ライフサイエンスコーパス: high temperature

1 under amyloidogenic conditions of low pH and high temperature.

2 unds in food without the use of solvents and high temperature.

3 circuits, and thermal-energy applications at high temperature.

4 philic archaea and is required for growth at high temperature.

5 more expanded than the corresponding one at high temperature.

6 tial for evolutionary change in tolerance to high temperature.

7 e results to evaluate antioxidant potency at high temperature.

8 st of palm oil's natural antioxidants due to high temperature.

9 ivity of PAHs with strong reducing agents at high temperature.

10 this technology's suitability to operate at high temperatures.

11 dies, do not lose activity after exposure to high temperatures.

12 eters is their capability to operate at very high temperatures.

13 lms on substrates using gas-phase methods at high temperatures.

14 her virulent races, and is more effective at high temperatures.

15 )Bu or NaO(t)Bu), and an organic additive at high temperatures.

16 ng way to reduce radiative thermal losses at high temperatures.

17 ing materials that are super-strong at ultra-high temperatures.

18 d physics in Hofstadter butterfly systems at high temperatures.

19 e temperatures and confine cycles to low and high temperatures.

20 creatinine and amino acids as meats cook at high temperatures.

21 s are demonstrated in the h-BN-coated PEI at high temperatures.

22 often thriving in extreme conditions such as high temperatures.

23 y Ssl2245 at optimal temperatures but not at high temperatures.

24 ge magnetic hysteresis loops that persist to high temperatures.

25 ethods introducing solely the azide anion at high temperatures.

26 acid and, therefore, promote germination at high temperatures.

27 tonomous healing of cracks when operating at high temperatures.

28 perature, but acclimation was constrained at high temperatures.

29 satisfactory thermostability of compounds at high temperatures.

30 chemical changes that occur in frying oil at high temperatures.

31 yze OH radical formation from H2 O and O2 at high temperatures.

32 Under high temperature (100 degrees C) and applied pressure (3

33 ing of methanol steam operates at relatively high temperatures (200-350 degrees Celsius), so the focu

34 ors, nursery web spiders were less lethal at high temperature (38 degrees C).

35 ng from grey to red with time of exposure at high temperature (40 degrees C).

36 ase CTX stability especially upon storage at high temperatures (45 degrees C).

37 lar and viable after prolonged incubation at high temperature (50 degrees C).

38 ivation of the Pd-CoO/3DOM Co3O4 catalyst at high temperatures (680-800 degrees C) might be due to de

39 lchitotetraose and maintains its activity at high temperatures (70 degrees C) and low pH (pH 3).

40 Due to the deposition at relatively high temperature (873 K), Cu and Ti atoms diffuse to the

41 terials can currently satisfy the associated high temperature ablation requirements.

42 Although light and high temperatures affected the stability of CTX drastica

43 tion condition with a low ionic strength and high temperature allows the chimeric probe DNA distingui

44 s enabled us to develop coarsening resistant high-temperature alloys that are stable in the temperatu

45 sten nitride core nanoparticles (Pt/TiWN) by high temperature ammonia nitridation of a parent core-sh

46 pex1-2 defects were exacerbated by growth at high temperature and ameliorated by growth at low temper

47 gimes of diffusional creep at low stress and high temperature and deformational creep at high stress.

48 production under both RCP scenarios, whereas high temperature and heat stress take over the dominant

49 unts of surface area, the denatured state at high temperature and low urea concentration is more comp

50 palm kernel cake by aqueous extraction using high temperature and pressure.

51 Only one serious adverse event, a high temperature and refusal to feed after the first vac

52 ethodologies were performed: with ethanol at high temperature and with hexane/ethanol mixtures at roo

53 ds eliminates differences in stress-inducing high temperatures and associated mortality risk that wou

54 amide from amino acids in frying oils during high temperatures and at different times via modeling sy

55 High temperatures and drought during the growing season

56 s Mediterranean Europe, often intensified by high temperatures and droughts.

57 e hypotheses about population sensitivity to high temperatures and future demographics.

58 At physiologically high temperatures and in the absence of nucleotides, the

59 and salinity but increased significantly at high temperatures and in the presence of oxygen dissolve

60 l disease in regions of the world exposed to high temperatures and increased airborne dust.

61 The 2015-2016 El Nino led to historically high temperatures and low precipitation over the tropics

62 High temperatures and low visibility (resulting from hig

63 larization robust to thermal fluctuations at high temperatures and makes it possible to observe a rec

64 ther events (number of consecutive days with high temperatures and no rain) and legacy effects of his

65 developed, which allowed sampling under the high temperatures and pressures associated with sterilis

66 s in up to 96% yield in an automated Phoenix high-temperature and high-pressure continuous flow react

67 f amorphous polyamide network polymers using high-temperature and high-pressure reaction conditions.

68 ven after prolonged exposure to reactants at high temperature, and present comparable, extremely high

69 s remarkably robust, being stable at low and high temperatures, and in the presence of base, presumab

70 quiring specialized, yet expensive, ligands, high temperatures, and pi-extended backbones.

71 growth kinetics of beta1 is sluggish even at high temperatures, and presumably occurs via vacancy mig

72 nt GLC, and the Hall mobility enhancement by high-temperature annealing is determined by TLC.

73 High-temperature annealing of the films is shown to prod

74 metal-organic framework as the precursor for high-temperature annealing treatment.

75 undary-limited conduction (GLC), while after high-temperature annealing, GLC becomes insignificant an

76 decrease in the energy barrier height after high-temperature annealing, which is considered to be th

77 sed on refractory elements are promising for high-temperature application but generally fail by early

78 environments, which enables their usages in high temperature applications.

79 n of novel radical-trapping antioxidants for high temperature applications.

80 Changes in device characteristics at high temperature are reversible across multiple cycles o

81 High temperatures are detrimental to crop yields and cou

82 heoretically tested on a target at extremely high temperature as a challenging scenario for the detec

83 o properly localize within infected cells at high temperatures, as well as reduced the ability of the

84 Both the high-temperature average crystal structure and the low-t

85 ndamental knowledge and understanding of the high-temperature bcc phase, that is generally present in

86 industrial processes, and is most useful at high temperatures because it can be converted more effic

87 perthermophilic 6PGDH and its application to high-temperature biobatteries.

88 isplayed physiological stress in response to high temperature, but neither showed signs of irreversib

89 g pathways control the response to growth at high temperature, but the sensors that regulate these pa

90 ery effective media for transferring heat at high temperatures, but liquid-metal pumping has been lim

91 the reduction of a LaNiO3 (LNO) precursor at high temperatures, but the reduction pathway can follow

92 the desorber, nitrosamines are formed under high temperatures by amines reacting with nitrite (a hyd

93 order on carbonate sites that is typical for high-temperature calcite.

94 a general and scalable pathway to enable the high-temperature capacitive energy applications of a wid

95 ceria explains its excellent performance for high-temperature catalytic redox reactions such as water

96 A high temperature causes conversion of the malonyls-gluco

97 the hypothesis that water stress induced by high temperatures causes the decline.

98 -3,000 degrees C, compared to existing ultra-high temperature ceramics (for example, a rate of materi

99 Ultra-high temperature ceramics are desirable for applications

100 We find that high-temperature charge correlations are unlocked from t

101 Selective removal of FN using high-temperature combustion yields freestanding CNT or r

102 cubic diamond formed under high pressure and high temperature conditions.

103 requires both oxide-free metal surfaces and high temperature conditions.

104 Cr4 O12 synthesized under high-pressure and high-temperature conditions.

105 m free asparagine and reducing sugars during high-temperature cooking and food processing, and potato

106 Results indicate that high temperatures create a substantial health burden, an

107 lanar bond stiffness, primarily enhances the high-temperature creep life.

108 homology between the metallic glass and its high temperature crystalline phase.

109 below about 115 K with the reentrance of the high-temperature cubic Im3 phase.

110 in disordered superconductors - ranging from high-temperature cuprates to ultrathin superconducting f

111 are similar to what would be experienced if high temperature days occurred independently.

112 onditions increase suitability while extreme high temperatures decrease suitability.

113 tic alloy, the in-depth understanding of its high-temperature deformation mechanisms is essential to

114 a of a vascular heat sink effect that causes high temperature differentials through tissues undergoin

115 ose, as it takes place during the process of high-temperature drying.

116 materials often require thermal treatment at high temperature during their preparation, which can lim

117 ess incorporated with increased tolerance to high temperatures during flowering and grain filling usi

118 om an abnormal heat wave suggested that very high temperatures during long photoperiods in early summ

119 High temperatures during reproductive development are pa

120 [am + alpha-Al] mixture over a wide range of high temperature effective for the formation of Al-based

121 egrity of boron nitride nanotubes (BNNTs) in high temperature environments are of importance in pursu

122 turally and mechanically stable materials in high temperature environments, which enables their usage

123 Lattice dynamics and elasticity for the high-temperature epsilon phase (body-centered cubic; bcc

124 Measurements at high temperature exhibit larger hysteresis, while at low

125 perform an extensive study of the impacts of high temperature exposure on the structural and mechanic

126 d mothers displayed increased sensitivity to high-temperature exposure.

127 SP are good sources of food ingredients, and high temperature extraction could improve the quantity a

128 n expected based on the 20 degrees C span in high-temperature extremes across the globe.

129 tex phase with electric toroidal order and a high-temperature ferroelectric a1/a2 phase.

130 This tolerance of such a high temperature for so long time is rarely reported for

131 concepts are not expected to reach the very high temperatures for thermal transformation.

132 0.7), the low-temperature polymorph from its high-temperature form.

133 ive it nonetheless as a completely classical high temperature gas is due to the incapacity of our mea

134 semiconductor epifilms that does not require high temperature, gaseous precursors, or complex apparat

135 emains a formidable challenge because of the high temperature generally required in the formation of

136 s, but their ability to represent effects of high temperature has been questioned.

137 High temperatures have substantial impacts on mortality

138 such as soil water deficit (drought [D]) and high temperature (heat [H]).

139 ntifies the combined and separate impacts of high temperature, heat and drought stresses on the curre

140 losure feature of plant leaves at relatively high temperature, here we report a nano-gating membrane

141 High temperature (high-Tc) superconductors like cuprates

142 e developed in CrunchTope based on data from high-temperature, high-pressure flow-through experiments

143 Design of such materials will rely on high-temperature, high-resolution approaches for charact

144 c-BN NDs were mainly performed under extreme high-temperature/high-pressure conditions and resulted i

145 hat critically low temperatures, rather than high temperatures, historically limit development of our

146 High temperature (HT) stress tolerant NL-44 and high yie

147 all electrical and thermal conductivities at high temperatures imply that neither well-defined electr

148 nes undergo thermal cleavage to heptacene at high temperatures in the solid state.

149 To explore this, we performed high-temperature in vitro recordings.

150 temperatures); and four products observed at high temperatures, including the well-characterized ubiq

151 oes a first order magnetic transition from a high temperature incommensurate phase to a low temperatu

152 -mediated bacterial killing, and exposure to high temperatures increased release of the key pneumococ

153 shaded, low red/far-red light conditions and high temperature induce more vertical growth in Arabidop

154 vailability at the site of carboxylation and high temperature) inducing Rubisco-limited photosynthesi

155 f just a few minutes can greatly degrade the high temperature integrity of metal-oxide interface.

156 down-regulated, and flowering was delayed by high temperatures irrespective of Ppd-H1 Our findings de

157 For wheat a negative response to high temperature is neither observed nor simulated under

158 mics demonstrate that magnetic relaxation at high temperatures is due to local molecular vibrations.

159 n ionized gas that is typically formed under high-temperature laboratory conditions.

160 Here, we demonstrate a novel type of high-temperature, low-voltage electromechanical oxide ac

161 nts, and its ability to withstand relatively high temperatures (</=350 degrees C).

162 their catalytic properties after exposure to high temperatures makes nanocasting a useful technique f

163 ed sorghum traditionally requires the use of high temperature mashing and exogenous enzymes to ensure

164 High-temperature-mediated hypocotyl elongation additiona

165 ersion of the symmetric tetrameric crowns at high temperature mediates their transformation into supr

166 to materials far from equilibrium, including high-temperature modifications by room-temperature synth

167 superlattices during colloidal synthesis at high temperatures (more than 230 degrees Celsius).

168 perature non-linear transport mechanism or a high-temperature Mott transition.

169 Indentation response of a high-temperature NiTiHf alloy was determined as a functi

170 al hydrolysis of oleuropein takes place at a high temperature of 40 degrees C and at a low pH value o

171 mo-mechanical loads, which makes strength at high temperature of great importance.

172 eatment of biomass with dilute acid requires high temperatures of >160 degrees C to remove xylan and

173 B 95 (22), 224306, 2017) at high temperatures of 1000 K these compounds exhibit latt

174 individually and in combination, at low and high temperatures, on the tissue microstructure of mushr

175 temperature ground state with respect to the high temperature one.

176 esis-related (PR) genes were up-regulated at high temperatures only when both Sr13 and Pgt were prese

177 ure are reversible across multiple cycles of high temperature operation.

178 no degradation being observed after 100 h of high-temperature operation and 10 redox cycles, suggesti

179 e solubilisation of these bases by employing high temperatures or alkaline pH.

180 rigid anionic sub-lattice, often achieved at high temperatures or pressures via a phase transition.

181 aditional fields of LTCC technology, such as high-temperature or organic solvents applications, while

182 a substantial health burden, and effects of high temperatures over consecutive days are similar to w

183 underscores the importance of acute risks of high temperatures, particularly for small-bodied species

184 HRE is added to Nd-Fe-B to enhance the high temperature performance of the magnets.

185 The high temperature performance oforganic field-effect tran

186 ion powder neutron diffraction data that the high-temperature phase has zero area thermal expansion i

187 ly adopt the continuous U(1) symmetry of the high-temperature phase, which is essential for the forma

188 ation (C2/c), while in the intermediate- and high-temperature phases (both previously reported as R3m

189 High-temperature phases of hafnium dioxide have exceptio

190 changes associated with shade avoidance or 'high-temperature' phenotypes.

191 utilise the organic component for sustaining high temperature polariton condensation and efficient el

192 es when compared to neat PEI films and other high-temperature polymer and nanocomposite dielectrics.

193 ivity (C3 versus C2), and the requirement of high temperatures, precious metals and the installation

194 y of the carotenoid under conditions such as high temperatures, pressures and mechanical force, among

195 It seems possible to render this high-temperature process as an isothermal process.

196 under the conditions of H2O splitting in the high-temperature process CO2 can also be decomposed to C

197 anism for designing a new microwave assisted high-temperature process for the selective separation of

198 ce defects and grain boundary, thanks to its high-temperature processing condition and controllable d

199 e has been used widely in chemical analysis, high-temperature processing, drop dynamics and bioreacto

200 The cooking of meats at high temperatures produces fumes, and these fumes can be

201 Dust inhalation or exposure to high temperatures promoted progression of stable asympto

202 To produce similar high temperature properties without HRE, a crystallograp

203 ase diagram as well as practical modeling of high-temperature properties.

204 ng to be an effective strategy for achieving high-temperature QAH effect in TIs.

205 e their resistance to stress factors such as high temperature, radiation, disinfectants, and drying.

206 levels is enhanced greatly and shifts to the high temperature range, while the maximum sensitivity ba

207 tude breakdown of the Wiedemann-Franz law at high temperatures ranging from 240 to 340 kelvin in meta

208 High temperatures rapidly induce a genetically programme

209 or with a low tortuosity is demonstrated for high-temperature reaction applications, using catalytic

210 obtaining single-site catalysts suitable for high-temperature reactions.

211 for the unusual activation parameters in the high-temperature regime.

212 , suggesting that they may contribute to the high temperature resistance mechanism.

213 th the anisotropy saturated at about 1.20 at high temperatures, resolving contradictory results in pr

214 a polar corundum GaFeO3 by a high-pressure, high-temperature route and demonstrate that its polarity

215 and molecular mechanism giving rise to their high temperature sensitivity are not fully understood.

216 s in CHO cell culture media upon exposure to high temperature short time (HTST) treatment, a commonly

217 a not-from-concentrate (NFC) juice that was high-temperature short-time pasteurized and stored at 4

218 Our results indicate that near-critical high temperatures should incur greater energetic cost in

219 monstrate complex crosstalk between UV-B and high-temperature signaling.

220 s vital for realizing the next generation of high-temperature single-molecule magnets.

221 At this moderately high temperature, sli1 mutants suffered from retarded el

222 rbothermic reduction of Fe3O4 by CNTs during high temperature solid state reaction.

223 High-temperature solid oxide cells, and in particular ca

224 However, the rationale for the high-temperature stability of precipitate-matrix interfa

225 rts a technique to enhance the magnitude and high-temperature stability of Rayleigh back-scattering s

226 sponse of nine commercial wheat cultivars to high temperature stress (HTS).

227 High temperature structural materials must be resistant

228 ear-grade graphite is a critically important high-temperature structural material for current and pot

229 ropose an original hybrid system formed by a high-temperature superconducting film, patterned with an

230 In copper-oxides that show high-temperature superconductivity (HTS), the critical t

231 a state of matter is potentially relevant to high-temperature superconductivity and quantum-informati

232 In the underdoped copper-oxides, high-temperature superconductivity condenses from a nonc

233 The origin of high-temperature superconductivity in copper oxides and

234 The field was ignited by reports of high-temperature superconductivity in materials obtained

235 nisotropy occurs in a material that exhibits high-temperature superconductivity may not be a coincide

236 most fascinating phases of matter, including high-temperature superconductivity, the fractional quant

237 nonmagnetic nematic state and potential for high-temperature superconductivity.

238 and the pseudogap, and their connections to high-temperature superconductivity.

239 The systems studied are high temperature superconductor-related materials, spin-

240 Here, we address the doping mechanism of the high-temperature superconductor YBa2Cu3O7-X (YBCO) by si

241 p-hump feature seen in tunnelling spectra in high temperature superconductors and that this feature a

242 ading candidate for the pairing mechanism in high temperature superconductors, supported by the commo

243 net in hybrid magnetic nano-devices based on high temperature superconductors.

244 The properties of cuprate high-temperature superconductors are largely shaped by c

245 xide fuel cells (SOFCs) and oxygen-deficient high-temperature superconductors are poised for power tr

246 The discovery of high-temperature superconductors raised the question of

247 The pseudogap in the cuprate high-temperature superconductors was discovered as a sup

248 phases appear in the copper- and iron-based high-temperature superconductors, and their role in esta

249 correlated electron materials, including the high-temperature superconductors.

250 led analogues of the parent state of cuprate high-temperature superconductors.

251 may represent new classes of potential very high-temperature superconductors.

252 xpected to give rise to pseudogap states and high-temperature superconductors.

253 transition is irreversible, and our in situ high-temperature synchrotron radiation X-ray diffraction

254 This is even more pertinent in high-temperature systems for energy and cost savings.

255 other types of field effect transistors for high temperature terahertz detection are discussed.

256 e variety of compositions and sizes based on high-temperature thermal decomposition of readily availa

257 igh temperatures, which can be used to build high-temperature thermal diodes for performing logic ope

258 n up the possibility of developing efficient high-temperature thermal insulators through use of the l

259 At high temperatures, thermal fluctuations overcome them, a

260 lowing ipsilateral stimulus cessation on the high temperature thermode, but before cessation of the l

261 kes these compounds promising candidates for high temperature thermoelectric applications and thus me

262 s offer an interesting new mechanism for the high-temperature thickening of oils.

263 n initial activation, the channel exhibits a high-temperature threshold in the noxious temperature ra

264 In this work, a high temperature THz detector based on a GaN high electr

265 sible mechanisms for generating sufficiently high temperatures to reach melting with relatively weak

266 on are formed in the presence of O2 and that high temperature together with prolonged activation time

267 These high temperatures, together with a massive injection of

268 Global patterns of high-temperature tolerance are documented in animals, bu

269 Such increases in high-temperature tolerance are much less than expected b

270 Moreover, with only modest high-temperature tolerance despite high summer temperatu

271 High-temperature tolerance in plants is important in a w

272 assess whether there are global patterns in high-temperature tolerance of leaf metabolism, we quanti

273 High-temperature treatment ultimately facilitates the st

274 However, the application of high temperature treatments alone showed an even greater

275 temperature multistep process as well as the high-temperature two-step process.

276 able and undergoes a phase transformation at high temperatures (typically 2000 degrees C and above).

277 ix individual months and corresponding ultra high temperature (UHT) milk were analyzed.

278 k and different brands of pasteurized, ultra high temperature (UHT) treated milk, and infant formulas

279 hexosylation sites were identified in ultra-high temperature (UHT), lactose-free pasteurized, and la

280 of a new material involves reactions held at high temperatures under certain conditions such as heati

281 ctive trypsins would explain why LAT acts at high temperatures, unlike cold adapted enzymes.

282 The CCMM membranes are formed by high-temperature (up to 900 degrees C) pyrolysis of poly

283 e-colored anthocyanins, are accumulated upon high temperatures, UV-light, drought, and nutrient defic

284 High-temperature vapor phase epitaxy (VPE) has been prov

285 any volatile elements compared to BSE due to high-temperature volatile loss from Moon-forming materia

286 For the first time, single-crystalline high-temperature VPE halide perovskite thin film has bee

287 ed that the amount of urethanes generated at high temperature was higher than at room temperature.

288 The Rayleigh scatter at high temperatures was correlated to the formation and mo

289 chemical treatment with a base at relatively high temperatures was perhaps the method used to artific

290 ercome deactivation of Pd-based catalysts at high temperatures, we herein design a novel pathway by i

291 nificant experimental data from cryogenic to high temperatures, we show that the average polarisation

292 nce of leaf metabolism, we quantified Tcrit (high temperature where minimal chlorophyll a fluorescenc

293 lower the overall conductance, especially at high temperatures where anharmonic interactions become i

294 ssion, the cathode has to be at sufficiently high temperature, which for a typical arc current densit

295 ransition in molybdenum at high pressure and high temperature, which yields highly textured body-cent

296 n (NFTR) to achieve thermal rectification at high temperatures, which can be used to build high-tempe

297 a hyperthermophile, ascribed the breakage to high temperature while another showed its weak AP lyase

298 that the fcc phase is a stable polymorph at high temperatures, while the hcp structure is more therm

299 terface as the location for PS activation by high temperature with (*)OH contributing a minor role in

300 High temperature X-ray diffraction was used to detail th