Harold G. Craighead received his
Bachelor of Science degree in
physics, with High Honors, from the
University of Maryland, College Park in 1974. He received his
Ph.D. in physics from
Cornell University in 1980. His thesis work involved an experimental study of the optical properties and solar energy applications of metal particle
composites. From 1979 until 1984 he was a Member of Technical Staff in the Device Physics Research Department at
Bell Laboratories. In 1984 he joined
Bellcore, where he formed and managed the Quantum Structures research group. Craighead joined the faculty of
Cornell University as a professor in the School of Applied and Engineering Physics in 1989. From 1989 until 1995 he was Director of the National Nanofabrication Facility at Cornell. Craighead was Director of the School of Applied and Engineering Physics from 1998 to 2000 and the founding Director of the Nanobiotechnology Center from 2000 to 2001. He served as Interim Dean of the College of Engineering from 2001 to 2002 after which he returned to the Nanobiotechnology Center as co-director. He has been a pioneer in
nanofabrication methods and the application of engineered nanosystems for research and device applications. Throughout his career he has contributed to numerous scientific journals with over 280 published papers. Craighead's recent research activity includes the use of nanofabricated devices for biological applications. His research continues to involve the study and development of new methods for
nanostructure formation, integrated fluidic/optical devices, nanoelectromechanical systems and single molecule analysis. Craighead was elected a fellow of the
American Physical Society in 2004, "[f]or his significant advances in experimental studies of the physical properties and utilization of nanoscale materials and structures." In February 2007, he was elected to the
National Academy of Engineering. According to the academy, Craighead, director of Cornell's Nanobiotechnology Center, was selected for "contributions to the fabrication and exploitation of nanostructures for electronic, optical, mechanical and biological applications." He has been a pioneer in nanofabrication methods and using nanostructures as tools in
biological research. His research group has created devices that can detect and identify single
bacteria and
viruses, nanoscale gas sensors and nanofluidic devices that can separate, count and analyze individual
DNA molecules. == Stretching the Boundaries of Nanofabricated Devices ==