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1 s (hole concentration of 0.12 to 0.22) using scanning tunnelling microscopy.
2 ucts are investigated and characterised with scanning tunnelling microscopy.
3 lectron spin on a surface was detected using scanning tunnelling microscopy.
4 ctions that are inaccessible by conventional scanning tunnelling microscopy.
5 e by recording orbital density maps(14) with scanning tunnelling microscopy.
6 elliptical conformations have been probed by scanning tunnelling microscopy.
7 tion regimes tuned by electron density using scanning tunnelling microscopy.
8  to operate unlike other techniques, such as scanning tunnelling microscopy.
9 on filling, determined using high-resolution scanning tunnelling microscopy.
10 es were imaged at submolecular resolution by scanning tunnelling microscopy.
11 he local density-of-state images obtained by scanning tunnelling microscopy.
12 ed using several advanced techniques such as scanning tunnelling microscopy.
13 ization) reactions in single molecules using scanning tunnelling microscopy.
14 dy nominally stoichiometric Bi(2)Se(3) using scanning tunnelling microscopy.
15 gle-atom depassivation can be achieved using scanning tunnelling microscopy.
16 gle-spin sensitivity, such as spin-polarized scanning tunnelling microscopy.
17 eam deposition and imaged by low-temperature scanning tunnelling microscopy(10).
18             Imaging at the atomic scale with scanning tunnelling microscopy allowed for direct charac
19 ymmetry positions in the atomically resolved scanning tunnelling microscopy allows the physical order
20 riodicity is given by kF/pi, consistent with scanning tunnelling microscopy and angle resolved photoe
21                                         From scanning tunnelling microscopy and angle-resolved photoe
22 atomic and electronic characterization using scanning tunnelling microscopy and angle-resolved photoe
23                                   Meanwhile, scanning tunnelling microscopy and atomic force microsco
24                                              Scanning tunnelling microscopy and atomic manipulation c
25                      Here, using time-lapsed scanning tunnelling microscopy and density functional th
26                                              Scanning tunnelling microscopy and density functional th
27                   Here we present a combined scanning tunnelling microscopy and first-principles theo
28                                              Scanning tunnelling microscopy and holograms comprised o
29 stigate the correlated phases of MATTG using scanning tunnelling microscopy and identify marked signa
30 trate thermal mirror buckling of graphene by scanning tunnelling microscopy and large-scale molecular
31 sm has been characterized by high-resolution scanning tunnelling microscopy and rationalized by densi
32 wave states with broken symmetry observed in scanning tunnelling microscopy and soft X-ray measuremen
33 t temperatures as low as 260 degrees C using scanning tunnelling microscopy and spectroscopic techniq
34                Here we observe, by utilizing scanning tunnelling microscopy and spectroscopy down to
35              Here we perform high-resolution scanning tunnelling microscopy and spectroscopy of MATTG
36                                 Here, we use scanning tunnelling microscopy and spectroscopy to demon
37                                  Here we use scanning tunnelling microscopy and spectroscopy to follo
38  Here, we utilize lightwave-driven terahertz scanning tunnelling microscopy and spectroscopy to inves
39                                  Here we use scanning tunnelling microscopy and spectroscopy to visua
40              Here we harness cross-sectional scanning tunnelling microscopy and spectroscopy together
41 we demonstrate that by using low-temperature scanning tunnelling microscopy and spectroscopy we can c
42 junctions at subnanometre length scales with scanning tunnelling microscopy and spectroscopy, and ide
43 ) d-wave superconductor and performing local scanning tunnelling microscopy and spectroscopy, here we
44 omains on Au(111), probed by low-temperature scanning tunnelling microscopy and spectroscopy, reveal
45                                        Using scanning tunnelling microscopy and spectroscopy, togethe
46                        Using low-temperature scanning tunnelling microscopy and spectroscopy, we embe
47                                        Using scanning tunnelling microscopy and spectroscopy, we foun
48                                        Using scanning tunnelling microscopy and spectroscopy, we obse
49                                  Here, using scanning tunnelling microscopy and spectroscopy, we repo
50                        Using low temperature scanning tunnelling microscopy and spectroscopy, we repo
51 of tetramantane diamondoids on Au(111) using scanning tunnelling microscopy and spectroscopy.
52 aCu2O8+x, on the basis of observations using scanning tunnelling microscopy and spectroscopy.
53 properties of TBG near the magic angle using scanning tunnelling microscopy and spectroscopy.
54 monolayer interface in MoSe2 and WSe2, using scanning tunnelling microscopy and spectroscopy.
55 n-doped graphitic superconductor, CaC(6), by scanning tunnelling microscopy and spectroscopy.
56                          Here we show, using scanning tunnelling microscopy and supported by potentio
57                                              Scanning tunnelling microscopy and surface X-ray diffrac
58           The present combined experimental (scanning tunnelling microscopy) and theoretical (density
59                        Our study establishes scanning tunnelling microscopy as a promising tool for e
60 gle-molecule conductance measurements, using scanning tunnelling microscopy break junction measuremen
61 lometalated Pt(II) molecular wires, and used scanning tunnelling microscopy - break junction techniqu
62 al ripple geometry was recently imaged using scanning tunnelling microscopy, but these measurements a
63                                              Scanning tunnelling microscopy can locally restore the r
64 confirmed by local infrared spectroscopy and scanning tunnelling microscopy characterization, in agre
65 allic glass Cu100-xHfx films and demonstrate scanning tunnelling microscopy control of aging at a met
66                   Atomic manipulation in the scanning tunnelling microscopy, conventionally a tool to
67 the development of hybrid techniques such as scanning tunnelling microscopy coupled to confocal scann
68  three different experimental configurations-scanning tunnelling microscopy, crossed-wire junction, a
69  determined through a detailed comparison of scanning tunnelling microscopy data and first-principles
70                                    Our laser scanning tunnelling microscopy data open the door to the
71        Here we use numerical simulations and scanning tunnelling microscopy data to show that these r
72 ualisation and manipulation experiments with scanning tunnelling microscopy directly probe the ligati
73                          Here we show--using scanning tunnelling microscopy, electronic transport mea
74                                              Scanning tunnelling microscopy enables individual rotors
75 re, by combining electrospray deposition and scanning tunnelling microscopy (ESD-STM), we analyse sub
76 rs--through a combination of low-temperature scanning tunnelling microscopy experiments and first-pri
77 glue were therefore encouraged by the recent scanning tunnelling microscopy experiments on hole-doped
78           In this context, we describe a few scanning tunnelling microscopy experiments that measure
79                                     However, scanning tunnelling microscopy has limited applicability
80                                              Scanning tunnelling microscopy has long been used to ima
81                       Surface probes such as scanning tunnelling microscopy have detected complex ele
82                         Detailed analysis of scanning tunnelling microscopy images is used to reconst
83                             Lightwave-driven scanning tunnelling microscopy is a promising technique
84      Atomic-resolution characterization with scanning tunnelling microscopy is quantitatively compare
85                       A severe limitation in scanning tunnelling microscopy is the low temporal resol
86 atest advances in d2I/dV2 spectroscopy using scanning tunnelling microscopy, it has become possible t
87                               Here we report scanning tunnelling microscopy measurements at sub-kelvi
88                                              Scanning tunnelling microscopy measurements of step-edge
89               Here we report high-resolution scanning tunnelling microscopy measurements of the elect
90                               Here we report scanning tunnelling microscopy measurements showing that
91                  Here we use high-resolution scanning tunnelling microscopy measurements to directly
92                               Here we report scanning tunnelling microscopy observations of the trans
93                                              Scanning tunnelling microscopy observations resolve the
94                                     Although scanning tunnelling microscopy observations under high v
95                                              Scanning tunnelling microscopy of the electrons confined
96  study by scanning transmission electron and scanning tunnelling microscopies on a novel layered mate
97 d' and 'Bridge-stabilised') characterised by scanning tunnelling microscopy, providing information on
98 haracterized at the single-molecule level by scanning tunnelling microscopy, reflection absorption in
99                                              Scanning tunnelling microscopy reveals that the yttria l
100                  Using spectroscopic imaging scanning tunnelling microscopy (SI-STM) measurements, we
101            Here we use spectroscopic imaging scanning tunnelling microscopy (SI-STM) to image the evo
102                  Here we use high-resolution scanning tunnelling microscopy/spectroscopy (STM/STS) to
103                                        Using scanning tunnelling microscopy/spectroscopy and first-pr
104 e of CsV(3)Sb(5) by means of low-temperature scanning tunnelling microscopy/spectroscopy paired with
105  surface of in situ cleaved IrTe(2) by using scanning tunnelling microscopy/spectroscopy, corroborate
106  naturally strained stoichiometric LiFeAs by scanning tunnelling microscopy/spectroscopy.
107 crobeam X-ray photoelectron spectroscopy and scanning tunnelling microscopy/spectroscopy.
108                                (In operando) scanning tunnelling microscopy (STM) and atomic force mi
109 -energy electron microscopy, diffraction and scanning tunnelling microscopy (STM) and modelled by ab
110         Here, electrical measurements by the scanning tunnelling microscopy (STM) break junction tech
111  to collect the required images in bulk, but scanning tunnelling microscopy (STM) could provide such
112 he -wave superconducting gap determined from scanning tunnelling microscopy (STM) for CeCoIn5, we con
113 recise hydrogen desorption lithography using scanning tunnelling microscopy (STM) has enabled the dev
114  and electronic properties at the nanoscale, scanning tunnelling microscopy (STM) has proven a very e
115                                 Conventional scanning tunnelling microscopy (STM) has sufficient spat
116 ablish a metrology combining low-temperature scanning tunnelling microscopy (STM) imaging and a compr
117                             In this study, a scanning tunnelling microscopy (STM) investigation with
118                                              Scanning tunnelling microscopy (STM) is an ideal techniq
119                                              Scanning tunnelling microscopy (STM) is commonly used to
120                     In this work, we present scanning tunnelling microscopy (STM) measurements of the
121                                              Scanning tunnelling microscopy (STM) measurements show t
122 cale energy resolution using superconductive scanning tunnelling microscopy (STM) tips(26-31).
123                                       We use scanning tunnelling microscopy (STM) to investigate a st
124                        Using low-temperature scanning tunnelling microscopy (STM) to measure an indiv
125             Here, combining energy dependent scanning tunnelling microscopy (STM) topography with a s
126                         This is evidenced by scanning tunnelling microscopy (STM), low energy electro
127                                        Using scanning tunnelling microscopy (STM), we discover robust
128 olved photoemission spectroscopy (ARPES) and scanning tunnelling microscopy (STM), we probe the magne
129  the high-resolution imaging capabilities of scanning tunnelling microscopy (STM).
130 pinning and sliding, consistent with earlier scanning tunnelling microscopy studies confirming Wigner
131  universal cluster properties extracted from scanning tunnelling microscopy studies of cuprate superc
132                              Here we present scanning tunnelling microscopy studies of the recently d
133    NEA+MP docking complexes are imaged using scanning tunnelling microscopy supplemented by density f
134                                              Scanning tunnelling microscopy, supported by electronic
135 ng the submolecular resolution capability of scanning tunnelling microscopy, supported by photoelectr
136                Here we show by spin-resolved scanning tunnelling microscopy that the spin direction a
137 e, using photoemission, X-ray scattering and scanning tunnelling microscopy, the canonical CDW compou
138 gstrom region of freestanding graphene using scanning tunnelling microscopy, thereby allowing measure
139 which we achieve by applying pressure with a scanning tunnelling microscopy tip.
140                                  Here we use scanning tunnelling microscopy to determine directly the
141 situ and measured them using high-resolution scanning tunnelling microscopy to determine picoscale ch
142                                  Here we use scanning tunnelling microscopy to determine the effects
143                                  Here we use scanning tunnelling microscopy to image pristine electro
144                                 Here, we use scanning tunnelling microscopy to investigate the LDOS o
145 re we introduce a set of techniques that use scanning tunnelling microscopy to map the topological ph
146                                       We use scanning tunnelling microscopy to observe an orthorhombi
147      Here we use atomic-resolution Josephson scanning tunnelling microscopy to reveal a strongly inho
148                                  Here we use scanning tunnelling microscopy to reveal an unusual char
149 croscopy and molecular orbital imaging using scanning tunnelling microscopy to study more than 100 as
150                    Here we use laser-coupled scanning tunnelling microscopy to study RbV(3)Sb(5).
151                                  Here we use scanning tunnelling microscopy to study self-assembled m
152                  Here we use high-resolution scanning tunnelling microscopy to study the wavefunction
153                                              Scanning tunnelling microscopy together with density fun
154 a angle-resolved photoemission spectroscopy, scanning tunnelling microscopy, transport studies, X-ray
155            Here, using spectroscopic imaging scanning tunnelling microscopy, we discover a temperatur
156 re, using a spectroscopic technique based on scanning tunnelling microscopy, we find strong Delta(r)
157                                  Here, using scanning tunnelling microscopy, we identify a new topolo
158 ucture was characterized using bond-resolved scanning tunnelling microscopy, which enables chemical b
159 presents a fundamental advance in the use of scanning tunnelling microscopy, which together with the
160           The combination of low-temperature scanning tunnelling microscopy with a mass-selective ele
161 ngle-electron charging spectroscopy combines scanning tunnelling microscopy with a monolayer graphene
162 gle crystal bcc Co30Fe70 nanoparticles using scanning tunnelling microscopy with a standard tungsten
163 u(n)O3(n+1) (n = 1, 2) using low-temperature scanning tunnelling microscopy, X-ray photoelectron spec
164          Here we show, through atom-resolved scanning tunnelling microscopy, X-ray spectroscopy and c

 
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