ライフサイエンスコーパス: atomic scale

1 t the transition has not been resolved on an atomic scale.

2 ase (PRK) has yet to be characterized at the atomic scale.

3 oviding access to picosecond dynamics at the atomic scale.

4 , phonon oscillations can be observed on the atomic scale.

5 are not fully understood, especially at the atomic scale.

6 ramolecular structures with precision on the atomic scale.

7 their formation is poorly understood at the atomic scale.

8 gh-density data storage at the molecular and atomic scale.

9 ature of MG structure and deformation at the atomic scale.

10 films on Al2 O3 and InGaAs substrate at the atomic scale.

11 insight into how the process proceeds at the atomic scale.

12 abricate DQDs are difficult to extend to the atomic scale.

13 quires controlling self-assembly down to the atomic scale.

14 d time scale, with spatial resolution on the atomic scale.

15 ctic Si in hypereutectic Al-Si alloys at the atomic scale.

16 logical states to magnetic impurities at the atomic scale.

17 s never been directly seen and understood at atomic scale.

18 with the precise control of thickness at the atomic scale.

19 ocrystals during mechanical straining on the atomic scale.

20 ities"), enabling optical experiments on the atomic scale.

21 molecules to be both gated and imaged at the atomic scale.

22 trinsic chiral properties of the film on the atomic scale.

23 lattice oxygen atoms/oxygen vacancies at the atomic scale.

24 dy the electronic structure of matter at the atomic scale.

25 -dimensional reconstruction of matter at the atomic scale.

26 roup indium catalysts for CO(2) reduction at atomic scale.

27 e mechanism of this phenotypic change at the atomic scale.

28 and the design of efficient catalysts at the atomic scale.

29 t the mesoscale and inorganic epitaxy at the atomic scale.

30 ed to describe early-stage nucleation at the atomic scale.

31 y and partially ordered nanoparticles at the atomic scale.

32 understanding of molecular transport at the atomic scale.

33 ng of the initial steps of nucleation at the atomic scale.

34 o understand the initiation mechanism on the atomic scale.

35 ciprocal mechanism that persists down to the atomic scale.

36 mation on the distribution of dopants on the atomic-scale.

37 ight prospects for observing dynamics at the atomic-scale.

38 e of growth of twins are investigated at the atomic scales.

39 s, and, ultimately, energy harvesting at the atomic scales.

40 ethod of fabricating artificial sequences of atomic-scale 2D layers, structurally independent of thei

41 We measure atomic-scale activation volumes, which explain both the

42 Here we report the atomic-scale analysis of biological interfaces within th

43 Our method paves the way for future atomic-scale analysis of the interplay between structura

44 Here we report, using the powerful atomic-scale analysis technique known as atom probe tomo

45 n of an array of nanostructures coupled with atomic-scale analysis.

46 ntrolled bicrystal interfaces and systematic atomic-scale analysis.

47 e their structure, including defects, at the atomic scale and develop a detailed understanding of the

48 eveal the detailed transition process at the atomic scale and reproduce this numerically using phase-

49 of function of such electrocatalysts at the atomic scale and under realistic working conditions is a

50 ng sufficient freedom to design catalysts at atomic-scale and explore the unique catalytic properties

51 d shape chirality and mixed contributions of atomic-scale and shape chirality to the chiroptical prop

52 of Fe(II)-catalyzed recrystallization at the atomic scale, and substantiate speculation regarding the

53 investigation of their catalytic sites at an atomic scale, and to an in-depth understanding of the bi

54 Lunar and asteroidal materials, meaning this atomic-scale approach holds great potential in establish

55 alline hybrid--where mixtures of two or more atomic-scale ( approximately 3 nm or less) polar dielect

56 d conformal iron oxide nanotube arrays on an atomic scale are successfully prepared by atomic layer d

57 ch allow fine control over the motion on the atomic scale because of self-alignment mechanisms and fo

58 few-layer micas that are rather thick on the atomic scale become excellent proton conductors if nativ

59 uously identify two distinct regimes for the atomic-scale behavior of Cu active-sites.

60 and biomineral crystal imperfections at the atomic scale; biopolymer fibril reconfiguration/deformat

61 highly ordered pyrolytic graphite, utilizing atomic-scale 'blisters' created in the top layer by neon

62 orientations and is further validated at the atomic scale by recourse to molecular dynamics simulatio

63 chemical, electronic, and spin phenomena at atomic scales can manifest in their collective propertie

64 sembly of two-dimensional crystals to create atomic-scale capillaries and study condensation within t

65 pected from the commensurability between the atomic-scale capillaries and water molecules(20,21).

66 nalysis methods, the E-CNA method allows for atomic scale characterization of the structure of differ

67 probe tomography (APT) facilitates nano- and atomic-scale characterization and analysis of microstruc

68 Here, using atomic-scale characterization and first principles calcu

69 electron microscopy techniques have allowed atomic-scale characterization of edge dislocations from

70 By combining in situ nanoscopic and atomic-scale characterization techniques (XAFS, SAXS, XR

71 Atomic-scale characterization, supported by theoretical

72 Atomic-scale characterizations based on spherical aberra

73 edge-mode electrical transport in suspended atomic-scale constrictions of single and multilayer grap

74 While the quantity of atomic-scale contacts (true contact area) evolves, the q

75 ovskite nickelates using a strategy based on atomic-scale control of inversion-preserving (centric) d

76 ation of spatially uniform chiral films with atomic-scale control of their handedness could provide a

77 This work provides insight into the atomic-scale coupled diffusive-displacive deformation me

78 urthermore, by confining the filament to the atomic scale, current switching characteristics are obse

79 The collective atomic-scale defect disorder improves the zT to 1.09 +/-

80 x Hfx NiSn1-y Sby alloys containing inherent atomic-scale defect disorders are produced in one hour b

81 raction of external magnetic fields with the atomic scale defects intrinsic to the semiconductor.

82 defects directly is described and disordered atomic-scale defects are demonstrated to be responsible

83 ecause inter-valley scattering is induced by atomic-scale defects at real bilayer graphene edges.

84 Single-atom impurities and other atomic-scale defects can notably alter the local vibrati

85 d controlled phonon emission from individual atomic-scale defects in graphene.

86 suspended monolayers that have few, if any, atomic-scale defects, as shown by gas permeation tests,

87 Here we show that a new class of atomic-scale defects, known as ripplocations, explain th

88 By first-principles investigations on atomic-scale deformation and general stacking fault ener

89 ents in chemistry and material sciences, the atomic-scale description of the initial photoinduced pro

90 Together, these results provided atomic-scale descriptions of the SrtC substrate selectiv

91 ding of core-shell formation is critical for atomic-scale design and control of the platinum shell, w

92 uirements pose considerable difficulties for atomic-scale design strategies such as magnetic ion subs

93 However, atomic scale details of structure-function relationships

94 Complex crystal structures with subtle atomic-scale details are now routinely solved using comp

95 ust originate from subtle differences in the atomic-scale details of their solid-liquid interfaces, i

96 ucture, X-ray free-electron laser can unveil atomic-scale details of ultrafast phenomena.

97 between two arbitrary paths and extract the atomic-scale determinants responsible for their differen

98 elling spectroscopy) enabled the unambiguous atomic-scale determination of fourteen hexagonal grid is

99 form of hot-carrier spectroscopy as well as atomic-scale devices.

100 and precipitates, and their relation to the atomic scale diffusion mechanisms of solute-vacancy clus

101 e the unique dynamical feature of a BP as an atomic scale discrete spin texture and allude its influe

102 magentism to ferromagnetism is attributed to atomic-scale disorder in chromium nanoparticles, leading

103 In addition, we definitively show the atomic-scale distribution of phosphorus as being at the

104 pervised learning approach for understanding atomic scale dynamics in arbitrary phases and environmen

105 dly applicable, automated tool to understand atomic scale dynamics in material systems.

106 Such direct observation of atomic scale dynamics provides an important general meth

107 energy and makes it possible to observe the atomic-scale dynamics in a timescale of picoseconds.

108 ly scaled towards the one-dimensional limit, atomic-scale effects become increasingly important.

109 bination of machine-learning analysis of the atomic-scale electron microscopy imaging data and phenom

110 Using dynamic, atomic-scale electron microscopy observations and theore

111 Mapping atomic-scale element distributions opens opportunities f

112 he effects of crystal-plastic deformation on atomic-scale elemental distributions in zircon revealing

113 canning transmission electron microscopy and atomic scale energy-dispersive X-ray mapping, we observe

114 er nature of atomic-layer deposition enables atomic scale engineering of the gain layer properties an

115 ow Ti/Ge disorder, as it is sensitive to the atomic scale environment without long-range periodicity

116 The images show atomic-scale evidence for point defect induced melting,

117 er dimension (n) and strain; however, direct atomic-scale evidence for such competing states is curre

118 We provide the first direct atomic-scale evidence that, under applied anodic potenti

119 Here, we report an atomic-scale experimental and theoretical investigation

120 Here, we report an atomic-scale experimental investigation on the distribut

121 isordering, due to the difficulty of direct, atomic-scale experimental observations.

122 We identify the atomic-scale features responsible for this size- and mor

123 The docking and atomic scale fitting showed multiple discrete interactio

124 se behaviour in terms of thermally activated atomic-scale fluctuations that make and break a quantum

125 t is typically limited because motion at the atomic scale follows stochastic processes.

126 rior to conversion is explicitly revealed at atomic scale for the first time for Li, Na, Ca.

127 particle porosity and fractal arrays at the atomic scale for the S-Mo-S(Co) 2D- layers that conform

128 aphical and chemical information at the nano/atomic scale from ambient to ultrahigh-vacuum and electr

129 Here we demonstrate atomic-scale GB phase coexistence and transformations at

130 giant AMR is an indispensable combination of atomic scale giant-MR-like effect and magnetocrystalline

131 , however, and does not typically lead to 2D atomic-scale growth of anisotropic platelet crystals, bu

132 e dynamic process of Li-ion transport at the atomic scale has long been attempted in solid state ioni

133 een possible, as the recovery process at the atomic-scale has been difficult to observe.

134 mental data were used to generate an average atomic-scale helical filament model, which anticipated a

135 On the atomic scale, highly polarizable hierarchical interfaces

136 This sensitivity, approaching the atomic scale, holds the promise of extreme subwavelength

137 Furthermore, we also propose a new type of atomic-scale hybrid--the crystalline hybrid--where mixtu

138 These atomic-scale hybrids expand the toolkit of materials for

139 distances projected on different planes, the atomic-scale images of several different orientations, e

140 this work, using a combination of real-space atomic scale imaging with atomic pair distribution funct

141 d Raman spectroscopy (UHV-TERS) combines the atomic-scale imaging capability of scanning probe micros

142 Atomic-scale imaging combined with deep neural network a

143 Here we realize such atomic-scale imaging using a single nitrogen vacancy cen

144 Here, using a combination of atomic-scale imaging, simulations and classical nucleati

145 y visualizing these complex processes at the atomic scale in real time and in operando.

146 Our work paves the way for atomic-scale in situ studies of metallic GB phase transf

147 the interface structure and dynamics on the atomic-scale, including that of the liquid electrolyte i

148 eady needed for qubit manipulation to obtain atomic scale information about donor quantum dots and th

149 ecific remains undetermined, through lack of atomic-scale information on the behavior of FGs and thei

150 ations throughout the self-assembly provided atomic-scale information on the thickness of the [(SnSe(

151 rearrangements in Pt3Co nanoparticles at the atomic scale: initial random (alloy) elemental distribut

152 Atomic-scale insights into how supported metal nanoparti

153 soluble ligand-binding domain have provided atomic-scale insights into receptor-ligand interactions,

154 rcooled liquid metal in terms of few crucial atomic-scale interaction and anharmonicity parameters.

155 on graphene in real time with sensitivity to atomic-scale interactions.

156 Control of atomic-scale interfaces between materials with distinct

157 ceptionally powerful tool for the systematic atomic-scale interrogation of molecular adsorbates.

158 face structures under reaction conditions at atomic scale is critical for understanding reactivity.

159 Knowing how crystals nucleate at the atomic scale is crucial for understanding, and in turn c

160 y highlights that designing interface at the atomic scale is of general importance for functional spi

161 roperties and well-defined structures on the atomic scale is thus greatly desired.

162 on structural features at the molecular and atomic scales is reviewed, namely, the structure-relaxiv

163 of defect annihilations, particularly at the atomic scale, is important for the preparation of high-q

164 exploiting the interface engineering at the atomic scale, is investigated.

165 show for the first time that non-equilibrium atomic-scale lattice defects can be detected in nanopart

166 However, the connection between the atomic-scale lattice distortion and macro-scale mechanic

167 in ferecrystals: turbostratically disordered atomic-scale layered structures of single-, bi- and tril

168 nderstanding how these materials assemble at atomic scale limits fundamental insights needed to impro

169 study sheds light on deeper understanding of atomic-scale local configuration in TMDs and a methodolo

170 Electron microscopy provides atomic-scale localization also for more complex geometri

171 r producing desirable physical properties by atomic-scale manipulation.

172 Atomic-scale mapping of the polar atomic displacements b

173 This structural design on the atomic scale may alter and expand the concept of propert

174 ties for studying the emergent properties of atomic-scale mechanical and physicochemical interactions

175 Understanding the atomic-scale mechanism behind colossal permittivity rema

176 s and theoretical modeling, we delineate the atomic-scale mechanisms associated with the nucleation,

177 highly active, and we delineate the specific atomic-scale mechanisms associated with their nucleation

178 electrophysiology experiments to reveal the atomic-scale mechanisms of inactivation.

179 This gives an atomic-scale mechanistic understanding of potential-depe

180 An atomic-scale metallurgical bonding between two BMGs can

181 However, the formation of atomic-scale metals without aggregation remains a formid

182 stigate the twinning behavior as well as the atomic scale micromechanisms of growth of tension and co

183 and a carbonate electrolyte through combined atomic-scale microscopy and in situ and operando techniq

184 The design of atomic-scale microstructural traps to limit the diffusio

185 Here, an atomic-scale MIT triggered by surface termination conver

186 Atomic-scale modeling and understanding of materials hav

187 es and node vacancies, because, in prospect, atomic-scale modulation of the composition, areal densit

188 ning probe imaging, electrical transport and atomic-scale molecular dynamics, we demonstrate that con

189 Viewing the atomic-scale motion and energy dissipation pathways invo

190 ings a very promising prospect for resolving atomic-scale motions that were not accessible by previou

191 impede photon collection, and the emitters' atomic scale necessitates the use of free space optical

192 In contrast, here we report an atomic-scale nonchemical dealloying process that results

193 ole that oxygen has on Eu in GaN, as well as atomic scale observation of diffusion and local concentr

194 For the first time, the direct atomic-scale observation of biphasic domains (discrete o

195 scuss the future challenges and prospects of atomic-scale observation of catalysts in understanding o

196 Here we resolve this long-standing puzzle by atomic-scale observation of electron-gas formation for s

197 Here, we report an in situ atomic-scale observation of twin nucleation in nanocryst

198 Atomic-scale observations and kinetic Monte Carlo simula

199 Here we report atomic-scale observations on the coarsening kinetics of

200 Overall, our results provide insights at the atomic scale on the effects of charge distributions over

201 s elemental distribution of Co and Fe at the atomic-scale optimized BMOF and Co/Fe ratio of 9:1.

202 Metal alloys with atomic scale ordering (ordered intermetallics) have emer

203 etric spinel structure (AB2O4), in which the atomic-scale ordering is conventionally described accord

204 are employed to identify the 3D nature of an atomic-scale ordering of liquid Ga in contact with solid

205 ly and structurally dissimilar solids toward atomic-scale ordering, and offer an alternative to conve

206 The atomic-scale origin of the unusually high performance an

207 redict that diffraction can reveal localised atomic-scale origins of optical and electronic phenomena

208 Here, Zhang et al. directly image atomic-scale oxygen migration and the subsequent structu

209 but abundant at graphene's edges, switchable atomic-scale phonon emitters provide the dominant dissip

210 design of advanced fuel cell catalysts with atomic-scale platinum decoration.

211 a oxidation method is developed to fabricate atomic-scale pores in the basal planes of electrochemica

212 the reduction of material dimensions to the atomic scale poses a challenge for traditional measureme

213 h vertical compositions that are designed to atomic-scale precision provide the foundation for modern

214 netic field emanating from nearby spins with atomic-scale precision.

215 ve behind flat voids of a height chosen with atomic-scale precision.

216 atment is provided: matching polarity at the atomic scale prevents lignin aggregation and disrupts ce

217 velength radiation can be used as a powerful atomic-scale probe for light-matter interactions and for

218 lo (KMC) simulation method provides detailed atomic scale processes during a solid growth over realis

219 ssion electron microscopy to investigate the atomic scale processes of silver-based nanoparticles, wh

220 boratory-based studies have shown that these atomic-scale processes can profoundly influence the arch

221 als and when rough surfaces with steps on an atomic scale promote domain switching.

222 -decorated F-actin-tropomyosin together with atomic scale protein-protein docking of tropomyosin to t

223 ion about biological macromolecules near the atomic scale provides important insight into the functio

224 Direct visualization of vortex strings at atomic scale provides insight into the mechanisms and ma

225 Here we show, using atomic-scale quantitative imaging and correlative spectr

226 e proximity of the edge on the energetics of atomic scale reactions are overviewed.

227 However, the atomic-scale regulation of such active sites for NRR cat

228 rriers and their conduction mechanism at the atomic scale remain unclear.

229 erstanding of the migration mechanism at the atomic scale remains largely lacking.

230 Using dynamic, atomic-scale resolution electron microscopy observations

231 single-crystal graphene TEM grids, in which atomic-scale resolution imaging and temporal evolution o

232 s on the polymers to obtain information with atomic-scale resolution on how the monomer structure aff

233 hen the nanorod is annealed, we observe with atomic-scale resolution the transformation from twinned-

234 rd of charge-density maps with sub-cycle and atomic-scale resolutions.

235 The atomic-scale response of dielectrics/ferroelectrics to e

236 t termed a ripplocation-best described as an atomic scale ripple-was proposed to explain deformation

237 rate the merits of simplified fabrication of atomic-scale, robust planar Ag2S memory cells.

238 phases can be kinetically trapped, enabling atomic-scale room-temperature observations.

239 matrix elements that result from inevitable atomic scale roughness.

240 The statistical uniformity of the inherent, atomic-scale roughness of readily-available photomask bl

241 atibility of emerging layered materials with atomic-scale sensitivity under experimentally less strin

242 In this work, we employ atomic-scale simulations to uncover the interface-driven

243 d provide fundamental information for future atomic-scale simulations.

244 imental and theoretical approach reveals the atomic-scale singlet fission mechanism and can be genera

245 surfaces, and the changes are attributed to atomic-scale "smoothing" of the surface by preferential

246 ip of a scanning tunnelling microscope is an atomic-scale source of electrons and holes.

247 g time-domain control of quantum states with atomic-scale spatial resolution in nanostructures is a l

248 The achieved atomic-scale spatial resolution in remote sensing of spi

249 f electronic and optical spectroscopies with atomic-scale spatial resolution is able to provide a com

250 section for electron/matter interaction, the atomic-scale spatial resolution, and the ultrafast tempo

251 smission electron microscopy (STEM) provided atomic-scale, spatially resolved images, and high-energy

252 y, ultrafast electron diffraction (UED) with atomic-scale spatiotemporal resolution has been employed

253 ecting and coherently controlling individual atomic-scale spin centres for sensitive local magnetomet

254 This review will first outline the atomic scale structural analysis on single-atom alloys u

255 Here we directly map the atomic-scale structural and electronic properties of TBG

256 ling microscopy and spectroscopy, we conduct atomic-scale structural and electronic studies on a cycl

257 erromagnetic ground states, arising from its atomic-scale structural features, such as rotational dis

258 few-nanometers-thick epitaxial oxide films, atomic-scale structural imperfections, such as the ubiqu

259 Furthermore, we fully unravel the atomic-scale structural origin of this unexpected excite

260 on energy loss spectroscopy to determine the atomic-scale structural, chemical and electronic propert

261 e determined by energetic characteristics of atomic scale structure changes.

262 Atomic-scale structure analysis demonstrated that opposi

263 new, quantitative chemical insight into the atomic-scale structure of amorphous silicon (a-Si).

264 t and simulation to simultaneously image the atomic-scale structure of weakly scattering amorphous ca

265 independent reading and writing, we built an atomic-scale structure with two Ho bits, to which we wri

266 deformation of nanocrystalline C-S-H to its atomic-scale structure, which is changed by varying the

267 pe optimized force field (AWSEM), we predict atomic-scale structures for several tripartite SMC-kleis

268 By comprehensive characterizations from atomic-scale structures to large-scale device performanc

269 ing perspective for quantum electronics with atomic-scale structures.

270 c acids, respectively, thus amplifying these atomic-scale surface processes in situ into macroscopic

271 s to design LCs that report in situ targeted atomic-scale surface processes.

272 This work provides a new insight into the atomic-scale surface structural modification using ALD a

273 The atomic-scale synthesis of artificial oxide heterostructu

274 On the atomic scale, the longitudinally aligned architecture of

275 uture miniaturized valleytronic devices with atomic-scale thickness for many applications such as chi

276 d their highly anisotropic shape and precise atomic-scale thickness remains unclear, and even counter

277 stacking of intrinsically layered crystals, atomic-scale thin film growth of complex materials has e

278 d, insulating, amorphous metal oxyhydroxide, atomic-scale thin interlayer (ca. 3 nm) between the TCO

279 catalytic activity of M-N-C catalysts at the atomic scale through a combination of experimentation an

280 blematic drugs have not been investigated at atomic scale to inform drug design.

281 situ magneto-structural characterization and atomic-scale tracking of hydrogen atoms reveal that the

282 molecular mechanisms and interactions on the atomic scale, translational applications of those approa

283 Using in-situ atomic-scale transmission electron microscopy to resolve

284 Here, by performing in situ atomic-scale transmission electron microscopy, we report

285 Atomic-scale, tribo-ceramic films associated with dissip

286 Atomic scale tuning of MnO6 octahedra can thus be made p

287 superconductor macroscopic characterization, atomic-scale ultra-low-temperature scanning tunnelling s

288 and to design better metal-based catalysts, atomic scale understanding of catalytic processes is hig

289 Here, an atomic scale understanding of LMO/STO ambipolar ferromag

290 This work provides an improved atomic-scale understanding and new insight into the mech

291 A detailed atomic-scale understanding of the molecular mechanism of

292 roperties of these films are designed at the atomic scale using layer-by-layer assembly of two-dimens

293 such suspended few-layered structures at the atomic scales using classic molecular dynamics (MD) simu

294 This numerical method captures atomic-scale variations of the electromagnetic fields wh

295 lectronic-structure images(17) obtained from atomic-scale visualization of EQM.

296 tu transmission electron microscopy (TEM) at atomic scale, we discover that, in stark contrast to tho

297 olution provided detailed information at the atomic scale, while also providing insight into native s

298 core-shell Pt3Co nanoparticles, seen at the atomic scale with in situ electron microscopy at ambient

299 We characterized the Sm-PMN-PT on the atomic scale with scanning transmission electron microsc

300 ynamics of photon-matter interactions at the atomic scale with ultrafast resolution in image, diffrac