Honda Motor Co., Ltd.

Stanley Electric Co., Ltd

The University of Tokyo

Mitsuba Corporation

Kanagawa Academy of Science and Technology

Kanagawa Institute of Industrial Science and Technology

Ryuichi Nakano

Naoki Muramatsu

Masayoshi Takori

Go Shimizu

Masahiko Shimada

Naoto Inoue

Takeo Mizukoshi

Taizo Kikuchi

Manabu Shimada

Hirohide Suda

Yoshinobu Kubota

Kazuhito Hashimoto

Hidetaka Okada

Yasushi Yoshida

Masahiro Miyauchi

Takashi Kanazawa

Yoshitaka Urano

Yoshitaka Sekine

Hidetoshi Ijuin

Takuya Yamamoto

Takeshi Onodera

Kayano Sunada

Xiaoqing Qiu

Yanyan Yao

Jitsuo Kajioka

Hitoshi Ishiguro

Taku Kuraishi

A headlamp is configured to emit a low beam toward a forward direction of a vehicle. The headlamp is switchable between a first low beam distribution state and a second low beam distribution state. The headlamp is configured to, in the first low beam distribution state, illuminate a low area straight ahead of the vehicle, and in the second low beam distribution state, illuminate at least one of: a width-direction intermediate portion of the low area, one width-direction end portion of the low area, and the other width-direction end portion of the low area, even brighter than the first low beam distribution state.

Headlamp and headlamp control system

A vehicular light switch can change the mode of an exterior-illuminating light by rotating to different positions including an auto setting and a SMALL setting. If the position of the vehicular light switch is rotated to the SMALL setting, a momentary mechanism returns the position to the auto setting. If extravehicular brightness is less than a prescribed value and the position is rotated to the SMALL setting whilst the vehicle is stationary, a first light controller turns off a low-beam light, and turns on the low-beam light if the vehicle runs afterwards. If extravehicular brightness is less than a prescribed value and the position is rotated to the SMALL setting while the vehicle is running, a second light controller keeps the low-beam light turned on.

Vehicular light switch and vehicular light system

A headlamp control system includes: a headlamp that emits light toward a forward direction of a vehicle; a tilt detection part; and a control part. The headlamp includes: high beam emitting parts that respectively illuminate plural high beam areas arrayed in a left-right direction; and a low beam emitting part that illuminates a low beam area located at a lower position than the plural high beam areas. The control part, in a state where the low beam emitting part is on, when the tilt detection part detects that the vehicle has tilted such that one of left and right sides of the vehicle is lowered than the other one of the left and right sides, controls the high beam emitting parts so as to illuminate at least one of the plural high beam areas, the at least one being on the one of the left and right sides.

Headlamp control system

To suitably irradiate with a high beam according to a situation in front of the own vehicle. A vehicle headlight system installed in an own vehicle provided with an automatic brake controller which automatically activates a brake system depending on a situation, including: a lamp unit which irradiates at least with a low beam and a high beam; and a controller which is connected to the automatic brake controller and the lamp unit and is configured to control the operation of the lamp unit; where, when the lamp unit is not performing irradiation of the high beam, the controller is configured to control the lamp unit to irradiate with the high beam in the situation in which state of the automatic brake controller transitions from a standby state to a state which activates the brake system to a hard braking or to a preparation state thereof.

Vehicle headlight system, control method of vehicle headlight system

To promptly detect a failure of a light source. A vehicle headlight system includes a plurality of light sources, a power supply supplying a drive voltage to the light sources, a controller individually controlling a lit/off state of each light source, and a failure detection circuit connected to the controller and detects a failure of the light sources, where, in response to a start of the vehicle, the controller executes a control operation in which all light sources are controlled from the off state to the lit state and then the light sources are controlled to the off state sequentially and individually, and where, while the control operation is executed, at least during the period of transition from the off state to the lit state of each light source, the controller acquires failure detection result and generates a warning signal when the failure is detected.

Vehicle headlight system

To provide a vehicle headlight whose irradiation light is capable of ensuring sufficient illuminance to the immediate front side of the vehicle. A vehicle headlight irradiating light to the front of a vehicle including a first unit which generates light in order to form a first low beam, a second unit which generates light in order to form a high beam and a second low beam, where a portion of the high beam on the lower end side overlaps a portion of the first low beam on the upper side, and the other portion is formed above the first low beam without overlapping the first low beam, and where a portion of the second low beam on the upper side overlaps a portion of the first low beam on the lower side, and the other portion is formed below the first low beam without overlapping the first low beam.

Vehicle headlight

To achieve both reduction of a sense of discomfort to a driver due to a reflective object and improvement in visibility of a pedestrian or the like. A control apparatus for controlling light irradiated by a headlight of a vehicle, where the control apparatus causes the headlight to forma first irradiation light and a second irradiation light that overlaps a certain range on the lower end side in the vertical direction of the first irradiation light and overlaps the entire range in the width direction of the first irradiation light, and causes to dim at least a part of the entire range of the first irradiation light corresponding to the position of a reflective object when the reflective object fixed on the road ahead of the vehicle is present.

Control apparatus for vehicle headlight, control method for vehicle headlight, vehicle headlight system

An agent for virus inactivation capable of exhibiting inactivation action based on structural destruction such as degradation and decomposition against viruses, which comprises a monovalent copper compound such as cuprous oxide, cuprous sulfide, cuprous iodide, and cuprous chloride as an active ingredient, and a virus inactivation material, which contains the agent for virus inactivation on a surface of a substrate and/or inside of the substrate.

Method for inactivating a virus

A cost-reduced, downsized automatic opening/closing apparatus for vehicle is achieved by reducing the number of components thereof. A case of a driving unit is provided with a drum housing portion, and a driving drum is rotatably accommodated in the drum housing portion. An electric motor is attached to the case, and the driving drum is driven for rotation by the electric motor. A cable connected to a sliding door is wound around the driving drum. By rotation of the driving drum, the sliding door is opened and closed as being drawn by the cable. The case is provided with a substrate housing portion integrally with the drum housing portion, and a control substrate for controlling an operation of the electric motor is accommodated in the substrate housing portion.

Automatic opening/closing apparatus for vehicle

A capacitance sensor of the present invention is equipped with a sensor unit that comprises a pair of detection electrodes, which are connected to respective reference capacitors, are provided with being oppositely separated, and can contact each other; and an insulation member having flexibility by holding at least one detection electrode. And a capacitance type object detection method thereof is an object detection method for detecting an object's nearing: when the object nears, a non-contact sensor detects it with non contact according to a change of a capacitance; and when the object makes contact, a contact sensor, which deforms by the contact of the object, detects it with contact.

Integrated non-contact/contact capacitance sensor

A capacitive sensor includes: a first sensing electrode connected to a first reference capacitor in which is stored reference electric charge; a second sensing electrode connected to a second reference capacitor in which is stored reference electric charge; and a shield electrode to which is applied electric potential equal to that of the first sensing electrode and the second sensing electrode. The first sensing electrode positions adjacent to a detecting surface of the capacitive sensor, and the second sensing electrode positions opposite to the detecting surface in such a manner that the first and second sensing electrodes are spaced apart and facing to each other. The shield electrode is configured to partly expose the first and second sensing electrodes on the side of the detecting surface, and the shield electrode extends toward the detecting surface beyond the first sensing electrode.

Capacitive sensor

Growing community of inventors

Tokyo, Japan

Ryuichi Nakano