“The nanomanipulator: a virtual-reality interface for a scanning tunneling microscope” by Taylor, Robinett, Chi, Brooks Jr., Wright, et al. …

  • ©Russell (Russ) M. Taylor, Warren Robinett, Vernon L. Chi, Frederick (Fred) P. Brooks Jr., William (Will) Wright, Stanley R. Williams, and Erik J. Snyder

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Title:

    The nanomanipulator: a virtual-reality interface for a scanning tunneling microscope

Presenter(s)/Author(s):



Abstract:


    We present an atomic-scale teleoperation system that uses a
    head-mounted display and force-feedback manipulator arm for a
    user interface and a Scanning Tunneling Microscope (STM) as a
    sensor and effector. The system approximates presence at the
    atomic scale, placing the scientist on the surface, in control,
    while the experiment is happening. A scientist using the
    Nanomanipulator can view incoming STM data, feel the
    surface, and modify the surface (using voltage pulses) in real
    time. The Nanomanipulator has been used to study the effects of
    bias pulse duration on the creation of gold mounds. We intend
    to use the system to make controlled modifications to silicon

References:


    1. Bajura, Michael, Henry Fuchs, and Ryutarou Ohbuchi. Merging Virtual Objects with the Real World: Seeing Ultrasound Imagery within the Patient. Proceedings of SIGGRAPH ’92 (Chicago, Illinois, July 26-31, 1992), In Computer Graphics 26, 2 (July 1992), 203-210.
    2. Becker, R.S., J.A. Golovchenko and B.S. Swartzentruber. Atomic-Scale Surface Modifications Using a Tunnelling Microscope. Nature 325(1987), 419.
    3. Besenbacher, F., F. Jensen, E. La~gsgaard, K. Mortensen, and I. Stensgaard. Visualization of the Dynamics in Surface Reconstructions. Journal of Vacuum Science Technology. B 9 (2), Mar/Apr 1991, 874-877.
    4. Binnig, G. and H. Rohrer. Scanning Tunneling Microscopy. Helvetica Physica Acta. 55 (1982), 726-735.
    5. Binnig, G. and H. Rohrer. Scanning Tunneling Microscopy – From Birth to Adolescence. Reviews of Modern Physics, 59(3) July 1987, 615-625.
    6. Brooks, F. P., Jr., M. Ouh-Young, J. J. Batter, and P. J. Kilpatrick. Project GROPE – Haptic Displays for Scientific Visualization. Proceedings of SIGGRAPH ’90. In Computer Graphics 24, 4 (August 1990), 177-185.
    7. Edstrom, Ronald D. and Maria A. Miller. Scanning Tunneling Microscopy and Atomic Force Microscopy Visualization of the Components of the Skeletal Muscle Glycogenolytic Complex. Journal of Vacuum Science Technology, B 9 (2) (Mar/Apr 1991), 1248-1252.
    8. Eklund, E.A. Correlation from Randomness: Scanning Tunneling Microscopy Applied to the Quantitative Analysis of Sputtered Graphite Surfaces. Ph. D. Thesis, UCLA. 1991.
    9. Fuchs, Henry, John Poulton, John Eyles, Trey Greer, Jack Goldfeather, David Ellsworth, Steve Molnar, Greg Turk, Brice Tebbs, and Laura Israel. Pixel-Planes 5: A Heterogeneous Multiprocessor Graphics System Using Processor-Enhanced Memories. Proceedings of SIGGRAPH ’89. In Computer Graphics, 19, 3 (1989). 79-88.
    10. Holloway, Richard, Henry Fuchs, and Warren Robinett. Virtual-Worlds Research at the University of North Carolina at Chapel Hill. Proc. Computer Graphics ’91, London.
    11. Kobayashi, A., F. Grey, R. S. Williams, and M. Aono. Nanometer-Scale Silicon Groove Formation by STM. Science, in press, 1993.
    12. Komuro, M., S. Okayama, O. Kitamura, W. Mizutani, H. Tokumoto, and K. Kajimura. Nanometer Structure Fabricated by FIB and its Observation by STM. Microelectronic Engineering 6 (1987), 343-348.
    13. Lyding, J. W. S. Skala, J. S. Hubacek, R. Brockenbrough, and G. Gammie. Variable-temperature scanning tunneling microscope. Rev. Sci. Instrum. 59 (9), (September 1988), 1897-1902.
    14. Lyo, I.W. and Ph. Avouris. Field-Induced Nanometer to Atomic Scale Manipulation of Si Surfaces with the Scanning Tunneling Microscope. Science 253 (1991), 173.
    15. Magonov, S. N., G. Bar, E. Keller, E. B. Yagubskii, and H. J. Cantow. Atomic Scale Surface Studies of Conductive Organic Compounds. Synthetic Metals, 40 (1991), 247-256.
    16. Mamin, H. J., S. Chiang, H. Birj, P. H. Guethner, and D. Rugar. Gold deposition from a scanning tunneling microscope tip. J. Vac. Sci. Technol. B 9 (2) (Mar/Apr 1991), 1398-1402.
    17. Ouh-young, Ming. Force Display In Molecular Docking. Ph.D. Thesis, University of North Carolina at Chapel Hill, 1990.
    18. Robinett, W., R. Taylor, V. Chi, W. V. Wright, F. P. Brooks Jr., R. S. Williams, and E. J. Snyder. The Nanomanipulator: An Atomic-Scale Teleoperator. SIGGRAPH ’92 course notes for “Implementation of Immersive Virtual Environments.”
    19. Robinett, W., and R. Holloway. Implementation of Flying, Scaling, and Grabbing in Virtual Worlds. A C M Symposium on Interactive 3D Graphics, Cambridge MA (1992).
    20. Snyder, Eric J., Mark S. Anderson, William M. Tong, R. Stanley Williams, Samir J. Anz, Marcos M. Alvarez, Yves Rubin, Frangois N. Diederich, and Robert L. Whetten. Atomic Force Microscope Studies of Fullerene Films: Highly Stable C60 fcc (311) Free Surfaces. Science, 253, 12 (July 1991), 171-173.
    21. Stoll, E. P. Picture processing and three-dimensional visualization of data from scanning tunneling and atomic force microscopy. IBM Journal of Research and Development, 35,. 1/2 (January/March 1991), 67-77.


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