Abstract: An apparatus and system for video and audio components. According to one embodiment, the present invention generally comprises carbon fiber composite shelves separated by carbon fiber posts and supported by carbon fiber legs. The posts and legs are secured by studs. Adjacent to at least the bottom surface of each of the shelves at each opening where a stud passes through is a polyurethane ring.

Abstract: A novel apparatus and system for dampening vibrational forces from servers and electronic components is provided. According to one embodiment, the present invention generally provides a rack for dampening vibration including: a top panel, a bottom panel, and two side panels positioned between the top panel and the bottom panel where the top panel, the bottom panel and the two side panels are fiberglass re-enforced plastics; the side panels have grooves along the height of the side panels that extend the full depth of the side panels designed to enable shelves or servers with attached mounts to be positioned along the side panels and pulled in and out of the rack.

Abstract: A novel apparatus and system for damping vibrational forces from servers and electronic components is provided. Embodiments of the present invention generally provide novel anti-vibration modules adapted for use in existing racks as well as novel anti-vibration racks comprised of composite materials, which reduce the effect of vibration and noise on the components it stores.

Abstract: A novel apparatus and system for dampening vibrational forces from servers and electronic components is provided. According to one embodiment, the present invention generally provides a rack for dampening vibration including: at least two elongated structural members, at least two elongated base members, at least one opening along the length of each of the at least two elongated members, at least two cross bar supports, wherein each one of the at least two cross bar supports is coupled to at least one of the at least two elongated structural members; and at least two anti-vibration modules coupled to each of the at least two cross bar supports, wherein the at least two anti-vibration modules are loaded by exerting a force on the anti-vibration modules. In one embodiment, the cross bar housings contacts the cross bar support to provide additional support.

Abstract: A novel apparatus and system for dampening vibrational forces from servers and electronic components is provided. According to one embodiment, the present invention generally provides a rack for dampening vibration including: a top panel, a bottom panel, and two side panels positioned between the top panel and the bottom panel where the top panel, the bottom panel and the two side panels are fiberglass re-enforced plastics; the side panels have grooves along the height of the side panels that extend the full depth of the side panels designed to enable shelves or servers with attached mounts to be positioned along the side panels and pulled in and out of the rack.

Abstract: A method for fabricating fiber-reinforced composite structures, including centrifuge rotors, by resin transfer molding (RTM) is disclosed. The method involves loading reinforcing fibers into a mold and then injecting resin into the mold to coat the fibers to form the composite structure. Two types of reinforcing fibers are used—fabric preforms at the surfaces of the structure and chopped fibers at the interior of the structure. Also disclosed is a fiber-reinforced composite structure comprising a skin layer of reinforcing fabric, chopped fibers distributed throughout the interior of the structure, and epoxy resin that binds the fabric and chopped fibers together into a fiber-reinforced composite structure. The resin transfer molding method is especially useful for fabricating composite centrifuge rotors.

Abstract: A method for fabricating fiber-reinforced composite structures, including centrifuge rotors, by resin transfer molding (RTM) is disclosed. The method involves loading reinforcing fibers into a mold and then injecting resin into the mold to coat the fibers to form the composite structure. Two types of reinforcing fibers are used--fabric preforms at the surfaces of the structure and chopped fibers at the interior of the structure. Also disclosed is a fiber-reinforced composite structure comprising a skin layer of reinforcing fabric, chopped fibers distributed throughout the interior of the structure, and epoxy resin that binds the fabric and chopped fibers together into a fiber-reinforced composite structure. The resin transfer molding method is especially useful for fabricating composite centrifuge rotors.