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Beilstein J. Nanotechnol. 2014, 5, 1144–1151, doi:10.3762/bjnano.5.125
Figure 1: (a) and (b) topography and phase images, respectively, of a Nafion® membrane acquired in the attrac...
Figure 2: Simulations of maximum indentation and peak force (see section Methods below for details on the num...
Figure 3: Bimodal experiments with varying second eigenmode amplitude for a Nafion® membrane (the images corr...
Figure 4: Illustration of the ideal response of a harmonic oscillator [22]. (a) Amplitude and phase vs excitation...
Figure 5: Simulated behavior of the first eigenmode phase as a function of free amplitude (a) and cantilever ...
Figure 6: Morphology change of the topographical feature highlighted in Figure 1a for different imaging conditions. (a...
Figure 7: Scan line profiles along the dashed line indicated in Figure 6a for the images shown in Figure 6a (attractive), Figure 6b (rep...
Beilstein J. Nanotechnol. 2013, 4, 198–207, doi:10.3762/bjnano.4.20
Figure 1: Schematic setup of our AFM operated in AM-OL or AM-FM mode. AM-OL mode can be accomplished by addin...
Figure 2: Phase and frequency shift calculated analytically for a higher eigenmode with f2 = 380.8 kHz, k2 = ...
Figure 3: Comparison of 2nd eigenmode contrasts for different operation modes (left: AM-OL, middle: AM-FM (CE...
Figure 4: 500 × 800 nm2 sized images of DNA/mica samples in three different multifrequency AFM modes (AM-OL, ...
Figure 5: Simulation of the change in frequency response for the second eigenmode of a cantilever with fundam...
Figure 6: Top row: 8 × 12 nm2 height, 1st phase shift, and 2nd phase shift images of a mica surface imaged in...