ライフサイエンスコーパス: dissolution

1 the subjective experience of one's self (ego dissolution).

2 fidic conditions and subsequent Fe reductive dissolution.

3 nated by calcium carbonate precipitation and dissolution.

4 variables involved in the performance of the dissolution.

5 hest extraction of CuO NPs, while minimizing dissolution.

6 g the pH dependence of O(2)(*-)-mediated AFO dissolution.

7 perties, such as morphology, composition and dissolution.

8 Au core-shell nanocubes undergoing oxidative dissolution.

9 nto this microenvironment to promote CaCO(3) dissolution.

10 ntimicrobial lipids, and facilitate membrane dissolution.

11 n cell binding and extracellular virion (EV) dissolution.

12 NPs translocates from the lungs mainly after dissolution.

13 e Carbon ecosystems are sites of net CaCO(3) dissolution.

14 e deformation, and mineral precipitation and dissolution.

15 condensates, and oppose condensate reentrant dissolution.

16 including lipid interdigitation and bilayer dissolution.

17 hence the occurrence or not of LLPS upon ASD dissolution.

18 duced during elongation stimulate condensate dissolution.

19 e associated with positively experienced ego dissolution.

20 where the lowered polarity of water enhances dissolution.

21 t mechanisms of amyloid formation and fibril dissolution.

22 had significantly higher extractability and dissolution.

23 ed into soluble forms by sulfate-driven acid dissolution.

24 d for implant biofilm removal may lead to Ti dissolution.

25 generate a thin biofilm that induced mineral dissolution accompanied by water extraction.

26 flow-through and one flow-by) indicated 50% dissolution after 5 to 6 days at non-saturating conditio

27 The overall rate of calcite dissolution along the fracture decreased over time, conf

28 fibrils, a potential method of cell-mediated dissolution, amyloid-like fibrils were labeled with the

29 rly vulnerable to ocean acidification due to dissolution and a reduction in shell-building carbonate

30 OF composites exhibit significantly enhanced dissolution and achieves high supersaturation in simulat

31 We discovered a parallel dissolution and adsorption of Fe(2+) onto the metal, yie

32 The sequential dissolution and autonomous release of the chemoattractan

33 n strategies are widely used for alleviating dissolution and diffusion of polysulfides, but they expe

34 e product of the solubility and ratio of the dissolution and diffusion rate-constants.

35 e(III)-reducing bacteria which favor mineral dissolution and drive mobilization of both iron and carb

36 mor localization, often exhibit little to no dissolution and excretion.

37 s might affect ligand-controlled (hydr)oxide dissolution and Fe acquisition.

38 ous sources such as atmospheric inputs, rock dissolution and fertilizer residues, and their concentra

39 ing slag was recycled via an integrated acid dissolution and hematite precipitation method.

40 imated groundwater recharge, suggesting that dissolution and leaching may be responsible for SIC loss

41 The dissolution and mass transport controls on divalent sili

42 ion is achieved by a combination of chemical dissolution and mechanical chip removal and ocean acidif

43 ere specifically favorable for retarding bio-dissolution and mechanical decay of scaffolds in vitro.

44 silicate addition, for reducing both pyrite dissolution and metalliferous drainage, may be applicabl

45 the subsurface and 2) the coupled carbonate dissolution and pyrite oxidation at depth in the rock.

46 rticles that was mediated by non-equilibrium dissolution and recrystallization.

47 er tendency of unwanted transition-metal-ion dissolution and side-reactions in Jahn-Teller-active oxi

48 Application to improve dissolution and solubility for the hydrophobic small dru

49 tion protocol likely contributed to atrazine dissolution and subsequent underestimation of sorbed che

50 on processes associated with electrochemical dissolution and sulfur crossover through the membrane in

51 ion dictates phosphorylation-mediated fibril dissolution and that the hydrophobic effect drives fibri

52 ses drastically, suggesting the preferential dissolution and the formation of more stable Fe oxides.

53 fficient polarizing agents, providing, after dissolution and transfer (10 s), a (13) C liquid-state p

54 The present methodology for dissolution and transformation fills a high priority gap

55 surface alterations and related Ti particle dissolution, and (3) cytocompatibility.

56 c interruption of the reaction for sampling, dissolution, and (bio)chemical analysis to monitor their

57 cantly reduced evaporative loss and material dissolution, and importantly, greatly suppressed competi

58 The combination of biodegradation, dissolution, and photo-oxidation depleted most PACs at s

59 ions between oil-gas phase transfer; aqueous dissolution; and densities and volumes of liquid oil dro

60 Because relationship discord and dissolution are common and costly, interventions are nee

61 ion of drug compounds in the solution during dissolution (as is commonly done), we monitor the decrea

62 ue to a greater leaf surface affinity and Cu dissolution, as determined computationally and experimen

63 The method is based on sample dissolution assisted by ultrasound energy in tetramethyl

64 position at 1 week post implantation, graft dissolution at 3 weeks, epithelialization of the ocular

65 data suggest that reef flat corals reach net dissolution at an aragonite saturation state (Omega(AR))

66 infrared spectroscopy showed that forsterite dissolution begins and electrical impedance spectroscopy

67 oil pH and organic matter content affect the dissolution behavior of CuO NP in soil in a predictable

68 Very little is known about the dissolution behavior of MC in the marine environment.

69 during the salt selection process, the salt dissolution behavior should be well understood.

70 t yet elaborate characterization of the salt dissolution behavior.

71 Oil compound depletion by dissolution, biodegradation, and photo-oxidation was unt

72 nking were sensitive to the proximity to the dissolution ("boiling") temperature of the dense liquid:

73 on in target cell binding and an increase in dissolution, both of which correlated with a small-plaqu

74 (<6 h) via inhibiting arsenopyrite oxidative dissolution, but increased arsenic mobility over a longe

75 dification to regulate droplet formation and dissolution, but the physical basis of the regulatory me

76 id water required for the aqueous phase acid dissolution, but variability in WS-Fe was mainly driven

77 Here we show that static abiotic dissolution cannot rationalize this result, whereas two

78 ncomplete drug release under a wide range of dissolution conditions.

79 tored during rest periods, and lithium metal dissolution (corrosion) was observed in all electrolytes

80 t of galvanic interaction on reducing pyrite dissolution decreased with increasing pH and was greater

81 ), in terms of three components: enthalpy of dissolution (DeltaH(diss)), enthalpy of formation of aqu

82 t the anode carbon active material initiates dissolution, diffusion, and deposition of reaction side

83 lity, however, the phase solubility test and dissolution/disintegration tests (water and artificial s

84 ructural transformation and transition metal dissolution dominates the cathode capacity fading.

85 eted NMR-based metabolomic workflow based on dissolution dynamic nuclear polarization (d-DNP) for the

86 Hyperpolarization of ligand spins by dissolution dynamic nuclear polarization (D-DNP) is show

87 ar magnetic resonance (NMR) monitoring using dissolution dynamic nuclear polarization (D-DNP) to ampl

88 Here, folic acid is hyperpolarized by dissolution dynamic nuclear polarization (D-DNP).

89 e mostly to single voxel measurements unless dissolution dynamic nuclear polarization (dDNP) is used

90 Herein we demonstrate that dissolution dynamic nuclear polarization (dDNP) provides

91 lomics combined with signal enhanced NMR via dissolution dynamic nuclear polarization (dDNP).

92 Advent of dissolution dynamic nuclear polarization (DNP) and its t

93 In dissolution-dynamic nuclear polarization, nuclear spins

94 After assessment of dissolution effects, the resulting relationship between

95 Temporary dissolution enhancement during confinement is expected t

96 alytic effect of Fe(II) on ligand-controlled dissolution even at submicromolar Fe(II) concentrations

97 ipment, and provide only "snapshots" of drug dissolution every few minutes.

98 of the experimental design on the results of dissolution experiments of metal and metal oxide NPs is

99 We examined this effect in batch dissolution experiments using two structurally distinct

100 Additional simulations indicate that aqueous dissolution, fluid density changes, and gas-oil phase tr

101 In situ dissolution fluxes estimated in the current study were l

102 osed solid explosives to quantify in situ MC dissolution fluxes using dissolved MC gradients near the

103 Plants could mobilize (dissolution followed by vertical transport) uranium (U)

104 Transition-metal dissolution from cathode materials, manganese in particu

105 window of 3.3 V, suppresses transition metal dissolution from the cathode, and ensures singular inter

106 caused by reaction-driven precipitation and dissolution in a micromodel.

107 Oxidative dissolution in acidic solutions leads to increases in th

108 properties of bioelectronic implants such as dissolution in body fluids, biocompatibility, mechanical

109 through antisolvent precipitation, involving dissolution in ethanol or glacial acetic acid followed b

110 viding potentially higher resistance against dissolution in more corrosive waters.

111 hout sacrificing their dynamic formation and dissolution in response to physicochemical stimuli.

112 d gold nanoparticles (AuNPs), stable against dissolution in the absence of specific ligands, were add

113 interfaces from crystal formation in Bti to dissolution in the larval mosquito midgut.

114 exposure, respectively, with more extensive dissolution in the polar species.

115 play an important role in AFO photoreductive dissolution in the presence of the chosen surrogate of n

116 Less extensive dissolution in the temperate brachiopod did not affect s

117 onation, phase transformation, and metal-ion dissolution in transition-metal oxides upon exposure to

118 Mineral precipitation and dissolution induce complex dynamic pore structures, ther

119 Dissolution induces these natural convective flows that,

120 hat reactive iron minerals undergo reductive dissolution inside anoxic microsites of primarily unsatu

121 has been variously ascribed to drilling mud dissolution, interaction with pore fluids or shale excha

122 -called karst morphologies formed by mineral dissolution into water.

123 Results show that methane dissolution is affected by heterogeneity, active versus

124 pendence of LMCT-mediated AFO photoreductive dissolution is mainly controlled by the influence of pH

125 be dominated by solid coating, whereas post dissolution it is dominated by receptor-bound drug (3.7

126 to develop an empirical model to predict the dissolution kinetics of CuO NPs in soil.

127 capability depends on the complex growth and dissolution kinetics of lithium sulfide (Li(2)S) and sul

128 NOM) and light on silver nanoparticle (AgNP) dissolution kinetics with particular emphasis on determi

129 oS(2) by NOM was mainly attributed to slower dissolution kinetics with rapid initial oxidation (i.e.,

130 tractions were applied to measure the CuO NP dissolution kinetics.

131 were traced to geogenic sources (weathering, dissolution, leaching) and anthropogenic emissions from

132 eached and unexpected mechanisms like quartz dissolution linked to shale degradation.

133 e associated with negatively experienced ego dissolution, lower levels in hippocampal glutamate were

134 on microscopy (TEM) imaging reveals that the dissolution mechanism changes from predominantly edge-se

135 ot and released over time to provide a depot dissolution mechanism.

136 lso provide new insights into the V(2) O(5) -dissolution mechanisms for different Zn-salt aqueous ele

137 study, the degree of supersaturation in the dissolution medium generated by the crosslinked systems

138 same nuclei undergoing growth, fluctuation, dissolution, merging and/or division, which are regulate

139 The developed dissolution method allowed Ca, Fe, Zn, and Mg determinat

140 bed in the US Food and Drug Administration's Dissolution Methods Database.

141 fested by cytoskeletal remodelling, junction dissolution, migration and extracellular matrix turnover

142 after (57)Fe(II), suggesting that catalyzed dissolution occurred at or near the site of (57)Fe incor

143 ith the dietary exposures suggests that some dissolution occurred within fish organs.

144 This allows for homogeneous dissolution of 1.3 ng of fluorescently labeled dAbs in 4

145 A dissolution of [Fe(CN)(6)](4-)/[Fe(CN)(6)](3-) as a redo

146 The disaggregation/dissolution of Abeta fibrils occurred nearly instantly w

147 the contribution of O(2)(*)(-) to reductive dissolution of AFO is dependent on conditions such as th

148 on of AFO by O(2)(*)(-) occurs following the dissolution of AFO, and hence, the contribution of O(2)(

149 tial AFO concentration affecting the rate of dissolution of AFO.

150 to regulate the formation, modification, and dissolution of aggregates.

151 echanism via which NOM affects the oxidative dissolution of AgNPs, (ii) the role of photogenerated or

152 d reactive oxygen species (ROS) in oxidative dissolution of AgNPs, and (iii) the mechanism of formati

153 the kinetics and mechanism of photoreductive dissolution of amorphous iron oxyhydroxide (AFO) in view

154 Dealloying typically occurs via the chemical dissolution of an alloy component through a corrosion pr

155 Iron EC involves the electrolytic dissolution of an Fe(0) electrode to Fe(II).

156 The dissolution of anhydrous iron bromide in a mixture of py

157 ron donor for microbially-mediated reductive dissolution of As-bearing Fe(III) (oxyhydr)oxides.

158 n, As release is attributed to the oxidative dissolution of As-bearing pyrite.

159 f their many components is the formation and dissolution of biomolecular condensates through liquid-l

160 red that permethylation affords the complete dissolution of both soluble and insoluble polysaccharide

161 disintegration, have emerged to explain the dissolution of Cahokia, the largest prehistoric populati

162 emonstrate, using a mathematical model, that dissolution of calcium that has aggregated within the mi

163 km/s correspond with growth of porosity from dissolution of chlorite, the most reactive of the abunda

164 with longer crosslink lifetimes, there is a dissolution of clusters.

165 Mn from the alloy appeared to discourage the dissolution of Cr in the molten fluoride salts which is

166 cs of acute hypoxia; (ii) the initiation and dissolution of distinct hemodynamic niches; (iii) tumor

167 cantly accelerate rates of ligand-controlled dissolution of Fe(III) (hydr)oxides at circumneutral pH.

168 Dissolution of Fe(III) phases is a key process in making

169 clude that the catalytic effect of Fe(II) on dissolution of Fe(III)(hydr)oxides is likely important u

170 This electrolyte minimizes the dissolution of ferrocene; it raises the cation-insertion

171 d to quantitatively monitor phagocytosis and dissolution of fibrils concurrently.

172 Current drugs used for inhibiting the dissolution of fibrin, the main structural component of

173 ystem thus reveals the dynamic formation and dissolution of fusion pores.

174 However, the dissolution of high-order polysulfide in electrolytes an

175 ociated with the formation, development, and dissolution of intimate relationships.

176 (>12 kyr-old) aquifer promotes the reductive dissolution of iron oxides and the release of arsenic.

177 w of the recognition that the light-mediated dissolution of iron oxides controls Fe availability in m

178 The increased rate and extent of dissolution of iron oxyhydroxides on the acidification o

179 Dissolution of iron(III)phases is a key process in soils

180 d where reducing alkaline conditions favored dissolution of iron-manganese- (Fe-Mn-) oxyhydroxides (w

181 Dissolution of irradiated bismuth targets is accomplishe

182 e water irrigated areas, suggesting repeated dissolution of land applied fertilizer during recirculat

183 en no current is flowing, demonstrating that dissolution of lithium remains a critical issue for lith

184 to isotope exchange at the surface, with the dissolution of Lp by ligands accelerated by up to 60-fol

185 During dissolution of Lp with DFOB, ratios of released (56)Fe a

186 tics, reflecting the differential and faster dissolution of lumenal versus tissue-embedded coating ow

187 These results demonstrate that oxidative dissolution of magnetite can induce a rich array of stra

188 The formation and dissolution of many RNP condensates are finely dependent

189 ew aims to elucidate nanospecific effects on dissolution of metallic NPs in freshwater and similar me

190 e catalyst enables the reversible growth and dissolution of micrometre-sized lithium oxide crystals t

191 e reference 316 H stainless steel due to the dissolution of Mn into the molten salt.

192 enetically deleted, leads to a near-complete dissolution of NS.

193 Remarkably, layer-by-layer dissolution of Pd into Ag is always preceded by an encap

194 rphology of dendritic cells and mediates the dissolution of podosomes, which dendritic cells use to a

195 phosphate and exchangeable Ca(2+) and/or (2) dissolution of poorly crystalline Fe and Al oxides by 1

196 nic interaction and silicate addition on the dissolution of pyrite, the major contributor to acid and

197 e, overexpression of laccase showed enhanced dissolution of quartz phases by etching and pitting.

198 Washout experiments confirmed the rapid dissolution of SGs, accompanied by normalization of TDP-

199 sport resulting from cultivation may enhance dissolution of SIC, altering their local stock at decada

200 rrays of pinnacles, emerge robustly from the dissolution of solids with smooth initial shapes.

201 cate addition also significantly reduced the dissolution of sphalerite or galena (by 10-44%, except a

202 n is unknown, and quantification of flow and dissolution of stray gas is required.

203 Dissolution of the Au shell slows down when both metals

204 The synthetic compound ink derived from the dissolution of the bulk binary precursors in the right s

205 iodide ions, thus preventing the consequent dissolution of the cathode-plated iodine as triiodides.

206 al gradients, in agreement with preferential dissolution of the crystallite core in acidic media.

207 d two release processes intracellularly: the dissolution of the dye aggregates into dye molecules and

208 ingle capsule or tablet, measurements of the dissolution of the entire multi-particle capsule or tabl

209 XX interactions saturate, which leads to the dissolution of the gel and the appearance of a liquid ph

210 Dissolution of the iron trans-bimetallacycle in benzene-

211 ght chain fibrils by macrophages, leading to dissolution of the mass.

212 nsition happened, which resulted in the full dissolution of the network.

213 th conventional voltammetric analyzer, after dissolution of the samples in microwave oven, and with a

214 tions whereas relatively high levels promote dissolution of these condensates.

215 The aqueous dissolution of these materials creates high pH solutions

216 mechanisms that can allow the formation and dissolution of this membraneless body.

217 he more disordered nanoparticles showing the dissolution of tin and platinum species during electroca

218 Dissolution of U(70) in organic media reveals (by small-

219 However, the dissolution of U-As-Ca and U-Ca-bearing solids at pH 7 w

220 , and pore water chemical data, suggest that dissolution of V(III)-bearing magnetite, V(III)- and V(I

221 ntify a possible impact of calcium phosphate dissolution on the maintenance of F0F1-ATP synthase acti

222 treatment groups (n = 15) using gums of oral dissolution (one gum every 12 hours) for 10 days.

223 Techniques for measuring the dissolution or degradation of a drug product in vitro pl

224 le sample preparation step that consisted of dissolution or dilution of the samples in water, followe

225 ver geological timescales until extracted by dissolution or fracturing of the olivine host.

226 Increased temperature did not impact shell dissolution or thickness.

227 educed corrosion resistance and increased Ti dissolution over 30 days of material aging as compared t

228 ripts are stabilized and stored until P-body dissolution permits transcript reentry into the cytosol.

229 Subsequently, a dissolution phase was conducted by injecting clean water

230 ile other genomic regions promote condensate dissolution, potentially preventing aggregation of the l

231 d shear zones deforming via diffusion creep, dissolution-precipitation creep and grain boundary slidi

232 ine h-BNNS was achieved through a successive dissolution-precipitation/crystallization process in the

233 igation was attributed to film thinning by a dissolution/precipitation mechanism.

234 We accomplished this by inverting the drug dissolution problem: instead of measuring the increase i

235 reening of small sample amounts and detailed dissolution process analysis.

236 LiMn(2) O(4) -like sub-nanodomain formation/dissolution process during each charge/discharge, which

237 Rational interpretation of dissolution process into a numerical problem led to a sm

238 solubility data, which demonstrated that the dissolution process is endothermic and non-spontaneous a

239 ry out time-resolved imaging of this "active dissolution" process.

240 performance properties, and studies of their dissolution processes define the underlying aspects.

241 The potential role of titanium dissolution products in peri-implantitis necessitate the

242 for pharmaceutical companies to obtain full dissolution profiles for drug products in a variety of d

243 sensor data revealed significantly different dissolution profiles for the different drugs, and in som

244 and fully-automated technique for obtaining dissolution profiles from single controlled-release pell

245 this technique to measure the single-pellet dissolution profiles of several commercial controlled-re

246 The improved dissolution properties of these phosphate prodrugs provi

247 freeze-drying of the extracts allowed better dissolution properties than spray-drying.

248 content, soil pH and moisture content on the dissolution rate and solubility of copper oxide nanopart

249 In contrast, the dissolution rate constant correlated with pH for pH < 6.

250 om 5.9 to 6.8 in LUFA 2.2 soil decreased the dissolution rate constant from 0.56 mol(1/3).kg(1/3).s(-

251 (<15 nm) was observed, leading to increased dissolution rate constants and solubility in some cases.

252 es C) is demonstrated here, showing that the dissolution rate of pyrite significantly changes with th

253 Calcite dissolution rate quantified from the attenuation data wa

254 crystal, which has much lower solubility and dissolution rate than commercial powder reb B product.

255 The pyrite dissolution rate was reduced by 98% upon silicate additi

256 suffers from poor aqueous solubility and low dissolution rate, which greatly limits its application,

257 centrations with up to a 13-fold increase in dissolution rate.

258 pplied a simple empirical model to determine dissolution rates and a more complex kinetic model that

259 quantification of silver nanoparticle (AgNP) dissolution rates in simulated sweat.

260 conditions to investigate the mechanisms and dissolution rates of biogenic, noncrystalline UO(2)(s) b

261 Surface area normalized dissolution rates of both the drug and the polymer from

262 Dissolution rates of UO(2)(s) with dissolved nitrite wer

263 ed in the current study were lower than most dissolution rates reported for laboratory experiments, b

264 -type T. denitrificans and nitrate, UO(2)(s) dissolution rates were similar to those of abiotic exper

265 ural convective flows that, in turn, enhance dissolution rates, and simulations show that this feedba

266 siological needs of different biota, mineral dissolution rates, and substrate nutrient availability r

267 mplementation of grouping and read-across by dissolution rates.

268 and single-cell analysis, we found that foci dissolution rather than formation promoted HSF1 activity

269 As the dissolution reaction progressed, the ESA is observed to

270 roscopy, revealing nonclassical pathways via dissolution-recrystallization of highly hydrated amorpho

271 as a simple anion exchange mechanism without dissolution-recrystallization or interstratification pro

272 This dissolution reduces the skeletal density and hardness an

273 nt, the Kirkendall effect, Ostwald ripening, dissolution-regrowth, and the surface-protected hollowin

274 TAMOC reveals that aqueous dissolution removed >95% of the methane from ~3.5 mm liv

275 r steady flow conditions, this formation and dissolution repeats cyclically.

276 During dissolution, retention in porcine iliofemoral arteries i

277 Ti dissolution should become an important consideration in

278 Also, during dissolution study, the degree of supersaturation in the

279 y of protons, 2) better cycling stability by dissolution suppression, and 3) higher Coulombic efficie

280 ize this result, whereas two dynamic abiotic dissolution systems (one flow-through and one flow-by) i

281 Dissolution testing and content drug recovery was carrie

282 can augment and potentially replace current dissolution tests and support product development and qu

283 During the Cu(2)O growth and dissolution, the cubic shape evolved with specific plane

284 inating from inhomogeneous Li deposition and dissolution, the formation of dendritic and/or dead Li l

285 Kinetic analyses revealed that Mg dissolution to Mg(2+) followed mostly a zero-order kinet

286 bolic activity accelerates calcium carbonate dissolution to rates exceeding accretion by healthy cora

287 on relations between particle properties and dissolution/transformation characteristics of metal and

288 results signify an increased plant-mediated dissolution, uptake, and leaching of radioactive contami

289 M) and atomic force microscopy (AFM), and Ti dissolution via light microscopy and Inductively-coupled

290 2) S composites and inhibits the polysulfide dissolution via the TM S bond, effectively addressing th

291 The U dissolution was further increased when chernikovite co-o

292 s enthalpy, entropy and Gibbs free energy of dissolution were obtained using experimental solubility

293 There was no observable dissolution when Au NPs were incubated in abiotic soil.

294 s following amorphous solid dispersion (ASD) dissolution when the drug concentration exceeds the "amo

295 1k) and mPEG(2k)-LA(2).(7k) micelles favored dissolution whereas mPEG(5.4k)-LA(28.5k) micelles favore

296 e of thrombus, thus achieving efficient clot dissolution whilst minimising undesirable side effects.

297 Substantial shell dissolution with decreasing pH posed a threat to both a

298 d this work by studying isotope exchange and dissolution with lepidocrocite (Lp) and goethite (Gt) in

299 faces several challenges including complete dissolution with maximum therapeutic efficiency over a s

300 le cycles of 53BP1 repair foci formation and dissolution, with the first cycle taking longer than sub