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| | AFM |
 | | Applications of Atomic Force Microscopy (AFM) are ubiquitous in all bioscience areas that require surface characterization of molecules (nucleic acids, lipids, proteins…), cells (live mammalian cell cultures, bacteria…), tissues (bone, cartilage, dentin, cornea…), and biomaterials. |
 | | As a result, the AFM allows for high resolution, three-dimensional imaging of samples in conditions close to their native state. |
 | | In order to maximize the performance of an AFM, it is important to understand how an AFM works and how each component of the microscope plays a role in the optimization of these results. |
| www.uiowa.edu /~cemrf/ims/Symposium2006/AFM/index.htm (290 words) |
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