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1 imum precision using the electric field of a scanning tunneling microscope.
2 ource pulses, focused onto the junction of a scanning tunneling microscope.
3 dout of coupled electron-spin qubits using a scanning tunneling microscope.
4 of [3]cumulene derivatives in solution, in a scanning tunneling microscope.
5 agnetic Weyl semimetal Co(3)Sn(2)S(2), using scanning tunneling microscope.
6 Kondo lattice with atomic resolution using a scanning tunneling microscope.
7 oscopy, X-ray photoelectron spectroscopy and scanning tunneling microscope.
8 d on gold for probing with a low-temperature scanning tunneling microscope.
9 phene devices via atomic manipulation with a scanning tunneling microscope.
10 ttice-tracking spectroscopy technique with a scanning tunneling microscope.
11 during electron excitation from the tip of a scanning tunneling microscope.
12 dual monomer units out of the chains using a scanning tunneling microscope.
13  a copper (111) surface in a low-temperature scanning tunneling microscope.
14 ividual gold atoms and CuPc molecules with a scanning tunneling microscope.
15  copper (111) surface with a low-temperature scanning tunneling microscope.
16 ngle-walled nanotubes with a low-temperature scanning tunneling microscope.
17 onductor were studied with a low-temperature scanning tunneling microscope.
18 scovered with the use of an ultrahigh-vacuum scanning tunneling microscope.
19 onic measurements of this system made with a scanning tunneling microscope and demonstrate that the e
20  bilayer junctions, in keeping with previous scanning tunneling microscope and electrochemical measur
21 l electrodes of an STM break junction (STM = scanning tunneling microscope) and that the zero-voltage
22     We employed the tip of a low-temperature scanning tunneling microscope as local probe to investig
23     Because of the enhanced stability of the scanning tunneling microscope at cryogenic temperatures,
24 go(phenylenethynylene) (OPE) diamine using a scanning tunneling microscope at room temperature.
25                             Herein we report scanning tunneling microscope based break junction measu
26  methyl sulfide gold-binding linkers using a scanning tunneling microscope based break-junction techn
27 es with direct Au-C covalent bonds using the scanning tunneling microscope based break-junction techn
28 r current-voltage (I-V) characteristics in a scanning tunneling microscope-based break junction (STM-
29 e formed without additional linker groups in scanning tunneling microscope-based break junction (STMB
30 es through application of the glovebox-based scanning tunneling microscope-based break junction metho
31  measurements of molecular germanium using a scanning tunneling microscope-based break-junction (STM-
32 peroxide activation to acylate amines in the scanning tunneling microscope-based break-junction is re
33 o metal electrodes that were investigated by scanning tunneling microscope-based break-junction measu
34 ts and measure their conductance through the scanning tunneling microscope-based break-junction metho
35 fferent origins of chirality measured by the scanning tunneling microscope-based break-junction techn
36                            Here we utilize a scanning tunneling microscope-based break-junction techn
37  single molecule/single bond level using the scanning tunneling microscope-based break-junction techn
38 th three different molecular wires using the scanning tunneling microscope-based break-junction techn
39 inated with methyl-sulfide linkers using the scanning tunneling microscope-based break-junction techn
40                                  We used the scanning tunneling microscope-based break-junction techn
41                                              Scanning tunneling microscope-based orbital-mediated tun
42 ined disilane and Au is demonstrated through scanning tunneling microscope-based single-molecule meas
43                                              Scanning tunneling microscope break junction measurement
44  molecular wires have been studied using the scanning tunneling microscope break junction technique.
45 -based single-molecule junctions and dynamic scanning tunneling microscope break junctions show that
46 roups onto rhodamines enables their study in scanning tunneling microscope break-junction (STM-BJ) me
47 erized pyridiniums are characterized using a scanning tunneling microscope-break junction (STM-BJ) te
48 f these materials were characterized using a scanning tunneling microscope-break junction (STM-BJ) te
49                                We show how a scanning tunneling microscope can measure electron spin
50                                          The scanning tunneling microscope can provide electronic and
51         Using spectroscopic imaging with the scanning tunneling microscope, complemented with machine
52 by controlled manipulation with the tip of a scanning tunneling microscope, creating patterned struct
53                                          The scanning tunneling microscope enables atomic-scale measu
54  form in a low temperature ultra-high vacuum scanning tunneling microscope experiment.
55 reductive coupling of benzaldehyde, based on scanning tunneling microscope images obtained after expo
56 stidine residues, by correlating features in scanning tunneling microscope images with those in energ
57                     Injecting an electron by scanning tunneling microscope into a molecule physisorbe
58  time, while adatoms on surfaces probed by a scanning tunneling microscope is a future possibility.
59 genic variable-temperature ultra-high vacuum scanning tunneling microscope is used for measuring the
60 intensity-modulated laser irradiation of the scanning tunneling microscope junction.
61  self-assembled structures with the tip of a scanning tunneling microscope led to a propagating chemi
62                                  By means of scanning tunneling microscope manipulation and imaging,
63 fe on Earth, have been investigated by using scanning tunneling microscope manipulation and spectrosc
64                                           By scanning tunneling microscope manipulation at low temper
65 f the H-bond network is confirmed by in situ scanning tunneling microscope measurements with ultravio
66 , Landau-level spectroscopy performed with a scanning tunneling microscope offers a complete quantum
67     By using an oriented electric field in a scanning tunneling microscope, one can locally control t
68 ago the first scanning probe instrument, the scanning tunneling microscope, opened up new realms for
69                                          The scanning tunneling microscope probe can be used to induc
70  four lobes, imaging and spectroscopy with a scanning tunneling microscope reveal immobile molecules
71                Spectroscopy performed with a scanning tunneling microscope showed that a combination
72  collective mode in CsV(3-x)Ta(x)Sb(5) using scanning tunneling microscope/spectroscopy.
73 tion TERS setup design based on a commercial scanning tunneling microscope (STM) as a versatile, cost
74 ort behavior was assessed in single-molecule scanning tunneling microscope (STM) break junctions, com
75 yanine (NiPc) molecules in the junction of a scanning tunneling microscope (STM) by resonant energy t
76                                            A scanning tunneling microscope (STM) combined with a pump
77 entations and electronic structures, using a scanning tunneling microscope (STM) combined with light
78 uctance and electroluminescence data using a scanning tunneling microscope (STM) equipped with a cust
79  to near-infrared light in the junction of a scanning tunneling microscope (STM) exhibited spatially
80                          We report the first scanning tunneling microscope (STM) investigation, combi
81                    In the setup presented, a scanning tunneling microscope (STM) is attached for in s
82 olecule adsorbed on a Cu(100) surface in the scanning tunneling microscope (STM) junction.
83 n a P donor molecule in (nat)Si patterned by scanning tunneling microscope (STM) lithography.
84 ontrolled charge injection from the tip of a scanning tunneling microscope (STM) reveals a pronounced
85  images of these SAMs produced by an in situ scanning tunneling microscope (STM) showed that both sys
86 11) surface by using the electric field of a scanning tunneling microscope (STM) tip.
87                                    We used a scanning tunneling microscope (STM) to assemble a silver
88 ecule method has been developed based on the scanning tunneling microscope (STM) to selectively coupl
89                                      Using a scanning tunneling microscope (STM) under suitable bias
90                                            A scanning tunneling microscope (STM) was used to manipula
91                   Tunneling electrons from a scanning tunneling microscope (STM) were used to excite
92 recisely positioning magnetic adatoms with a scanning tunneling microscope (STM), we demonstrate both
93                    Using an ultrahigh vacuum scanning tunneling microscope (STM), we have explored th
94 cocavity, formed in the tunnel junction of a scanning tunneling microscope (STM).
95 ts on a surface by using spin-1/2 atoms in a scanning tunneling microscope (STM).
96 ecule on a Ag(110) surface using a cryogenic scanning tunneling microscope (STM).
97 ormed by means of inelastic excitations in a scanning tunneling microscope (STM).
98  energy-selective atomic manipulation in the scanning tunneling microscope (STM).
99 ave been observed and distinguished with the scanning tunneling microscope (STM).
100 ime scale, using an all-electric scheme in a scanning tunneling microscope (STM).
101 on a solid surface have been obtained with a scanning tunneling microscope (STM).
102 rface strongly enough to permit imaging by a scanning tunneling microscope (STM).
103 tunneling rate by changing the height of the scanning tunneling microscope tip above the molecule.
104    Changing abruptly the potential between a scanning tunneling microscope tip and a graphite substra
105  bond sites on H-Si(100)-2 x 1 with a biased scanning tunneling microscope tip and demonstrate that t
106 s can be driven by the electric field from a scanning tunneling microscope tip and proceed by the col
107 s and the electric field applied between the scanning tunneling microscope tip and the substrate.
108                                     We use a scanning tunneling microscope tip as a detector of the o
109                                      Using a scanning tunneling microscope tip press-and-pulse proced
110 th beta-cyclodextrin and functionalizing the scanning tunneling microscope tip used to probe the self
111    By injecting tunneling electrons from the scanning tunneling microscope tip, we are able to bend t
112 it when electrical energy is supplied from a scanning tunneling microscope tip.
113 r using inelastic tunneling electrons from a scanning tunneling microscope tip.
114 m the bulk by applying voltage pulses from a scanning tunneling microscope tip.
115 60 molecule by moving it over K atoms with a scanning tunneling microscope tip.
116     The nanowires are attached to the end of scanning tunneling microscope tips and used to image the
117                   Using C(60)-functionalized scanning tunneling microscope tips, we have investigated
118 omic scale imaging and spectroscopy with the scanning tunneling microscope to examine the novel elect
119                              Here we apply a scanning tunneling microscope to explore an overdoped (B
120                                    Using the scanning tunneling microscope to fabricate ultrasmall ma
121            We use a custom-built low-current scanning tunneling microscope to image peptide structure
122                             The ability of a scanning tunneling microscope to manipulate single atoms
123                                      Using a scanning tunneling microscope to observe spin excitation
124                                    We used a scanning tunneling microscope to position charged arseni
125                                        Using scanning tunneling microscope to probe EuS islands grown
126                                    We used a scanning tunneling microscope to probe the interactions
127 ed an inelastic tunneling probe based on the scanning tunneling microscope to sense the local potenti
128         We used spectroscopic mapping with a scanning tunneling microscope to visualize quasiparticle
129                          An ultrahigh-vacuum scanning tunneling microscope was used to image these na
130       A low-temperature, high-magnetic field scanning tunneling microscope was used to measure the sp
131                                  A cryogenic scanning tunneling microscope was used to spatially reso
132 aging and spin-polarized measurements with a scanning tunneling microscope, we compared quasiparticle
133       The atomic imaging capabilities of the scanning tunneling microscope were used to directly visu
134        Tunneling electrons from the tip of a scanning tunneling microscope were used to induce and mo

 
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