Abstract: A cable has a first conductive core configured from a first strand of carbon nanotubes (CNTs), a first copper coating surrounding the strand of CNTs along a length of the cable. The cable also has a first shielding configured from CNTs and copper and surrounding the first core along the length of the cable. The cable also has a second shielding configured from CNTs and copper and surrounding the first shielding along the length of the cable. The cable also has a jacket surrounding the second shielding along the length of the cable.

Abstract: One cable shielding has a first metal shielding braided along a length of a cable, a CNT paper shielding surrounding the first metal shielding along the length of the cable, and a second metal shielding braided about the CNT paper shielding along the length of the cable.

Abstract: Carbon nanotube cabling is presented herein. One cable comprises a first conductive core comprising a strand of carbon nanotubes electroplated with silver and copper, a first insulator surrounding the first core along a length of the cable, a second conductive core comprising another strand of carbon nanotubes electroplated with silver and copper, a second insulator surrounding the second core along the length of the cable, a shielding surrounding the two insulators along the length of the cable, and an outer jacket configured along the length of the cable. The shielding may be configured from electroplated carbon nanotubes that have been braided, electroplated carbon nanotube paper, or a combination thereof.

Abstract: Systems and methods presented herein provide reduced weight cabling using carbon nanotubes (CNTs). In one embodiment, a cable comprises a conductive core comprising a metalized strand of CNTs.

Abstract: Systems and methods presented herein provide reduced weight cabling using carbon nanotubes. In one embodiment, a cable comprises a conductive core comprising a strand of carbon nanotubes electroplated with silver and copper, a shielding surrounding the core along a length of the cable, and a jacket surrounding the shielding along the length of the cable.

Abstract: The inventive system comprises a housing for receiving a flow of fluid. The invention for the first time uses a modular assembly of UV lamps. The modular assembly comprises at least two UV sources substantially parallel to each other and transverse to said flow. In an embodiment, one of the UV sources is disposed in a plane below all such other lamps and adapted to be run at a power higher than that of all such other lamps. The inventive arrangement is combined with a baffle arrangement wherein the baffles are preferably positioned in such a way to direct the fluid flow into the treatment area.

Abstract: The inventive system comprises a housing for receiving a flow of fluid. The invention for the first time uses a modular assembly of UV lamps. The modular assembly comprises at least two UV sources substantially parallel to each other and transverse to said flow. In an embodiment, one of the UV sources is disposed in a plane below all such other lamps and adapted to be run at a power higher than that of all such other lamps. The inventive arrangement is combined with a baffle arrangement wherein the baffles are preferably positioned in such a way to direct the fluid flow into the treatment area.