Abstract: An illumination device is provided with: a planar first electrode; a planar second electrode arranged to face the first electrode; a light emitting layer which is disposed between the first electrode and the second electrode and emits light in accordance with a current flowing between the first electrode and the second electrode; a first sensor that is electrically connected to the first electrode and detects an electrostatic capacitance of the first electrode; and a second sensor that is electrically connected to the second electrode and detects an electrostatic capacitance of the second electrode.

Abstract: A light emitting apparatus includes: a sealing member (20) forming a sealing region sealing a planar light emitting unit; and a wiring member (51) including a conductive unit (61) electrically connected to the planar light emitting unit and extending from the sealing region to an outside. The sealing member (20) has a drawing port opened at a periphery of the sealing member for drawing the wiring member (51) to the outside. The wiring member (51) includes: an internal wiring portion (71) in which the conductive unit (61) is disposed in the sealing region; an external wiring portion (72) in which the conductive unit (61) is disposed in the outside; and a boundary wiring portion (73) in which the conductive unit (61) is disposed in the drawing port and which has a smaller thickness than the internal wiring portion (71) and/or the external wiring portion (72).

Abstract: An illumination device is provided with: a planar first electrode; a planar second electrode arranged to face the first electrode; a light emitting layer which is disposed between the first electrode and the second electrode and emits light in accordance with a current flowing between the first electrode and the second electrode; a first sensor that is electrically connected to the first electrode and detects an electrostatic capacitance of the first electrode; and a second sensor that is electrically connected to the second electrode and detects an electrostatic capacitance of the second electrode.

Abstract: A light emitting apparatus includes: a sealing member (20) forming a sealing region sealing a planar light emitting unit; and a wiring member (51) including a conductive unit (61) electrically connected to the planar light emitting unit and extending from the sealing region to an outside. The sealing member (20) has a drawing port opened at a periphery of the sealing member for drawing the wiring member (51) to the outside. The wiring member (51) includes: an internal wiring portion (71) in which the conductive unit (61) is disposed in the sealing region; an external wiring portion (72) in which the conductive unit (61) is disposed in the outside; and a boundary wiring portion (73) in which the conductive unit (61) is disposed in the drawing port and which has a smaller thickness than the internal wiring portion (71) and/or the external wiring portion (72).

Abstract: A light-emitting device includes a surface-light-emitting unit, a substrate, a holding sheet, and a sealing sheet. The surface-light-emitting unit has a light-emitting surface and a non-light-emitting surface, and emits light from the light-emitting surface. The substrate has a mounting surface and a non-mounting surface provided to be flush with the light-emitting surface, and has a power source mounted on the mounting surface. The holding sheet is provided to face the non-mounting surface and the light-emitting surface provided to be flush with the non-mounting surface. The sealing sheet is disposed on the side opposite to the holding sheet with respect to the surface-light-emitting unit and the substrate, and provided to cover the surface-light-emitting unit and the power source. The light-emitting device is disposed so that the holding sheet comes to the installation surface side. With such a structure, the light-emitting device that can be stably disposed on the installation surface is provided.

Abstract: A light-emitting device includes a surface-light-emitting unit, a substrate, a holding sheet, and a sealing sheet. The surface-light-emitting unit has a light-emitting surface and a non-light-emitting surface, and emits light from the light-emitting surface. The substrate has a mounting surface and a non-mounting surface provided to be flush with the light-emitting surface, and has a power source mounted on the mounting surface. The holding sheet is provided to face the non-mounting surface and the light-emitting surface provided to be flush with the non-mounting surface. The sealing sheet is disposed on the side opposite to the holding sheet with respect to the surface-light-emitting unit and the substrate, and provided to cover the surface-light-emitting unit and the power source. The light-emitting device is disposed so that the holding sheet comes to the installation surface side. With such a structure, the light-emitting device that can be stably disposed on the installation surface is provided.

Abstract: In an illumination device, a surface light emission module includes a panel power input unit connected to a base power input unit and a panel power output unit connected to a base power output unit for supplying power to a surface light emission panel. A connection panel, by being installed in an unselected scheduled light emission region, directly connects the base power input unit to the base power output unit.

Abstract: In an illumination device, a surface light emission module includes a panel power input unit connected to a base power input unit and a panel power output unit connected to a base power output unit for supplying power to a surface light emission panel. A connection panel, by being installed in an unselected scheduled light emission region, directly connects the base power input unit to the base power output unit.

Abstract: A light emitting module includes a light emitting unit including a planar light-emitting element, and a power supply that is connected in series to the light emitting unit and supplies constant current to the light emitting unit. The power supply includes two or more constant-current power supplies, and the two or more constant-current power supplies are connected in parallel.

Abstract: An illumination device includes: a sheet-shaped, flexible illumination panel including on its surface a light emitting face being configured to emit light when supplied with electrical power; a main body including a mounting face whereon the illumination panel is to be mounted; and an installation cover to be installed on the main body and including a pressing region pressing the light emitting face of the illumination panel against the mounting face of the main body. With the illumination device, it is possible to achieve desired light distribution characteristics of the sheet-shaped illumination panel.

Abstract: A disclosed vehicle running control apparatus is capable of reliably detecting the operation of the brake pedal by the driver. The vehicle running control apparatus is installed in a vehicle and is capable of performing vehicle control so that the vehicle runs at a prescribed speed and controlling a brake booster during a deceleration process to generate a master cylinder pressure so that the vehicle runs at a prescribed decelerated speed. The vehicle running control apparatus includes a switching unit that is installed in the brake booster and is turned ON when a brake pedal of the vehicle is pressed; a detecting unit detecting the master cylinder pressure; and a control stopping unit stopping the vehicle control when the switching unit is turned OFF and the master cylinder pressure detected by the detecting unit is greater than a prescribed threshold value.

Abstract: A camera is provided with: a detector for detecting a shake amount of the apparatus with respect to an object at an interval; a calculator for calculating a shake speed and a shake acceleration rate based on detected shake amounts, and calculates an estimative shake amount based on a calculated shake speed, a calculated shake acceleration rate, and a coefficient k (0<k<1) on an assumption that a shake is uniformly accelerated motion, the coefficient k being a multiplier for the calculated shake acceleration rate; and a corrector for executing a shake correction in accordance with a calculated estimative shake amount.

Abstract: A vehicle headlamp includes a lamp body having a hollow portion opening forward, a support member supported tiltably in the lamp body, and a plurality of reflectors supported side by side in one of the vertical and lateral directions by the support member. Each reflector is made to support a corresponding light source and least one of the reflectors is pivotably supported by the support member in the horizontal direction. In one embodiment, a lower reflector is pivotable in the horizontal direction and a low beam is formed by an upper reflector and the light source supported by the upper reflector. In this embodiment, the upper reflector does not have any portion that does not affect luminous distribution.

Abstract: A camera is provided with: a detector for detecting a shake amount of the apparatus with respect to an object at an interval; a calculator for calculating a shake speed and a shake acceleration rate based on detected shake amounts, and calculates an estimative shake amount based on a calculated shake speed, a calculated shake acceleration rate, and a coefficient k (0<k<1) on an assumption that a shake is uniformly accelerated motion, the coefficient k being a multiplier for the calculated shake acceleration rate; and a corrector for executing a shake correction in accordance with a calculated estimative shake amount.

Abstract: A headlamp for a vehicle is disclosed that includes a reflector for supporting a discharge bulb in a lamp chamber formed by a lamp body and a front lens, and a lighting circuit unit for lighting the discharge bulb attached to an outer surface of a lower wall of the lamp body. The headlamp includes a unit cover attached to the outer surface of the lower wall covering the lighting circuit unit and an upright wall formed on the lamp body in front of the unit cover. The upright wall projects downwardly to a position lower than a surface of a front end portion of the unit cover.

Abstract: A vehicle headlamp includes a lamp body having a hollow portion opening forward, a support member supported tiltably in the lamp body, and a plurality of reflectors supported side by side in one of the vertical and lateral directions by the support member. Each reflector is made to support a corresponding light source and least one of the reflectors is pivotably supported by the support member in the horizontal direction. In one embodiment, a lower reflector is pivotable in the horizontal direction and a low beam is formed by an upper reflector and the light source supported by the upper reflector. In this embodiment, the upper reflector does not have any portion that does not affect luminous distribution.

Abstract: A vehicle lamp is provided with a feeder device for simplifying the labor of disposing feeder cords while improving accuracy. The vehicle lamp has a movable reflector tiltably supported by a lamp body via an aiming mechanism. A back cover is detachably fitted in an opening formed in the rear of the lamp body. The back cover includes a terminal for conducting the terminal of a feeder cord connected to a light source provided in the lamp body, and the terminal of a power supply cord connected to a power supply for supplying power to the light source.

Abstract: A brake force control apparatus performs brake assist control (BA control) to increase brake fluid pressure in order to generate a greater brake force than that generated during normal operation when it has been determined that emergency braking has been performed by a driver. The brake force control apparatus prohibits BA control with respect to the rear wheels and supplies a large brake fluid pressure only to the front wheels when conditions for performing BA control have been established (step 100) and an absolute value of a lateral acceleration Gy exceeds a predetermined value K (step 102). As a result, a reduction of cornering force of the rear wheels attendant upon performance of BA control is itself reduced and a tendency to oversteer is thereby suppressed.

Abstract: A vehicle lamp comprising a reflector, a discharge bulb, a connector, and a electrically-conductive cover. The reflector includes an electrically-conductive film on a surface of the reflector and a contact terminal portion electrically connected to the electrically-conductive film. The discharge bulb is supported in the reflector. The connector is detachably connected to the discharge bulb, and the electrically-conductive cover covers the connector. In the vehicle lamp, the electrically-conductive cover is in contact with the contact terminal portion of the reflector when the connector is connected to the discharge bulb.

Abstract: An electrical connector for an automotive headlamp includes a connector housing formed from an insulating material and electrical terminals which are electrically conductive and inserted into the respective sleeves of the connector housing. Respective planar connecting portions of the electrical terminals are disposed in the same plane and are disposed to as to about a plane in which corresponding external terminals provided in the lamp are disposed. Thus, the length of the connector housing in the direction perpendicular to the plane of the planar connecting portions can be reduced, thereby reducing the width of the electrical connector. As a result, the overall height of the headlamp can be reduced.