Abstract: A method for processing reinforcing filler-filled synthetic resins and applications made therefrom wherein the resulting articles have the ability to be plated to form a structurally aesthetic product substantially free of visual defects. The process utilizes an accelerated heat and cool process to form a resin-rich surface that is substantially free of any reinforcing fillers, such as fiber strands and/or bundles, on the external surface of the article. As such, the resulting article is capable of being plated to form an article that is substantially free of visual defects caused by these fillers on the surface of the article.

Abstract: In an embodiment, multi-stage energy absorbing system can comprise: a thermoplastic flanged frame and a crush lobe having a proximal base aligned with the flanged frame and a distal end protruding from the flanged frame. The crush lobe comprises a central slab and slab pairs such that the crush lobe comprises a total of 2i+1 slabs, wherein i is the number of slab pairs and is greater than or equal to 1. The slabs are disposed in a stepped arrangement and configured to absorb impact energy by collapsing in a telescopic manner with increasing energy level.

Abstract: A method for processing reinforcing filler-filled synthetic resins and applications made therefrom wherein the resulting articles have the ability to be plated to form a structurally aesthetic product substantially free of visual defects. The process utilizes an accelerated heat and cool process to form a resin-rich surface that is substantially free of any reinforcing fillers, such as fiber strands and/or bundles, on the external surface of the article. As such, the resulting article is capable of being plated to form an article that is substantially free of visual defects caused by these fillers on the surface of the article.

Abstract: A heated mirror system for use in motor vehicles that includes the use of a thermally regulating material that eliminates electrical heater elements used in conventional heated mirror systems. The heated mirror system includes a mirror housing constructed from an electro thermally-active thermoplastic material. The electro thermally-active thermoplastic material is selected to be self-regulating such that the material heats up until it reaches a selected temperature at which point the resistivity of the material prevents further heating of the mirror housing to reduce the risk of damage to the mirror. The mirror is located in thermal contact in the mirror housing such that, as the electro thermally-active thermoplastic material heats, at least a portion of the heat is capable of heating the mirror. The mirror housing may be constructed using an injection molding process.