Table of Contents
81	Full Research Paper
11	Letter
3	Review
5	Editorial
1	Commentary

Size-dependent phase diagrams of metallic alloys: A Monte Carlo simulation study on order–disorder transitions in Pt–Rh nanoparticles

Johan Pohl,
Christian Stahl and
Karsten Albe

Full Research Paper
Published 02 Jan 2012

PDF
Album
1. Figure 1: The structure of the ordered phases with Strukturbericht designation “D0₂₂” (prototype structure: Al...
  
  Jump to Figure 1
2. Figure 2: The vertical lines in the plot represent equipotential lines of the free energy for constant differ...
  
  Jump to Figure 2
3. Figure 3: Calculated phase diagrams of Pt–Rh for three different particle sizes of 9201, 2075 and 807 atoms, ...
  
  Jump to Figure 3
4. Figure 4: Equilibrium configurations of large particles with 9201 atoms at different concentrations and tempe...
  
  Jump to Figure 4
5. Figure 5: Calculated phase diagram of bulk Pt–Rh (solid line) in comparison to that of a particle consisting ...
  
  Jump to Figure 5
6. Figure 6: All concentration-averaged Warren–Cowley short-range order parameters up to 8th neighbors for a Pt...
  
  Jump to Figure 6
7. Figure 7: Comparison of the (lower points) and (upper points) WC-order parameters versus temperature for di...
  
  Jump to Figure 7
8. Figure 8: Comparison of the concentration-averaged order parameters (lower points) and (upper points). The ...
  
  Jump to Figure 8
9. Figure 9: Comparison of the WC-order parameters (lower points) and (upper points). The Pt concentration is ...
  
  Jump to Figure 9
10. Figure 10: Comparison of the order parameters (lower points) and (upper points) constrained to a core region...
  
  Jump to Figure 10
11. Figure 11: Comparison of the 8 WC-order parameters and of three different particle sizes and bulk material a...
  
  Jump to Figure 11
12. Figure 12: Comparison of the 8 averaged WC-order parameters of three different particle sizes and bulk materi...
  
  Jump to Figure 12

Beilstein J. Nanotechnol. 2012, 3, 1–11, doi:10.3762/bjnano.3.1

Full Text

X-ray spectroscopy characterization of self-assembled monolayers of nitrile-substituted oligo(phenylene ethynylene)s with variable chain length

Hicham Hamoudi,
Ping Kao,
Alexei Nefedov,
David L. Allara and
Michael Zharnikov

Full Research Paper
Published 05 Jan 2012

PDF
Album
1. Figure 1: A schematic drawing of the target molecules along with their acronyms.
  
  Jump to Figure 1
2. Figure 2: S 2p (a), C 1s (b), and N 1s (c) HRXPS spectra of the target SAMs acquired at photon energies of 35...
  
  Jump to Figure 2
3. Figure 3: (a) C K-edge NEXAFS spectra of the NC-OPEn SAMs acquired at an X-ray incidence angle of 55°. (b) Di...
  
  Jump to Figure 3
4. Figure 4: π*-resonance photon-energy range of the C K-edge NEXAFS spectra of the target SAMs and two referenc...
  
  Jump to Figure 4
5. Figure 5: (a) N K-edge NEXAFS spectra of the NC-OPEn SAMs acquired at an X-ray incidence angle of 55°. (b) Di...
  
  Jump to Figure 5
6. Figure 6: Orientation of the NC-OPEn molecules in the respective SAMs (by the example of NC-OPE3; a planar co...
  
  Jump to Figure 6
7. Figure 7: Calculated C K-edge NEXAFS spectra of NC-OPE3 in the planar and twisted conformations, along with t...
  
  Jump to Figure 7
8. Figure 8: Calculated N K-edge NEXAFS spectra of NC-OPE3 in the planar and twisted conformations, along with t...
  
  Jump to Figure 8
Supp. Info

Beilstein J. Nanotechnol. 2012, 3, 12–24, doi:10.3762/bjnano.3.2

Full Text

Effect of the tip state during qPlus noncontact atomic force microscopy of Si(100) at 5 K: Probing the probe

Adam Sweetman,
Sam Jarvis,
Rosanna Danza and
Philip Moriarty

Full Research Paper
Published 09 Jan 2012

PDF
Album
1. Figure 1: Topographs acquired in constant Δf NC-AFM of Si(100) at 5 K, demonstrating different imaging mechan...
  
  Jump to Figure 1
2. Figure 2: Larger scans of (a) inverted and (b) high-setpoint inverted images presented in Figure 1b and Figure 1c. In a) the la...
  
  Jump to Figure 2
3. Figure 3: Experimental short-range force (nN) and dissipation (eV/cycle) as a function of relative tip–sample...
  
  Jump to Figure 3
Supp. Info

Beilstein J. Nanotechnol. 2012, 3, 25–32, doi:10.3762/bjnano.3.3

Full Text

Octadecyltrichlorosilane (OTS)-coated ionic liquid drops: Micro-reactors for homogenous catalytic reactions at designated interfaces

Xiaoning Zhang and
Yuguang Cai

Letter
Published 12 Jan 2012

PDF
Album
1. Figure 1: [Bmim]Cl assembles on the OTSpd pattern. a) OTSpd discs fabricated by scanning probe deep oxidation...
  
  Jump to Figure 1
2. Figure 2: a) A representative OTS-coated [Bmim]Cl drop on the OTSpd pattern. AC mode topography image. b) Opt...
  
  Jump to Figure 2
3. Figure 3: H₂O₂ decomposition reaction catalyzed by FeCl₃. The process was recorded by the optical microscope ...
  
  Jump to Figure 3
Supp. Info

Beilstein J. Nanotechnol. 2012, 3, 33–39, doi:10.3762/bjnano.3.4

Full Text

Transmission eigenvalue distributions in highly conductive molecular junctions

Justin P. Bergfield,
Joshua D. Barr and
Charles A. Stafford

Full Research Paper
Published 16 Jan 2012

PDF
Album
1. Figure 1: Spectral functions A(E) = −(1/π)Tr{G(E)} at room temperature for gas-phase benzene (top panel) and ...
  
  Jump to Figure 1
2. Figure 2: Calculated van der Waals contribution to the binding energy of benzene adsorbed on a Pt(111) surfac...
  
  Jump to Figure 2
3. Figure 3: The trace of Γ^α for a Pt electrode in contact with a benzene molecule. Nine total basis states of t...
  
  Jump to Figure 3
4. Figure 4: Eigenvalue decomposition of an ensemble of Γ^α matricies, showing that each lead–molecule contact ha...
  
  Jump to Figure 4
5. Figure 5: The distribution of charging energy (top panel) and Tr{Γ} (bottom panel) over the ensemble describ...
  
  Jump to Figure 5
6. Figure 6: Calculated conductance histogram for the ensemble over bonding configurations and Pt surfaces. The ...
  
  Jump to Figure 6
7. Figure 7: The calculated eigenvalue distributions for an ensemble of 1.74 × 10⁵ (2000 bonding configurations ...
  
  Jump to Figure 7
8. Figure 8: The calculated average total transmission averaged over 2000 bonding configurations through a Pt–be...
  
  Jump to Figure 8
9. Figure 9: The calculated Fano factor F distribution for the full ensemble of 1.74 × 10⁵ Pt–benzene–Pt junctio...
  
  Jump to Figure 9
Supp. Info

Beilstein J. Nanotechnol. 2012, 3, 40–51, doi:10.3762/bjnano.3.5

Full Text

Direct-write polymer nanolithography in ultra-high vacuum

Woo-Kyung Lee,
Minchul Yang,
Arnaldo R. Laracuente,
William P. King,
Lloyd J. Whitman and
Paul E. Sheehan

Letter
Published 19 Jan 2012

PDF
Album
1. Figure 1: (a) Schematic of the tDPN process which uses a heated scanning probe microscope tip to deposit poly...
  
  Jump to Figure 1
2. Figure 2: Orientations of UHV deposited polymer. (a) PDDT typically organizes in such way that the polymer is...
  
  Jump to Figure 2
3. Figure 3: The polymer deposit heights and widths of PDDT deposited onto Si substrate (non-UHV prepared) as a ...
  
  Jump to Figure 3
4. Figure 4: (a) Deposition onto the UHV prepared Si substrate in UHV shows the polymer lying on its side. (b) P...
  
  Jump to Figure 4

Beilstein J. Nanotechnol. 2012, 3, 52–56, doi:10.3762/bjnano.3.6

Full Text

Impact of cell shape in hierarchically structured plant surfaces on the attachment of male Colorado potato beetles (Leptinotarsa decemlineata)

Bettina Prüm,
Robin Seidel,
Holger Florian Bohn and
Thomas Speck

Full Research Paper
Published 23 Jan 2012

PDF
Album
1. Figure 1: Plant surfaces investigated showing different types of structuring. Pictograms on the top show the ...
  
  Jump to Figure 1
2. Figure 2: Traction forces of actively walking male Leptinotarsa decemlineata beetles on plant surfaces of dif...
  
  Jump to Figure 2
3. Figure 3: SEM micrographs of the attachment devices in a male Leptinotarsa decemlineata. (a) Ventral view of ...
  
  Jump to Figure 3
4. Figure 4: Experimental setup. Traction forces of a beetle (b) actively walking on a plant surface (p) were re...
  
  Jump to Figure 4
Video

Beilstein J. Nanotechnol. 2012, 3, 57–64, doi:10.3762/bjnano.3.7

Full Text

Substrate-mediated effects in photothermal patterning of alkanethiol self-assembled monolayers with microfocused continuous-wave lasers

Anja Schröter,
Mark Kalus and
Nils Hartmann

Full Research Paper
Published 26 Jan 2012

PDF
Album
1. Figure 1: Schematic diagram of the process flow: (a) SAM formation upon immersion in an ethanolic solution of...
  
  Jump to Figure 1
2. Figure 2: UV–vis spectra of Au/glass substrates with Au layer thicknesses of 10 nm, 30 nm and 50 nm.
  
  Jump to Figure 2
3. Figure 3: IRRAS-spectra of an HDT-coated Au/glass substrate exposing a 50 nm Au layer.
  
  Jump to Figure 3
4. Figure 4: Optical micrograph of a laser-fabricated dot pattern. HDT-SAMs on a Au/glass substrate exposing a 3...
  
  Jump to Figure 4
5. Figure 5: AFM data from patterning experiments with HDT-SAMs on Au/glass substrates exposing a 30 nm thick Au...
  
  Jump to Figure 5
6. Figure 6: Dependence of the structure diameter d on the incident laser power P and the pulse length τ of HDT-...
  
  Jump to Figure 6
7. Figure 7: (a) Calculated stationary temperature profiles on different types of Au-coated substrates used for ...
  
  Jump to Figure 7
8. Figure 8: Optical micrograph of a laser-patterned HDT SAM on a Au/glass substrate exposing a 10 nm thick Au l...
  
  Jump to Figure 8

Beilstein J. Nanotechnol. 2012, 3, 65–74, doi:10.3762/bjnano.3.8

Full Text

Improvement of the oxidation stability of cobalt nanoparticles

Celin Dobbrow and
Annette M. Schmidt

Letter
Published 30 Jan 2012

PDF
Album
1. Figure 1: TEM images of (a) Co@OA, (b) Co@PCL, (c) Co@PS particles.
  
  Jump to Figure 1
2. Figure 2: Magnetization graphs of toluene-based particle dispersions sampled at selected points of storage ti...
  
  Jump to Figure 2
3. Figure 3: Relative saturation magnetization M_s/M_s_,0 of toluene-based particle dispersions sampled as a functi...
  
  Jump to Figure 3
4. Figure 4: Relative initial susceptibility χ_ini/χ_ini,0 of toluene-based particle dispersions sampled as a func...
  
  Jump to Figure 4
5. Figure 5: Magnetization graphs of Co@PCL particles at selected points of storage time at 25 °C in air, normal...
  
  Jump to Figure 5
6. Figure 6: Quasi-static magnetization curves of Co@PS based particles exposed to air (a) in dispersion and (b)...
  
  Jump to Figure 6
7. Figure 7: Magnetic properties of Co@PCL and Co@PS particles as a powder, as a function of storage time. (a) R...
  
  Jump to Figure 7
Supp. Info

Beilstein J. Nanotechnol. 2012, 3, 75–81, doi:10.3762/bjnano.3.9

Full Text

Surface functionalization of aluminosilicate nanotubes with organic molecules

Wei Ma,
Weng On Yah,
Hideyuki Otsuka and
Atsushi Takahara

Review
Published 02 Feb 2012

PDF
Album
1. Figure 1: Schematic illustration of imogolite-nanotube structure (left). DFM image of imogolite (right).
  
  Jump to Figure 1
2. Figure 2: Monoclinic solid-state packing arrangement of the imogolite nanotubes.
  
  Jump to Figure 2
3. Figure 3: Purification steps of imogolite from imogo soil.
  
  Jump to Figure 3
4. Figure 4: Schematic illustration of dodecylphosphate chemisorbing onto the surface of individually dispersed ...
  
  Jump to Figure 4
5. Figure 5: Thermogravimetric profiles of the original imogolite, DDPO₄H₂, and DDPO₄-imogolite in N₂ atmosphere...
  
  Jump to Figure 5
6. Figure 6: High-resolution XPS spectra for Al_2p of the original imogolite and DDPO₄-imogolite. Adapted with pe...
  
  Jump to Figure 6
7. Figure 7: WAXD profiles of (a) original imogolite and (b) DDPO₄-imogolite. Adapted with permission from W. Ma...
  
  Jump to Figure 7
8. Figure 8: TEM image of DDPO₄-imogolite. Reprinted with permission from W. Ma et al., Chem. Lett. 2011, 40, 15...
  
  Jump to Figure 8
9. Figure 9: Static-contact-angle images of water droplets on a silicon wafer cast with (a) original imogolite a...
  
  Jump to Figure 9
10. Figure 10: Schematic representation for the preparation of a PMMA grafted imogolite nanotubes. Reprinted with ...
  
  Jump to Figure 10
11. Figure 11: Chemical structure of BMPOPO₄(NH₄)₂. Reprinted with permission from W. Ma et al., Polymer 2011, 52,...
  
  Jump to Figure 11
12. Figure 12: Wide-scan XPS spectra of the original imogolite and BMPOPO₄-imogolite (inset, high-resolution XPS s...
  
  Jump to Figure 12
13. Figure 13: (a) A SFM height image of PMMA grafted imogolite (M_n = 32700, M_w/M_n = 1.33). (b) A phase image (ins...
  
  Jump to Figure 13
14. Figure 14: WAXD profiles of (a) quartz-glass capillary background, (b) bare imogolite, (c) BMPOPO₄-imogolite, ...
  
  Jump to Figure 14
15. Scheme 1: Synthesis pathway for electron donating (HT3P) and accepting (HT3OP) terthiophene of phosphonic aci...
  
  Jump to Scheme 1
16. Figure 15: Schematic illustration of imogolite structure and the preparation of terthiophene/imogolite hybrid ...
  
  Jump to Figure 15
17. Figure 16: FTIR spectra (a) of HT3P/imogolite hybrid, HT3P, and imogolite, (b) of HT3OP/imogolite hybrid, HT3O...
  
  Jump to Figure 16
18. Figure 17: Normalized solid-state (cast film), imogolite hybrid and solution absorption spectra of (a) HT3P an...
  
  Jump to Figure 17
19. Figure 18: Fluorescence excitation/emission spectra of (a) HT3P, HT3P/imogolite hybrid and (b) HT3OP, HT3OP/im...
  
  Jump to Figure 18
20. Figure 19: I–V curves of imogolite, HT3P/imogolite, and HT3OP/imogolite hybrid. Reprinted with permission from...
  
  Jump to Figure 19
21. Figure 20: Schematic illustration of reversible formation of P3HT nanofiber.
  
  Jump to Figure 20
22. Figure 21: Fabrication and proposed molecular arrangement of P3HT/HT3P-imogolite nanofiber hybrid. Reprinted w...
  
  Jump to Figure 21
23. Figure 22: UV–vis absorption spectra of P3HT (a) and P3HT/HT3P-imogolite hybrid (b) in anisole (0.0005%) durin...
  
  Jump to Figure 22
24. Figure 23: DFM images of (a) P3HT nanofiber and (b) P3HT/HT3P-imogolite nanofiber hybrid. Adapted with permiss...
  
  Jump to Figure 23
25. Figure 24: Out-of-plane (a) and in-plane (b) GIWAXD patterns of P3HT/HT3P-imogolite nanofiber hybrid. (c) Sche...
  
  Jump to Figure 24

Beilstein J. Nanotechnol. 2012, 3, 82–100, doi:10.3762/bjnano.3.10

Full Text

Electron-beam patterned self-assembled monolayers as templates for Cu electrodeposition and lift-off

Zhe She,
Andrea DiFalco,
Georg Hähner and
Manfred Buck

Full Research Paper
Published 06 Feb 2012

PDF
Album
1. Figure 1: (a) Scheme of SAM controlled electrodeposition and lift-off of metal structures. Starting from a un...
  
  Jump to Figure 1
2. Figure 2: (a) Illustration of different types of defects in a SAM. Domain boundaries (1) and substrate steps ...
  
  Jump to Figure 2
3. Figure 3: Linear-sweep voltammograms comparing the electrodeposition of Cu on clean (black squares) and SAM m...
  
  Jump to Figure 3
4. Figure 4: (a,b) Chronoamperograms of single potential (a) and double potential (b) deposition processes on a ...
  
  Jump to Figure 4
5. Figure 5: SEM images of Cu nucleation and growth on a MBP0-SAM on Au/Ag/Mica prepared at 65 °C for 24 h. (a) ...
  
  Jump to Figure 5
6. Figure 6: Electrochemical deposition of Cu on e-beam-patterned MBP0-SAM/Au/Si. (a) SEM image of a series of p...
  
  Jump to Figure 6
7. Figure 7: SEM images of a SAM templated copper deposit on the original MBP0 coated Au/Si substrate (a) and af...
  
  Jump to Figure 7
8. Figure 8: AFM topography images of Cu electrodeposited onto an e-beam-patterned MBP0-SAM on Au/Si (a) before ...
  
  Jump to Figure 8
9. Figure 9: AFM images of Cu electrodeposition onto a MBP0/Au/Si sample demonstrating the quality of passivatio...
  
  Jump to Figure 9
10. Figure 10: (a,b) AFM topography images and height profiles along the lines indicated, comparing the roughness ...
  
  Jump to Figure 10

Beilstein J. Nanotechnol. 2012, 3, 101–113, doi:10.3762/bjnano.3.11

Full Text

Self-assembly of octadecyltrichlorosilane: Surface structures formed using different protocols of particle lithography

ChaMarra K. Saner,
Kathie L. Lusker,
Zorabel M. LeJeune,
Wilson K. Serem and
Jayne C. Garno

Full Research Paper
Published 09 Feb 2012

PDF
Album
1. Figure 1: Strategies for preparing organosilane nanostructures by means of particle lithography. Basic steps ...
  
  Jump to Figure 1
2. Figure 2: Combining particle lithography with vapor deposition of OTS produced ring-shaped nanostructures. (a...
  
  Jump to Figure 2
3. Figure 3: Particle lithography with vapor deposition of OTS produced multilayered ring nanostructures surroun...
  
  Jump to Figure 3
4. Figure 4: Nanopore structures of OTS were formed with particle lithography combined with contact printing. Co...
  
  Jump to Figure 4
5. Figure 5: Nanodots of OTS produced with immersion of annealed latex masks. Contact-mode AFM images are shown ...
  
  Jump to Figure 5
6. Figure 6: Nanostructured film of OTS produced by immersion of annealed silica masks in OTS solutions. Contact...
  
  Jump to Figure 6

Beilstein J. Nanotechnol. 2012, 3, 114–122, doi:10.3762/bjnano.3.12

Full Text

Mesoporous MgTa₂O₆ thin films with enhanced photocatalytic activity: On the interplay between crystallinity and mesostructure

Jin-Ming Wu,
Igor Djerdj,
Till von Graberg and
Bernd M. Smarsly

Full Research Paper
Published 13 Feb 2012

PDF
Album
1. Figure 1: XRD patterns of (a) the KLE-templated mesoporous and (b) the nonporous MgTa₂O₆ thin film after ther...
  
  Jump to Figure 1
2. Figure 2: Average grain size and its standard deviation as a measure of anisotropy of MgTa₂O₆ in the mesoporo...
  
  Jump to Figure 2
3. Figure 3: SEM surface morphologies of a mesoporous KLE-templated MgTa₂O₆ film after thermal treatment at (a) ...
  
  Jump to Figure 3
4. Figure 4: AFM (a, c) morphology of the KLE-templated mesoporous MgTa₂O₆ film after calcination at 760 °C. The...
  
  Jump to Figure 4
5. Figure 5: TEM morphology of a fragment scratched off from a mesoporous KLE-templated MgTa₂O₆ thin film before...
  
  Jump to Figure 5
6. Figure 6: SAXS patterns (measured in symmetric reflection) of the mesoporous KLE-templated MgTa₂O₆ thin film ...
  
  Jump to Figure 6
7. Figure 7: 2-D-SAXS patterns of the KLE-templated mesoporous MgTa₂O₆ thin film after calcination at various te...
  
  Jump to Figure 7
8. Figure 8: (a) Absorption spectra of RhB after photodegradation for given durations, assisted by the mesoporou...
  
  Jump to Figure 8
9. Figure 9: Reaction rate constants of the photodegradation reaction in the presence of the KLE-templated mesop...
  
  Jump to Figure 9
Supp. Info
Video

Beilstein J. Nanotechnol. 2012, 3, 123–133, doi:10.3762/bjnano.3.13

Full Text

Parallel- and serial-contact electrochemical metallization of monolayer nanopatterns: A versatile synthetic tool en route to bottom-up assembly of electric nanocircuits

Jonathan Berson,
Assaf Zeira,
Rivka Maoz and
Jacob Sagiv

Letter
Published 16 Feb 2012

PDF
Album
1. Figure 1: Scheme of parallel-contact electrochemical metallization of a OTSeo@OTS/Si template nanopattern (ta...
  
  Jump to Figure 1
2. Figure 2: SFM images (and distance–height profiles along the marked lines) acquired after each step during th...
  
  Jump to Figure 2
3. Figure 3: Semicontact SFM images (and distance–height profiles along the marked lines) of different silver/mo...
  
  Jump to Figure 3
4. Figure 4: Scheme of serial-contact electrochemical metallization of selected sites within the OTSeo lines of ...
  
  Jump to Figure 4
5. Figure 5: Fabrication of a rectangular array of 30 silver/monolayer nanodots by the serial CET process outlin...
  
  Jump to Figure 5
6. Figure 6: Proposed bipolar electrochemical mechanism of metal transfer from a thin, granular silver-film stam...
  
  Jump to Figure 6
Supp. Info

Beilstein J. Nanotechnol. 2012, 3, 134–143, doi:10.3762/bjnano.3.14

Full Text

Current-induced forces in mesoscopic systems: A scattering-matrix approach

Niels Bode,
Silvia Viola Kusminskiy,
Reinhold Egger and
Felix von Oppen

Full Research Paper
Published 20 Feb 2012

PDF
Album
1. Figure 1: Resonant level. The shape of the effective potential can be tuned by the bias voltage. We consider...
  
  Jump to Figure 1
2. Figure 2: Sketch of the two-level model. Electrons tunnel through two degenerate energy levels between the le...
  
  Jump to Figure 2
3. Figure 3: Effective potential for the mechanical motion in the two-level model. The shape of the potential ca...
  
  Jump to Figure 3
4. Figure 4: Damping versus mechanical displacement in the two-level model. (a) Contribution γ^s,eq to the fricti...
  
  Jump to Figure 4
5. Figure 5: Cartoon of the positions of the electronic levels in the dot with respect to the Fermi levels of th...
  
  Jump to Figure 5
6. Figure 6: Dependence of the current in the two-level model on various parameters. Current as a function of me...
  
  Jump to Figure 6
7. Figure 7: Curl of the average force and damping coefficient for the model with two vibrational modes: (a) The...
  
  Jump to Figure 7
8. Figure 8: Limit-cycle dynamics for the model with two vibrational modes. (a) At large bias voltages, Poincaré...
  
  Jump to Figure 8
9. Figure 9: Current–current correlation function in the presence of noise for the system with two vibrational m...
  
  Jump to Figure 9
Supp. Info

Beilstein J. Nanotechnol. 2012, 3, 144–162, doi:10.3762/bjnano.3.15

Full Text

Analysis of fluid flow around a beating artificial cilium

Mojca Vilfan,
Gašper Kokot,
Andrej Vilfan,
Natan Osterman,
Blaž Kavčič,
Igor Poberaj and
Dušan Babič

Full Research Paper
Published 24 Feb 2012

PDF
Album
1. Figure 1: The artificial cilium is made of superparamagnetic beads. An external magnetic field is used to act...
  
  Jump to Figure 1
2. Figure 2: Fluid flow around a beating artificial cilium. The cilium was anchored to the surface at (0,0) and ...
  
  Jump to Figure 2
3. Figure 3: The time- and position-averaged flow velocities that were obtained for a variety of beating paramet...
  
  Jump to Figure 3
4. Figure 4: Calculated fluid flow around a beating cilium in the far-field approximation. Blue arrows indicate ...
  
  Jump to Figure 4
5. Figure 5: Magneto-optical tweezers used in the experiment. Three pairs of water-cooled coils ensured an almos...
  
  Jump to Figure 5

Beilstein J. Nanotechnol. 2012, 3, 163–171, doi:10.3762/bjnano.3.16

Full Text

Noncontact atomic force microscopy

Udo D. Schwarz

Editorial
Published 29 Feb 2012

Beilstein J. Nanotechnol. 2012, 3, 172–173, doi:10.3762/bjnano.3.17

Full Text

qPlus magnetic force microscopy in frequency-modulation mode with millihertz resolution

Maximilian Schneiderbauer,
Daniel Wastl and
Franz J. Giessibl

Letter
Published 29 Feb 2012

PDF
Album
1. Figure 1: (a) MFM probes the force between the magnetic dipole moment of a probe tip and the magnetic stray f...
  
  Jump to Figure 1
2. Figure 2: Lift Mode FM-MFM image using a qPlus sensor with an etched iron tip attached to it (see inset in a)...
  
  Jump to Figure 2
3. Figure 3: Lift Mode FM-MFM image employing a qPlus sensor with a commercial cobalt-coated MFM cantilever tip ...
  
  Jump to Figure 3

Beilstein J. Nanotechnol. 2012, 3, 174–178, doi:10.3762/bjnano.3.18

Full Text

Quantitative multichannel NC-AFM data analysis of graphene growth on SiC(0001)

Christian Held,
Thomas Seyller and
Roland Bennewitz

Full Research Paper
Published 29 Feb 2012

PDF
Album
1. Figure 1: Topography images of the SiC(0001) sample (a) before annealing, (b) after oxide removal at 1000 °C,...
  
  Jump to Figure 1
2. Figure 2: Topography images of graphene layers epitaxially grown on SiC(0001); (a) preparation in UHV, (b) pr...
  
  Jump to Figure 2
3. Figure 3: (a) Topographic image showing two steps found typically on samples prepared in an argon atmosphere....
  
  Jump to Figure 3
4. Figure 4: Rendered images of graphene layers on SiC(0001) prepared in (a) UHV and (b) an argon atmosphere. Th...
  
  Jump to Figure 4
5. Figure 5: Two-dimensional histograms based on the data set for the rendered images in Figure 4. The colour scheme rep...
  
  Jump to Figure 5

Beilstein J. Nanotechnol. 2012, 3, 179–185, doi:10.3762/bjnano.3.19

Full Text

Molecular-resolution imaging of pentacene on KCl(001)

Julia L. Neff,
Jan Götzen,
Enhui Li,
Michael Marz and
Regina Hoffmann-Vogel

Full Research Paper
Published 29 Feb 2012

PDF
Album
1. Figure 1: (a) SFM image showing part of a large pentacene island that overgrows two monoatomic substrate step...
  
  Jump to Figure 1
2. Figure 2: Pattern I. Imaged with an angle of 45°. (a) Topograph. (b) Simultaneously acquired dissipation sign...
  
  Jump to Figure 2
3. Figure 3: Pattern II. (a) Image displaying a defect. (b) Imaged with an angle of 45°. (c) Magnification of th...
  
  Jump to Figure 3
4. Figure 4: Large-area scan of the area where Figure 2 and Figure 3 were recorded with molecular resolution. f₀ = 160.440 kHz, Δ...
  
  Jump to Figure 4

Beilstein J. Nanotechnol. 2012, 3, 186–191, doi:10.3762/bjnano.3.20

Full Text

Noncontact atomic force microscopy study of the spinel MgAl₂O₄(111) surface

Morten K. Rasmussen,
Kristoffer Meinander,
Flemming Besenbacher and
Jeppe V. Lauritsen

Full Research Paper
Published 06 Mar 2012

PDF
Album
1. Figure 1: (a) Ball model of the MgAl₂O₄ stacking sequence in the [111] direction showing one repeat unit of 4...
  
  Jump to Figure 1
2. Figure 2: Experimental NC-AFM images recorded on the MgAl₂O₄(111) surface prepared by sputtering and annealin...
  
  Jump to Figure 2
3. Figure 3: (a) Experimental NC-AFM image with the surface superstructure model superimposed. (b) Illustration ...
  
  Jump to Figure 3

Beilstein J. Nanotechnol. 2012, 3, 192–197, doi:10.3762/bjnano.3.21

Full Text

Theoretical study of the frequency shift in bimodal FM-AFM by fractional calculus

Elena T. Herruzo and
Ricardo Garcia

Full Research Paper
Published 07 Mar 2012

PDF
Album
1. Figure 1: (a) Scheme of the first two eigenmodes of a cantilever and the tip deflection under bimodal excitat...
  
  Jump to Figure 1
2. Figure 2: Fractional operators of (0.1⁴/x⁶ − 1/x²). (a) The function, half-derivative and derivative are plot...
  
  Jump to Figure 2
3. Figure 3: Comparison between the general expression (Equation 6) and the half-derivative (Equation 16) relationship to the frequen...
  
  Jump to Figure 3
4. Figure 4: Comparison between the general expression (Equation 23) and the half-integral relationship (Equation 24) to the frequency...
  
  Jump to Figure 4
5. Figure 5: Comparison between the general expression for the frequency shift of the second mode in bimodal FM-...
  
  Jump to Figure 5

Beilstein J. Nanotechnol. 2012, 3, 198–206, doi:10.3762/bjnano.3.22

Full Text

A measurement of the hysteresis loop in force-spectroscopy curves using a tuning-fork atomic force microscope

Manfred Lange,
Dennis van Vörden and
Rolf Möller

Full Research Paper
Published 08 Mar 2012

PDF
Album
1. Figure 1: (a) STM image of the PTCDA/Ag/Si(111) √3 × √3 surface. Scan area: 250 nm × 250 nm, tunneling voltag...
  
  Jump to Figure 1
2. Figure 2: STM image of a double layer of PTCDA arranged in a herringbone phase. The structure is indicated by...
  
  Jump to Figure 2
3. Figure 3: (a) Frequency-shift versus distance curve. The contribution from the long-range forces has been sub...
  
  Jump to Figure 3
4. Figure 4: Scheme of the dissipation processes. The black arrows mark the different “snapshots” for the approa...
  
  Jump to Figure 4
5. Figure 5: (a) Dissipation signal for approach (black dots) and retraction (red dots). The inset displays the ...
  
  Jump to Figure 5

Beilstein J. Nanotechnol. 2012, 3, 207–212, doi:10.3762/bjnano.3.23

Full Text

Variations in the structure and reactivity of thioester functionalized self-assembled monolayers and their use for controlled surface modification

Inbal Aped,
Yacov Mazuz and
Chaim N. Sukenik

Full Research Paper
Published 09 Mar 2012

PDF
Album
1. Figure 1: Trichlorosilyl thioesters.
  
  Jump to Figure 1
2. Figure 2: Thickness and contact angles (advancing/receding) for SAMs based on compounds 1b–i.
  
  Jump to Figure 2
3. Figure 3: UV–vis spectra of SAMs of compounds 1a, 2, 3 and 4.
  
  Jump to Figure 3
4. Figure 4: Representative sulfur XPS analyses of the SAMs of compounds 2 (A), 3 (B) and 4 (C).
  
  Jump to Figure 4
5. Figure 5: ATR–FTIR spectra of SAMs of compounds 1a, 2, 3 and 4, as deposited, and after oxidation with UV-A i...
  
  Jump to Figure 5
Supp. Info

Beilstein J. Nanotechnol. 2012, 3, 213–220, doi:10.3762/bjnano.3.24

Full Text

An NC-AFM and KPFM study of the adsorption of a triphenylene derivative on KBr(001)

Antoine Hinaut,
Adeline Pujol,
Florian Chaumeton,
David Martrou,
André Gourdon and
Sébastien Gauthier

Full Research Paper
Published 12 Mar 2012

PDF
Album
1. Figure 1: (a) Molecular scheme and (b) structure of HCPTP optimized in vacuum.
  
  Jump to Figure 1
2. Figure 2: Constant-frequency-shift image of the KBr surface after the deposition of a small amount of molecul...
  
  Jump to Figure 2
3. Figure 3: Upper image: topography and lower image: Kelvin map of a KBr terrace with a higher coverage. Imagin...
  
  Jump to Figure 3
4. Figure 4: Images of a sample annealed at 150 °C after the deposition of the molecules at room temperature. (a...
  
  Jump to Figure 4
5. Figure 5: (a) and (b) are the profiles that correspond to the blue and green lines drawn in Figure 4a; (c) is the prof...
  
  Jump to Figure 5
6. Figure 6: (a) Topographic and (b) Kelvin map of a high molecular coverage annealed to 150 °C; (c) and (d) are...
  
  Jump to Figure 6
7. Figure 7: High resolution topographic images of an MLh domain. A = 2 nm. (a) Δf = −35 Hz, (b) Δf = −50 Hz. Th...
  
  Jump to Figure 7
8. Figure 8: High resolution (a) topographic and (b) Kelvin image of an MLv domain. A = 2 nm, Δf = −20 Hz. The a...
  
  Jump to Figure 8
9. Figure 9: Lowest-energy adsorbed conformation of HCPTP adsorbed on KBr(001). (a) Top and (b) side view. K⁺ io...
  
  Jump to Figure 9
10. Figure 10: Tentative model of the MLh layer.
  
  Jump to Figure 10

Beilstein J. Nanotechnol. 2012, 3, 221–229, doi:10.3762/bjnano.3.25

Full Text

Modeling noncontact atomic force microscopy resolution on corrugated surfaces

Kristen M. Burson,
Mahito Yamamoto and
William G. Cullen

Full Research Paper
Published 13 Mar 2012

PDF
Album
1. Figure 1: AFM resolution examples: (a) high resolution UHV NC-AFM image of SiO₂ displaying features with radi...
  
  Jump to Figure 1
2. Figure 2: Verification of atom–substrate potential: Potential w_a_–_s versus z for numerical and analytical sche...
  
  Jump to Figure 2
3. Figure 3: Schematic illustrating the model geometry: The surface is sinusoidally corrugated along the x direc...
  
  Jump to Figure 3
4. Figure 4: Hamaker force for flat surfaces: Relationship between tip potential and distance from the surface. ...
  
  Jump to Figure 4
5. Figure 5: Hamaker force law for corrugated surfaces: Tip–sample distance dependence of tip potential for high...
  
  Jump to Figure 5
6. Figure 6: Contours of constant normalized frequency shift, γ, for a corrugated surface. Attenuation is observ...
  
  Jump to Figure 6

Beilstein J. Nanotechnol. 2012, 3, 230–237, doi:10.3762/bjnano.3.26

Full Text

Analysis of force-deconvolution methods in frequency-modulation atomic force microscopy

Joachim Welker,
Esther Illek and
Franz J. Giessibl

Full Research Paper
Published 14 Mar 2012

PDF
Album
1. Figure 1: (a) Definition of the z-axis: The cantilever oscillates with a constant amplitude A. The lower turn...
  
  Jump to Figure 1
2. Figure 2: Amplitude dependence of the CoD for the Morse force law. The positions marked with 1, 2, 3, and 4 c...
  
  Jump to Figure 2
3. Figure 3: Model force F_ts(z), deconvoluted force F_S_/_M(z) and the residuals ΔF_S_/_M(z) for the Morse force law w...
  
  Jump to Figure 3
4. Figure 4: Amplitude dependence of the deviation in magnitude (a) and position (b) from the force minimum for ...
  
  Jump to Figure 4
5. Figure 5: Amplitude dependence of the CoD for a Lennard-Jones force law. The positions marked with 1, 2, 3, a...
  
  Jump to Figure 5
6. Figure 6: Model force F_ts(z), deconvoluted force curves F_S_/_M(z) and the residuals ΔF_S_/_M(z) for the Lennard-Jo...
  
  Jump to Figure 6
7. Figure 7: Amplitude dependence of the deviation in magnitude (a) and position (b) from the force minimum for ...
  
  Jump to Figure 7
8. Figure 8: Dependence of the CoD on the ratio A/d of amplitude and step width for the Morse and the Lennard-Jo...
  
  Jump to Figure 8
9. Figure 9: (a) Amplitude dependence of the CoD for Morse force law with different decay constants κ (see legen...
  
  Jump to Figure 9
Supp. Info

Beilstein J. Nanotechnol. 2012, 3, 238–248, doi:10.3762/bjnano.3.27

Full Text

Simultaneous current, force and dissipation measurements on the Si(111) 7×7 surface with an optimized qPlus AFM/STM technique

Zsolt Majzik,
Martin Setvín,
Andreas Bettac,
Albrecht Feltz,
Vladimír Cháb and
Pavel Jelínek

Full Research Paper
Published 15 Mar 2012

PDF
Album
1. Figure 1: The effect of z modulation (A) on the tunneling current (B). a_mod = 0.1 nm and f₀ = 73180 Hz; I_t ca...
  
  Jump to Figure 1
2. Figure 2: Circuit diagram of a current-to-voltage converter (IVC) where R_f is the feedback resistance with th...
  
  Jump to Figure 2
3. Figure 3: (A) Frequency response of the IVC presented in Figure 2. The following parameters were used to simulate R_f ...
  
  Jump to Figure 3
4. Figure 4: (A) The coupling between the deflection and the tunneling current channel is established by the str...
  
  Jump to Figure 4
5. Figure 5: (A) If the slow Op111 is replaced by a faster OPA, Op637, the modulation of the virtual ground can...
  
  Jump to Figure 5
6. Figure 6: (A) Original connections in which one of the electrodes of the tuning fork was connected to the def...
  
  Jump to Figure 6
7. Figure 7: A set of constant-frequency-shift maps (z) and simultaneously recorded average-tunneling-current ma...
  
  Jump to Figure 7
8. Figure 8: Two typically observed profiles of the dependence of the short-range interaction force (F_SR) and th...
  
  Jump to Figure 8
9. Figure 9: Analyses of the impact of the tunneling current on dissipation. It can be clearly seen that the tun...
  
  Jump to Figure 9
10. Figure 10: Relationship between the frequency shift and the dissipation for the reactive tip termination (A) a...
  
  Jump to Figure 10
11. Figure 11: Corrected dissipation for damping measured above the adatom and above the corner hole. The corner h...
  
  Jump to Figure 11

Beilstein J. Nanotechnol. 2012, 3, 249–259, doi:10.3762/bjnano.3.28

Full Text

Pulse-response measurement of frequency-resolved water dynamics on a hydrophilic surface using a Q-damped atomic force microscopy cantilever

Masami Kageshima

Full Research Paper
Published 19 Mar 2012

PDF
Album
1. Figure 1: Schematic diagram of cantilever regulation by means of magnetic force. The system consists of a Q-c...
  
  Jump to Figure 1
2. Figure 2: Transfer function of the differentiator in the Q-control circuit with a cutoff frequency of about 8...
  
  Jump to Figure 2
3. Figure 3: Effect of Q-control on the step-response of the cantilever recorded at about 700 nm from a mica sub...
  
  Jump to Figure 3
4. Figure 4: Comparison of the power spectrum density (PSD) of thermal noise in the cantilever-deflection signal...
  
  Jump to Figure 4
5. Figure 5: Comparison of pulse responses recorded at 300 nm from the substrate (a) and in close proximity (b)....
  
  Jump to Figure 5
6. Figure 6: Complex compliance of cantilever–water system calculated by Fourier–Laplace transformation of the r...
  
  Jump to Figure 6
7. Figure 7: Derivation of the viscoelasticity of hydrated water. The compliance data shown in Figure 6 are inverted to ...
  
  Jump to Figure 7

Beilstein J. Nanotechnol. 2012, 3, 260–266, doi:10.3762/bjnano.3.29

Full Text

Forming nanoparticles of water-soluble ionic molecules and embedding them into polymer and glass substrates

Stella Kiel,
Olga Grinberg,
Nina Perkas,
Jerome Charmet,
Herbert Kepner and
Aharon Gedanken

Full Research Paper
Published 21 Mar 2012

PDF
Album
1. Figure 1: Coating installation.
  
  Jump to Figure 1
2. Figure 2: XRD diffraction pattern of NPs of KI coated on a silicon wafer (the red lines indicate literature d...
  
  Jump to Figure 2
3. Figure 3: XRD diffraction pattern of NaCl precipitate collected at the end of sonication (red lines indicate ...
  
  Jump to Figure 3
4. Figure 4: Raman spectrum of a silicon wafer and a silicon wafer coated with CuSO₄.
  
  Jump to Figure 4
5. Figure 5: K (top) and I (bottom) XPS spectra detected from the glass coated with KI.
  
  Jump to Figure 5
6. Figure 6: The SEM images of (a) pristine microscope glass slide (magnification 20000×); (b) the glass slide c...
  
  Jump to Figure 6
7. Figure 7: SEM images of (a) parylene-coated glass slide (magnification 20000×); (b) parylene-coated glass sli...
  
  Jump to Figure 7
8. Figure 8: Size distribution measurements of a 0.08 M NaCl solution after sonication.
  
  Jump to Figure 8
9. Figure 9: 3D AFM image of the microscope slide after sonication (30 min) in doubly distilled water; (b) 3D AF...
  
  Jump to Figure 9
10. Figure 10: The AFM images of (a) parylene-coated glass slide before the sonication process; (b) parylene-coate...
  
  Jump to Figure 10
11. Figure 11: Scheme of the sonochemical deposition of inorganic salt nanoparticles on the solid substrate.
  
  Jump to Figure 11

Beilstein J. Nanotechnol. 2012, 3, 267–276, doi:10.3762/bjnano.3.30

Full Text

Junction formation of Cu₃BiS₃ investigated by Kelvin probe force microscopy and surface photovoltage measurements

Fredy Mesa,
William Chamorro,
William Vallejo,
Robert Baier,
Thomas Dittrich,
Alexander Grimm,
Martha C. Lux-Steiner and
Sascha Sadewasser

Full Research Paper
Published 23 Mar 2012

PDF
Album
1. Figure 1: XPS measurements on Cu₃BiS₃ and Cu₃BiS₃ etched in NH₃. (a) Overview spectrum showing that Na, oxide...
  
  Jump to Figure 1
2. Figure 2: KPFM measurements of the (from left to right) NH₃-etched Cu₃BiS₃, and Cu₃BiS₃ with the In₂S₃, ZnS a...
  
  Jump to Figure 2
3. Figure 3: Overview of the measured work-function values and their distribution for all samples investigated. ...
  
  Jump to Figure 3
4. Figure 4: In-phase (solid circles) and 90°-phase-shifted (open circles) SPV spectra of (a) Cu₃BiS₃ and (b) Cu₃...
  
  Jump to Figure 4
5. Figure 5: PV amplitude spectra of (a) Cu₃BiS₃ and (b) Cu₃BiS₃/In₂S₃ at modulation frequencies between 3.5 and...
  
  Jump to Figure 5

Beilstein J. Nanotechnol. 2012, 3, 277–284, doi:10.3762/bjnano.3.31

Full Text

Dipole-driven self-organization of zwitterionic molecules on alkali halide surfaces

Laurent Nony,
Franck Bocquet,
Franck Para,
Frédéric Chérioux,
Eric Duverger,
Frank Palmino,
Vincent Luzet and
Christian Loppacher

Full Research Paper
Published 27 Mar 2012

PDF
Album
1. Figure 1: MSPS can have two conformations, namely the agraffe-like cis (a) and the scorpion-like trans (b) is...
  
  Jump to Figure 1
2. Figure 2: 0.2 ML of MSPS evaporated onto KCl. (a) displays the NC-AFM topography after deposition at RT (Δf =...
  
  Jump to Figure 2
3. Figure 3: (a) Topography image of ≈1 ML of MSPS adsorbed on KCl (Δf = −75 Hz, A₀ = 7 nm); (b) shows a close u...
  
  Jump to Figure 3
4. Figure 4: Conformations of MSPS on KCl(001). Only the positions of the substrate anions have been drawn. In (...
  
  Jump to Figure 4
5. Figure 5: Model for the lateral stress ε in a MSPS film adsorbed on KBr (left) and NaCl (right). (a) and (d) ...
  
  Jump to Figure 5
6. Figure 6: (a) Large-scale topography image of electron-bombarded KCl showing the characteristic holes (Δf = −...
  
  Jump to Figure 6

Beilstein J. Nanotechnol. 2012, 3, 285–293, doi:10.3762/bjnano.3.32

Full Text

Wavelet cross-correlation and phase analysis of a free cantilever subjected to band excitation

Francesco Banfi and
Gabriele Ferrini

Full Research Paper
Published 29 Mar 2012

PDF
Album
1. Figure 1: The response of a damped harmonic oscillator (red line) to a chirped driver (blue line) whose frequ...
  
  Jump to Figure 1
2. Figure 2: Wavelet cross-correlation between the chirped driver and the response of the damped harmonic oscill...
  
  Jump to Figure 2
3. Figure 3: The response of a damped harmonic oscillator (red line, quality factor Q = 4) to a sinc driver (blu...
  
  Jump to Figure 3
4. Figure 4: Wavelet cross-correlation between the sinc driver and the response of the damped harmonic oscillato...
  
  Jump to Figure 4
5. Figure 5: The response of a damped harmonic oscillator (red line, quality factor Q = 40) to a sinc driver (bl...
  
  Jump to Figure 5
6. Figure 6: Wavelet cross-correlation between the sinc driver and the response of the damped harmonic oscillato...
  
  Jump to Figure 6
7. Figure 7: Wavelet cross-correlation between a sinusoidal reference signal at resonance and the damped harmoni...
  
  Jump to Figure 7

Beilstein J. Nanotechnol. 2012, 3, 294–300, doi:10.3762/bjnano.3.33

Full Text

Volume No. 3

2012

Pages 1 - 919

Table of Contents

Size-dependent phase diagrams of metallic alloys: A Monte Carlo simulation study on order–disorder transitions in Pt–Rh nanoparticles

X-ray spectroscopy characterization of self-assembled monolayers of nitrile-substituted oligo(phenylene ethynylene)s with variable chain length

Effect of the tip state during qPlus noncontact atomic force microscopy of Si(100) at 5 K: Probing the probe

Octadecyltrichlorosilane (OTS)-coated ionic liquid drops: Micro-reactors for homogenous catalytic reactions at designated interfaces

Transmission eigenvalue distributions in highly conductive molecular junctions

Direct-write polymer nanolithography in ultra-high vacuum

Impact of cell shape in hierarchically structured plant surfaces on the attachment of male Colorado potato beetles (Leptinotarsa decemlineata)

Substrate-mediated effects in photothermal patterning of alkanethiol self-assembled monolayers with microfocused continuous-wave lasers

Improvement of the oxidation stability of cobalt nanoparticles

Surface functionalization of aluminosilicate nanotubes with organic molecules

Electron-beam patterned self-assembled monolayers as templates for Cu electrodeposition and lift-off

Self-assembly of octadecyltrichlorosilane: Surface structures formed using different protocols of particle lithography

Mesoporous MgTa₂O₆ thin films with enhanced photocatalytic activity: On the interplay between crystallinity and mesostructure

Parallel- and serial-contact electrochemical metallization of monolayer nanopatterns: A versatile synthetic tool en route to bottom-up assembly of electric nanocircuits

Current-induced forces in mesoscopic systems: A scattering-matrix approach

Analysis of fluid flow around a beating artificial cilium

Noncontact atomic force microscopy

qPlus magnetic force microscopy in frequency-modulation mode with millihertz resolution

Quantitative multichannel NC-AFM data analysis of graphene growth on SiC(0001)

Molecular-resolution imaging of pentacene on KCl(001)

Noncontact atomic force microscopy study of the spinel MgAl₂O₄(111) surface

Theoretical study of the frequency shift in bimodal FM-AFM by fractional calculus

A measurement of the hysteresis loop in force-spectroscopy curves using a tuning-fork atomic force microscope

Variations in the structure and reactivity of thioester functionalized self-assembled monolayers and their use for controlled surface modification

An NC-AFM and KPFM study of the adsorption of a triphenylene derivative on KBr(001)

Modeling noncontact atomic force microscopy resolution on corrugated surfaces

Analysis of force-deconvolution methods in frequency-modulation atomic force microscopy

Simultaneous current, force and dissipation measurements on the Si(111) 7×7 surface with an optimized qPlus AFM/STM technique

Pulse-response measurement of frequency-resolved water dynamics on a hydrophilic surface using a Q-damped atomic force microscopy cantilever

Forming nanoparticles of water-soluble ionic molecules and embedding them into polymer and glass substrates

Junction formation of Cu₃BiS₃ investigated by Kelvin probe force microscopy and surface photovoltage measurements

Dipole-driven self-organization of zwitterionic molecules on alkali halide surfaces

Wavelet cross-correlation and phase analysis of a free cantilever subjected to band excitation

Keep Informed