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Beilstein J. Nanotechnol. 2024, 15, 556–568, doi:10.3762/bjnano.15.48
Figure 1: (a) Models of the five observed azimuthal QA chain orientations, A–E, relative to the unidirectiona...
Figure 2: QA on the Ag(35 1 1) surface deposited at a sample temperature of 300 K. (a) STM image (UBias = −1....
Figure 3: (a) LEED image (E = 33 eV, T = 300 K) of the region around the specular spot of 0.65 ML QA on Ag(35...
Figure 4: (a) STM image (UBias = −1.5 V, I = 25 pA) of QA on the Ag(35 1 1) surface deposited at a sample tem...
Figure 5: (a) LEED image (E = 33 eV, T = 300 K) of the β-phase of 0.65 ML QA on Ag(35 1 1) after deposition a...
Beilstein J. Nanotechnol. 2019, 10, 1188–1199, doi:10.3762/bjnano.10.118
Figure 1: Chemical structures of (a) HTPEN, (b) TNAP, (c) TTT, and (d) TCNQ.
Figure 2: Relaxed superstructure of HTPEN on Ag(100). (a) LEED pattern at an electron energy of 20 eV. A simu...
Figure 3: Compressed superstructure of HTPEN on Ag(100). (a) LEED pattern at an electron energy of 20 eV. A s...
Figure 4: TNAP on Ag(100). (a) LEED pattern an electron energy of 20 eV. A simulated diffraction pattern is o...
Figure 5: Multilayers of TNAP on Ag(100). (a) LEED pattern recorded at an electron energy of 18 eV. A simulat...
Figure 6: Mixed structure formed by HTPEN and TNAP on Ag(100). (a) LEED pattern recorded at an electron energ...