Abstract: A body composition comprising: a bulk molded compound (BMC) comprising: one or more thermoset resins; one or more fillers; one or more reinforcements; and one or more binders; a thermally conductive material disposed within the bulk molded compound so that then the body composition as molded into a body the body assists is removing thermal energy.

Abstract: The present invention pertains to a luminous device of an automotive vehicle. The luminous device is configured to produce homogenous lit appearances when using multiple light sources. The luminous device comprises at least one light source for producing a light beam associated with a photometric function. Further, the at least one light source is encapsulated within an encapsulating material. The luminous device further comprises at least one optical element configured to produce said photometric function, wherein the at least one optical element is arranged juxtapose with said encapsulated light source and is configured to receive said light beam to perform at least one said photometric function of the luminance device.

Abstract: A body composition comprising: a bulk molded compound (BMC) comprising: one or more thermoset resins; one or more fillers; one or more reinforcements; and one or more binders; a thermally conductive material disposed within the bulk molded compound so that then the body composition as molded into a body the body assists is removing thermal energy.

Abstract: An illuminated vehicle component including a substrate; a first coating on the substrate; a second coating on the substrate; and light sources of a first color arranged to project light into the substrate. At least one of the first coating, or the second coating form one or more patterns. Light from the light source is received by the first coating to produce light with a second color that is different from the first color, and received by the second coating to provide light with a third color that is different from the first color and the second color. The pattern formed by the first coating and the second coating is visible when the one or more light sources are illuminated.

Abstract: An illuminated component comprising: a substrate; a first coating on the substrate; a second coating on the substrate, the first coating, or both; and light sources aligned with the substrate, wherein the light sources provide light of a first color; wherein a portion of the first coating, the second coating, or both is absent forming one or more patterns; wherein the light having the first color exits the substrate to: provide light with a second color that is different from the light with the first color by the first coating changing a color of the light with the first color and provide light with a third color that is different from the first color by the second coating changing a color of the light with the first color; and wherein the illuminated component is part of a vehicle and the pattern is visible with the second color and the third color when the one or more light sources are illuminated.

Abstract: The present invention pertains to a luminous device of an automotive vehicle. The luminous device is configured to produce homogenous lit appearances when using multiple light sources. The luminous device comprises at least one light source for producing a light beam associated with a photometric function. Further, the at least one light source is encapsulated within an encapsulating material. The luminous device further comprises at least one optical element configured to produce said photometric function, wherein the at least one optical element is arranged juxtapose with said encapsulated light source and is configured to receive said light beam to perform at least one said photometric function of the luminance device.

Abstract: The present invention pertains to automotive surface panel illumination with the objective of attaining the whitest diffusive appearance with maximized light intensity transmission features. An automotive luminous panel system includes a luminous unit arrangement as defined by an anti-mist diffusive coating applied to a light transmissive substrate with a corresponding masked cover lens patterned with bleed-gaps that are configured to convey incident light directly through the patterned optical arrangement and operate between the hidden until lit modes of the luminous unit.

Abstract: A light system of a vehicle comprising: a housing comprising: a glue bucket; a glue leg located partially or entirely within the glue bucket; and a light guide located between the glue bucket and the glue leg; wherein the light system is located proximate to a gap in the vehicle and the light guide guides light from the light guide into the glue leg and from the glue leg across the gap so that the light extends across the gap to illuminate the gap.

Abstract: A light system of a vehicle comprising: a housing comprising: a glue bucket; a glue leg located partially or entirely within the glue bucket; and a light guide located between the glue bucket and the glue leg; wherein the light system is located proximate to a gap in the vehicle and the light guide guides light from the light guide into the glue leg and from the glue leg across the gap so that the light extends across the gap to illuminate the gap.

Abstract: A system and a method include a substrate wrinkled coating having a substrate, and a curing layer on top of the substrate. The curing layer includes a partially cured portion directly atop the substrate, and a completely cured portion having light-diffusive wrinkles on top of the partially cured portion. Properties of the light-diffusive wrinkles are controlled by one or more curing parameters, and a composition of the partially cured portion is the same as a composition of the completely cured portion.

Abstract: A method of treating a part, includes placing a bulk molded compound (BMC) part into a vacuum chamber of a magnetron sputtering apparatus and igniting a plasma in the vacuum chamber. A filler layer is deposited onto the surface of the BMC part, and a metal layer is sputter deposited onto the filler layer to create a reflective surface of the BMC part.

Abstract: A method of treating a part, includes placing a bulk molded compound (BMC) part into a vacuum chamber of a magnetron sputtering apparatus and igniting a plasma in the vacuum chamber. A filler layer is deposited onto the surface of the BMC part, and a metal layer is sputter deposited onto the filler layer to create a reflective surface of the BMC part.

Abstract: A coated substrate includes a substrate having a glow-discharged surface; and a coating having a submicrometric layer thickness sputter deposited onto the substrate. The coating having a submicrometric layer thickness has a predetermined absorbance. The predetermined absorbance regulates an amount of light transmitted from a light source through the substrate from a first side to a second side of the substrate. The substrate is opaque on the second side of the substrate when the light source is deactivated on the first side of the substrate. The predetermined absorbance varies as a function of one or more controlled process parameters.

Abstract: A coated substrate includes a substrate having a glow-discharged surface; and a coating having a submicrometric layer thickness sputter deposited onto the substrate. The coating having a submicrometric layer thickness has a predetermined absorbance. The predetermined absorbance regulates an amount of light transmitted from a light source through the substrate from a first side to a second side of the substrate. The substrate is opaque on the second side of the substrate when the light source is deactivated on the first side of the substrate. The predetermined absorbance varies as a function of one or more controlled process parameters.

Abstract: A system and a method include a substrate wrinkled coating having a substrate, and a curing layer on top of the substrate. The curing layer includes a partially cured portion directly atop the substrate, and a completely cured portion having light-diffusive wrinkles on top of the partially cured portion. Properties of the light-diffusive wrinkles are controlled by one or more curing parameters, and a composition of the partially cured portion is the same as a composition of the completely cured portion.