ライフサイエンスコーパス: hydrophobic surface

1 ively charged surface of cNTnC (opposite its hydrophobic surface).

2 cy of polysaccharides and fatty acids to the hydrophobic surface.

3 th other nonpolar residues partitions to the hydrophobic surface.

4 complete domains that expose an unprotected hydrophobic surface.

5 electrolyte decomposition than carbon with a hydrophobic surface.

6 mobility and calcium-dependent exposure of a hydrophobic surface.

7 ydrophilic surface and slip on a nonwetting, hydrophobic surface.

8 ticles, we here demonstrate a self-assembled hydrophobic surface.

9 VE-cadherin does not form a large nonswapped hydrophobic surface.

10 e or adsorption of ion-paired species to the hydrophobic surface.

11 rily extended molecular conformations on the hydrophobic surface.

12 dynamics of interfacial water assembly on a hydrophobic surface.

13 t involves both polar contacts and burial of hydrophobic surface.

14 the hydrophilic IOL (Lentis LS-502-1) with a hydrophobic surface.

15 act line during the assay and also acts as a hydrophobic surface.

16 pecific contacts with AbpSH3 and buries more hydrophobic surface.

17 local ordering and a greater exposure of the hydrophobic surface.

18 hydrophilic surface interacting with a very hydrophobic surface.

19 racteristic wrinkled morphology and a highly hydrophobic surface.

20 ction electrode with high transparency and a hydrophobic surface.

21 ng domain, covering an essentially invariant hydrophobic surface.

22 ould find widespread applicability as robust hydrophobic surfaces.

23 rone activity, suggesting the involvement of hydrophobic surfaces.

24 very similar to those typically observed at hydrophobic surfaces.

25 ctor of twenty-seven compared to traditional hydrophobic surfaces.

26 ccuracies caused by unspecific adsorption to hydrophobic surfaces.

27 release of structured water from the apposed hydrophobic surfaces.

28 s solution adsorbed at model hydrophilic and hydrophobic surfaces.

29 acteristics of bulk water and water close to hydrophobic surfaces.

30 ly associated with self-assembly of extended hydrophobic surfaces.

31 ed biofilm formation on both hydrophilic and hydrophobic surfaces.

32 bserved only on hydrophilic surfaces and not hydrophobic surfaces.

33 ion by increasing their propensity to expose hydrophobic surfaces.

34 ent that disrupts the groove and shields its hydrophobic surfaces.

35 e dependences involving interfacial water on hydrophobic surfaces.

36 ding and the level of attachment of cells to hydrophobic surfaces.

37 ith both proteins becoming more denatured on hydrophobic surfaces.

38 into relatively compact structures, exposing hydrophobic surfaces.

39 e long-range attraction between water-coated hydrophobic surfaces.

40 s led to the formation of thin overlayers on hydrophobic surfaces.

41 s to the bulk liquid and its interfaces with hydrophobic surfaces.

42 proteins and self-aggregation due to exposed hydrophobic surfaces.

43 meleon-type response to organic molecules at hydrophobic surfaces.

44 helical conformation that docks onto a GAL1 hydrophobic surface adjacent to its carbohydrate binding

45 erdigitate to create an even distribution of hydrophobic surfaces along the core.

46 tionic surfactant, and (ii) between one such hydrophobic surface and a hydrophilic surface of bare mi

47 n techniques for linearization of DNA uses a hydrophobic surface and a receding meniscus, termed mole

48 r, HDP-mimetic polymers rarely duplicate the hydrophobic surface and cationic charge density found am

49 catalytic domain of SPase I folds to form a hydrophobic surface and inserts into the lipid bilayers

50 understanding effects of lengthscale of the hydrophobic surface and of attractive interactions on fo

51 lving main-chain atoms, burying an important hydrophobic surface and stabilizing the complex.

52 the N53I substitution exposes an additional hydrophobic surface and that the intramolecular dynamics

53 formational change involving the exposure of hydrophobic surfaces and a change in tertiary but not ne

54 ng its refolding and leaving it with exposed hydrophobic surfaces and beta-sheet edges; and 3) these

55 or force (the unusually strong attraction of hydrophobic surfaces and groups in water).

56 egion and the microlayer, on hydrophilic and hydrophobic surfaces and in both degassed and regular (w

57 ed by the cohesion-tension theory by coating hydrophobic surfaces and nanobubbles, thereby keeping th

58 n interaction site on CheA for other similar hydrophobic surfaces and plays an important role in stru

59 ing reduced water density region between two hydrophobic surfaces and the attractive "depletion force

60 actions of biomolecules with hydrophilic and hydrophobic surfaces and to carry out exploratory experi

61 Complex formation occludes hydrophobic surfaces and tryptophan residues and leads t

62 by proximate stable beta-sheets with exposed hydrophobic surfaces and unsaturated hydrogen bonds.

63 omodimer, including hydrogen bonding, buried hydrophobic surface, and packing interactions.

64 to other surfaces, the diffusivity along the hydrophobic surface, and the overall orientation of the

65 unters more unfavorable interaction with the hydrophobic surface, and this leads to spontaneous bond

66 ayers at hydrophilic surfaces, monolayers at hydrophobic surfaces, and binary monolayer/bilayer patte

67 bonding directions tangential to the exposed hydrophobic surfaces, and this effect increases with inc

68 ic energy from the motions of water drops on hydrophobic surfaces, and thus, the resulting schemes in

69 ity formation is enhanced in the vicinity of hydrophobic surfaces, and water-water correlations corre

70 are millions of conduits with at least some hydrophobic surfaces, and xylem sap is saturated or some

71 We report that ionic interactions on a hydrophobic surface are modulated by their subnanoscale

72 The hydrophobic surfaces are composed of amorphous polytetra

73 Rough or textured hydrophobic surfaces are dubbed "superhydrophobic" due t

74 nger sequences and low pH is correlated with hydrophobic surface area and consequent increased membra

75 indicating that procapsid expansion exposes hydrophobic surface area and that this serves to nucleat

76 based on the premise that increasing buried hydrophobic surface area and/or reducing buried hydrophi

77 non-native manner so as to minimise exposed hydrophobic surface area at this point in folding.

78 is consistent with the burial of significant hydrophobic surface area in Hsp33 when it interacts with

79 With the concept of a minimum hydrophobic surface area in mind, we designed a system t

80 ants of lambda6-85*, and it has more exposed hydrophobic surface area in the folded state.

81 The burial of hydrophobic surface area in the fully unfolded state sug

82 the expected gain in binding free energy as hydrophobic surface area is added.

83 ce of 0.2-10 mM Mg(2+)) and that significant hydrophobic surface area is exposed in the expanded shel

84 More strikingly, an extensive hydrophobic surface area is found to be exposed to solve

85 s the net negative charge, and increases the hydrophobic surface area of BCA.

86 , probe mobility is reduced by expanding the hydrophobic surface area of the coiled-coil domains thro

87 meric peptides likely reflects the increased hydrophobic surface area on or near the BIR3 site and ha

88 L166P DJ-1 showed a significant increase in hydrophobic surface area relative to wild-type protein,

89 r eIF5 in its N-terminal tail and at a basic/hydrophobic surface area termed KH, distinct from the ri

90 o be better explained by increases in buried hydrophobic surface area that accompany fluorination tha

91 f lipid bilayers to minimize the exposure of hydrophobic surface area to water.

92 The exposure of total surface area and hydrophobic surface area upon unfolding was quantified b

93 H group will form depends nonlinearly on the hydrophobic surface area).

94 and two resulting from the change in exposed hydrophobic surface area-that determine how a modificati

95 tions of protein association based on buried hydrophobic surface area.

96 which we propose results in the exposure of hydrophobic surface area.

97 aw" packing, not by sequestration of maximum hydrophobic surface area; (iii) a well-defined "rule" fo

98 perties of Nile red indicate the exposure of hydrophobic surface areas of OCP to the solvent followin

99 se via favorable partitioning of hydrophilic/hydrophobic surface areas, resulting in high catalytic a

100 ids, and humic and fulvic acids with a model hydrophobic surface as a function of increasing doses of

101 cytotoxic effects, implicating the adjacent hydrophobic surface as a functional hot spot for eEF1A m

102 ficiently large (more than 1 nm(2)) strongly hydrophobic surfaces as they approach each other, result

103 show that angiosperm xylem contains abundant hydrophobic surfaces as well as insoluble lipid surfacta

104 s in the P23T mutant that give rise to novel hydrophobic surfaces, as well as those regions of the pr

105 ced the sorption tendency of proteins to the hydrophobic surface at low doses but reduced their sorpt

106 dipolar distance measurements confirm that a hydrophobic surface at the periphery of P5 subdomain 2 a

107 or the formation of a consolidated fusogenic hydrophobic surface at the tip of the FL.

108 evidence suggests that proteins adsorbed to hydrophobic surfaces at low coverages are stabilized rel

109 d water structure so that the imprint of the hydrophobic surface atoms on the surrounding waters is s

110 g of the micelle dimensions to the protein's hydrophobic surface avoids exchange processes that reduc

111 ollectively, these findings demonstrate that hydrophobic surfaces between beta-sheet layers are impor

112 layer and pyrolysed organic matter, such as hydrophobic surface binding proteins, laccases (AA1_1),

113 A single-layer beta-sheet achieves efficient hydrophobic surface burial without forming a hydrophobic

114 ed cross-strand electrostatic attraction and hydrophobic surface burial.

115 Here we show that rough hydrophobic surfaces can experience attractive forces ov

116 of a helical hairpin structure that forms a hydrophobic surface characterized by two highly conserve

117 he range 15-165 nm with both hydrophilic and hydrophobic surface chemistries have been used as model

118 ons cause a change in the accessibility of a hydrophobic surface cleft remote from the nucleotide bin

119 from each other, but each is connected to a hydrophobic surface cleft, which may participate in lipi

120 Hydrophobic surface coatings offer a potential route to

121 This effect is more significant for the hydrophobic surface compared with the hydrophilic ones,

122 Binding to PPS exposes a hydrophobic surface composed of aligned tryptophan side

123 stacking manner, as well as more weakly with hydrophobic surfaces composed of aliphatic side chains,

124 a show that CbpA dimerization is driven by a hydrophobic surface comprising amino acid side chains W2

125 These studies establish that the hydrophobic surface comprising residues R1, R3, and R7 i

126 ed effect even becomes non-measurable if the hydrophobic surface consists of nanocones, which generat

127 tabilizing interactions, beyond the observed hydrophobic surface contacts, between 4 and RT is quite

128 dimerizes in solution at 30 degrees C via a hydrophobic surface defined by the C-terminal alpha(2)be

129 des by PDGFs to cover functionally important hydrophobic surfaces during secretion.

130 hat the water density near weakly attractive hydrophobic surfaces (e.g., -CF(3)) can be bulk-like or

131 he TDP-43 oligomers are stable, have exposed hydrophobic surfaces, exhibit reduced DNA binding capabi

132 oss isolated cuticles and attracted water to hydrophobic surfaces exposed to high relative humidity d

133 produced no impact on corals, and effects of hydrophobic surface extracts from macroalgae paralleled

134 Both have long CDR H3 loops with a hydrophobic surface facing away from the peptide epitope

135 cated at the water-lipid interface, with its hydrophobic surface facing the lipid environment, and th

136 hat mutation of Glu-147 to leucine creates a hydrophobic surface favorably buried upon GoLoco peptide

137 Finally, RhlG lacks a positively charged/hydrophobic surface feature adjacent to the active site

138 f the interfacial energy with the underlying hydrophobic surface followed by dewetting via a nucleati

139 dopting an alternative structure to expose a hydrophobic surface for protein-protein interactions in

140 FliT adopts a four-helix bundle and uses a hydrophobic surface formed by the first three helices to

141 hemical properties remarkably similar to the hydrophobic surface found in fungal hydrophobins; thus,

142 ized as nonnative by the presence of exposed hydrophobic surfaces, free thiols, or processed N-glycan

143 phobic, perfluorinated acrylic copolymer and hydrophobic surface functional silicon dioxide nanoparti

144 he propensity of these ions to accumulate at hydrophobic surfaces has been a subject of intense debat

145 his work, the interaction of soy sauces with hydrophobic surfaces has been analyzed.

146 tion of water induced by confinement between hydrophobic surfaces has received much attention due to

147 ucture and binds ubiquitin through a largely hydrophobic surface in a manner reminiscent of the Dsk2

148 molecules interact symmetrically via a large hydrophobic surface in crystallo, A49 does not dimerize

149 obic fragment in hKOPR C-tail and the curved hydrophobic surface in GEC1 around the S2 beta-strand.

150 site sequesters apolar ligands via a concave hydrophobic surface in SAA oligomers.

151 ce conservation analysis reveals a conserved hydrophobic surface in the same region, which may mediat

152 g by binding nonnative forms through exposed hydrophobic surfaces in an open ring and mediating produ

153 attraction and drying between two nanoscale hydrophobic surfaces in aqueous salt solutions.

154 review of direct force measurements between hydrophobic surfaces in aqueous solutions.

155 al experimental observations and explain why hydrophobic surfaces in contact with water acquire a net

156 Aberrant exposure of hydrophobic surfaces in the analogs is associated with a

157 ts by the trapping of a substrate protein on hydrophobic surfaces in the central cavity of a GroEL ri

158 of the attraction between variously prepared hydrophobic surfaces in water grew from the initially re

159 simulations of water between two nanoscopic hydrophobic surfaces, in conjunction with advanced sampl

160 Several D(2)Os are observed at hydrophobic surfaces, including two pockets near the MTX

161 the size, curvature or charge of the exposed hydrophobic surface influences water's propensity to for

162 Favorable hydrophobic surface interactions between nC60-stir and 7

163 mblies of Janus catalytic motors, induced by hydrophobic surface interactions involving multiple moto

164 level of evidence on the transformation of a hydrophobic surface into a hydrophilic one via noncovale

165 the entire dimer interface, as were extended hydrophobic surfaces involved in dimer formation.

166 ifted by approximately 0.5 eV in the case of hydrophobic surfaces, irrespective of the termination.

167 Instead, we show that a conserved hydrophobic surface is likely to be important for SALP f

168 In doing so, a hydrophobic surface is primed to let a hydrophilic precu

169 ving force for assembly in the vicinity of a hydrophobic surface is weaker than that in bulk water an

170 In-plane frost growth on chilled hydrophobic surfaces is an inter-droplet phenomenon, whe

171 Dropwise condensation (DWC) on hydrophobic surfaces is attracting attention for its gre

172 of the beta-barrel has a distinctly narrowed hydrophobic surface, locally destabilizing the outer mem

173 on in detail in terms of the binding energy, hydrophobic surface-matching, and the residues involved

174 When water-coated hydrophobic surfaces meet, direct contacts form between

175 residues critical for forming a consolidated hydrophobic surface, membrane insertion, and viral entry

176 s interaction with uranyl in the presence of hydrophobic surface mimicked by a carbon nanotube (CNT),

177 ion method; it then went through a series of hydrophobic surface modifications for olanzapine (OLZ) l

178 er density fluctuations adjacent to extended hydrophobic surfaces--namely, the enhanced likelihood of

179 adhesion of the T4P to both hydrophilic and hydrophobic surfaces occurs along extended lengths of th

180 water corresponding to those of the putative hydrophobic surface of a melittin dimer, but is flattene

181 the receptor by wedging into crevices on the hydrophobic surface of A2AR, increasing packing interact

182 main binds to autophagosome membrane via the hydrophobic surface of an intrinsic amphipathic alpha he

183 the Cel7A CBM to bind preferentially to the hydrophobic surface of cellulose relative to hydrophilic

184 th nanogold-conjugated CBM3, which binds the hydrophobic surface of crystalline cellulose, was infreq

185 onwetting aqueous droplets interact with the hydrophobic surface of kaolinite via a mixture of adsorb

186 and H2O molecules interact directly with the hydrophobic surface of kaolinite.

187 ucture-guided mutagenesis identified a small hydrophobic surface of NOD1 CARD that binds Ub.

188 obic mismatch between this bolalipid and the hydrophobic surface of Ste14p.

189 xpectedly, the site of binding of AD2 on the hydrophobic surface of TAZ2 overlaps with the binding si

190 erfere with the adsorption of protein on the hydrophobic surface of the beads.

191 ort (13)C-(13)C distances of 4-6 A between a hydrophobic surface of the cellulose microfibril and an

192 at low pH is discussed in terms of the large hydrophobic surface of the coordinated DPP ligand destab

193 pts a continuous alpha-helix that docks in a hydrophobic surface of the ECD that is distinct from the

194 hod in which proteins are immobilized on the hydrophobic surface of the elastomeric device for in-wel

195 g a novel desalting method that utilizes the hydrophobic surface of the elastomeric device; and (iii)

196 as affected by systematic replacement of the hydrophobic surface of the oligourea helix with either p

197 We hypothesize that the hydrophobic surface of the paratope functions as a "trap

198 In addition, mutations introduced into a hydrophobic surface of the predicted Stn1 alpha-helix el

199 Instead, it interacts with the different hydrophobic surface of the protein molecule formed by th

200 ng has been used to locate the transmembrane hydrophobic surface of the protein.

201 and Stepping stone heterodimerized through a hydrophobic surface of the Steppke domain.

202 quitin-binding domains, the UBM binds to the hydrophobic surface of ubiquitin centered at L8.

203 the exposed dimeric interface binds exposed hydrophobic surfaces of acid-denatured proteins, prevent

204 The interaction site contains adjoining hydrophobic surfaces of helices 1 and 5 of OSCP-NT bindi

205 n in the central cavity of an open ring, via hydrophobic surfaces of its apical domains, followed by

206 lipid bilayer, the symmetry and shape of the hydrophobic surfaces of membrane proteins play an import

207 lase, Cel7A, is known to selectively bind to hydrophobic surfaces of native cellulose.

208 The curvature stress and hydrophobic surfaces of the all-atom and continuum model

209 In the case that the hydrophobic surfaces of the cores could not be properly

210 formed with good minimization of the exposed hydrophobic surfaces of the cores, they are highly stabl

211 ic constriction region in 10 ns) by allowing hydrophobic surfaces of the N- and C-domains to fuse.

212 In aqueous environments, the hydrophobic surfaces of the organic cores in these nanos

213 Both the AD1 and AD2 motifs bind to hydrophobic surfaces of the TAZ domains, with AD2 making

214 the [GS]LFXG[ML]X[LV] motif to a conserved, hydrophobic surface on the beta4-ear platform fold.

215 Mam1 binds a hydrophobic surface on the Hrr25 N-lobe that is conserve

216 ate DNA strand during recruitment, whereas a hydrophobic surface on the opposite side of RfaH(N) rema

217 There is a hydrophobic surface on the SH2 domain that can accommoda

218 er-layer shedding depend on interaction of a hydrophobic surface on VP5* with the membrane bilayer an

219 Ca2+ binding creates two symmetric hydrophobic surfaces on Ca2+-calgranulin C that allow ca

220 Under these conditions, many hydrophobic surfaces on proteins may be transiently expo

221 rfaces on the interior of the wells and with hydrophobic surfaces on the face of the SlipChip to enha

222 pids are either annular, masking the protein hydrophobic surface, or specific lipids, essential for p

223 The cationic ligands with more hydrophobic surfaces, particularly those carrying aromat

224 r functional analysis of AvrM reveals that a hydrophobic surface patch conserved between both variant

225 high affinity binding site for the ubiquitin hydrophobic surface patch that accounts for the bulk of

226 Csm1 presents a conserved hydrophobic surface patch that binds two kinetochore pro

227 A large, evolutionarily conserved hydrophobic surface patch that is critical for enzymatic

228 bind to the distal side of the enzyme at the hydrophobic surface patch thought to interact with the N

229 pression function by mutating four candidate hydrophobic surface patches.

230 ed and interfacial water in the proximity of hydrophobic surfaces play a pivotal role in a variety of

231 accessibility, protease susceptibility, and hydrophobic surfaces present on P450 structures of solub

232 rHDL with a chemically patterned hydrophilic/hydrophobic surface produces a novel compositional patte

233 ) with reduced negative charge and increased hydrophobic surface profile, which displays increased li

234 These polymer "liftoff" arrays combine the hydrophobic surface properties of di-p-xylylene (Parylen

235 ulated by homology modeling exhibit atypical hydrophobic surface properties, compared with the alread

236 We find that, akin to extended hydrophobic surfaces, proteins situate their hydration w

237 ating such nanoconfined interfacial water on hydrophobic surfaces, provided that the nanotubes can be

238 DFTamP1 by NMR spectroscopy revealed a broad hydrophobic surface, providing a basis for its potency a

239 ne root cause for aggregation is exposure of hydrophobic surface regions to the solvent.

240 tions reveal a global pattern of charged and hydrophobic surface residues that bends the membrane in

241 ng either threonine or serine, and with many hydrophobic surface residues.

242 nt channel systems, lined by hydrophilic and hydrophobic surfaces, respectively.

243 interactions and forces between cosolute and hydrophobic surfaces responsible for different kinds of

244 ry evaporation of water confined between two hydrophobic surfaces separated by nanoscopic gaps, as a

245 Our data demonstrate that hydrophobic surfaces serve as a platform to deliver unif

246 Remarkably, the contribution of this small hydrophobic surface significantly increases the observed

247 It is also applicable to additional hydrophobic surfaces such as agricultural products, plan

248 oration scales linearly with the gap between hydrophobic surfaces, suggesting that line tension makes

249 ghly conserved residues and creating a large hydrophobic surface suitable for preventing water conden

250 ws a two-site binding mechanism in which the hydrophobic surfaces surrounding Phe-4 and Val-70 are im

251 Because hydrophobic surfaces tend to cause water slip whereas hy

252 city stems from an aversion of water for the hydrophobic surface texture, so that a water droplet in

253 The treatment process resulted in a hydrophobic surface that enabled formation of the requis

254 s C-terminal arm to an essentially invariant hydrophobic surface that extends over the entire top fac

255 similar to its active form, exposing a large hydrophobic surface that facilitates initial homodimer f

256 tions revealed a previously underappreciated hydrophobic surface that functions to position the dynam

257 oups to a molecule to increase the amount of hydrophobic surface that is buried upon binding.

258 rapidly creating a removable and affordable hydrophobic surface that is free from memory effect is p

259 Ca(2+)-bound CaBP7 NTD has a solvent-exposed hydrophobic surface that is more expansive than observed

260 ors an "open" conformation, exposing a large hydrophobic surface that is stabilized by target binding

261 e C-terminal domain presents a large exposed hydrophobic surface that likely initiates interactions w

262 as a central ordered domain with a conserved hydrophobic surface that may be a potential protein inte

263 st natural floating marine substrates, and a hydrophobic surface that promotes microbial colonization

264 Importantly, such packing generates a hydrophobic surface that recognizes the Leu-rich face of

265 2-1; Oculentis GmbH, Berlin, Germany) with a hydrophobic surface that were explanted from 5 patients

266 eta-hairpin secondary structure and extended hydrophobic surfaces that are exposed to the solvent.

267 nd Abeta42 contain different solvent-exposed hydrophobic surfaces that are located at the sequences f

268 e the collapsed alphabeta core by binding to hydrophobic surfaces that are usually buried between the

269 icone-based products was developed to create hydrophobic surfaces that enable analysis of otherwise w

270 This creates exposed hydrophobic surfaces that may be capable of binding unna

271 ted by interactions with 10FNIII that expose hydrophobic surfaces that support 8-anilino-1-napthalene

272 re, we show that BH3 mimetics that bind to a hydrophobic surface (the BH3 groove) of Bcl-2 induce GSH

273 Although hydrophilic acrylic lenses have a hydrophobic surface, the development of calcification is

274 y establishing a large slip length via super hydrophobic surfaces, the amount of proteins adsorbed to

275 ration, while for NPs with partly or totally hydrophobic surfaces, the opposite highly possibly holds

276 ssembly and interactions of MPG1 and MHP1 at hydrophobic surfaces thereby provide the basis for a pos

277 The thermal behavior of proteins adsorbed to hydrophobic surfaces thus appears to follow behavior ind

278 itation at 37 degrees C in the presence of a hydrophobic surface to explore the details of aggregatio

279 ntent, and to expose a larger portion of the hydrophobic surface to the solvent.

280 zing new nucleoside analogues with elongated hydrophobic surfaces to successfully measure in-gene abu

281 either operation in an inert atmosphere or a hydrophobic surface treatment and annealing step is typi

282 vapor tube that spans the region between two hydrophobic surfaces--tubes with smaller radii collapse,

283 ne diimide molecules are reported on various hydrophobic surfaces under scanning laser irradiation.

284 havior due to change of water wettability on hydrophobic surface upon small temperature change or ult

285 mplying that intact flagellin adsorbs on the hydrophobic surface via its terminal regions.

286 cular kinetic analyses of water spreading on hydrophobic surfaces via molecular dynamics simulation.

287 nation, the highest sorption tendency to the hydrophobic surface was observed within the range of dos

288 sts on an intermediate wetting surface and a hydrophobic surface, we found no difference in shear adh

289 ause droplet generation in channels requires hydrophobic surfaces, we have also investigated the adva

290 govern interactions of helical peptides with hydrophobic surfaces, were never established before due

291 rbed peptides is negligible or on the highly hydrophobic surface where the diffusion constant of the

292 e show that stretched fibers are formed on a hydrophobic surface, whereas plaque-like aggregates are

293 can diffuse from hydrophilic surfaces to the hydrophobic surface, whereas the reverse transition is n

294 o mediates strong cellular interactions with hydrophobic surfaces, which are likely to be involved in

295 ucture of a single alpha-helix, containing a hydrophobic surface with a conserved sequence pattern th

296 where droplets can be actuated over a (super)hydrophobic surface with a magnetic force.

297 on tendency of humic and fulvic acids to the hydrophobic surface with maxima at moderate doses, while

298 ueous electrolytes nanoconfined by uncharged hydrophobic surfaces with no direct experimental validat

299 will alter this delicate structure, exposing hydrophobic surfaces, with consequent protein aggregatio

300 that the strong hydrogen bonding of water on hydrophobic surfaces would dominate with suppressed inte