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{{dated prod|concern = {{{concern|article appears to be written by someone with a bias towards Florida State University and does not outline the history and scientific information of the topic in a neutral viewpoint. }}}|month = March|day = 6|year = 2007|time = 03:55|timestamp = 20070306035554}}
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'''Buckypaper''' is a thin sheet made from [[carbon nanotubes]]. It is being developed by Dr. Ben Wang with other professors and students from the [[Florida State University]] research group.
'''Buckypaper''' is a thin sheet made from [[carbon nanotubes]]. It is being developed by Dr. Ben Wang with other professors and students from the [[Florida State University]] research group.



Revision as of 03:55, 6 March 2007

Buckypaper is a thin sheet made from carbon nanotubes. It is being developed by Dr. Ben Wang with other professors and students from the Florida State University research group.

The material shows great promise as a building material for everything from aerospace vehicles, body armor and next-generation electronics and displays.

Background

Buckypaper owes its name to Fullerene, an allotrope of carbon with similar bonding that is sometimes referred to as Buckyballs in honor of R. Buckminster Fuller. Sir Harold Kroto, now a professor and scientist with FSU's department of chemistry and biochemistry, and two other scientists shared the 1996 Nobel Prize in Chemistry for their discovery of Buckminsterfullerene, nicknamed "buckyballs" for the molecules' spherical shape. Their discovery has led to a revolution in the fields of chemistry and materials science and directly contributed to the development of buckypaper.

Applications

Among the possible uses for buckypaper that are being researched at FAC2T:

  • If exposed to an electric charge, buckypaper could be used to illuminate computer and television screens. It would be more energy-efficient, lighter, and would allow for a more uniform level of brightness than current cathode ray tube (CRT) and liquid crystal display (LCD) technology.
  • As one of the most thermally conductive materials known, buckypaper lends itself to the development of heat sinks that would allow computers and other electronic equipment to disperse heat more efficiently than is currently possible. This, in turn, could lead to even greater advances in electronic miniaturization.
  • Because it has an unusually high current-carrying capacity, a film made from buckypaper could be applied to the exteriors of airplanes. Lightning strikes then would flow around the plane and dissipate without causing damage.
  • Films also could protect electronic circuits and devices within airplanes from electromagnetic interference, which can damage equipment and alter settings. Similarly, such films could allow military aircraft to shield their electromagnetic "signatures," which can be detected via radar.
  • Produced in high enough quantities and at an economically viable price, it could serve as an extremely effective armor plating.

See also