Abstract: A rear combination lamp is configured to include a door-side lamp portion, which has a first LED, a first housing, and a first lens, and a fender-side lamp portion, which has a second LED, a second housing, and a second lens. The door-side lamp portion and the fender-side lamp portion are disposed adjacent to one another in the vehicle width direction. Moreover, a second lamp-side reflector that reflects toward the second lens the light emitted from the second LED is disposed between the second housing and the second lens. Part of the second lamp-side reflector is configured as an interstitial reflecting portion that reflects the light emitted from the second LED between the first lens and the second lens.

Abstract: An automotive lamp includes: a first lamp unit that has a first projection lens whose vertical length is longer than the horizontal length thereof when viewed from the front of the lamp and that is used for forming a low beam light distribution pattern; and a second lamp unit that has a second projection lens whose horizontal length is longer than the vertical length thereof when viewed from the front of the lamp and that is used for forming a low beam light distribution pattern. The first lamp unit and the second lamp unit are arranged such that one end of the first projection lens and one end of the second projection lens are adjacent to each other.

Abstract: An automotive lamp according to one embodiment of the present invention includes: a first lamp unit that has a first projection lens; a second lamp unit that has a second projection lens; and an inter-lens region illumination lens that is arranged such that the inter-lens region illumination lens covers a region between the first projection lens and the second projection lens when viewed from the front of the lamp and such that the inter-lens region illumination lens radiates, toward the front of the lamp, light that is emitted from at least one of the first projection lens and the second projection lens and that enters the inter-lens region illumination lens.

Abstract: An automotive lamp according to one embodiment includes: a first lamp unit that has a first projection lens; a second lamp unit that has a second projection lens and that lines up with the first lamp unit in a substantially horizontal direction and is arranged such that the second projection lens is located further to the back of the lamp than the first projection lens; and a reflex reflector that is provided in a region between the first projection lens and the second projection lens on a side surface of the first lamp unit on the side of the second lamp unit and that reflects light that enters from the outside of the lamp.

Abstract: A rear combination lamp is structured to include: a door side lamp portion having a first LED, a first housing and a first lens; and a fender side lamp portion having a second LED, a second housing and a second lens. Further, a first lamp side leg portion is provided at the first lens. Moreover, a second lamp side leg portion that extends along the first lamp side leg portion, and an extending portion that extends toward the door side lamp portion side from a second housing side end portion of the second lamp side leg portion, are provided at the second lens. A distal end of this extending portion is disposed further toward the door side lamp portion side than the first lamp side leg portion, and the distal end of the extending portion is fixed to the second housing.

Abstract: An automotive lamp according to one embodiment includes: a first lamp unit that has a first projection lens; a second lamp unit that has a second projection lens and that lines up with the first lamp unit in a substantially horizontal direction and is arranged such that the second projection lens is located further to the back of the lamp than the first projection lens; and a reflex reflector that is provided in a region between the first projection lens and the second projection lens on a side surface of the first lamp unit on the side of the second lamp unit and that reflects light that enters from the outside of the lamp.

Abstract: An automotive lamp according to one embodiment of the present invention includes: a first lamp unit that has a first projection lens; a second lamp unit that has a second projection lens; and an inter-lens region illumination lens that is arranged such that the inter-lens region illumination lens covers a region between the first projection lens and the second projection lens when viewed from the front of the lamp and such that the inter-lens region illumination lens radiates, toward the front of the lamp, light that is emitted from at least one of the first projection lens and the second projection lens and that enters the inter-lens region illumination lens.

Abstract: A vehicular lamp includes a plurality of light sources (7); a first lens (8) with an incident surface (11) upon which light emitted from the light sources (7) is incident and an emission surface (12) from which an incident light from the incident surface (11) is emitted; and a second lens (9) with a light incident surface (15) upon which the light emitted from the emission surface (12) of the first lens (8) is incident and a light emission surface (16) from which an incident light from the light incident surface (15) is emitted. A reflective portion (13) that internally reflects the incident light from the incident surface (11) toward the emission surface (12) is formed on the first lens (8), and a diffusion processing portion (15a) that diffuses light is formed on the light incident surface (15) of the second lens (9).

Abstract: An automotive lamp includes: a first lamp unit that has a first projection lens whose vertical length is longer than the horizontal length thereof when viewed from the front of the lamp and that is used for forming a low beam light distribution pattern; and a second lamp unit that has a second projection lens whose horizontal length is longer than the vertical length thereof when viewed from the front of the lamp and that is used for forming a low beam light distribution pattern. The first lamp unit and the second lamp unit are arranged such that one end of the first projection lens and one end of the second projection lens are adjacent to each other.

Abstract: It is provided a vehicle rear lamp structure that can effectively utilize light that is illuminated from a light source. A door side lamp portion of a rear combination lamp has a housing that supports an incandescent bulb for a back lamp, and a lens that covers the incandescent bulb for the back lamp by being fixed to the housing, and transmits light illuminated from the incandescent bulb for the back lamp. Further, a garnish is mounted to the door side lamp portion. A surface at the lens side of the garnish reflects light, that is illuminated from the incandescent bulb for the back lamp, toward a vehicle rear side. Due thereto, light illuminated from the incandescent bulb for the back lamp can be utilized effectively.

Abstract: A rear combination lamp is structured to include: a door side lamp portion having a first LED, a first housing and a first lens; and a fender side lamp portion having a second LED, a second housing and a second lens. Further, a first lamp side leg portion is provided at the first lens. Moreover, a second lamp side leg portion that extends along the first lamp side leg portion, and an extending portion that extends toward the door side lamp portion side from a second housing side end portion of the second lamp side leg portion, are provided at the second lens. A distal end of this extending portion is disposed further toward the door side lamp portion side than the first lamp side leg portion, and the distal end of the extending portion is fixed to the second housing.

Abstract: A rear combination lamp is configured to include a door-side lamp portion, which has a first LED, a first housing, and a first lens, and a fender-side lamp portion, which has a second LED, a second housing, and a second lens. The door-side lamp portion and the fender-side lamp portion are disposed adjacent to one another in the vehicle width direction. Moreover, a second lamp-side reflector that reflects toward the second lens the light emitted from the second LED is disposed between the second housing and the second lens. Part of the second lamp-side reflector is configured as an interstitial reflecting portion that reflects the light emitted from the second LED between the first lens and the second lens.

Abstract: It is provided a vehicle rear lamp structure that can effectively utilize light that is illuminated from a light source. A door side lamp portion of a rear combination lamp has a housing that supports an incandescent bulb for a back lamp, and a lens that covers the incandescent bulb for the back lamp by being fixed to the housing, and transmits light illuminated from the incandescent bulb for the back lamp. Further, a garnish is mounted to the door side lamp portion. A surface at the lens side of the garnish reflects light, that is illuminated from the incandescent bulb for the back lamp, toward a vehicle rear side. Due thereto, light illuminated from the incandescent bulb for the back lamp can be utilized effectively.

Abstract: An environmental air is sucked by the pump with control unit, and organic solvent contained in the environmental air is collected by the absorbent. Organic solvent having passed through the absorbent is detected by the semiconductor gas sensor. If passage of a material to be measured is detected by the semiconductor gas sensor, operation of the pump with control unit is stopped, and the operation for collecting the material is terminated. Then the absorbent is taken out from the collecting tube, the material collected is quantified by means of gas chromatography, and the density is measured. With this configuration, measurement of a density of a material to be measured in a working environment can be executed accurately.

Abstract: An environmental air is sucked by the pump with control unit, and organic solvent contained in the environmental air is collected by the absorbent. Organic solvent having passed through the absorbent is detected by the semiconductor gas sensor. If passage of a material to be measured is detected by the semiconductor gas sensor, operation of the pump with control unit is stopped, and the operation for collecting the material is terminated. Then the absorbent is taken out from the collecting tube, the material collected is quantified by means of gas chromatography, and the density is measured. With this configuration, measurement of a density of a material to be measured in a working environment can be executed accurately.

Abstract: An ozone decomposing material comprises an ozone decomposing agent and a support material for supporting thereon the ozone decomposing agent by adsorption, and an ozone decomposing apparatus comprises the above ozone decomposing material and an ozone decomposing agent supply means for supplying the ozone decomposing agent to the support material, by which the ozone decomposing agent is adsorbed.