Abstract: An optical coupler for a vehicle lighting system includes a housing having first and second openings, each opening having an optical axis passing through the opening into the housing, with the optical axes of the openings forming an obtuse angle. The optical coupler has one or more optics carried by the housing and arranged between the openings such that light entering the first opening along its optical axis passes through the one or more optics and exits through the second opening along the other optical axis. The optic(s) may include a first Fresnellian surface adjacent the first opening and a second Fresnellian surface adjacent the second opening such that light passing through the optical coupler from the first opening to the second opening passes through both Fresnellian surfaces and is redirected from the optical axis of the first opening to the optical axis of the second opening.

Abstract: An optical coupler for a vehicle lighting system includes a housing having first and second openings, each opening having an optical axis passing through the opening into the housing, with the optical axes of the openings forming an obtuse angle. The optical coupler has one or more optics carried by the housing and arranged between the openings such that light entering the first opening along its optical axis passes through the one or more optics and exits through the second opening along the other optical axis. The optic(s) may include a first Fresnellian surface adjacent the first opening and a second Fresnellian surface adjacent the second opening such that light passing through the optical coupler from the first opening to the second opening passes through both Fresnellian surfaces and is redirected from the optical axis of the first opening to the optical axis of the second opening.

Abstract: A lighting system and method for a vehicle interior wherein the light system includes an electronic control unit (ECU) and a lighting layer having a plurality of light elements and a proximity sensing system. The lighting layer is coupled to the ECU and each of at least some of the light elements may be independently turned ON or OFF in response to a first proximity pattern provided by human interaction and received by the proximity sensing system. The lighting arrangement permits an occupant of the vehicle to selectively define the area and/or shape of local illumination and to control one or more characteristics of the illumination such as color or brightness.

Abstract: A piston assembly is disclosed herein. The piston assembly is integrally formed and unitary and is centered on a central longitudinal axis. The piston assembly includes a head with ring belt having a plurality of ring grooves. The piston assembly also includes first and second skirts, each having a top edge and a bottom edge being radially narrower than the top edge. The skirts also include first and second side edges. The piston assembly also includes first and second pin bosses spaced radially inward from the ring belt to define a short-pin support arrangement. The pin bosses include respective first and second pin bores axially aligned on a pin bore axis perpendicular to the central longitudinal axis. The piston assembly also includes a plurality of panels, each extending between one of the pin bosses and one of the skirts.

Abstract: A piston assembly is disclosed herein. The piston assembly is integrally formed and unitary and is centered on a central longitudinal axis. The piston assembly includes a head with ring belt having a plurality of ring grooves. The piston assembly also includes first and second skirts, each having a top edge and a bottom edge being radially narrower than the top edge. The skirts also include first and second side edges. The piston assembly also includes first and second pin bosses spaced radially inward from the ring belt to define a short-pin support arrangement. The pin bosses include respective first and second pin bores axially aligned on a pin bore axis perpendicular to the central longitudinal axis. The piston assembly also includes a plurality of panels, each extending between one of the pin bosses and one of the skirts.

Abstract: A piston assembly is disclosed herein. The piston assembly is integrally formed and unitary and is centered on a central longitudinal axis. The piston assembly includes a head with ring belt having a plurality of ring grooves. The piston assembly also includes first and second skirts, each having a top edge and a bottom edge being radially narrower than the top edge. The skirts also include first and second side edges. The piston assembly also includes first and second pin bosses spaced radially inward from the ring belt to define a short-pin support arrangement. The pin bosses include respective first and second pin bores axially aligned on a pin bore axis perpendicular to the central longitudinal axis. The piston assembly also includes a plurality of panels, each extending between one of the pin bosses and one of the skirts.

Abstract: A piston assembly is disclosed herein. The piston assembly is integrally formed and unitary and is centered on a central longitudinal axis. The piston assembly includes a head with ring belt having a plurality of ring grooves. The piston assembly also includes first and second skirts, each having a top edge and a bottom edge being radially narrower than the top edge. The skirts also include first and second side edges. The piston assembly also includes first and second pin bosses spaced radially inward from the ring belt to define a short-pin support arrangement. The pin bosses include respective first and second pin bores axially aligned on a pin bore axis perpendicular to the central longitudinal axis. The piston assembly also includes a plurality of panels, each extending between one of the pin bosses and one of the skirts.

Abstract: The instant invention describes a process for the manufacture of butanol and like volatile organic compounds by fermenting carbohydrates, mainly polysaccharide, with micro-organisms which convert carbohydrates into mainly butyric acid and other acids. The acids are subsequently transferred to the solventogenesis production stage using a different strain of bacteria which continuously produces butanol and like volatile organic compounds, via a multistage fermentation process that is stable, high yielding (weight product per unit weight carbohydrates) and productive (faster throughput). By employing one microbe (the first) in the major pathway to produce the acid of choice specifically and faster, and provide for another microbe (the second) with the unique property to convert the acid to a solvent, carbohydrates are not wasted on ancillary product. The unique advantage of the second microbe is that it has the capability of converting acids into solvents (solventogenesis).