ライフサイエンスコーパス: interfacial

1 igate heterogeneous materials with differing interfacial adhesion modes.

2 spatial confinement and pressure induced by interfacial adhesion.

3 GlpG and DsbB that correlated with membrane interfacial and biological transmembrane amino acid hydr

4 ) technique-based screening strategy for Ras interfacial and competitive inhibitors.

5 orine-containing polymers for tailored bulk, interfacial, and solution properties.

6 Finally, it's concluded that the created interfacial architecture is a typical complex system, wh

7 The sensing interfacial architecture is based on the BSA-E2 conjugat

8 nd transducing path, the characterization of interfacial architectures, and the integration of multip

9 Here the quantified physical pathway of interfacial area change due to material exchange in liqu

10 d the shortest distance to detachment as the interfacial area is separated instantaneously, while the

11 pecific interest when tracking the transient interfacial area, a parameter integral to short processi

12 lifying electronic transmission, without any interfacial barrier in between the film and the electrod

13 d electron transport by two-fold without any interfacial barrier through carbon layers than that real

14 itive technique, has been used to reveal the interfacial behavior of garnet SSE in contact with metal

15 Although the interfacial behavior of globular proteins has been exten

16 lar interest due to their diverse super-thin interfacial behaviour, which could be well suited to ope

17 d NBDs dimerize occluding two nucleotides at interfacial binding sites; one site hydrolyzes ATP, the

18 study further indicated that the zipper-like interfacial bioelectrochemical properties could be tuned

19 revealed that FGNs can significantly promote interfacial biointeractions, in particular, with protein

20 l spectroscopy and MD simulation in studying interfacial biological molecules.

21 tudied RS system, by focusing on the role of interfacial bonding at the active TiO2-Pt interface, as

22 study reveals that electrical resistance and interfacial bonding status are highly coupled together.

23 Bone condensation is thought to densify interfacial bone and thus improve implant primary stabil

24 Condensation increased interfacial bone density, as measured by a significant c

25 BPA level by measuring the sample/electrode interfacial capacitance of the sensor.

26 m carbide (alpha-MoC) substrate to create an interfacial catalyst system for the ultralow-temperature

27 elf-assemble and the subsequent influence of interfacial cavities on mass transport of guest molecule

28 means of joint density functional theory and interfacial characterization experiments, we show that I

29 that thermal treatments effectively tune the interfacial charge distribution in carbon-supported pall

30 e thermal treatments can be used to tune the interfacial charge distribution, hereby providing a stra

31 tance is enabled by the reversible tuning of interfacial charge injection into diarylethene molecular

32 tivity for water splitting, permit efficient interfacial charge transport from semiconductor substrat

33 tely efficient charge generation mediated by interfacial charge-pair states is observed, followed by

34 rtant new insights for understanding complex interfacial chemical processes at metal oxide-water inte

35 Interfacial chemistry involving glyoxal at aerosol surfa

36 provides a new direction for regulating the interfacial chemistry of Li metal anodes and for enablin

37 ey resorb and the significant role played by interfacial chemistry on the host response in vivo.

38 amphiphilic conjugated polyelectrolyte as an interfacial compatibilizer, fabricating uniform perovski

39 the M. oryzae effector-secreting biotrophic interfacial complex (BIC) was misregulated in the Deltan

40 ress the role of chemical, morphological and interfacial complexity in determining electronic structu

41 rder dependence in bicarbonate and simulated interfacial concentration gradients, we conclude that bi

42 rTiO3 at low temperatures, tunability in the interfacial conductivity over a wide range has been demo

43 More broadly, we demonstrate that interfacial confinement fundamentally alters the energet

44 strate that genetic expression is altered by interfacial confinement, and suggest that the ability to

45 g interface adhesion as well as boosting the interfacial contact area without losing the intrinsic gr

46 d, which generated high density of nanoscale interfacial contact between CZTS and MoS2-rGO hybrid.

47 to improving HDO activity by maximizing the interfacial contact between the metal and metal oxide si

48 C60 bis-adduct, is used to achieve optimized interfacial contact in a small-bandgap ( approximately 1

49 The interfacial contact stiffness is obtained through an inv

50 scribe a theoretical model that predicts the interfacial contact stiffness of fractal rough surfaces

51 ierarchical tubular hybrids with homogeneous interfacial contacts and ultrathin two-dimensional (2D)

52 f Li-free Li metal anode in forming reliable interfacial contacts, and strategies of excessive Li and

53 g spin-textured states and suggest routes to interfacial control of inversion-symmetry breaking in de

54 A strong and anisotropic interfacial coupling between the charge transfer pairs i

55 minant Fe stripe and V Neel fluctuations via interfacial coupling induces a charge/orbital order in t

56 Herein, we have demonstrated a bottom-up interfacial crystallization strategy to fabricate these

57 y variable components not only for promoting interfacial CT in perovskites, but also for establishing

58 onor moieties, subsequently facilitating the interfacial CT process.

59 nd Sn-0.7Cu/Cu as examples, we show that the interfacial Cu6Sn5 layer is present within 0.05 s of wet

60 interpreted using geometric considerations, interfacial curvature, electrostatic interactions, parti

61 nced by the changes in morphology induced by interfacial curvature.

62 articles, together with crack deflection and interfacial debonding, which is compatible with the coex

63 to spherical micelles and increase the local interfacial density of CPP on the surface of the cargo.

64 ese requirements lead to quite sophisticated interfacial design, often with molecular level control,

65 rthermore, thinly stratified, self-organized interfacial discharge is capable to efficiently control

66 stable twin architecture is not disrupted by interfacial dislocation glide, serving as a continuous s

67 t different uptake mechanisms-edge sorption, interfacial dissolution-reprecipitation-are at play and

68 Here we show for a system with weak interfacial DMI (NiFe/Pt) that the measurement of magnet

69 WMRP showed good interfacial dose-dependent proprieties.

70 Two-phase flow interfacial dynamics in rough fractures is fundamental t

71 skyrmion and the uniform state can occur in interfacial Dzyaloshinskii-Moriya finite-sized systems.

72 The interfacial Dzyaloshinskii-Moriya interaction (IDMI) occ

73 difying the local magnetization state via an interfacial Dzyaloshinskii-Moriya interaction (IDMI), en

74 d in this system, due to the presence of the interfacial Dzyaloshinskii-Moriya interaction.

75 We demonstrate that the interfacial effects are independent of metal or oxide si

76 The interfacial effects induced by these new materials are s

77 us warranting further investigation into the interfacial effects of small chemical modifications to s

78 he enhanced reducibility is not dominated by interfacial effects.

79 Interfacial electric fields are important in several are

80 study unearths the fundamental defect-driven interfacial electric structure of III-V semiconductor ma

81 the OER and highlights the importance of the interfacial electrified interaction in electrocatalyst d

82 is developed to understand and simulate the interfacial electrokinetic behaviors.

83 rosion results in formation of an aggressive interfacial electrolyte that rapidly accelerates pitting

84 tetragonal domain of STO, the anisotropy of interfacial electron conduction in relationship to the d

85 pproach offers a possible route to detecting interfacial electron transfer in a broad class of system

86 Ultrafast interfacial electron transfer in sensitized solar cells

87 yte interaction, thereby allowing more rapid interfacial electron transfer process.

88 ep-ultraviolet continuum pulses to probe the interfacial electron transfer, by detecting a specific e

89 Such an interfacial electronic effect makes Pt favour the adsorp

90 their use as a model catalyst to embrace an interfacial electronic effect on Pt induced by the nanos

91 Taming interfacial electronic effects on Pt nanoparticles modul

92 oup spontaneously under zero bias because of interfacial energy minimization, closely resembling syna

93 he bilayer; it is solely driven by the large interfacial energy of the LD, as opposed to the bilayer

94 e simulated this phenomenon by analyzing the interfacial energy of two bilayer foam systems with vary

95 lenges in these systems, such as engineering interfacial energy-level alignment and charge transfer (

96 e two interfaces studied here indicated that interfacial-energy of coherent precipitates is sensitive

97 s, and strategies of excessive Li and better interfacial engineering need to be investigated.

98 This interfacial enrichment is synchronized with bulk homogen

99 ting specific stereo molecular structures at interfacial environments.

100 nal pressure and exploiting the mechanics of interfacial equal load sharing.

101 a band gap excitation (e.g., 266 nm) from an interfacial exciton that undergoes O-H dissociation.

102 enrich the understanding of hydrogen-induced interfacial failure at elevated temperatures.

103 n terms of magnetic interactions between the interfacial ferromagnetically reduced layer and the bulk

104 at, unlike solid-supported biofilms, elastic interfacial film formation occurs in the absence of flag

105 Through the control of interfacial force during the transfer, the intactness of

106 onds on plastic or glass Petri dishes; then, interfacial forces pin liquids to substrates, and overla

107 Structured liquids, generated by the interfacial formation, assembly, and jamming of nanopart

108 nneling microscopy, subtractively normalized interfacial Fourier transform infrared spectroscopy (SNI

109 properties from the comparative analysis of interfacial fracture properties and thus enables the ide

110 late the role of grain boundary structure on interfacial fracture properties, such as the tensile str

111 haped surfaces but significantly reduces the interfacial fracture strength.

112 This compensates the increment of interfacial free energy during breaking up and enables t

113 This process is driven by the interfacial free energy minimization, which gives rise t

114 Interfacial gap formation during polymerization of the c

115 composite placement and 3D quantification of interfacial gaps were implemented within the experimenta

116 using a reversible cross-linking mechanism, interfacial gelation process or ice.

117 onate was performed on the transport domain (interfacial helix 2, hairpin 1, putative transmembrane d

118 quantum confinement, topology, disorder and interfacial heterogeneity to realize new quantum materia

119 n of an energetic epitope by determining the interfacial hot-spot that dominates the binding affinity

120 A thicker hydration shell and a more rigid interfacial hydration network are observed in the beta-s

121 get antigen, surface-immobilized MB consumes interfacial hydrazine thereby diminishing the electro-ox

122 nit gp41, which display different degrees of interfacial hydrophobicity.

123 plications become possible, among which high interfacial impedance and low interfacial stability rema

124 In this Article, interfacial impedance at the electrode/electrolyte inter

125 this work, we effectively address the large interfacial impedance between a lithium metal anode and

126 e major challenge being the high solid-solid interfacial impedance between the garnet electrolyte and

127 (EIS) was used to monitor the changes in the interfacial impedance due to the binding of E. coli B to

128 A significant decrease of interfacial impedance, from 1,710 Omega cm(2) to 1 Omega

129 ffectively negating the lithium metal/garnet interfacial impedance.

130 py measurements provide local structural and interfacial information.

131 The lithium (Li) metal anode suffers severe interfacial instability from its high reactivity toward

132 The interfacial instability in systems where rate of materia

133 oherence tomography (OCT) and to compare the interfacial integrity of adhesives in cavities through 3

134 polymer network, as well as the synergistic interfacial interaction at the metal/polymer and metal/m

135 understanding of the differences in subunit interfacial interactions and conformational preferences

136 rmational preference of the molecule and the interfacial interactions between the subunits.

137 nductors (FeSCs) can be tipped by additional interfacial interactions in a heterostructure, often ind

138 rstanding protein higher order structure and interfacial interactions is crucial to understanding pro

139 s-linked network formed by dopamine-Laponite interfacial interactions to a covalently cross-linked ne

140 e a massively parallel assessment of the PDC interfacial interactions under a fairly broad range of m

141 ust therefore be designed to encourage these interfacial interactions, but experimentally resolving h

142 e effect of water molecules on the different interfacial interactions.

143 The kinetics of the interfacial ion transfer defines a theoretical upper lim

144 I(-)) can react with Ag contacts, leading to interfacial ionic polarization.

145 The existence of an intrinsic interfacial layer has often been found at oxide heteroin

146 hem to leaf-level gas exchange and soil-root interfacial layers.

147 Simultaneous measurements of the interfacial liquid viscosity indicate that urea accumula

148 This interfacial location is stabilized by hydrogen bonds bet

149 ey spitting in monolayer WSe2, utilizing the interfacial magnetic exchange field (MEF) from a ferroma

150 ey spitting in single-layer WSe2 through the interfacial magnetic exchange field from a ferromagnetic

151 in Cr-doped (Bi,Sb)2Te3, we realize emergent interfacial magnetic phenomena which can be tailored thr

152 unique ionic-liquid-gating system for strong interfacial magnetoelectric coupling with many practical

153 an aqueous surfactant solution are driven by interfacial Marangoni flows induced by micellar solubili

154 ron per 2D unit cell transferred between the interfacial Mn and Ni layers, which is corroborated by f

155 versible transition of the spin alignment of interfacial Mn ions from AFM to FM exchange-coupled, whi

156 ponents promote the formation of high-energy interfacial Mn-O-Co species and high oxidation state CoO

157 as proven difficult to measure monolayer and interfacial molecular dynamics.

158 ting cells and provide the first evidence of interfacial monopolarity.

159 Control of interfacial morphology in electrochemical processes is e

160 Intermediate wettability leads to various interfacial movements which are not identified under imb

161 ge of reactive polymer coatings that combine interfacial multifunctionality with degradability.

162 Marine mussels use catechol-rich interfacial mussel foot proteins (mfps) as primers that

163 ic states whose population can be altered by interfacial mutations.

164 Owing to the interfacial nature of the magnetism, the ability to move

165 The resulting interfacial nematic layer of these 1D supramolecular pol

166 and find that it is responsible for a large interfacial nonlinearity probed via second harmonic gene

167 died in this work, the presence of localized interfacial optical modes mediate thermal conductance ac

168 edicted the composition of the self-limiting interfacial oxide.

169 ly O-H and C-H dissociations with the aid of interfacial oxygen, which is also validated in the model

170 ty of liquid media treated at self-organized interfacial patterns.

171 faces, leading to a dramatic decrease of the interfacial permeability.

172 nzoquinone to hydroquinone and the resulting interfacial pH change is revealed using the fluorophore

173 he GeTe-Sb2 Te3 superlattice film adopted in interfacial phase-change memory.

174 asures mass changes (Deltam) associated with interfacial phenomena.

175 rs of polyimine COF were synthesized via the interfacial polymerization (IP) of terephthalaldehyde an

176 fects introduced during transfer/handling by interfacial polymerization, a facile oxygen-plasma etch

177 dispersion in the organic solution used for interfacial polymerization.

178 buted to efficient energy dissipation in the interfacial portion of the organic phase.

179 The in vivo contribution of this interfacial portion to macroscale deformations along the

180 ven and modulated by the presence of a large interfacial potential gradient.

181 nstrate the importance of accounting for the interfacial potential-dependent chi ((3)) term in interp

182 ructures of various ultrathin films by extra interfacial potentials due not only to Moire superstruct

183 However, the presence of interfacial potentials may lead to complications regardi

184 tivity of the electrolyte and Li-electrolyte interfacial problems.

185 ns and could have important implications for interfacial processes in electrolytes.

186 r 90 degrees C for 30min) on the foaming and interfacial properties of acid and sweet whey obtained f

187 Interfacial properties of acid camel whey and acid bovin

188 results confirmed the pronounced foaming and interfacial properties of acid camel whey, even if acid

189 Here we show a methodology to control the interfacial properties of BCP films that uses a polymer

190 These structural changes may affect the interfacial properties of the MFGM, with consequences fo

191 yet, a clear consensus on the basic surface/interfacial properties of the sulfur electrode has not b

192 DSA requires the control of interfacial properties on both interfaces of a BCP film

193 cined materials have significantly different interfacial properties than the plasma-processed counter

194 virus nucleoprotein (NTAIL) and compared its interfacial properties to those of lysozyme that is take

195 However, achieving precise control over interfacial properties, and thus reaction selectivity, h

196 pose the active catalytic sites are cationic interfacial Pt atoms bonded to TiO2 and that Ptiso exhib

197 d-state Mg(2+) diffusion and ensures a large interfacial reaction area, leading to fast reaction kine

198 the conventional bulk Onsager model and the interfacial reaction field model.

199 vity streamlining in all manufacturing where interfacial reaction occurs.

200 Liquid-liquid and air-liquid interfacial reactions were used to realize thick ( appro

201 Dendritic Li formation, uncontrolled interfacial reactions, and huge volume effect are major

202 he electrochemical interface is an ultrathin interfacial region between the electrode surface and the

203 ted to the hydrolysis of SO4(*-) in the warm interfacial region of cavitation bubbles formed from US.

204 uilibrium electric field fluctuations at the interfacial region of lipid bilayers by using a combinat

205 sis detects enrichment of 22 proteins in the interfacial region that are predominantly involved in ca

206 tioning would most likely occur at a bilayer interfacial region, potentially adjacent to the protein'

207 nt change of the CCDW order parameter in the interfacial region.

208 and additional losses may be incurred at the interfacial regions of a lateral heterostructure.

209 espirasome and enabled prediction of in situ interfacial regions of the complexes.

210 zero or low NaCl electrolyte concentrations, interfacial repulsions are soft and longer in range, thi

211 potOn, a web server to identify and classify interfacial residues as Hot-Spots (HS) and Null-Spots (N

212 rechargeable batteries is plagued by a large interfacial resistance between a solid cathode and a sol

213 bulk Li metal, leading to a small and stable interfacial resistance between the garnet solid electrol

214 methodology for reducing the garnet/Li-metal interfacial resistance by depositing a thin germanium (G

215 applying this approach, the garnet/Li-metal interfacial resistance decreases from approximately 900

216 We also found that the interfacial resistance did not change with increase in t

217 e garnet particles, which results in a large interfacial resistance for Li-ion transfer.

218 stigate the effect of a metal coating on the interfacial resistance of a solid electrolyte and Li met

219 ess Li2 CO3 on the surface and shows a small interfacial resistance with Li metal, a solid polymer el

220 lyte and solid cathode particles reduces the interfacial resistance, increases the cycle life, and al

221 hich leads to limited active sites and large interfacial resistance.

222 of the solid electrolyte surface and reduce interfacial resistance.

223 oy has low overpotential, leading to a lower interfacial resistance.

224 MWCNTs in the Cu matrix, with control of the interfacial resistivity using the MWCNT/Cr7C3-Cu system.

225 The link between interfacial rheology and macroscopic dissolution of [For

226 article-coated air bubbles in water based on interfacial rheology design is presented.

227 We use a suite of interfacial rheology techniques to characterize spherica

228 A metal/semiconductor interfacial Schottky junction with a 0.94 eV barrier hei

229 As such, this should be thought of as an interfacial Seebeck coefficient rather than a Seebeck co

230 new protocell model through the spontaneous interfacial self-assembly of copolymer molecules on biop

231 ework for teasing out the molecular basis of interfacial self-assembly.

232 y atom is exposed for catalysis and forms an interfacial site with TiO2.

233 Here we show metal/oxide interfacial sites are highly active for the oxidation of

234 ch was developed and applied to identify the interfacial sites of a trimeric, integral membrane prote

235 thanol, the Zn-Cu bimetallic sites or ZnO-Cu interfacial sites, have recently been the subject of int

236 at are created local to the observed Co-S-Mo interfacial sites.

237 In contrast, interfacial species mixing always increases the kappa l

238 We found that interfacial species mixing enhances thermal transport ac

239 Furthermore, the interfacial specific surface area exhibited values on th

240 iffusion description, including the bulk and interfacial spin Hall effects, is integrated with a magn

241 Proximity effects are shown to induce an interfacial spin texture modulation and establish an eff

242 ong which high interfacial impedance and low interfacial stability remain the most challenging.

243 nergy level alignment and strongly localized interfacial states.

244 Ni hybrid thin films, manifested through the interfacial strain and sample microstructure, and its co

245 property of "memristance." The modulation of interfacial strain and the interface count is used to en

246 ds on the VO2 domain sizes and the TiO2 -VO2 interfacial strain characteristics.

247 lithiation is suppressed by the compressive interfacial strain.

248 onstrated that condensation caused very high interfacial strains, marginal bone resorption, and no im

249 tly, this would have been impossible without interfacial stratification of plasma jet to thin (of sev

250 Chemical strain and interfacial stress resulted from electrochemically pumpi

251 y of polymer on the nanotube surface and the interfacial stress transferring while the high alignment

252 is unknown, and may likely be related to the interfacial structure and excess energy.

253 In-situ observations for oxide-liquid interfacial structure and surface morphology were perfor

254 Here, we explore the interfacial structure between liquid water and a rutile

255 The resulting time-averaged interfacial structure consists of a ridged lateral arran

256 In a vast majority of studies, the interfacial structure is assumed to arise from a relativ

257 scientific and technological importance, the interfacial structure of R5 during silica precipitation

258 e complex coupling between lattice geometry, interfacial structure, and mechanical properties.

259 area, including the use of core/shell oxide interfacial structures and surface stabilization by atom

260 Engineering high-energy interfacial structures for high-performance electrocatal

261 e-electrode interface, here we elucidate the interfacial subnanometer structure of a single component

262 the maximum tensile stress tangential to the interfacial surface, as opposed to the more universally

263 sion in which the preferred curvature of the interfacial surfactant layer changes its sign.

264 mation specific for the evolving distributed interfacial system.

265 Interfacial tension (IFT) studies have shown a decrease

266 scopy, and an automated drop tensiometer for interfacial tension and elastic modulus determination wi

267 roteins and peptides that reduce surface and interfacial tension and mediate growth and development a

268 s and inform a new approach to the nature of interfacial tension and the impact this has on concepts

269 ation timescales, consistent with a variable interfacial tension and viscosity.

270 and emulsification behaviour in relation to interfacial tension as modelled using phase-field method

271 the amphiphilic replicator, by lowering the interfacial tension between droplets of the reaction mix

272 e, k, water viscosity, mu, and the water/oil interfacial tension coefficient, sigma.

273 The mapping of global interfacial tension coupled with free energy dissipation

274 e impact this has on concepts used to define interfacial tension for a two phase system with material

275 Interfacial tension measurements showed that the AR-BSA

276 SA complex presented surface activity, since interfacial tension of the water-air interface decreased

277 om the surrounding solution and dominated by interfacial tension.

278 merical simulations, we conclude that tissue interfacial tensions are sufficient to explain cell sort

279 from the demixing point of the liquids, with interfacial tensions on the order of 20 mN m(-1).

280 l pitch, the twist elastic constant, and the interfacial tensions, is derived.

281 capacitor devices with symmetric and uniform interfacial termination, it is demonstrated for the firs

282 h plays an important role in controlling the interfacial terminations of SrRuO3 /BaTiO3 /SrRuO3 (SRO/

283 activation energy of the transistors and the interfacial thermal expansion mismatch, in which band-li

284 The physicochemical principle lies in the interfacial transfer of an ionic probe confined in the p

285 quently probe the atomic mechanisms by which interfacial transformation and grain rotation occur at t

286 The fast interfacial transport attributes of the SEI are also fou

287 The fascinating interfacial transport properties at the LaAlO3/SrTiO3 he

288 The results indicate that the interfacial velocities represent significant Haines jump

289 From calculations of the interfacial volume surrounding cavitation bubbles and us

290 comparative insights into the orientation of interfacial water and the molecular characterization of

291 preformed target structures upon removal of interfacial water concurrent with drug binding.

292 solutes and calculate the free energetics of interfacial water density fluctuations, which quantify t

293 reas the polar region of AOT and surrounding interfacial water molecules display nearly identical beh

294 1)(R2)NH2(+) complex is bound by one to four interfacial water molecules.

295 We find that these surfaces order interfacial water to form domains with ice-like order th

296 bly decreases the apparent glassiness of the interfacial water, but no clear effect on the ions' dyna

297 slow from 1.5 ps in bulk water to 3.1 ps for interfacial water.

298 ese could be predicted from the structure of interfacial water.

299 th pH, which we attribute to the electrified interfacial water.

300 combines molecular dynamics simulation with interfacial x-ray scattering experiments to produce an a