ライフサイエンスコーパス: low temperature

1 nce can be achieved with epitaxial silver at low temperature.

2 tion, as well as slow fermentative growth at low temperature.

3 bon nanotubes, which can be mass-produced at low temperature.

4 posed formation of a (Si=O)-Ni pi-complex at low temperature.

5 es of order 9 A, preventing ice formation at low temperature.

6 ociated to cultivar sensibility to damage at low temperature.

7 h mode transitions to an island (3D) mode at low temperature.

8 They can be recovered to ambient pressure at low temperature.

9 ion and discrimination between O2 and H2O at low temperature.

10 o a range of drugs and had growth defects at low temperature.

11 ow current regime can be further enhanced at low temperature.

12 rols cell size and is required for growth at low temperature.

13 tance based on crystalline crystal silver at low temperature.

14 stresses, such as drought, high salinity and low temperature.

15 solid phase transition from Ga-I to Ga-II at low temperature.

16 llular, organ, and organismal homeostasis at low temperature.

17 s measured in as-grown Bi2O2Se nanoflakes at low temperatures.

18 itude +/-ln2/(J - 1/2) with 2 </= J </= N at low temperatures.

19 ized in the gas phase or in matrices at very low temperatures.

20 d to the highly insulating state expected at low temperatures.

21 ssures (495 gigapascals) ever on hydrogen at low temperatures.

22 otoluminescence quantum efficiency (PLQE) at low temperatures.

23 changes that help them efficiently cope with low temperatures.

24 d solid molecular hydrogen under pressure at low temperatures.

25 mi liquid behavior with two Fermi pockets at low temperatures.

26 esize the Fe-rich clay mineral nontronite at low temperatures.

27 w TMD-based lasing has been realized only at low temperatures.

28 oplasts) and enhanced OsTrxZ stability under low temperatures.

29 splitting, leading to a high WGS activity at low temperatures.

30 on kinetics, and enables the electrolysis at low temperatures.

31 sually, the exciton phase is associated with low temperatures.

32 direct and reaches E g = (220 +/- 5) meV at low temperatures.

33 ca, as silica becomes acoustically opaque at low temperatures.

34 TSV expression was induced by low temperatures.

35 ransition rates of single molecules, even at low temperatures.

36 loop for {CrTb6 } and {CrHo6 } molecules at low temperatures.

37 large as [Formula: see text] is observed at low temperatures.

38 only possible but sometimes even favored at low temperatures.

39 nium intermediates from acetal substrates at low temperatures.

40 frameworks also serve as good adsorbents at low temperatures.

41 The Au279S84 geometry was established from a low-temperature 120 K sc-XRD study at 0.90 A resolution.

42 equilibria of the heterosix-membered ring by low temperature (13)C NMR spectroscopy and quantum chemi

43 Low-temperature (13)C NMR spectra established that (Z)-1

44 alpha-molybdenum carbide (alpha-MoC) enables low-temperature (150-190 degrees Celsius), base-free hyd

45 Here, we present a rapid, low-temperature (200 degrees C) plasma-enabled synthesis

46 within the molecular pockets of CBI-35CH at low temperature (263 K), thereby triggering the stereomu

47 Bean anthocyanins were stable at pH 2.5 and low-temperature 4 degrees C (89.6%), with an extrapolate

48 Low-temperature (5 K) magneto-resistance (MR) data revea

49 ane and its reforming with CO2 at relatively low temperatures (600-700 K).

50 Rectification persisted at low temperature (7 K), and was activationless between 7

51 Low temperature (7-295 K) spectroscopic and time-resolve

52 ing essentially quantitatively at relatively low temperatures (70-140 degrees C), with 100% diastereo

53 Low temperatures (8 degrees C) also stimulate production

54 onstrates that seeding induces nucleation at low temperatures accelerating the crystallization proces

55 Low-temperature activation may avoid unwanted side react

56 The low temperature activity of this enzyme suggested that i

57 Achieving low-temperature activity, while surviving the harsh cond

58 The observed differences in low-temperature adaptation between B. pertussis and B. b

59 Low temperatures affect plant growth, development, produ

60 Gas discharge low-temperature air plasma can be utilized for a variety

61 eoretical results are compared with existing low-temperature ambient pressure experimental data, whic

62 per (Cu) and ruthenium (Ru) was designed for low-temperature ammonia oxidation at near-stoichiometric

63 l withN bond cleavage, and thereby achieving low-temperature ammonia synthesis.

64 ckel-cobalt alloy), accomplished by a facile low-temperature ammonium carbonate treatment, for signif

65 At very low temperatures, an extra point contact feature which m

66 , the synthesis of clays was demonstrated at low temperature and ambient pressure catalyzed by oxalat

67 ic access to primary anilines and phenols at low temperature and avoids the use of transition-metal c

68 imeric organolead hydride was synthesized at low temperature and features a hydride (1)H NMR signal (

69 However, it is unclear how the low temperature and high hydrostatic pressure prevalent

70 aluminium, although difficult, may occur at low temperature and high strain rate.

71 ntly possible for individual isomers at very low temperature and observations of isomer mixtures at a

72 ond-generation DASA was photo-accumulated at low temperature and probed with time-resolved spectrosco

73 is essential for seed dormancy imposition by low temperature and that the exclusion of oxygen and wat

74 emperature-independent activation barrier at low temperatures and high viscosities ([Formula: see tex

75 an inverted InAs/GaSb quantum-well system at low temperatures and low electron-hole densities.

76 and high latitude environmental conditions (low temperatures and seasonal ice cover).

77 the basis of experiments carried out at very low temperatures and shunt reactions, but their presence

78 the restriction of the molecular rotation at low temperatures and the flexibility of the molecular ax

79 ed structures named buds in order to survive low temperatures and water deprivation during winter.

80 While extremely appealing due to their low-temperature and high-throughput deposition methods,

81 e in preventing long-range magnetic order at low temperatures, and instead induces a strongly fluctua

82 ion, determine survival of some organisms at low temperatures, and offer a range of potential industr

83 de)(PEO)-based solid polymer electrolytes at low temperatures, and thus the solid polymer electrolyte

84 ires low loadings of [Cp*IrCl2]2, relatively low temperatures, and up to 2.0 equiv of the secondary a

85 stinction of remaining highly mobile down to low temperatures, and were recently suggested to be pola

86 hich far exceeds that of previously reported low-temperature APRM catalysts-to the outstanding abilit

87 Importantly, the enhancement at low temperature are consistent across silver films grown

88 esponses that allow some insects to tolerate low temperatures are multifactorial and involve several

89 We demonstrate that exceptionally low temperatures are needed to downregulate FvTFL1 and t

90 cal point symmetry breaking is stabilized at low temperatures, as predicted by quantum theories invol

91 o(NMe2 )4 enables MoS2 film growth at record low temperatures-as low as 60 degrees C.

92 tion of trans-[Pd(IMes)2(eta(1)-O2)2] at the low temperatures at which it is thermodynamically favore

93 inum-doped zinc oxide (AZO) was deposited by low-temperature atomic layer deposition (ALD) as the tra

94 In response to low temperatures, B. pertussis adapted its fatty acid co

95 tivity to pressure is the missing key to the low temperature behaviour of Yb2Ti2O7.

96 cused on developing additives to improve the low-temperature behaviour of electrolytes, and on extern

97 The low-temperature behaviour of the heat capacity, includin

98 exploited for novel memory storage devices, low temperatures (below 180 K) were required.

99 ide that are irreversible under conventional low temperature bond-forming conditions have been undere

100 tween copper and cadmium was not affected by low temperature, but high hydrostatic pressure significa

101 ncrease after days with particularly high or low temperatures, but such daily time-series studies can

102 ypic benefits, whereas slow development from low temperature can yield costs.

103 es C) to simultaneously achieve the goals of low-temperature carbon monoxide (CO) oxidation activity

104 -xWx)O4 ceramics might be good candidate for low temperature co-fired ceramics (LTCC) technology.

105 he dimensions of fabricated microchannels in Low Temperature Co-Fired Ceramics substrates was charact

106 abrication of embedded microstructures using Low Temperature Co-Fired Ceramics, have been studied.

107 report a scalable (ca. 11.0 g per batch) and low-temperature colloidal processing route for Bi2 Te2.5

108 We report a low-temperature colloidal synthesis of single-layer, fiv

109 diesel engine combustion, especially during low temperature combustion modes that emit significant c

110 a high temperature incommensurate phase to a low temperature commensurate one.

111 ratio was measured in model compounds under low temperature conditions.

112 he main axis of the DWBC, characterized by a low temperature core, tends not to shift with the 90-day

113 The low-temperature crystal structure of elemental lithium,

114 l as each step in the catalytic cycle and by low-temperature detection of intermediates.

115 into pyrite during its crystallization under low-temperature diagenetic conditions have not yet been

116 try in the phonon line shape, conspicuous at low temperatures, diminishes continuously with increasin

117 ontact spectroscopy (PCS) method was used at low temperatures down to 40 mK.

118 Vacuum and low temperature drying without osmotic pretreatment were

119 capacity of TlInTe2 exhibits a broad peak at low-temperatures due to contribution from Tl-induced low

120 s showed that its distribution is limited by low temperatures during the coldest season, and by heavy

121 delivery of an oxidant, persulfate (PS), and low temperature electrical resistivity heating (ERH), to

122 he electrocatalyst of choice for an improved low-temperature electrochemical hydrogen production devi

123 We investigate the low temperature electron transport properties of mangane

124 Low-temperature electronic transport measurements reveal

125 ee text] orbital character, which presents a low temperature energy gap.

126 obal neutralization sensitivity: exposure to low temperature, Env-activating ligands, and a chaotropi

127 mammalian genes related to adaptations to a low temperature environment; to identify genes related t

128 Water freezes in a wide variety of low-temperature environments, from meteors and atmospher

129 ation of EK-assisted PS delivery followed by low temperature ERH appears to be a viable strategy for

130 quires either exceptionally large amounts of low-temperature exchange with oceanic crust or that the

131 ctuations) in glassy systems by a systematic low-temperature expansion.

132 re-conditioned 48 h at 20 degrees C prior to low-temperature exposure (pre-conditioning, PC).

133 tical lattices can help us to understand the low-temperature Fermi-Hubbard model.

134 which adopts the Ni3TeO6-type structure with low temperature first-order field-induced metamagnetic p

135 Blood oranges require low temperature for anthocyanin production.

136 sions have been successfully demonstrated at low temperatures for decades, room-temperature operation

137 y quenched samples that are then heated from low temperature form the hexagonal C14 and cubic C15 Lav

138 essitating the operation of energy-demanding low temperature fractional distillation techniques.

139 performance are crucial for displacing Pt in low-temperature fuel cells.

140 le is known about the speciation of U(IV) in low-temperature geochemical environments, inhibiting the

141 elemental sulfur (in a 1:2 ratio) in Et2O at low temperature gives 3 by inserting two sulfur atoms in

142 ture was significant, with low pH values and low temperatures giving rise to higher levels of total g

143 tions are quite similar indicating a fragile low temperature ground state with respect to the high te

144 ganic crystal DSTMS as the THz emitter and a low temperature grown (LTG) InGaAs/InAlAs photoconductiv

145 Although enhanced plasmonic performance at low temperature has been predicted for a long time, it h

146 ry (DBDI-MS), which is based on the use of a low temperature helium plasma as ionization source, is u

147 experimental results further suggest that at low temperatures holes in deep ground states are localiz

148 ve submarine volcano that hosts a network of low-temperature hydrothermal vents enriched in ferrous i

149 ticularly, its expression is up-regulated by low temperature in buds and leaves, whereas desiccation

150 ty [Formula: see text] of the CuO2 planes at low temperature in charge-ordered YBa2Cu3O y We find tha

151 ranscriptomic response of maize seedlings to low temperature in the context of diurnal gene expressio

152 , cessation seems to be induced primarily by low temperatures in early autumn (under relatively long

153 allenic, or carbenic), which are isolable at low temperatures in some cases (e.g., aryl- and silylnit

154 emperature average crystal structure and the low-temperature incommensurately modulated crystal struc

155 Finally, we discovered that low-temperature incubation increased the steady-state le

156 veld analyses of neutron diffraction data at low temperature indicate that exposure to helium gas at

157 The observed inhibition of calcification at low temperatures indicates that the role of heat-toleran

158 The components self-assemble at low temperature into hierarchically arranged, highly fle

159 3-C4 in the presence of gold(I) catalysts at low temperature is described.

160 e zero degrees, because the unfolded form at low temperature is more expanded than the corresponding

161 Low temperature is one of the key environmental stresses

162 d extraction process which is carried out at low temperature is preferable in order to preserve these

163 The transformation at relatively low temperatures is attributed to a markedly small diffe

164 sence or absence of static magnetic order at low temperatures is controversial.

165 This indicates that stripe order at low temperatures is stabilized by the coupling of otherw

166 e cis-to-trans switching is supported by the low-temperature limit of the reaction rate and by the H/

167 Here we observe that in the low-temperature limit, Onsager's theory may be cast as a

168 bally better described by the RT than by the low-temperature (LT) crystal structure.

169 poly(ethylene terephthalate) substrate via a low temperature (</=100 degrees C) solution process.

170 rowth of nitrite oxidizing bacteria (NOB) at low temperatures (<15 degrees C).

171 xidative dehydrogenation (ODH) of propane at low temperatures (<230 degrees C), affording a selective

172 ation from a Curie-Weiss law observed in the low-temperature magnetic susceptibility, are consistent

173 The low temperature mash generated worts of comparable quali

174 Here, a novel low-temperature mashing system is compared to a more tra

175 usions drawn from potentiometric titrations, low-temperature mass spectrometry, temperature- and pres

176 he nitrenes can in many cases be isolated in low-temperature matrices and observed spectroscopically.

177 We demonstrate that low temperature metal pastes, electroless plating and at

178 ghly flexible aluminum foil substrates using low-temperature molecular beam epitaxy (MBE).

179 At low temperature, mu bare is nearly constant in hole-dope

180 These include the low-temperature multistep process as well as the high-te

181 ticles in well-defined band states emerge at low temperatures near correlation-driven Mott transition

182 d simultaneously in the configuration at the low temperature nearly close to 0 K, and their configura

183 The mode of action was tracked using low temperature NMR, UV-vis spectroscopy, and isotopic (

184 Low-temperature NMR activation studies of Bn- and Bz-pro

185 Detailed low-temperature NMR spectroscopic investigations show th

186 By low-temperature NMR spectroscopy the six-membered-ring i

187 e studied by gas-phase electron diffraction, low-temperature NMR spectroscopy, and high-level quantum

188 rential resistance is caused by a relatively low-temperature non-linear transport mechanism or a high

189 on to cis-isomer is kinetically preferred at low temperature, not only in the classic catalytic react

190 The polaron formation at low temperatures occurs by optical orientation of the da

191 sive Si source soluble in molten salts, at a low temperature of 650 degrees C by using low-melting-po

192 Thermodynamics reveals that the low temperature of the supersonic expansion plays a key

193 functionally enriched in the adaptability of low-temperature of cold tolerance, fungal pathogenicity

194 e proposed method is especially sensitive at low temperatures, of the order of the tunnelling amplitu

195 Work to date has required very low temperatures (on the order of -40 degrees C or colde

196 perature exhibit larger hysteresis, while at low temperature one observes the emergence of ambipolar

197 , allowing for molecular-resolution imaging, low-temperature operation, minimized tip and molecular d

198 igh temperature and ameliorated by growth at low temperature or by PEX6 overexpression, suggesting th

199 lerance to abiotic stresses such as drought, low temperature, or metal toxicity.

200 Interestingly, in the low-temperature orthorhombic phase, fast quenching of mo

201 ) family members are induced and function at low temperature, others are highly expressed in infectio

202 FT calculations, as strong evidence that the low-temperature oxidation half-cycle occurs with the par

203 Previous attempts to improve the low-temperature performance of lithium-ion batteries hav

204 VPF-NTP shows long-term cycle life, superior low-temperature performance, and outstanding high-rate c

205 r densities, short-term cycle life, and poor low-temperature performance, which severely hinder their

206 ed as a diagnostic method to investigate the low-temperature phase diagram of lithium.

207 s pave the way to experimentally mapping the low-temperature phase diagram of the Fermi-Hubbard model

208 However, a low-temperature phase transition was experimentally dete

209 Cu(I) affinity standards and corroborated by low-temperature phosphorescence studies, established coo

210 A non-contact and low-temperature photoalignment allows delicate surface t

211 provide the basis for future studies on the low-temperature physics of the dipolar trident lattice,

212 films is still a challenge, particularly for low-temperature planar heterojunction (PHJ) devices.

213 ion, desorption electrospray ionization, and low temperature plasma ionization.

214 ses on comparing two DBD configurations: the low temperature plasma probe (LTP) and the dielectric ba

215 nique platform to support experimentation in low-temperature plasma science.

216 extreme magnetoresistance and field-induced low-temperature plateau of electrical resistivity.

217 identifies, with high confidence (>0.7), the low-temperature polymorph from its high-temperature form

218 alkyne-functional initiator: (1) maintaining low temperature post-ATRP upon exposure to air followed

219 A new low-temperature procedure for the synthesis of 3,3-disub

220 rate and is then sulfurized via a relatively low temperature process.

221 weight and flexible solar cells due to their low-temperature process capability; however, the reporte

222 manufactured with bio-friendly chemicals and low temperature processes without any templates, binders

223 Due to their low-temperature processing properties and inherent mecha

224 matching, and superior stability, as well as low-temperature processing technique.

225 es display charge-ordering tendencies, their low-temperature properties are distinct, impeding effort

226 ds smoothly with at low catalytic loading at low temperature providing the C3 (hetero)arylated produc

227 The low temperature quality factors and resonant frequencies

228 n (4)F9/2(1)/(4)F9/2(2) levels shifts to the low temperature range and greatly increases.

229 The use of low-temperature, rapid injection NMR spectroscopy (RI-NM

230 n oxides (NO x ) with ammonia (NH3), but the low-temperature rate dependence on copper (Cu) volumetri

231 Simulations suggest that critically low temperatures, rather than high temperatures, histori

232 Low temperature reduced toxicity in both metals, but red

233 the magnetisation reveals a decrease in the low temperature region.

234 At 37 degrees C, low temperature-rescued F508del-CFTR more rapidly lost f

235 face treatments of a TiO2 film prepared by a low-temperature route are carried out by a new promising

236 Here, we report the results of low-temperature scanning tunneling microscopy experiment

237 We unveil the reaction mechanism in a low-temperature scanning tunneling microscopy study and

238 Using low-temperature scanning tunnelling microscopy (STM) to

239 Here we demonstrate that by using low-temperature scanning tunnelling microscopy and spect

240 proposed here provides full consistency with low-temperature SCR kinetics.

241 om non-thermosensitive liposomes (NTSLs) and low temperature sensitive liposomes (LTSLs).

242 in the solid state by Raman spectroscopy and low-temperature single-crystal X-ray diffraction, and in

243 A scalable, low-temperature solution process is used to synthesize p

244 Complex 1 persists in low-temperature solutions of pyridine but becomes unstab

245 en the painting and camera and introducing a low temperature source, thermal radiation from the room

246 Low-temperature spectroscopy reveals inhomogeneously bro

247 rein we report detailed reaction kinetics on low-temperature standard NH3-SCR, supplemented by DFT ca

248 Significantly, the low-temperature standard SCR mechanism proposed here pro

249 is, isentropic) one-dimensional loading with low-temperature states suitable for nanostructure synthe

250 s from well-characterized single crystals at low temperature (still within the tetragonal phase, whic

251 Finally, despite both low temperatures stimulated the expression of key transc

252 rature thermode, but before cessation of the low temperature stimulus properties of TCE were observed

253 ining the quality of guavas during 20days of low temperature storage.

254 principle, the determination of the lithium low-temperature structure (and that of other metals) at

255 n to be inconsistent with a 9R phase for the low-temperature structure of lithium.

256 The printing process can be performed on low-temperature substrates in ambient environment allowi

257 cal reactivity of such As-bearing pyrites in low-temperature subsurface environments.

258 ttinger liquids and Coulomb gap behaviour at low temperatures suggests that many body effects includi

259 s transition with the notable manifestation, low-temperature superinsulating topological phase.

260 tions from intrinsic deformations within the low temperature superstructure of magnetite provides new

261 h reactivity of Mo(NMe2 )4 with H2 S for the low-temperature synthesis of MoS2 .

262 thodology will enable future developments in low-temperature synthesis of nanostructured ceria, facil

263 At low temperature (T </= 170 K), when QMT is the dominant

264 trochemical liquid phase epitaxy (ec-LPE) at low temperatures (T </= 90 degrees C).

265 epitaxial L21-Co2MnAl films, which exhibit a low-temperature (T) resistivity upturn with a pronounced

266 e time as brittle as glass in as-quenched or low-temperature-tempered state.

267 asurement exhibit much higher peak values at low temperatures than previous reports.

268 d in areas that have experienced more record low temperatures than record highs since 2005.

269 The system shows variable range hopping at low temperatures that crosses over into an activation re

270 O2 leads to the surprising discovery that at low temperature the initial reaction product is a highly

271 When PEF was combined with US at low temperatures the difference was not significant.

272 o two phase transitions with temperature; at low temperatures the imidazolium cations have an ordered

273 data available for selected isomers at very low temperature, the present results provide quantitativ

274 At low temperatures, the magnetoresistance of LuSb was foun

275 nounced Zero Bias Conductance Peak (ZBCP) at low temperatures, the magnitude of which is several time

276 At low temperatures, the radicals dimerize, but the colored

277 > 0.15 below 40 K demonstrate a new field of low-temperature thermoelectric applications unlocked by

278 assive mechanical systems to unprecedentedly low temperatures, this seemingly fundamental limit is in

279 ile hydrothermal method in alkaline phase at low temperature to detect the melamine from aqueous solu

280 oxylating methane and benzene selectively at low temperature to form methanol and phenol, respectivel

281 The low-temperature transport measurements reveal a novel se

282 spin-orbit interaction and provide quantized low-temperature transport.

283 g the large dielectric constant of SrTiO3 at low temperatures, tunability in the interfacial conducti

284 We report on a low-temperature upturn in the resistivity and, at temper

285 is the dominant reduced U species formed in low-temperature uranium roll-front ore deposits.

286 -order phase transition between an emergent, low-temperature vortex phase with electric toroidal orde

287 ial degradation of petroleum hydrocarbons at low temperatures was investigated in subarctic deep-sea

288 al plasma activation has been used to enable low-temperature water-gas shift over a Au/CeZrO4 catalys

289 is one of the most active catalysts for the low-temperature water-gas shift reaction (LTS), a key st

290 At low temperature, water at ambient pressure becomes more

291 nd by performing hybridization and washes at low temperatures, we greatly reduced this bias to enable

292 of the exchange field by a factor of 10x at low temperatures, when compared to a permalloy/CoO heter

293 lattice-gas model for sorption in aerogel at low temperatures, when dynamics of the system is critica

294 atomically thin boron layer at a relatively low temperature where no doping of silicon is expected.

295 e, manifesting spin-crossover in solution at low temperatures, whereas corresponding zinc(II) salts l

296 materials exhibit a structural transition at low temperature, which is attributed to an apparent char

297 as ultra-high responsivity when operating at low temperature, which provides the possibility to detec

298 mega-3 free fatty acids (FFA) concentration (low temperature winterization), (iii) two-steps enzymati

299 with O2, cis-[Pd(IPr)2(eta(2)-O2)] reacts at low temperature with H2O in methanol/ether solution to f

300 R) to heteroaryl- as well as arylcuprates at low temperature without the need for precious metal cata