Abstract: A light guide is provided having an elongate body extending in a longitudinal direction having a light transmission portion with a forward light exit surface and a reflective track extending opposite the light exit surface. A plurality of reflective elements are formed along the reflective track and spaced apart in the longitudinal direction. Each reflective element has a center segment and a pair of edge segments each oriented at a spread angle from the center segment toward the light transmission portion, thereby increasing a spread of light output in a horizontal direction from the light transmission portion.

Abstract: A light guide is provided having an elongate body extending in a longitudinal direction having a light transmission portion with a forward light exit surface and a reflective track extending opposite the light exit surface. A plurality of reflective elements are formed along the reflective track and spaced apart in the longitudinal direction. Each reflective element has a center segment and a pair of edge segments each oriented at a spread angle from the center segment toward the light transmission portion, thereby increasing a spread of light output in a horizontal direction from the light transmission portion.

Abstract: A light guide is provided having an elongate body extending in a longitudinal direction having a light transmission portion with a forward light exit surface and a reflective track extending opposite the light exit surface. A plurality of reflective elements are formed along the reflective track and spaced apart in the longitudinal direction. Each reflective element has a center segment and a pair of edge segments each oriented at a spread angle from the center segment toward the light transmission portion, thereby increasing a spread of light output in a horizontal direction from the light transmission portion.

Abstract: A vehicle lamp assembly is provided with at least one light source having an optical axis. A lens body a first body segment having a light-collection surface positioned adjacent the light source and from the light-collecting face to a first total-internal-reflection (TIR) surface. A middle body segment extends from the first TIR surface to a second TIR surface. A second body segment extends from the second TIR surface to a light emission surface defining an output optical axis. Light propagates in each of the first, middle and second segments in a generally collimated light path.

Abstract: A light assembly includes a light source and a lens with a light-incident face defined by a central primary collector surface and secondary input surfaces extending transversely from the central primary collector surface, a light-emitting face opposite the light-incident face and defined by a central collimator profile and a pair of lateral side projections extending transversely from the central collimator profile, and a pair of secondary collecting surfaces extending between the light-incident face and the light-emitting face. Light from the light source received by the lens and exits as a generally collimated output.

Abstract: A vehicle lamp is provided having a heat sink having a first end mounted to a lamp housing and having a free distal end extending into a light chamber adjacent a central optical axis of the lamp. A light emitting diode (LED) is mounted adjacent the distal end of the heat sink to have a central light emitting axis opposite the optical axis of the lamp. A parabolic reflector is positioned rearward of the heat sink, a parabolic reflective surface extending at an upper and lower solid angle relative to the LED, wherein the upper and lower combined solid angle is greater than a half-paraboloid.

Abstract: A vehicle lamp is provided with a projection lens having a lens profile with a rear major surface with a convex curvature and a front surface with a concave curvature. A rear height of the rear major surface is greater than a front height of the front surface. The lamp has a plurality of light sources 36 and a reflector configured to reflect the light emitted from the plurality light of sources towards the projection lens. As the lens profile is swept along a curve length, at least one of the rear convex curvature or the front concave curvature varies. The light output from the front surface of the projection lens is generally uniform along the curve length.

Abstract: A multi-function vehicle lamp having a plurality of light emitting diodes includes a turn input and a tail input with a switch configured to stop current flowing through the tail input when the turn input is energized to increase current flow through the turn input to satisfy minimum current draw requirements of a vehicle current meter that detects turn indicator failure. The lamp may include a single combined turn/stop input, or may include separate turn and stop inputs. Lamps having separate turn and stop inputs block current flow through the stop input when the turn input is energized.

Abstract: A vehicle lamp having a light assembly and reflector assembly is provided. The light assembly has a light emitting diode (LED) mounted on a substrate to emit first and second solid angles. A reflective recycling surface is mounted on the substrate adjacent to the LED. The reflector assembly has a first reflector having a macro-focal reflective surface extending at the first solid angle relative to the LED and defines an output light pattern along an output optical axis. A second reflector has an ellipsoid reflective surface extending at the second solid angle relative to the LED and has a first focal point oriented at the LED and a second focal point oriented at the recycling surface. The second reflector reflects light emitted from the LED in the second solid angle back to the recycling surface. The recycling surface reflects light from the second reflector to be incident the first reflector.

Abstract: A lens is provided with a light-incident face and a light-emitting face opposite the light-incident face. The lens body has a central optical axis extending in a forward direction through the light-incident face and the light-emitting face. The light-incident-face has a primary collector surface defined by a collimator profile revolved about a transverse axis perpendicular to the central optical axis. A pair of secondary collecting surfaces extend between the light-incident face and the light-emitting face, the secondary collecting surfaces oriented to reflect light internal to the lens body in the forward direction through total internal reflection.

Abstract: A vehicle lamp is provided with an upper light source and a lower light source spaced apart from the upper light source in a height direction. A reflector has a central optical axis extending a forward direction and oriented between the upper and lower light source. The reflector has first and second arrays of reflective surfaces. The first array of first reflective surfaces reflects light emitted from the upper light source in a first light pattern in the direction of the central optical axis. The second array of second reflective surfaces reflecting light emitted from the lower light source in a second light pattern in the direction of the central optical axis. At least one of the first reflective surfaces is oriented between two second reflective surfaces in the height direction.

Abstract: A light assembly includes a light source and a lens with a light-incident face defined by a central primary collector surface and secondary input surfaces extending transversely from the central primary collector surface, a light-emitting face opposite the light-incident face and defined by a central collimator profile and a pair of lateral side projections extending transversely from the central collimator profile, and a pair of secondary collecting surfaces extending between the light-incident face and the light-emitting face. Light from the light source received by the lens and exits as a generally collimated output.

Abstract: A vehicle lamp is provided with an upper light source and a lower light source spaced apart from the upper light source in a height direction. A reflector has a central optical axis extending a forward direction and oriented between the upper and lower light source. The reflector has first and second arrays of reflective surfaces. The first array of first reflective surfaces reflects light emitted from the upper light source in a first light pattern in the direction of the central optical axis. The second array of second reflective surfaces reflecting light emitted from the lower light source in a second light pattern in the direction of the central optical axis. At least one of the first reflective surfaces is oriented between two second reflective surfaces in the height direction.

Abstract: A vehicle lamp having a light assembly and reflector assembly is provided. The light assembly has a light emitting diode (LED) mounted on a substrate to emit first and second solid angles. A reflective recycling surface is mounted on the substrate adjacent to the LED. The reflector assembly has a first reflector having a macro-focal reflective surface extending at the first solid angle relative to the LED and defines an output light pattern along an output optical axis. A second reflector has an ellipsoid reflective surface extending at the second solid angle relative to the LED and has a first focal point oriented at the LED and a second focal point oriented at the recycling surface. The second reflector reflects light emitted from the LED in the second solid angle back to the recycling surface. The recycling surface reflects light from the second reflector to be incident the first reflector.

Abstract: A vehicle lamp is provided having a heat sink having a first end mounted to a lamp housing and having a free distal end extending into a light chamber adjacent a central optical axis of the lamp. A light emitting diode (LED) is mounted adjacent the distal end of the heat sink to have a central light emitting axis opposite the optical axis of the lamp. A parabolic reflector is positioned rearward of the heat sink, a parabolic reflective surface extending at an upper and lower solid angle relative to the LED, wherein the upper and lower combined solid angle is greater than a half-paraboloid.

Abstract: A lens is provided with a light-incident face and a light-emitting face opposite the light-incident face. The lens body has a central optical axis extending in a forward direction through the light-incident face and the light-emitting face. The light-incident-face has a primary collector surface defined by a collimator profile revolved about a transverse axis perpendicular to the central optical axis. A pair of secondary collecting surfaces extend between the light-incident face and the light-emitting face, the secondary collecting surfaces oriented to reflect light internal to the lens body in the forward direction through total internal reflection.

Abstract: A vehicle lamp is provided with an upper light source and a lower light source spaced apart from the upper light source in a height direction. A reflector has a central optical axis extending a forward direction and oriented between the upper and lower light source. The reflector has first and second arrays of reflective surfaces. The first array of first reflective surfaces reflects light emitted from the upper light source in a first light pattern in the direction of the central optical axis. The second array of second reflective surfaces reflecting light emitted from the lower light source in a second light pattern in the direction of the central optical axis. At least one of the first reflective surfaces is oriented between two second reflective surfaces in the height direction.

Abstract: A vehicle lamp having a light assembly and reflector assembly is provided. The light assembly has a light emitting diode (LED) mounted on a substrate to emit first and second solid angles. A reflective recycling surface is mounted on the substrate adjacent to the LED. The reflector assembly has a first reflector having a macro-focal reflective surface extending at the first solid angle relative to the LED and defines an output light pattern along an output optical axis. A second reflector has an ellipsoid reflective surface extending at the second solid angle relative to the LED and has a first focal point oriented at the LED and a second focal point oriented at the recycling surface. The second reflector reflects light emitted from the LED in the second solid angle back to the recycling surface. The recycling surface reflects light from the second reflector to be incident the first reflector.

Abstract: A vehicle lamp is provided with a projection lens having a lens profile with a rear major surface with a convex curvature and a front surface with a concave curvature. A rear height of the rear major surface is greater than a front height of the front surface. The lamp has a plurality of light sources 36 and a reflector configured to reflect the light emitted from the plurality light of sources towards the projection lens. As the lens profile is swept along a curve length, at least one of the rear convex curvature or the front concave curvature varies. The light output from the front surface of the projection lens is generally uniform along the curve length.

Abstract: A vehicle lamp is provided with a housing and a transparent lens connected to the housing to define a lamp chamber there between. A reflector is disposed in the lamp chamber for reflecting light through the lens. An electrical board is disposed in the lamp chamber and oriented in relative to the reflector. A light emitting diode (LED) is mounted to the electrical board for emitting light. A light shade is mounted to the electrical board at a mounting feature defined at a predetermined location relative to the LED to block light rays emitted by the LED. The shade is soldered to the electrical board at the predetermined orientation relative to the LED and the light shade does not contact the reflector.