9B40.75 - Atomic Force Microscope Model

Code Number:
9B40.75
Demo Title:
Atomic Force Microscope Model
Condition:
Good
Area of Study:
Modern Astronomy
References:
  • William Reitz, "Two Sound Ideas", TPT, Vol. 55, #6, Sept. 2017, p. 378.
  • Tyler A. Engstrom, Matthew M. Johnson, Peter C. Eklund, and Timothy J. Russin, "A Computer-Controlled Classrom Model of an Atomic Force Microscope", TPT, Vol. 53, #9, Dec. 2015, p. 536.
  • Roland Berger, "The Atomic Force Microscope: A Low‐Cost Model", TPT, Vol. 40, #8, Nov. 2002, p. 502.
  • David L. Tran, Paymon Shirazi, Mohanchandra K. Panduranga, Gregory P. Carman, "Cost-Effective Measurement of Magnetostriction in Nanoscale Thin Films Through an Optical Cantilever Displacement Method", AJP, Vol. 91, #6, June 2023, p. 470.
  • Kirsten Bonson, Randall L. Headrick, David Hammond, and Michael Hamblin, "Working Model of an Atomic Force Microscope", AJP, Vol. 79, #2, Feb. 2011, p. 189.
  • E. Bosma, H. L. Offerhaus, J. T. van der Veen, F. B. Segerink, I. M. van Wessel, "Large Scale Scanning Probe Microscope: Making the Shear-Force Scanning Visible", AJP, Vol. 78, #6, June 2010, p. 562.
  • M. Shusteff, T. P. Burg, S. R. Manalis, "Measuring Boltzmann's Constant with a Low-Cost Atomic Force Microscope: An Undergraduate Experiment", AJP, Vol. 74, #10, Oct. 2006, p. 873.
  • W. L. Murphy and G. C. Spalding, "Range of Interactions: An Experiment in Atomic and Magnetic Force Microscopy", AJP, Vol. 67, #10, Oct. 1999, p. 905. 
  • Johanna Miller, "Atomic Force Microscopy Get a Feel for Electron Spin", Physics Today, Vol. 77, #2, Feb. 2024, p. 14.
  • Franz J. Giessibl, Calvin F. Quate, "Exploring the Nanoworld with Atomic Force Microscopy", Physics Today, Vol. 59, #12, Dec. 2006, p. 44.
  • Charles Day, "Magnetic Resonance Force Microscope Locates a Single Electron Spin Inside a Glass Slab", Physics Today, Vol. 57, #9, Sept. 2004, p. 21.
  • Johanna Miller, "Dangling DNA Pinpoints a Protein's Chemical Groups", Physics Today, Vol. 68, Apr. 2015, p. 14
  • Andreas Heinrich, "Atomic Spins on Surfaces", Physics Today, Vol. 68, #3, Mar. 2015, p. 42.
  • Andrew N. Cleland, "The Versatility of Nanoscale Mechanical Resonators", Physics Today, Vol. 62, #1, Jan. 2009, p. 68.
  • Matthew J. Brukman and Dawn A. Bonnell, "Probing Physical Properties at the Nanoscale", Physics Today, Vol. 61, #6, June 2008, p. 36.

Disclaimer: These demonstrations are provided only for illustrative use by persons affiliated with The University of Iowa and only under the direction of a trained instructor or physicist.  The University of Iowa is not responsible for demonstrations performed by those using their own equipment or who choose to use this reference material for their own purpose.  The demonstrations included here are within the public domain and can be found in materials contained in libraries, bookstores, and through electronic sources.  Performing all or any portion of any of these demonstrations, with or without revisions not depicted here entails inherent risks.  These risks include, without limitation, bodily injury (and possibly death), including risks to health that may be temporary or permanent and that may exacerbate a pre-existing medical condition; and property loss or damage.  Anyone performing any part of these demonstrations, even with revisions, knowingly and voluntarily assumes all risks associated with them.