lens bodies, and allow light incident through one end faces to exit through the other end faces. At least either ones of the lens bodies or the transmissive members are arranged with distances therebetween larger than errors in the arrangement of the lens bodies and the transmissive members.

Capacitive sensor

An image sensor unit includes: a visible light cut filter that is arranged between a first light source and a first light guide and blocks light including visible light having wavelengths longer than those of ultraviolet light; a lens body that condenses light generated on a reading target by light radiated from the first light guide and light radiated from a second light guide; a line sensor that receives the light condensed by the lens body; and an ultraviolet light cut filter arranged between the lens body and the line sensor and blocks ultraviolet light.

Image sensor unit

A capacitance detection device includes a first electrode () and a second electrode () at least partially facing each other with a conveyance path () therebetween, the conveyance path extending along a conveyance direction in which a sheet-like detection object () is conveyed, an oscillating circuit to form an electric field () between the first electrode () and the second electrode (), a detection circuit to detect a change in capacitance between the first electrode () and the second electrode (), a first board () and a second board () including at least one of the oscillating circuit or the detection circuit, an insulative first plate () arranged between the first electrode () and the conveyance path (), and an insulative second plate () arranged between the second electrode () and the conveyance path ().

Image reading device

An illumination device and an image reading device are characterized by including: a rod-shaped light guide extending in a longitudinal direction and configured to guide light entering from an exterior and emit the light as linear light from a lateral surface; a light guide holding portion having a hole into which an end surface of the light guide is inserted; a supporter supporting the light guide holding portion slidably along the longitudinal direction; and a housing supporting or housing the light guide, the light guide holding portion and the supporter, at least the supporter being fixed to the housing, a direction of sliding of the light guide holding portion being restricted to the longitudinal direction by a supporter-side concave-convex portion that is a supporter-side groove portion or a supporter-side protruding portion at least one of which is formed on the supporter along the longitudinal direction.

Illumination device and image reading device

In one embodiment, a charged particle beam writing method is for writing a pattern in a writing area on a substrate by irradiating a charged particle beam onto the substrate while moving the substrate to write stripes sequentially, each of the stripes having a width W and shapes obtained by dividing the writing area by the width W. The method includes performing S times (S is an integer greater than or equal to two) strokes, each of the strokes which is a process writing the stripes in a multiplicity of 2n (n is an integer greater than or equal to one) while shifting a reference point of each of the stripes in the width direction by a preset stripe shift amount and changing a moving direction of the substrate for each of the stripes, and writing while the reference point of the stripes in the each of the strokes in the width direction of the stripes is shifted by a preset stroke shift amount in each of the strokes.

Charged particle beam writing method and charged particle beam writing apparatus

A lighting device includes a rod-shaped light guide, a light guide holder, and an opening optically communicating with the hole. The opening is formed in a first flat surface opposite to a surface into which an end surface of the light guide is inserted. The device also includes a housing, a light source base plate, and a base plate protection layer being formed on a region of the light source base plate other than at least a region on which a light source element is formed. At least one of the light source base plate and the second flat surface of the base plate protection layer is pressed against the housing or the first flat surface at a position at which light emitted by the light source element enters the end surface of the light guide exposed from the opening.

Lighting device and image reading device

Even in a case in which a comb-teeth shape is provided at an end portion of a cover covering an opening in a magnetic shield case that accommodates a magnetic sensor, the present disclosure obtains a magnetic sensor device and a housing therefor capable of maintaining the strength of a comb-teeth portion. The magnetic sensor device and the housing therefor include: a comb-teeth portion in which protrusions are formed in the shape of comb teeth along an intersecting direction intersecting a conveying direction, the comb-teeth portion being formed at an end portion of a cover with respect to the conveying direction, the cover covering an opening in a magnetic shield case that accommodates a magnetic sensor; and support members formed on a lateral face of the magnetic shield case, the support members supporting the protrusions on the side opposite to the conveying path.

Housing and magnetic sensor device

Sheet identification sensor

A magnetic sensor device includes a magnet to form a magnetic field in a conveyance path of a detection target, a magnetoresistance effect element to output a change in the magnetic field as a change in a resistance value, a casing to enclose or hold the magnet and the magnetoresistance effect element, a cover to cover the magnetoresistance effect element and form a conveyance path surface that is a surface along the conveyance path, and a signal amplification board having a signal amplification IC disposed on an intersection surface that intersects the conveyance path surface. The signal amplification IC amplifies the change in the resistance value that is output by the magnetoresistance effect element. The change in the resistance value depends on the change in the magnetic field caused due to conveyance of the detection target on the conveyance path surface.

Magnetic sensor device

Growing community of inventors

Yokohama, Japan

Hideki Matsui