Ricoh Company, Ltd.

Tdk Corporation

Canon Kabushiki Kaisha

Other

Hoya Corporation

Koichi Tsunoda

Kenichi Yoshida

Kazuhiro Yoshikawa

Mitsuhiro Tomikawa

Motohisa Hirono

Hiroshi Takahashi

Kazuhiro Sando

Koichi Noguchi

Tadao Koike

Kazuyuki Ueda

Yoshihiro Yanagisawa

Nobuhiro Ito

Koji Yamazaki

Yasushi Tabata

Yoshio Suzuki

Shuji Aoki

Daiki Ishii

Yoichi Ikarashi

Akira Hayama

Kazuya Tsujino

Takashi Shiozawa

Junki Nakamoto

Satoshi Kanda

A first insulating layer, a conductor layer included on a first main surface, an electronic component included on the first main surface and a second insulating layer stacked on the first insulating layer are included, a stacking direction of the first insulating layer and the second insulating layer is the same as a stacking direction of a first electrode layer, a second electrode layer, and the dielectric layer in the electronic component, and a height position of a main surface of the electronic component on an opposite side from a side of the first main surface is different from a height position of a main surface of the conductor layer adjacent to the electronic component on an opposite side from a side of the first main surface in the stacking direction.

Electronic component-incorporating substrate

A thin-film capacitor includes an insulating base member, and a capacitance portion that is laminated on the insulating base member has a plurality of internal electrode layers which are laminated on the insulating base member and are provided in a lamination direction and dielectric layers which are sandwiched between the internal electrode layers. A relative dielectric constant of the dielectric layers is 100 or higher.

Thin-film capacitor and method for manufacturing thin-film capacitor

In a thin-film capacitor, an electrode terminal layer and an electrode layer of a capacitor portion are connected to electrode terminals by via conductors that is formed to penetrate an insulating layer in a thickness direction thereof, and a short circuit wiring in the thickness direction is realized by the via conductors. In the thin-film capacitor, an increase in the number of terminals in the plurality of electrode terminals is achieved, a decrease in length of a circuit wiring is achieved, and thus a thin-film capacitor with low-ESL has been achieved.

Thin-film capacitor

A thin-film capacitor satisfies a relationship of CTE&#x3e;CTE&#x3e;CTEregarding a linear expansion coefficient CTEof a base, a linear expansion coefficient CTEof a capacitance unit, and a linear expansion coefficient CTEof a barrier layer. The inventors have newly found that in a case in which such a relationship is satisfied, when a temperature falls from a deposition temperature, cracking occurring in the capacitance unit of the thin-film capacitor is prevented, and cracking occurring in the barrier layer is also prevented.

An electronic component embedded substrate includes: a substrate that includes an insulating layer and has a first principal surface and a second principal surface; an electronic component that is embedded in the substrate and has at least one first terminal, at least one second terminal, and a capacity part; at least one via conductor that are formed in the insulating layer and electrically connected to the second terminal; and an adhesion layer that is in contact with the second terminal on an end face of the second terminal which are close to the second principal surface. The electronic component is laminated with the insulating layer, and adhesion strength between the adhesion layer and the insulating layer is higher than that between the second terminal and the insulating layer.

Electronic component embedded substrate

An electronic component embedded substrate includes: a substrate that includes an insulating layer and has a first principal surface and a second principal surface on the opposite side of the first principal surface; and an electronic component that is embedded in the substrate and has a plurality of first terminals provided close to the first principal surface, a plurality of second terminals provided close to the second principal surface, and a capacity part provided between the plurality of first terminals and the plurality of second terminals. The electronic component is configured such that at least a part of the second terminals is embedded in the insulating layer. An insulating member is provided between the neighboring second terminals to be in contact with both of the neighboring second terminals. The insulating member and the insulating layer are formed of materials whose thermal expansion coefficients are different from each other.

Provided is an X-ray generating apparatus, which includes: an X-ray generating tube configured to emit X-rays through a first window; an outer case configured to contain the X-ray generating tube and provided with a second window transmitting the X-rays at a position facing the first window; an insulating fluid with which an unoccupied space of the outer case is filled; an insulating member located between the first window and the second window and provided with an opening in an irradiation area of the X-ray through the first window; and an insulating third window removably fit into the opening of the insulating member, wherein a linear expansion coefficient of the third window is greater than a linear expansion coefficient of the insulating member, and the third window and the first window face each other via a gap through which the insulating fluid is flowable.

X-ray generating apparatus and radiography system

In a thin-film capacitor, an electrode terminal layer is divided into a plurality of parts by a penetration portion, and includes a frame portion as one divided part. The frame portion is disposed along an outer edge of the electrode terminal layer when viewed from the bottom surface side of the electrode terminal layer, and the frame portion can hinder deformation of the electrode terminal layer stretching or warping in a thickness direction or an in-plane direction, whereby such deformation can be prevented. Accordingly, in the thin-film capacitor, the electrode terminal layer is not likely to be deformed and an improvement in strength thereof is achieved.

An X-ray generation tube includes: an anode including a target configured to generate X-rays under irradiation of electrons, and an anode member electrically connected to the target; a cathode including an electron emitting source configured to emit an electron beam in a direction towards the target, and a cathode member electrically connected to the electron emitting source; and an insulating tube extending between the anode member and the cathode member. The anode further includes an inner circumferential anode layer electrically connected to the anode member, the inner circumferential anode layer extending along an inner circumferential face of the insulating tube, and is remote from the cathode member.

X-ray generation tube, X-ray generation apparatus, and radiography system

In a radiation tube, a conductive member having an opening formed therein is disposed, and a dielectric is disposed in the conductive member. Thus, foreign matter that has entered the conductive member through the opening is trapped by the dielectric. As a result, discharge due to foreign matter can be reduced.

Radiation tube, radiation generating apparatus, and radiation imaging system

A radiation generating unit includes a radiation tube that has a vacuum chamber that has a cathode and anode at both ends of an insulating tubular member and is arranged inside a storage container filled with an insulating liquid in a state in which the radiation tube is arranged inside an insulating outer casing tube with a gap from a surrounding, wherein walls which partition the gap between the radiation tube and outer casing tube are provided while allowing a flow of the insulating liquid between the cathode side and anode side of the radiation tube and leaving in the gap a flow path which does not linearly continue to the cathode side and anode side.

Radiation generating unit and radiography system

An oral cavity insertion instrument which is to be attached to a monitor device having a long scope portion is provided. The oral cavity insertion instrument is adapted to be used by being inserted into an oral cavity and has a long cover member having a bore which extends in a longitudinal direction thereof, wherein the scope portion of the monitor is adapted to be inserted into the bore. The oral cavity insertion instrument also has a long tongue depressor in the form of a plate. The tongue depressor is provided adjacent to and in contact with the cover member along the longitudinal direction thereof. The oral cavity insertion instrument includes an attachment unit used to attach the cover member to the monitor device. The tongue depressor includes a tip end having a width greater than that of the cover member. A pharyngoscope apparatus provided with the oral cavity insertion instrument is also provided.

Oral cavity insertion instrument and pharyngoscope apparatus

A charged particle beam lens includes a first electrode including a surface having at least one aperture and a second electrode including a surface having at least one aperture. A support intervenes between the first electrode and the second electrode to electrically insulate the first and second electrodes from each other and to support the first and second electrodes in a predetermined positional relationship. A side surface of the support intervenes between the first electrode and the second electrode and includes a non-flat portion having at least one of a projected portion and a depressed portion, and includes a tapered portion. A taper angle formed by the tapered portion and the surface having the aperture of the second electrode is greater than zero degree and less than ninety degrees.

Charged particle beam lens having a particular support electrically insulating first and second electrodes from each other

A display apparatus comprises: a rear plate which has an electron-emitting device; a face plate which has an anode electrode and a potential defining electrode; and a plate spacer which is opposite to the anode electrode and the potential defining electrode, between the rear plate and the face plate. An insulative base member of the spacer has a recessed portion which opposes to the anode electrode, the potential defining electrode, and a portion of the face plate between the anode electrode and the potential defining electrode. Thus, electric discharges between the spacer and the anode electrode and between the spacer and the potential defining electrode can be suppressed.

Display apparatus

A discomfort index, S, is calculated with an equation, S=0.3135&#xd7;(Loudness value)+3.4824&#xd7;(Tonality value)&#x2212;3.1460. This equation uses a loudness value and a tonality value, both psychoacoustic parameters obtained from a sound from the image forming apparatus at a location 1.00 m&#xb1;0.03 m apart from an end of the image forming apparatus. A sound caused at the time of charging an image carrier is improved so that the discomfort index S satisfies S&#x3c;&#x2212;0.5.

Growing community of inventors

Tokyo, Japan

Koichi Tsunoda