Abstract: A vehicle headlight includes a headlight housing including an external lens and an outer wall that define a headlight interior and a lighting element including a light-emitting diode lamp and an internal heatsink coupled to at least a portion of the lamp. The lamp is in thermal communication with the internal heatsink. The lighting element is disposed within the headlight interior and coupled to an element receptacle defined by the outer wall. The internal heatsink of the lighting element is in thermal communication with the external lens.

Abstract: A vehicle headlamp module is provided that includes a lens having a plurality of near-field lens elements, a canted input surface, an exit surface and a cavity between the surfaces. The headlamp module also includes an LED lighting module that directs incident light through the input and exit surfaces. The lens elements are configured to transmit from the exit surface a collimated light pattern containing at least 60% of the incident light. In some embodiments, the exit surface includes a step-wise pattern of optical elements. In other implementations, a headlamp assembly is provided that includes a plurality of vehicle headlamp modules. Each headlamp module includes: a lens with a canted input surface and an exit surface, a bezel surrounding the lens, and an LED light source that directs incident light through the input surface. The lens of each module includes a plurality of near-field lens elements.

Abstract: A vehicle headlight includes a headlight housing including an external lens and an outer wall that define a headlight interior and a lighting element including a light-emitting diode lamp and an internal heatsink coupled to at least a portion of the lamp. The lamp is in thermal communication with the internal heatsink. The lighting element is disposed within the headlight interior and coupled to an element receptacle defined by the outer wall. The internal heatsink of the lighting element is in thermal communication with the external lens.

Abstract: An e-bike center module includes a substantially straight first center module connecting surface that is releasably connectable to a substantially straight front module connecting surface. A substantially straight second center module connecting surface is releasably connectable to a substantially straight rear module connecting surface. the center module is part of a bicycle frame when the first center module connecting surface is connected to the front module connecting surface and the second center module connecting surface is connected to the rear module connecting surface.

Abstract: An e-bike center module includes a substantially straight first center module connecting surface that is releasably connectable to a substantially straight front module connecting surface. A substantially straight second center module connecting surface is releasably connectable to a substantially straight rear module connecting surface. the center module is part of a bicycle frame when the first center module connecting surface is connected to the front module connecting surface and the second center module connecting surface is connected to the rear module connecting surface.

Abstract: A lighting module is provided that includes a single-piece lens having an input surface including a plurality of near-field lens elements, and an exit surface, each element having a different focal length. The lighting module also includes light-emitting diode (LED) source positioned to direct incident light through the input surface. Further, the elements are configured to shape the light from the input surface into a collimated light pattern emanating from the exit surface containing at least 60% of the incident light.

Abstract: A vehicle lighting module is provided that includes a lens having a plurality of near-field lens elements, an input surface, and an exit surface. The lighting module also includes an LED light source that directs incident light through the input surface and out of the exit surface. The plurality of lens elements is configured to transmit from the exit surface a collimated light pattern containing at least 60% of the incident light. Further, a vehicle headlamp assembly is provided that includes a plurality of vehicle lighting modules, each module comprising a lens, and an LED light source that directs incident light through the lens. The assembly further includes a case for housing the lighting modules. The lens includes a plurality of lens elements configured to transmit at least 60% of the incident light in a collimated, vehicular light pattern.

Abstract: A vehicle headlight includes a headlight housing including an external lens and an outer wall that define a headlight interior and a lighting element including a light-emitting diode lamp and an internal heatsink coupled to at least a portion of the lamp. The lamp is in thermal communication with the internal heatsink. The lighting element is disposed within the headlight interior and coupled to an element receptacle defined by the outer wall. The internal heatsink of the lighting element is in thermal communication with the external lens.

Abstract: A vehicle headlamp module is provided that includes a lens having a plurality of near-field lens elements, a canted input surface, an exit surface and a cavity between the surfaces. The headlamp module also includes an LED lighting module that directs incident light through the input and exit surfaces. The lens elements are configured to transmit from the exit surface a collimated light pattern containing at least 60% of the incident light. In some embodiments, the exit surface includes a step-wise pattern of optical elements. In other implementations, a headlamp assembly is provided that includes a plurality of vehicle headlamp modules. Each headlamp module includes: a lens with a canted input surface and an exit surface, a bezel surrounding the lens, and an LED light source that directs incident light through the input surface. The lens of each module includes a plurality of near-field lens elements.

Abstract: A vehicle lighting module is provided that includes a lens having a plurality of near-field lens elements, an input surface, and an exit surface. The lighting module also includes an LED light source that directs incident light through the input surface and out of the exit surface. The plurality of lens elements is configured to transmit from the exit surface a collimated light pattern containing at least 60% of the incident light. Further, a vehicle headlamp assembly is provided that includes a plurality of vehicle lighting modules, each module comprising a lens, and an LED light source that directs incident light through the lens. The assembly further includes a case for housing the lighting modules. The lens includes a plurality of lens elements configured to transmit at least 60% of the incident light in a collimated, vehicular light pattern.

Abstract: A light assembly for motor vehicles includes a body made of a light-transmitting material. The light-transmitting material preferably includes a front light-emitting surface, and a plurality of rear surface portions that provide for inward reflection of light from a plurality of LEDs or other light sources. The reflective surface portions may be in the form of truncated parabolas having flat upper, lower, and/or side surfaces to reduce the overall height and/or width of the light assembly. The reflective surfaces can be oriented at off-axis relative to a vehicle axis to provide a specific beam intensity and direction.

Abstract: A light assembly for motor vehicles includes a body made of a light-transmitting material. The light-transmitting material preferably includes a front light-emitting surface, and a plurality of rear surface portions that provide for inward reflection of light from a plurality of LEDs or other light sources. The reflective surface portions may be in the form of truncated parabolas having flat upper, lower, and/or side surfaces to reduce the overall height and/or width of the light assembly. The reflective surfaces can be oriented at off-axis relative to a vehicle axis to provide a specific beam intensity and direction.

Abstract: A motor vehicle in accordance with the present invention includes a body having a front end, a rear end, a roof, and a rear structural member located at the rear end of the body. A motor vehicle further includes a plurality of wheels coupled to the body. A pair of brackets is coupled to the rear structural member. A rear bumper is configured to both cover the structural member and to allow for access to the brackets. A step is pivotally coupled to the brackets, and therefore to the structural member and motor vehicle. The step is operative to articulate about an axis between a first and second position.

Abstract: A telescoping roof basket assembly (10) for attachment to a roof (12) of a vehicle (14) is provided. The basket assembly (10) includes a pair of rails (18) fixedly coupled to the roof (12) of the vehicle (14). Each rail (18) defines a primary channel (22) and a secondary channel (24). Furthermore, each primary channel (22) has an extension bar (26) slidably positioned therein for telescopically fitting the extension bar (26) to the rail (18). The extension bars (26) are capable of extending rearwardly from the rails (18). Moreover, these extension bars (26) are pivotally coupled to a front end portion of a moveable basket member (30). This moveable basket member (30) has a rear end portion with a pair of tabs (44) extending therefrom. These tabs (44) are intended for insertion into the secondary channels (24) and securing the moveable basket member (30) to the rails (18). The telescoping roof basket assembly (10) is moveable between a roof mounted position and a back end mounted position.

Abstract: A telescoping roof basket assembly (10) for attachment to a roof (12) of a vehicle (14) is provided. The basket assembly (10) includes a pair of rails (18) fixedly coupled to the roof (12) of the vehicle (14). Each rail (18) defines a primary channel (22) and a secondary channel (24). Furthermore, each primary channel (22) has an extension bar (26) slidably positioned therein for telescopically fitting the extension bar (26) to the rail (18). The extension bars (26) are capable of extending rearwardly from the rails (18). Moreover, these extension bars (26) are pivotally coupled to a front end portion of a moveable basket member (30). This moveable basket member (30) has a rear end portion with a pair of tabs (44) extending therefrom. These tabs (44) are intended for insertion into the secondary channels (24) and securing the moveable basket member (30) to the rails (11). The telescoping roof basket assembly (10) is moveable between a roof mounted position and a back end mounted position.

Abstract: A convertible track system for an automotive vehicle includes a plurality of frame members each having a predetermined surface area, at least one of the frame members having a portion of exposed surface area adapted to receive a mounting mechanism thereon.