ライフサイエンスコーパス: condensed

1 ave retained the conditions under which they condensed.

2 preserving network reduction, resulting in a condensed 49 node and 113 edge stomatal closure network

3 Upon phage infection, the host nucleoid condensed and became toroidal, similar to the bacterial

4 of extracellular material into a pattern of condensed and fluid-like phases induces undulations in t

5 Thirty years ago, the existence of a condensed and inactive LPL oligomer was proposed.

6 n a HUalpha(triKA) mutant results in an over-condensed and mis-segregated nucleoid.

7 to constrain the conditions under which they condensed and the information they bear on the structure

8 e existence of polycarboxylated aromatic and condensed aromatic formulas, with CHON-type COO KMD form

9 an be classified as aliphatic, aromatic, and condensed aromatics in approximately equal measure, whil

10 e distinct via the linear, zigzag, and ortho-condensed arrangements of fused benzene rings-is reveale

11 ifficult in the nematic phase to stabilize a condensed array of free-standing disclination lines with

12 scopy study reveals an intermediate state of condensed atomic clusters during Pd and Au crystallizati

13 loring how intercalating drugs interact with condensed biological structures such as chromatin and ch

14 Many subcellular condensed bodies are hierarchically organized into multi

15 On postimplant day 1, the condensed bone interface exhibited microfractures and os

16 Attachment of TADs to the NL makes them more condensed but decreases the overall chromatin density in

17 Eukaryotic chromatin is highly condensed but dynamically accessible to regulation and o

18 ivo that small nanocomplexes composed of DNA condensed by a blend of biodegradable polymer, poly(beta

19 t positively charged, unmodified Tau that is condensed by cytosolic polyanions but negatively charged

20 viewpoint is that positively charged Tau is condensed by cytosolic polyanions.

21 ely charged, hyperphosphorylated Tau that is condensed by cytosolic polycations.

22 ation occurs in the context of large genomes condensed by histone proteins into chromatin.

23 Incoming sensory input is condensed by our perceptual system to optimally represen

24 g DNA mobility in living cells, we show that condensed chromatin also exhibits solid-like behavior in

25 ow that Repo-Man, via Nup153, is enriched on condensed chromatin at the nuclear periphery and at the

26 This triggered condensed chromatin at the synaptic activity response el

27 or Tn5 allows its access to relatively more condensed chromatin domains.

28 Our results reveal that condensed chromatin exists in a solid-like state whose p

29 his study, we examined the physical state of condensed chromatin in vitro and in vivo.

30 Because condensed chromatin often correlates with transcriptiona

31 However, the propagation of twist in condensed chromatin remains yet unresolved.

32 ssue of Cell, Strickfaden et al. reveal that condensed chromatin shows a solid-like behavior at mesos

33 which CENP-A is deposited onto an existing, condensed chromatin template is not understood.

34 r induce an irreversible, anomalous state of condensed chromatin that ultimately results in apoptosis

35 one H3 lysine 9 trimethylation (H3K9me3) and condensed chromatin ultrastructure.

36 f the hallmarks of quiescent cells is highly condensed chromatin.

37 hat this loss was due in part to permanently condensed chromosomes and repeat-rich sequences in Symbi

38 act in both mice and worms and colocalize on condensed chromosomes during mitosis in C. elegans embry

39 ayer (PCL), a sheath of proteins surrounding condensed chromosomes during mitosis.

40 Partially condensed chromosomes were not arranged on metaphase pla

41 re is located at the primary constriction of condensed chromosomes where it acts as a platform regula

42 ox promoters, and a manifest cell cycle with condensed chromosomes.

43 A condensed cis-Golgi was the first abnormality observed u

44 topology of the myeloid genome toward a more condensed configuration in APL cells; locally, it intrud

45 olutionarily conserved, promoting the thinly condensed constrictions that occur at centromeres and RD

46 Time-condensed continuous-infusion reinduction followed by st

47 leoids by promoting the formation of a dense condensed core surrounded by less condensed isolated dom

48 ayed a markedly reduced granular layer and a condensed cornified layer.

49 mobility to evaluate the size of spermidine-condensed DNA and single molecule burst analysis to eval

50 , cryo-EM reveals a range of partially full, condensed DNA densities that appear to have no contact w

51 ing via an intermediate 'half-up' state to a condensed 'down' state.

52 The condensed droplets in the valley are then evaporated due

53 these polymers on their organization inside condensed droplets.

54 del uptake from cosmetics as a surrogate for condensed environmental media.

55 hery of an intact nucleus revealed partially condensed, extended structures in interphase chromatin.

56 trachromosomal interactions that represent a condensed form akin to that of mitotic chromosomes.

57 lable techniques to represent read data is a condensed form as an assembly graph.

58 Heterochromatin is a highly condensed form of chromatin that silences gene transcrip

59 Condensed forms had degradation kinetics similar to mono

60 ution of RNA molecules between dispersed and condensed forms.

61 ormic acid solutions (up to nearly 100 wt.%) condensed from generated vapors via flexible tuning of t

62 e high electron-drawing ability/power of the condensed furoxan ring and the low aromatic character of

63 xpression changes, we observed shortened and condensed gene expression patterns in mouse pluripotent

64 analysis to evaluate DNA packing within the condensed globules relative to free-coiled DNA.

65 and allows users to export the structure as condensed GlycoCT.

66 Fs, including pioneer factors, is impeded by condensed H3K27me3-containing chromatin.

67 diments during passage through open (eu) and condensed (hetero) chromatin.

68 The formation of silenced and condensed heterochromatin foci involves enrichment of he

69 hly ordered structure with an outer layer of condensed heterochromatin, an inner layer enriched in th

70 nt for the establishment of large domains of condensed heterochromatin.

71 lly inactive loci are enriched within highly condensed heterochromatin.

72 These methods create macrocycles and embed condensed heterocycles to diversify outcomes and improve

73 The resulting condensed, highly crosslinked ECM impeded drug permeatio

74 lectron transport is simulated in a class II condensed history scheme, i.e., catastrophic inelastic s

75 These grains condensed in outflows of asymptotic giant branch stars <

76 ternational Union of Pure & Applied Chemist)-condensed inputs to render Symbol Nomenclature For Glyca

77 stributed in a broadband of frequencies gets condensed into a dominant mode, analogous to a condensat

78 IV-1 genomic RNA, nucleocapsid and integrase condensed into a mature ribonucleoprotein complex.

79 nic combination of carbon-group elements-was condensed into a porous, polycubane structure (BP-COF-1)

80 embrane-associated platelet polyphosphate is condensed into insoluble spherical nanoparticles with di

81 Taken together, this suggests that LPL is condensed into its inactive helical form for storage in

82 mputer-generated MRI features of tumors were condensed into seven MRI factors related to tumor size,

83 of a dense condensed core surrounded by less condensed isolated domains.

84 osits formed by electron irradiation of thin condensed layers of (eta(3)-C(3)H(5))Ru(CO)(3)Cl.

85 ology changes from dispersed circular liquid-condensed (LC) domains in a continuous liquid-expanded (

86 ees C<Tm, the liquid expanded (LE) to liquid condensed (LC) phase transition of milk-SM monolayers wa

87 NIRs selectively extract cargo from condensed liquid phases thereby regulating functional ph

88 s molecules between dilute liquid phases and condensed liquid phases.

89 aration is thought to drive the formation of condensed liquid-like droplets of protein, RNA, and othe

90 trate that the molecular connectivity of the condensed-liquid network-i.e., the number of weak attrac

91 he motion, the condensate cloud harvests non-condensed magnons, which results in a partial compensati

92 y of higher-order chromatin structure from a condensed maternal and a naive paternal genome to genera

93 pling leads to the confinement of spinons, a condensed matter analog of quark confinement in quantum

94 iverse, plays a key role in the chemistry of condensed matter and biological systems.

95 he quantum emulation of important systems in condensed matter and nuclear physics, as well as the stu

96 The complexity embedded in condensed matter fertilizes the discovery of new states

97 hydrogen (LMH) is the most abundant form of condensed matter in our solar planetary structure.

98 rize this short-lived species in between two condensed matter layers.

99 experimental platform may lead to solitonic condensed matter phases and technological applications.

100 als offer a promising platform for exploring condensed matter phenomena and developing technological

101 on interactions play a critical role in many condensed matter phenomena, and it is tempting to find a

102 study of new synthetic materials and complex condensed matter phenomena.

103 problems in materials science, nanoscience, condensed matter physics and chemistry, such as phase tr

104 remains one of the most studied phenomena in condensed matter physics and is relevant for research ar

105 irac fermions have created much attention in condensed matter physics and materials science.

106 teractions on spin transport is important in condensed matter physics and spintronics.

107 any fields, including biology, chemistry and condensed matter physics as well as semiconductor indust

108 sical systems.Topological effects known from condensed matter physics have recently also been explore

109 oncept of topology(3) has been expanded from condensed matter physics into photonics(4), giving rise

110 nductivity has been a long-standing quest in condensed matter physics since the discovery of superflu

111 onon, a roton or a magnon, is used in modern condensed matter physics to describe an elementary colle

112 ransitions remains an important objective in condensed matter physics(4,5).

113 In condensed matter physics, a crystalline electronic syste

114 t the intersection of solid-state chemistry, condensed matter physics, and materials science and engi

115 Topology has recently become a focus in condensed matter physics, arising in the context of the

116 Currently under active study in condensed matter physics, both theoretically and experim

117 ic systems is a major breakthrough in recent condensed matter physics, finding appropriate materials

118 d truly transdisciplinary topic encompassing condensed matter physics, solid state chemistry, and mat

119 ins as one of the most challenging issues in condensed matter physics.

120 systems has given topology a central role in condensed matter physics.

121 )) superconductivity is a central problem in condensed matter physics.

122 s to biology, magneto- and hydrodynamics and condensed matter physics.

123 ely in recent years in materials science and condensed matter physics.

124 allic hydrogen has been a great challenge in condensed matter physics.

125 ature is the most fundamental information in condensed matter physics.

126 glass has attracted significant interest in condensed matter physics.

127 s is one of the major trends in contemporary condensed matter physics.

128 critical phenomenon in materials science and condensed matter physics.

129 to low T have been a long-standing puzzle in condensed matter physics.

130 sordered systems is a fundamental problem of condensed matter physics.

131 rol them is one of the biggest challenges of condensed matter physics.

132 ition is one of the few unsolved problems in condensed matter physics: agreement on the cause of the

133 -BEC-like crossover by means of conventional condensed matter probes.

134 l electronic systems has opened a new age in condensed matter research.

135 challenges and opportunities, materials and condensed matter sciences are beneficiaries.

136 nsights into the fundamental interactions in condensed matter systems and present opportunities for i

137 abilities of probing ultra-fast phenomena in condensed matter systems at X-ray free electron laser (F

138 ed anomaly could be experimentally probed in condensed matter systems known as Weyl semimetals.

139 ory of lattice dynamics valid for disordered condensed matter systems with the Frenkel theory of the

140 electronic correlations occur frequently in condensed matter systems, and are associated with remark

141 or axions in strongly correlated topological condensed matter systems, which have so far been elusive

142 h as efficient energy transfer in disordered condensed matter systems.

143 n is challenging in fluid mechanics and soft condensed matter systems.

144 lications and as a testing bed for different condensed matter theories.

145 erface has analogues in systems ranging from condensed matter to cosmology and string theory.

146 nteractions are ubiquitous in biology(1) and condensed matter(2-4), but they are often screened by co

147 esentative examples drawn from materials and condensed matter, including the important role of elasti

148 dy a variety of effects interfacing optical, condensed matter, quantum and statistical physics.

149 In the physics of condensed matter, quantum critical phenomena and unconve

150 In condensed matter, the frustrated rare-earth pyrochlore m

151 yond, as well as the demonstration of HHG in condensed matter.

152 up new avenues for ultrafast spectroscopy of condensed matter.

153 phenomena of the geometrical frustration in condensed matter.

154 tands as a landmark in the quantum theory of condensed matter.

155 s contributed to our modern understanding of condensed matter.

156 s very small, a few molecular lengths in the condensed matter.

157 s, including cosmology, particle physics and condensed matter.

158 or discovering emergent quantum phenomena in condensed matter.

159 Computing equilibrium states in condensed-matter many-body systems, such as solvated pro

160 iverse magnetic quantization phenomena in 2D condensed-matter materials.

161 ate between 'up' and 'down'-is a key goal in condensed-matter physics and materials science because i

162 yl fermions have attracted great interest in condensed-matter physics and materials science.

163 materials has attracted immense attention in condensed-matter physics because they host new quantum s

164 uctures have been a key point of interest in condensed-matter physics for decades owing to a plethora

165 ana fermions as quasiparticle excitations in condensed-matter physics has created much excitement.

166 ms are fundamental to phenomena ranging from condensed-matter physics to cosmology, yet they are gene

167 In high-energy and condensed-matter physics, particle exchange has an essen

168 their properties is a central goal of modern condensed-matter physics, which holds promise for a new

169 d fundamental bridge between high-energy and condensed-matter physics.

170 to find answers to outstanding questions in condensed-matter physics.

171 ring emergent phenomena and exotic phases in condensed-matter physics.

172 s in biomedicine, biophysics, chemistry, and condensed-matter physics.

173 one of the most perplexing topics in current condensed-matter physics.

174 ately balanced-is of fundamental interest to condensed-matter research(1,2).

175 e-shot equilibrium samples of representative condensed-matter systems and proteins.

176 The recent advent of condensed-matter systems with Dirac-like excitations, su

177 allenge in quantum science across atomic and condensed-matter systems(2,4-7).

178 e liver tissue and analyzed it applying soft-condensed-matter-physics concepts.

179 igm for exploring novel electronic phases of condensed matters and applications in emerging field-con

180 ented opportunities to study Weyl physics in condensed matters.

181 nd nuclear dynamics in atomic, molecular and condensed matters.

182 ent-insoluble membrane fractions enriched in condensed membranes.

183 the formation of the interzone, a region of condensed mesenchymal cells at the site of the prospecti

184 nvironment is known, but it is restricted to condensed metallic phases(8), the hexagonal pores of coo

185 by which soluble proteins self-organize into condensed microdroplets with nanoscale and millisecond s

186 ially confining azobenzene photomechanics in condensed microparticulate materials.

187 ined to self-administer cocaine or sweetened condensed milk (SCM).

188 every cell cycle, alternating between highly condensed mitotic structures that facilitate chromosome

189 moting lamellar mesophases and, thus, liquid condensed monolayers needs to be maximal while maintaini

190 onal Glycomics (also known as modified IUPAC-condensed nomenclature).

191 coil region, leads to increased frequency of condensed nuclei and lower steady-state levels of lamin

192 observed in systems as simple as water drops condensed on a transparent substrate.

193 Thus, water condensed on the sensor surface only during forcible bre

194 h ice and/or energetic processing of methane condensed on water ice grains in the cold, outer edge of

195 / c, Z' = 2) is isolated when the radical is condensed onto a cold substrate (enthalpically favored p

196 So, one can study a sample (in condensed or gaseous state) during a physical or chemica

197 geological fate of hydrothermally-generated condensed organics.

198 We condensed over 120,000 immune features into a single axi

199 During the meltdowns, a type of condensed particle, a caesium-rich micro-particle (CsMP)

200 ls enhanced interprotein interactions in the condensed phase but more favorable protein-solvent inter

201 The BQT allows for condensed phase chemical reactions to be initiated by co

202 ssociated biomolecular mobility within these condensed phase droplets, or condensates, are increasing

203 eal how hydrogen bonding is reflected in the condensed phase electronic structure.

204 tal concentration of all tau variants in the condensed phase is constant.

205 To address these challenges, we present condensed phase membrane introduction mass spectrometry

206 We present condensed phase membrane introduction mass spectrometry

207 ategy addressing this significant impasse is condensed phase membrane introduction mass spectrometry

208 Condensed phase membrane introduction mass spectrometry

209 cal/mol, respectively, which are the highest condensed phase MO-H BDFEs to date and (ii) that the hig

210 charge state on the energetic proton in the condensed phase of water results in the strongly suppres

211 protein/nucleic acid-ligand interactions or condensed phase properties by force field-based methods

212 Our results further illustrate how condensed phase reactions can be predicted using quantum

213 roducing secondary electrons is lower in the condensed phase than in the gas phase.

214 cular forms in which HOMs are present in the condensed phase upon gas-particle partitioning remain un

215 n-carbon double bonds were identified in the condensed phase which survived ozonolysis during new par

216 talyst deactivation have been studied in the condensed phase with both classical and quantum methods

217 ified industrial catalyst, ambient pressure, condensed phase, ca. 0.03 m monomer).

218 e observe a slow-down in the dynamics of the condensed phase, potentially resulting in loss of functi

219 02, and condensation on the cold side of the condensed phase.

220 much smaller than the cohesive energy in the condensed phase.

221 ation of complex molecular structures in the condensed phase.

222 high reactivity has eluded isolation in the condensed phase.

223 g description as a "free" boryl anion in the condensed phase.

224 ditional secondary structure elements in the condensed phase; rather, it maintains conformational het

225 roduced, with each being based on a distinct condensed-phase approach.

226 echanisms and kinetic parameters for complex condensed-phase chemical processes that underlie importa

227 of intermediates, some the same as in their condensed-phase counterparts.

228 tmospheric liquid water volume, we show that condensed-phase hydrolysis of 1,2-IHN can account for th

229 regenerates the perfluorocarboxylic acid via condensed-phase hydrolysis.

230 Traditional condensed-phase methods are of limited use for character

231 Ultrafast electron transfer in condensed-phase molecular systems is often strongly coup

232 The composition of condensed-phase organic compounds in SOA is measured usi

233 companied by the formation of functionalized condensed-phase products including secondary ozonides (S

234 Previous work examining the condensed-phase products of squalene particle ozonolysis

235 Unlike the corresponding condensed-phase reaction, where catalytic proton exchang

236 on events, enhanced gas-phase emissions from condensed-phase reservoirs partitioned to airborne parti

237 n-usage was inferred to deposit siloxanes in condensed-phase reservoirs throughout the house, leading

238 ions through interactions with surface-laden condensed-phase reservoirs.

239 ectrostatic charge induction in the proximal condensed-phase sample, resulting in the liberation of f

240 to preserve the key PTM connectivity, which condensed-phase separations failed to achieve.

241 This distinctive condensed-phase system is ideally suited to spectroscopi

242 e thermodynamics, structure, and dynamics of condensed-phase systems, but often present significant c

243 itions between the eigenstates occur-such as condensed-phase systems-must be studied.

244 incomplete, and rules for the coexistence of condensed phases are lacking.

245 polymers and that flexible polymers nucleate condensed phases at lower binding energies than their ri

246 We use this "optoDroplet" system to study condensed phases driven by the IDRs of various RNP body

247 the understanding of structural order within condensed phases of matter.

248 uctures at the interface; these appear to be condensed phases of small ion-extractant complexes.

249 tion, and the thermodynamic stability of the condensed phases surrounding such sites, in turn, implie

250 hromophores such as bacteriochlorophyll a in condensed phases to measure both high-resolution coheren

251 s have been prepared, and their structure in condensed phases unambiguously assigned using (1)H, (13)

252 higher propensity to phase separate and form condensed phases with higher concentrations.

253 cs of individual atoms or small molecules in condensed phases, e.g. lithium ions in electrolytes, wat

254 different experimental regimes: molecules in condensed phases, isolated in supersonic jets and helium

255 hese effects have also been observed in less condensed phases, such as self-assembled monolayers; how

256 comparison of the IR-spectra in the gas and condensed phases, we propose putative assignments for th

257 lular protein from dilute to concentrated or condensed phases.

258 experimental optical spectra of FTPE in both condensed phases.

259 nt has been well-studied in both the gas and condensed phases; however, understanding this process in

260 n Fe(3) P (proxy for mineral schreibersite), condensed phosphates, and reduced oxidation state phosph

261 ate-containing metabolites and two inorganic condensed phosphates.

262 meric phenolic compounds but lower levels of condensed polyphenols than LI and IP apples, while the r

263 significantly enhances the stability of the condensed protein droplets, pointing to a previously unr

264 mperature would not significantly affect the condensed quantities.

265 rmal, CCVs were abnormal, appearing dark and condensed rather than clear and spacious.

266 The preserved organics represent condensed remains of the cornified epidermis and, likely

267 3,5- or 2,4,6-positions or expansion of the condensed ring system.

268 t-stacking strategy to combine mutations for condensed shoots, rapid flowering (SP5G) and precocious

269 genetic code along the DNA, together with a condensed solution of proteins, RNA, and other molecules

270 ich round spermatids elongate into chromatin-condensed spermatozoa.

271 c and nitro-aromatic will partition into the condensed state for a wide range of ambient conditions i

272 nsation during G2 and the maintenance of the condensed state thereafter.

273 These condensed states are formed by phase separation, yet lit

274 This is a condensed summary of an international multisociety state

275 by hot pressing at 120 degrees C to produce condensed systems that covered a range of moisture conte

276 ingu was prominent regarding anthocyanin and condensed tannin content and superior to the other culti

277 vonoids (1.24-5.15 mg QEg(-1) DW), and total condensed tannins (12-23.2 mg CEg(-1) DW).

278 Plant tannins, including condensed tannins (CTs) and hydrolyzable tannins (HTs),

279 The total phenolics and condensed tannins correlated with the antioxidant capaci

280 The addition of grape seeds as the source of condensed tannins in fruit wine may provide a solution f

281 MW fraction had the highest total phenolics, condensed tannins, and antioxidant activities, followed

282 ained much higher total phenolic substances, condensed tannins, and total antioxidant activity than W

283 existed in the contents of total phenolics, condensed tannins, antioxidant activities, and PPC among

284 rs exposed to drought, while the fiber-bound condensed tannnins increased.

285 6% w/w) on the physicochemical properties of condensed tapioca starch.

286 l and clinical literature for each compound, condensed this into a database of summary documents and

287 The thickness stretch is statically condensed to enforce vessel wall incompressibility via a

288 al CC, was depleted gradually, and CETN1 was condensed to the mid-segment of the CC.

289 , transcriptionally active state to a highly condensed, transcriptionally inactive state.

290 he source of the PGEs has been attributed to condensed vapor and melt from an extraterrestrial impact

291 us illness, what would be important to you?" Condensed versions of the options were, "Live as long as

292 t these reactions are greatly facilitated by condensed water molecules under wet ambient conditions,

293 afforded the key intermediate 10, which was condensed with a Boc-protected adenine, followed by depr

294 rst reduced to formate, which is reduced and condensed with a second CO(2) to generate glycine.

295 In this cycle, glyoxylate is condensed with acetyl coenzyme A (acetyl-CoA) to give ma

296 o acetyl-P, and then to acetyl-CoA, which is condensed with another CO(2) to form pyruvate.

297 y, dipyrromethanyl-substituted azaBODIPY was condensed with dipyrromethane dicarbinol or 16-oxatripyr

298 enzoylbenzodipyrrole was reduced to diol and condensed with five different tripyrranes such as aza, o

299 teroaromatic, and alkyl carboxaldehydes were condensed with oxalyl boronates to afford substituted bo

300 ine and the obtained diamines can be further condensed with the diketones with a thiadiazole unit.