V - V |
NC-AFM'99 - Proceedings of the Second International Workshop on Noncontact Atomic Force Microscopy - Pontresina, Switzerland, September 1-4, 1999 - Preface Bennewitz R, Gerber C, Meyer E |
207 - 211 |
Bias dependence of Si(111) 7 X 7 images observed by noncontact atomic force microscopy Arai T, Tomitori M |
212 - 217 |
Atomic-scale structures on a non-stoichiometric TiO2(110) surface studied by noncontact AFM Ashino M, Uchihashi T, Yokoyama K, Sugawara Y, Morita S, Ishikawa M |
218 - 221 |
Atomic resolved imaging of cleaved NiO(100) surfaces by NC-AFM Hosoi H, Sueoka K, Hayakawa K, Mukasa K |
222 - 227 |
Atomic-scale variations in contact potential difference on Au/Si(111) 7 X 7 surface in ultrahigh vacuum Kitamura S, Suzuki K, Iwatsuki M, Mooney CB |
228 - 232 |
Imaging of fullerene molecules on Si(111)-7 X 7 surface with NC-AFM Kobayashi K, Yamada H, Horiuchi T, Matsushige K |
233 - 238 |
Imaging reconstructed TiO2 surfaces with non-contact atomic force microscopy Pang CL, Raza H, Haycock SA, Thornton G |
239 - 243 |
Noncontact AFM imaging on Al-adsorbed Si(111) surface with an empty orbital Sugawara Y, Orisaka S, Morita S |
244 - 250 |
High-resolution imaging of organic monolayers using noncontact AFM Uchihashi T, Ishida T, Komiyama M, Ashino M, Sugawara Y, Mizutani W, Yokoyama K, Morita S, Tokumoto H, Ishikawa M |
251 - 255 |
Measurements of electric potential in a laser diode by Kelvin Probe Force Microscopy Leveque G, Girard P, Skouri E, Yarekha D |
256 - 262 |
Kelvin probe force microscopy using near-field optical tips Shikler R, Rosenwaks Y |
263 - 268 |
Kelvin probe force microscopy in ultra high vacuum using amplitude modulation detection of the electrostatic forces Sommerhalter C, Glatzel T, Matthes TW, Jager-Waldau A, Lux-Steiner MC |
269 - 273 |
Carbon nanotubes as tips in non-contact SFM Barwich V, Bammerlin M, Baratoff A, Bennewitz R, Guggisberg M, Loppacher C, Pfeiffer O, Meyer E, Guntherodt HJ, Salvetat JP, Bonard JM, Forro L |
274 - 279 |
Metallic adhesion forces and tunneling between atomically defined tip and sample Schirmeisen A, Cross G, Stalder A, Grutter P, Durig U |
280 - 284 |
Quantitative electrostatic force measurement in AFM Jeffery S, Oral A, Pethica JB |
285 - 289 |
Study of tip-sample interaction in scanning force microscopy Luna M, Colchero J, Gomez-Herrero J, Baro AM |
290 - 294 |
Force-distance studies with piezoelectric tuning forks below 4.2 K Rychen J, Ihn T, Studerus P, Herrmann A, Ensslin K, Hug HJ, van Schendel PJA, Guntherodt HJ |
295 - 301 |
Experimental and theoretical analysis of shear-force interaction in the non-contact regime with 100 pN force resolution Schmidt JU, Bergander H, Eng LM |
302 - 307 |
Atomic resolution imaging using the electric double layer technique: friction vs. height contrast mechanisms Sokolov IY, Henderson GS |
308 - 313 |
Implementation and optimization of a scanning Joule expansion microscope for the study of small conducting gold wires Cannaerts M, Seynaeve E, Rens G, Volodin A, Van Haesendonck C |
314 - 319 |
Normal and lateral force investigation using magnetically activated force sensors Jarvis SP, Yamada H, Kobayashi K, Toda A, Tokumoto H |
320 - 325 |
Strength measurement and calculations on silicon-based nanometric oscillators for scanning force microcopy operating in the gigahertz range Kawakatsu H, Toshiyoshi H, Saya D, Fukushima K, Fujita H |
326 - 331 |
Self-assembled monolayers containing biphenyl derivatives as challenge for nc-AFM Nakasa A, Akiba U, Fujihira M |
332 - 336 |
Phase change detection of attractive force gradient by using a quartz resonator in noncontact atomic force microscopy Nishi R, Houda I, Aramata T, Sugawara Y, Morita S |
337 - 342 |
Using higher flexural modes in non-contact force microscopy Pfeiffer O, Loppacher C, Wattinger C, Bammerlin M, Gysin U, Guggisberg M, Rast S, Bennewitz R, Meyer E, Guntherodt HJ |
343 - 348 |
Development of low temperature ultrahigh vacuum noncontact atomic force microscope with PZT cantilever Suehira N, Tomiyoshi Y, Sugiyama K, Watanabe S, Fujii T, Sugawara Y, Morita S |
349 - 354 |
A low-temperature scanning force microscope for investigating buried two-dimensional electron systems under quantum Hall conditions Weitz P, Ahlswede E, Weis J, Von Klitzing K, Eberl K |
355 - 360 |
Molecular dynamics simulations of dynamic force microscopy: applications to the Si(111)-7 X 7 surface Abdurixit A, Baratoff A, Meyer E |
361 - 366 |
Frequency shift and energy dissipation in non-contact atomic-force microscopy Ke SH, Uda T, Terakura K |
367 - 372 |
Theoretical simulation of noncontact AFM images of Si(111) root 3 X root 3-Ag surface based on Fourier expansion method Sasaki N, Aizawa H, Tsukada M |
373 - 381 |
Measurements and analysis of surface potential change during wear of single-crystal silicon (100) at ultralow loads using Kelvin probe microscopy Bhushan B, Goldade AV |
382 - 386 |
Non-contact AFM investigation of influence of freezing process on the surface structure of potato starch granule Krok F, Szymonska J, Tomasik P, Szymonski M |
387 - 392 |
Scanning probe microscopy - a tool for the investigation of high-k materials Landau SA, Junghans N, Weiss PA, Kolbesen BO, Olbrich A, Schindler G, Hartner W, Hintermaier F, Dehm C, Mazure C |
393 - 397 |
Application of non-contact scanning force microscopy to the study of water adsorption on graphite, gold and mica Luna M, Colchero J, Gil A, Gomez-Herrero J, Baro AM |
398 - 404 |
Chemical force microscopy of -CH3 and -COOH terminal groups in mixed self-assembled monolayers by pulsed-force-mode atomic force microscopy Okabe Y, Akiba U, Fujihira M |
405 - 411 |
Study of mixed Langmuir-Blodgett films of hydrocarbon and fluorocarbon amphiphilic compounds by scanning surface potential microscopy and friction force microscopy Yagi K, Fujihira M |