Noncontact Atomic Force Microscopy - Yale School of Engineering ...

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Oral Presentations Monday, 10 August 28
Non-retarded and retarded interactions between dielectric cylinders Mo-0900 R. Podgornik 1,2 , Antonio Šiber 3 , Rick Rajter 4 , Roger H. French 5 , W.Y. Ching 6 , and V. Adrian Parsegian 2 1 Faculty of Mathematics and Physics, University of Ljubljana, Ljubljana, Slovenia and Department of Theoretical Physics, J. Stefan Institute, SI-1000 Ljubljana, Slovenia 2 Laboratory of Physical and Structural Biology, NICHD, National Institutes of Health, Bldg. 9, Room 1E116, Bethesda, Maryland 20892-0924, USA. 3 Institute of Physics, P.O. Box 304, 10001 Zagreb, Croatia 4 Department of Materials Science and Engineering, Massachusetts Institute of Technology, Room 13- 5046 Cambridge, Massachusetts 02139, USA 5 DuPont Co. Central Research, Experimental Station, E400-5207 Wilmington, Delaware 19880, USA 6 Department of Physics, University of Missouri-Kansas City, Kansas City, Missouri, 64110, USA I will present a complete theory of non-retarded and retarded van der Waals interactions between dielectric cylinders. It is based on the Lifshitz formulation of the interactions between two anisotropic semiinfinite media as was worked out by Yu. Barash [1] in the complete retarded case. One then recasts the two semiinfinite media problem into two anisotropic cylinders problem by expanding the dielectric response function as a function of the density of the dielectric cylinders that constitute the two media. The first order in the density expansion yields the semiinfinite plane-cylinder interaction and the second order term the cylinder-cylinder interaction. Explicit formulae are obtained for this interaction and the interaction is evaluated for different examples of ab initio carbon nanotube dielectric response functions. The non-retarded case has already been discussed in our previous publications [2,3]. I will thus concentrate on the features of the van der Waals interaction that are introduced by the retardation and orientation effects. [1] Yu. S. Barash, Izv. Vyssh. Uchebn. Zaved. Radiofiz. 21 163 (1978). J. N. Munday, D. Iannuzzi, Y. Barash and F. Capasso, Phys. Rev. A 71, 042102 (2005). Erratum of the paper J. N. Munday, D. Iannuzzi, Y. Barash and F. Capasso, Phys. Rev. A 71, 042102 (2005). [2] Rick F. Rajter, Rudi Podgornik, V. Adrian Parsegian, Roger H. French, and W. Y. Ching: van der Waals-London dispersion interactions for optically anisotropic cylinders: Metallic and semiconducting single-wall carbon nanotubes, Phys. Rev B 76, 045417 (2007). [3] Rick Rajter, Roger H. French, Rudi Podgornik, W. Y. Ching, and V. Adrian Parsegian, Spectral mixing formulations for van der Waals–London dispersion interactions between multicomponent carbon nanotubes, Journal of Applied Physucs 104, 053513 (2008). 29
Page 1 and 2: 12 th International Conference on N
Page 3 and 4: Welcome Dear conference participant
Page 5 and 6: Topics • Atomic resolution imagin
Page 7 and 8: Committees Program Committee Jaime
Page 9 and 10: General Information (cont.) Oral Pr
Page 11 and 12: Exhibitors 9
Page 13 and 14: Proceedings (cont.) 3. Length: Pape
Page 15 and 16: Conference Program 13
Page 17 and 18: Program Summary of the NC-AFM 2009
Page 19 and 20: Monday, August 10 Satellite Worksho
Page 21 and 22: Wednesday, August 12 Oxides Chair:
Page 23 and 24: Friday, August 14 Method Developmen
Page 25 and 26: Poster Session I cont. (Tuesday) In
Page 27 and 28: POSTER Session II (Wednesday) Molec
Page 29: Poster Session II cont. (Wednesday)
Page 33 and 34: Mo-0955 Multiple Scattering Casimir
Page 35 and 36: Diego Dalvit 1 Dispersive Casimir i
Page 37 and 38: Using Casimir and capillary forces
Page 39 and 40: Near-field radiative heat transfer
Page 41 and 42: Mo-1615 Tricks and facts in a high
Page 43 and 44: Measuring the topological dependenc
Page 45 and 46: Mo-1755 Contact potential differenc
Page 47 and 48: 3D Scanning Force Microscopy at Sol
Page 49 and 50: Tu-1000 Experimental and Theoretica
Page 51 and 52: Dynamic Force Spectroscopy of Singl
Page 53 and 54: Simultaneous measurement of force a
Page 55 and 56: Water, Ions, Membranes, Real Metals
Page 57 and 58: Tu-1530 The Effective Quality Facto
Page 59 and 60: We-0900 Imaging Single Atoms on Oxi
Page 61 and 62: We-0940 Character of the short-rang
Page 63 and 64: We-1020 Local surface photovoltage
Page 65 and 66: We-1140 Theoretical DFT simulations
Page 67 and 68: We-1220 Theoretical study of the fo
Page 69 and 70: Steering the formation of molecular
Page 71 and 72: Molecular scale dissipation in olig
Page 73 and 74: Dependence of the atomic scale imag
Page 75 and 76: Th-0940 Intramolecular features of
Page 77 and 78: Th-1020 Adhesion-induced energy dis
Page 79 and 80: Measuring Atomic Charge States by n
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Th-1220 Controlling electron transf
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Oral Presentations Friday, 14 Augus
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Small amplitude atomic resolution N
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Fr-1000 Visualization of Anisotropi
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Atomic resolution dynamic lateral f
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Bimodal AFM imaging of antibodies a
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Poster Session I Tuesday, 11 August
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P.I-02 Force Map of Atomic Force Mi
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P.I-04 Improved atomic-scale contra
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P.I-06 Resonance frequency shift du
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P.I-08 Atomic force microscope cant
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Self-assembled Boronitride Nanomesh
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P.I-12 Resolution enhanced multifre
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P.I-14 Kelvin Force Microscopy Dyna
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Open source scanning probe microsco
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P.I-18 Design of a Variable Tempera
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P.I-20 Besocke style quartz tuning
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P.I-22 A homebuilt low-temperature
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P.I-24 High-Speed Frequency Modulat
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P.I-26 Deciphering Nanoscale Intera
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Dual-Frequency-Modulation AFM Spect
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P.I-30 Internal Resonances and Spat
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Relation between lateral forces and
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M. Teresa Cuberes Ultrasonic Nanoli
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Contacting self-ordered molecular w
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Molecular Structures of Organic Sin
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One and Two Dimensional Structure o
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Temperature-dependent growth of C60
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P.II-07 Atomic Force Microscopy Stu
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Imaging and Detection of Single Mol
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P.II-11 Imaging Schwann Cell NGF Re
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Molecular Resolution Investigation
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Development of Multifrequency High-
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Noncontact observation in liquid wi
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P.II-19 Cantilever Holder Design fo
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P.II-21 Manipulation Mechanism of S
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nc-AFM Investigations of Metal Nano
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P.II-25 Contrast formation on cross
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P.II-27 Non-contact scanning nonlin
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P.II-29 Local Dielectric Spectrosco
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P.II-31 Polarization-dependent elec
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Magnetic Resonance Force Microscopy
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P.II-35 Enhancement of the Exchange
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Abe M. 51,58,92,141 Clerk A. A. 78
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Martinez N. F. 69 Parashar P. 31 Ma
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List of Participants 169
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Ido Shinichiro Kyoto University ido
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Wright Alan University of Maryland
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Ultra-high precision spatial positi
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AD VT-QPlus_ONUS / 09-May Nanotechn
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Surface Analysis Technology Aarhus
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Notes
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NC-AFM 2009 Sessions Monday August
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Noncontact Atomic Force Microscopy - Yale School of Engineering ...

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