Nissha Printing Co., Ltd.

Nissha Co., Ltd.

Inu Research & Business Foundation

Ryomei Omote

Takao Hashimoto

Junichi Shibata

Shuzo Okumura

Kazuhiro Nishikawa

Yoshihiro Sakata

Chuzo Taniguchi

Takeshi Nishimura

Yoshihiro Kai

Yuji Watazu

Yuki Matsui

Yuko Endo

Yoshiro Fujii

Shohei Morimoto

Toshifumi Kurosaki

Jun Sasaki

Yuichiro Takai

Keisuke Ozaki

Eiji Kakutani

Yoshiko Suetomi

Katsumi Tokuno

Sungtek Kahng

In Yeol Moon

Changhyeong Lee

Yejune Seo

Koji Okamoto

Eiji Kawashima

Kazuhiko Takahata

Takayuki Takagi

Tomohiro Yamaoka

Tatsuo Ishibashi

Yoshitaka Yamaoka

Hiromitsu Muko

Yosuke Matsukawa

Takakuni Sunahase

Gwang-gyun Namgung

Munsu Jeon

Toshihide Yamamoto

Ryoma Tanimoto

Hiroaki Matsumura

Juichi Murata

Yoshitaka Emoto

Hayato Nakaya

Yohei Matsuyama

An antenna device suppresses reflection of electromagnetic waves from a human body or other conductors, which causes the electromagnetic waves to be sufficiently emitted in a target direction. The antenna device includes an antenna pattern and a metasurface layer. The metasurface layer is a layer that is layered on the antenna pattern and disposed on the human body side. The metasurface layer includes a first low-loss film and a second low-loss film. A first metasurface is formed on the first low-loss film. A second metasurface is formed on the second low-loss firm.

Antenna device

To provide a sensor-equipped hood capable of detecting force applied to the hood without narrowing an operating field viewed through the hood. A sensor-equipped hood protrudes from a tip end portion of an endoscope main body, and is attached to the tip end portion. The sensor-equipped hood includes a transparent tubular hood main body and a fiber Bragg grating (FBG) sensor fixed to a first fixing point of the hood main body and having a Bragg grating. In the FBG sensor, the wavelength of reflected light at the Bragg grating changes based on fluctuation of the first fixing point in the hood main body.

Sensor-equipped hood and endoscope

A molded article or an electrical product facilitates layout of a wiring line from an electrical circuit of a circuit film integrally molded with a molded body to a connection terminal. The molded article includes a circuit film and a molded body. The circuit film includes an insulating film and an electrical circuit. The molded body is integrally molded with the circuit film. The circuit film includes a flexible wiring portion. The molded body has a through-hole that penetrates from a first main surface to a second main surface. In the flexible wiring portion, a connection terminal is arranged at a position of passing through the through-hole and beyond the second main surface.

Molded article, electrical product and method for producing molded article

An endoscopic hood and an endoscope to which the endoscopic hood is attached improve visibility for the user. The endoscopic hood includes a body formed of a transparent cylinder having two open ends and a conductive film embedded integrally in the body. The conductive film includes a transparent film and a transparent electrode pattern on the transparent film. The transparent electrode pattern includes a transparent electrode, a transparent wire portion extending from the transparent electrode, and a transparent terminal at an end of the transparent wire portion. The transparent terminal is exposed from the body. The endoscope includes an insertion portion insertable into a body of a subject, the endoscopic hood attached to a distal end of the insertion portion, and at least one wire having one end electrically connected to the transparent terminal and another end electrically connected to an external device.

Endoscopic hood and endoscope

A decrease in performance of an antenna is suppressed while maintaining metallic design by a metal vapor deposition layer in a cover with antenna function. A back cover includes cover member, a pictorial pattern layer, and a metasurface. The pictorial pattern layer is arranged in a layering direction with respect to the cover member and includes a metal vapor deposition layer. The metasurface is arranged side by side in the layering direction with the pictorial pattern layer. The metasurface amplifies an antenna signal.

Cover with antenna function

An illumination display panel that forms part of a housing and has a display portion for illuminated display comprises a resin panel having a first molded portion made of an opaque resin at a portion excluding the display portion, and a second molded portion disposed on the back surface side of the first molded portion and made of a light-transmitting resin having a protrusion where the first molded portion is not present. The protrusion is fitted to the first molded portion. A light source mounting substrate is disposed on the back surface side of the resin panel. At least a light source of the light source mounting substrate is sealed by the second molded portion. An integrally molded product of the light source mounting substrate and the second molded portion is filled and solidified at a low pressure while compressing a cavity of a molding mold.

Illumination display panel and method of manufacturing the same

A method for manufacturing an electrode film includes the steps of laminating a metal layer and a black photoresist layer sequentially on a first main surface of a transparent base material, subjecting the black photoresist layer to patterning in a mesh shape by partially exposing the black photoresist layer and performing development, processing the metal layer into a metal mesh electrode by subjecting the metal layer to etching by using the black photoresist layer subjected to the patterning as an etching mask until the metal layer has a width smaller than a width of a thin wire line constituting a mesh of the black photoresist layer, and covering an upper surface and both side surfaces of a thin wire line constituting a mesh of the metal mesh electrode with the black photoresist layer by heating and softening the black photoresist layer to cause the black photoresist layer softened to flow.

Electrode film and method for manufacturing same

First to third electrode layers () are laminated. A dielectric () disposed between the second and third electrode layers can be elastically deformed by pressing force from the first electrode layer-side to reduce distance between the second and third electrode layers. The first electrode layer is composed of first electrodes (Rxc) along a first direction (X). The second electrode layer is composed of second electrodes (Txcf) along a second direction (Y) intersecting the first direction. The third electrode layer is composed of third electrodes (Rxf) along a third direction (X) intersecting the second direction. During position-detection, the second electrodes (Txcf) function as transmission-side position-detection electrodes and the first electrodes function as reception-side position detection electrodes to constitute a mutual-capacitance touch panel unit (). During force-detection, the second electrodes function as transmission-side force-detection electrodes and the third electrodes function as reception-side force-detection electrodes to constitute a cross-point electrostatic-capacitance touch panel unit ().

Multifunction touch panel

[Object] To provide a method for manufacturing a touch sensor capable of concurrently forming routed circuit patterns on both surfaces of a base film and capable of aligning the routed circuit patterns on the top and bottom surfaces with each other with high accuracy. [Solution] A method for manufacturing a touch sensor includes forming electrode patterns on both surfaces of a base film through concurrent light exposure on both surfaces and development using photosensitive electrically conductive films each including a support film, an electrically conductive layer disposed on the support film and containing an electrically conductive fiber, and a second photosensitive resin layer disposed on the electrically conductive layer. Routed circuit patterns obtained by patterning the light-shielding metal layers are formed in advance on both surfaces of the base film.

Method for manufacturing touch sensor

A touch sensor with a circularly polarizing plate includes an electrostatic capacitance type touch sensor. A circularly polarizing plate is arranged on a visible side of the electrostatic capacitance type touch sensor. The sensor includes a transparent substrate and a plurality of first electrodes individually formed in a strip shape on the transparent substrate. The sensor additionally includes a plurality of second electrodes formed on a surface of the transparent substrate opposite to a surface on which the first electrodes are formed. The second electrodes have a strip shape in a manner of intersecting with the first electrodes. The first electrodes are made of a metal mesh. The second electrodes are made of a plurality of conductive nanowires, existing in a connecting state respectively so as to be conductively connected, and a binder resin holding the plurality of conductive nanowires on the second transparent substrate.

Touch sensor provided with a circularly polarizing plate, and image display device

A method for producing a touch input sensor includes stacking an intermediate resin layer () containing a photosensitive resin and an ultraviolet absorber and a transparent conductive film () on both surfaces of a transparent substrate () in that order, performing a pattern exposure with ultraviolet rays (L) applied to both surface sides, and performing developing to form a transparent electrode formed of the transparent conductive film () on both surfaces of the transparent substrate ().

Method for producing touch input sensor and photosensitve conductive film

A piezoelectric sensor in which position detection and load detection can be achieved. The piezoelectric sensor includes a piezoelectric layer interposed between the upper electrode and the lower electrode. In the piezoelectric sensor, at least one of the upper electrode and the lower electrode includes a plurality of electrodes patterns.

Piezoelectric sensor and pressure detection apparatus

An input device of the present invention is configured in the following manner: an input part includes electrode parts, which are contactable arranged with facing each other and one of which is to be an operation object, and a pressure-sensitive layer disposed between the electrode parts facing each other; a charge/discharge waveform forming part includes a charge/discharge circuit having a constant current source, a switching element, a capacitor and a resistor, and forms a charge/discharge waveform with a capacitance detection part and a resistance detection part connected; a charge/discharge waveform calculating part detects the change of a capacitance and of a pressure in the input part based on the charge/discharge waveform formed by the charge/discharge waveform forming part, and calculates an operation state, an operation position and an operation pressure.

Input device using detection of both capacitance and pressure, and capacitance-system hybrid touch panel equipped with pressure-sensitive function

A piezoelectric sensor that can perform position detection and load detection. The touch panel having press detection function can detect the pressing load inputted to the pressing surface. An upper electrode, an upper insert member, an intermediate electrode, a lower insert member, and a lower electrode are arranged away from the pressing surface in this order. Among the upper electrode, the intermediate electrode, and the lower electrode, capacitance detection electrodes Cx, Cy for detecting the pressing position, and detection electrodes S for measuring the electric charge according to the pressure when the operation is inputted to the touch panelhaving press detection function are included. One of the upper insert member and the lower insert member is composed of an insulating body, and the other is composed of a piezoelectric body.

Touch panel having press detection function

A flexible touch panel comprises a base material sheet; a first axis detection electrode, which is provided on the base material sheet and is patterned concerning a first axis; an insulative layer, which is provided on the first axis detection electrode; a second axis detection electrode, which is provided on the insulative layer and is patterned concerning a second axis that is perpendicular to the first axis; a first routing circuit, which electrically connects the first axis detection electrode to an external part; and a second routing circuit, which electrically connects the second axis detection electrode to an external part.

Flexible touch panel

Growing community of inventors

Kyoto, Japan

Ryomei Omote