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1 sor movement, which indirectly slows current deactivation.
2 13 catalyst cannot overcome owing to thermal deactivation.
3 fication of kinetics in ionic activation and deactivation.
4 catalysis to proceed without sulfur loss and deactivation.
5 results in a faster structural collapse and deactivation.
6 voltage dependence of channel activation and deactivation.
7 terised by slower desensitisation and faster deactivation.
8 -length F508del-CFTR and accelerated channel deactivation.
9 Au-CO bond and a change in the mechanism of deactivation.
10 terior as the driving forces behind catalyst deactivation.
11 urfaces controlling cobalamin reactivity and deactivation.
12 the structural changes that lead to catalyst deactivation.
13 an also develop via intracellular antibiotic deactivation.
14 formation prevail, leading to rapid catalyst deactivation.
15 rsible Re complex decomposition and catalyst deactivation.
16 ency, photon integration over time, and slow deactivation.
17 broadened through competitive and reversible deactivation.
18 forated-patch conditions and slowed receptor deactivation.
19 11) substitutions exhibited a faster current deactivation.
20 ct on NMDAR Glu EC50, and slowing of channel deactivation.
21 complex with its catalytic activity and its deactivation.
22 accounts instead for tertiary axial C-H bond deactivation.
23 were required to achieve maximal slowing of deactivation.
24 so reduced stationary gating and accelerated deactivation.
25 wer pressure and significantly less catalyst deactivation.
26 t and protect it, e.g., from degradation and deactivation.
27 imulation, consistent with the term monocyte deactivation.
28 ation, S140G and V141M, drastically slow IKs deactivation.
29 el activation voltage and an accelerated HCN deactivation.
30 s highly robust with no evidence of catalyst deactivation.
31 * and CO* intermediates, leading to catalyst deactivation.
32 Subsequent self-oxidation eventually causes deactivation.
33 that lead to catalytic activity and material deactivation.
34 the pore gate and the voltage sensor during deactivation.
35 e scales of activation, desensitization, and deactivation.
36 creasing competition of nonradiative surface deactivation.
37 ein kinase (MAPK), and nitric oxide synthase deactivation.
38 ensor-pore coupling, thereby slowing current deactivation.
39 tization activities and avoid rapid catalyst deactivation.
40 GTPase-activating proteins, potentiating Gq deactivation.
42 Our associated meta-analysis of functional deactivations-a scarcely addressed dynamic in fMRI fear-
43 uring sustained ATP application and receptor deactivation after ATP washout, and makes the receptor p
45 ed only by covalent attachment of amino acid deactivation agents to residual activated carboxy groups
46 physiology, including increased task-induced deactivation, altered limbic connectivity and increased
47 ighest activity and stability, whereas rapid deactivation and a low catalytic activity were observed
48 uced slowing of ERG1, ERG3, and ELK1 channel deactivation and accelerated the rate of EAG1 channel ac
50 elated mortality is associated with monocyte deactivation and an antiinflammatory blood immune signat
51 l]-piperidine-3-carboxylic acid] (RPR) slows deactivation and attenuates inactivation of hERG1 channe
53 he spine-actin regulator RhoA, promoting its deactivation and degradation, respectively, and destabil
54 he spine-actin regulator RhoA, promoting its deactivation and degradation, respectively, and destabil
57 as there an association between reduced rACC deactivation and Gln/Glu, Glu, or Gln in the OCD group.
59 rative umpolung annulation eliminates mutual deactivation and leads to a diverse set of benzazepine d
60 nels terminates because of voltage-dependent deactivation and not by Ca(2+)-dependent inactivation, a
61 and voltage sensor-pore coupling to slow IKs deactivation and provide a key step toward developing me
64 octreotide mediated Akt/mTOR/p70S6K pathway deactivation and reduction of kidney inflammation and ap
65 ive responses to infection, but their prompt deactivation and removal are essential for limiting tiss
66 species in the MOFs prevents intermolecular deactivation and stabilizes solution-inaccessible cataly
67 ntracellular end for fast channel activation/deactivation and the other at the selectivity filter for
68 synergize with inhibitors of endocannabinoid deactivation and/or an orthosteric cannabinoid agonist.
70 sites reduced stationary gating, accelerated deactivation, and imparted sensitivity to aniracetam, an
71 ge dependence of activation, regulating slow deactivation, and modulating C-type inactivation of Kv11
72 eased IHVR, enhanced NO bioavailability, HSC deactivation, and reduced intrahepatic microthrombosis.
73 ly, in vivo studies validated our controlled deactivation approach in rodents and non-human primates.
75 have evolved to compensate for the faster HA deactivation at low pH, with a commensurate increase in
77 hing in-flow as a function of excitation and deactivation beam fluence, flow speed, and protein conce
79 at ASICs show such steeply agonist-dependent deactivation because of strong cooperativity in proton b
82 tic deceleration of current and fluorescence deactivation, but these effects are attenuated upon disr
83 es are populated within 50 fs during exciton deactivation, but they are short-lived ( approximately 1
85 d stabilizing Cu catalyst electrodes against deactivation by carbonaceous species accumulation in CO2
86 nhanced Maxwell-Wagner polarization.Catalyst deactivation by coke deposition is a major drawback in i
87 l current peak amplitude but altered current deactivation by decreasing or increasing single channel
88 block in glycolysis associated with monocyte deactivation by endotoxin, a process contributing to imm
89 d on triplet excited state ensembles against deactivation by molecular oxygen though quenching and ph
90 Tyr-545 contributes to the slow kinetics of deactivation by primarily stabilizing the transition sta
92 TOR) signaling controls the dynamics of IRE1 deactivation by regulating ER-mitochondria physical cont
94 solvent Lewis basicity, indicating that C-H deactivation can be modulated by varying the nature of t
97 aintenance of this, along with maintained DM deactivation, characterizes successful ageing and may ex
98 transient binding sites slows activation and deactivation, consistent with slower glutamate binding a
99 that persistent cycles of UPR activation and deactivation create an altered, quasi-stable setpoint fo
100 rigger a rapid, receptor-specific activation/deactivation cycle of beta-arrestins, which permits thei
101 l FPCN connectivity during WM, whereas vmPFC deactivation differences persisted regardless of WM perf
103 aminant of many fuels, and are vulnerable to deactivation due to carbon deposition when using carbon-
104 HT1A -IPSCs was primarily shaped by receptor deactivation due to clearance via serotonin reuptake tra
105 vide a new approach to investigate catalytic deactivation due to hydrocarbon coking or poisoning of z
106 nts' symptom provocation preceded subsequent deactivation during avoidance and relief events, indicat
107 , PEip, and somatosensory cortex also showed deactivations during saccades relative to fixation only.
108 etic capacity (i.e., activation energy, Ea ; deactivation energy, Hd ; entropy parameter, DeltaS) or
111 nfirms stepwise electronic/inductive lactone deactivation for both BTF and BTP, the unusually fast an
112 glycol, an important reaction well known for deactivation from copper nanoparticle sintering, can sho
115 m of ion-pairing, ring-opening, and catalyst deactivation have been studied in the condensed phase wi
116 response to extrinsic noises perturbing gene deactivation in a variety of settings where the network
117 of balance between G-protein activation and deactivation in cancers has been interrogated by studyin
118 e active sites within the composite.Catalyst deactivation in fluid catalytic cracking processes is un
120 modulation may play a critical role in mPFC deactivation in neuropathic pain and underlie the mPFC-s
121 h the patterns of Default Mode Network (DMN) deactivation in Obsessive Compulsive Disorder (OCD) in t
122 binant and native ASICs show extremely rapid deactivation in outside-out patches when jumping from a
123 shift in voltage sensitivity, and slowing of deactivation in response to a depolarizing prepulse.
128 C, when compared with OCD, had a significant deactivation in two anterior nodes of the DMN (medial fr
130 4) and 2 experimental groups with surfactant deactivation induced by polysorbate lavage: the LTVV gro
131 ot of Panax ginseng, slows the rate of hERG1 deactivation, induces channels to open at more negative
134 example of a ligand-gated ion channel whose deactivation is sensitive to agonist concentrations that
135 rordinate, dichotomous pattern of activation/deactivation, is common across a variety of task demands
136 issociation or PLC-beta3-potentiated Galphaq deactivation, is not sufficient to explain the observed
137 were made with inhibitors of endocannabinoid deactivation (JZL184, URB597) or an orthosteric cannabin
139 ectrochemical methods to study the real-time deactivation kinetics of a Pt/C electrocatalyst at singl
140 l firing patterns characteristic of the fast deactivation kinetics of the KCNH2-3.1 isoform were also
141 hERG1a and hERG1b RNA yielded channels with deactivation kinetics that reached a plateau and were di
143 novel mIPSC patterns differing in activation/deactivation kinetics, charge transfer, and sensitivity
144 iheteromeric GluN1/2A/2B receptors with fast deactivation kinetics, whereas expression of diheteromer
145 IK,L also showed complex activation and deactivation kinetics, which we faithfully reproduced by
149 Structure (XANES) spectroscopy confirms that deactivation largely occurs through the migration of Ni
152 small platinum clusters followed by a rapid deactivation likely due to hydrogen bubble formation.
153 recovery of the photoresponse, faster PDE6C deactivation may blunt the rise in background-induced st
156 zed pCB coatings is strongly influenced by a deactivation method affecting the ultra-low-fouling mole
157 alysts (i.e., loss of Mo species thus causes deactivation), Mo-SIM demonstrated no loss in the metal
158 n azametallacycle (4) suggests that catalyst deactivation occurs with a large excess of cyanamide ove
159 t, compared with OCD, HC had a significantly deactivation of a widespread brain network (superior fro
160 I3K-Akt targets, 75% could be explained by a deactivation of adenylate-uridylate-rich element (ARE)-b
164 eport that the slow desensitization and fast deactivation of ASIC1a/2a heteromers enables them to sus
166 NMDAR- and Ca(2+)-permeable AMPAR-dependent deactivation of BCR in hippocampal but not cortical neur
168 demonstrated through optical activation and deactivation of both exogenous and endogenous gene funct
169 ted and Lewis acids determines a significant deactivation of C-H bonds alpha to the amide nitrogen of
170 slow opening/closing of stomata, activation/deactivation of C3 cycle enzymes, and up-regulation/down
171 al challenges, for example, those related to deactivation of cardiac devices, such as pacemakers, def
172 te pores during catalysis leads to temporary deactivation of catalyst, necessitating regeneration ste
173 NP provided information about the origins of deactivation of catalytic NPs and the effects of various
174 he placebo, butorphanol produced a bilateral deactivation of claustrum, insula, and putamen, areas ac
175 that OCD patients had difficulties with the deactivation of DMN even when the non-rest condition inc
176 xy-group-terminated OEG-SAMs, only a partial deactivation of EDC/NHS-activated zwitterionic carboxy g
180 therefore uncover a cycle of activation and deactivation of Foxd3 required for exit from naive pluri
182 ng NO3(-) addition, followed within hours by deactivation of genes encoding enzymes for chlorophyll b
183 n-coupled receptor signaling by accelerating deactivation of Gi/o alpha-subunits, several neurologica
184 Downregulation of CK2 and EGFR also caused deactivation of heat shock protein 90 (Hsp90) co-chapero
186 ulators of G protein Signaling (RGS) promote deactivation of heterotrimeric G proteins thus controlli
187 ull-length F508del-CFTR and slightly delayed deactivation of individual F508del-CFTR Cl(-) channels.
188 minimize the background noise, that is, the deactivation of intracellular dehydrogenases, degradatio
192 an, TPO, and TEM analysis confirmed that the deactivation of monometallic Ni catalysts was in large d
195 In particular, it is ideal for the catalytic deactivation of nerve agents, and it shows great promise
196 n in the tumor cells in mice, which leads to deactivation of NF-kappaB pathway, and consequently inhi
197 ly slowed the activation but accelerated the deactivation of NsVBa, whereas the local anesthetic drug
198 ted protein kinase, which was accompanied by deactivation of oncogenic mechanistic target of rapamyci
199 cross-coupling generally requires a designed deactivation of one nucleophile towards transmetallation
200 cal properties for dentin bonding, including deactivation of oral pathogens, modification of surface
203 an increased spontaneous activity and faster deactivation of PDE6C compared with PDE6AB in darkness,
205 n important and long debated pathway for the deactivation of photoexcited base pairs, with possible i
207 dephosphorylation of Tyr(P)(346) may include deactivation of receptor-activated Syk or suppression of
208 ation of carboxy groups, BRE attachment, and deactivation of residual activated groups on recently de
209 thermolability of Rca is responsible for the deactivation of Rubisco and reduction of photosynthesis
211 n, as well as for those that require minimal deactivation of the (3)MLCT state through low-lying meta
213 nsmitter glycine; this resulted from a rapid deactivation of the agonist current at mutant GlyRs.
215 tal evidence for S-glutathionylation induced deactivation of the Arabidopsis thaliana kinase BRASSINO
217 rationalized on the basis of an acid-induced deactivation of the C-H bonds alpha to nitrogen toward H
219 before, during, and following recovery from deactivation of the contralateral IC by cryoloop cooling
220 lar enucleation (ME) results in an immediate deactivation of the contralateral medial monocular visua
221 pattern of mnemonic deficits was different: deactivation of the dCA1-->mPFC pathway selectively disr
224 lipase (MGL), a key actor in the hydrolytic deactivation of the endocannabinoid 2-arachidonoyl-sn-gl
226 s, as aberrant NOSTRIN expression leading to deactivation of the NFkappaB pathway, in turn triggering
227 of hydroxyl on the catalyst surface, whereas deactivation of the Pd-CoO/3DOM Co3O4 catalyst at high t
228 In contrast, controls demonstrated stronger deactivation of the ventromedial prefrontal cortex (vmPF
229 and the salience network) as well as reduced deactivation of the visual system and the dorsal attenti
231 own that the vast majority of the activation/deactivation of these drug targets is driven by phosphor
235 rus and the cuneus, as well as with extended deactivations of superior parietal and occipital regions
236 t the implications of cooperative antibiotic deactivation on the population and evolutionary dynamics
238 (1) general emotional arousal (activation vs deactivation) or (2) specific emotion categories (fear v
240 dditionally, solvent polarity influences the deactivation pathway, greatly affecting the strength of
242 t a synthetic strategy that blocks the major deactivation pathway: excited-state trans-to-cis polyene
243 the Ln(3+) cation by minimizing nonradiative deactivation pathways due to the presence of -OH, -NH an
244 and potentially coupled excited states, the deactivation pathways in these systems are particularly
245 ; d) Characterization of multiple activation/deactivation pathways of MOR, and e) Suggestion from cal
246 s as well as the reaction energy profiles of deactivation pathways with different photoredox catalyst
247 resence of the B3N3 rings engages additional deactivation pathways, possibly involving excited states
249 ations of the superordinate brain activation/deactivation pattern, each emphasizing different context
250 ciated with a superordinate brain activation/deactivation pattern, explained the majority of the vari
251 play critical but distinct roles in the slow deactivation phenotype, which is a hallmark of Kv11.1 ch
252 m temperature, and their rapid excited-state deactivation precludes their use as photosensitizers.
254 These findings suggest that the primary deactivation process consists of the loss of active site
257 polymerization strategies such as reversible deactivation radical polymerization (RDRP) have paved th
259 ive polymers, in particular using reversible deactivation radical polymerization (RDRP), formerly kno
260 s well as to effectively catalyze reversible deactivation radical polymerizations and living polymeri
261 the voltage dependence of activation and the deactivation rate of mutant channel currents were charac
265 h early mortality, characterized by monocyte deactivation (reduced HLA-DR expression and tumor necros
270 Evaluation of the kinetics of microbial deactivation showed that the nanoemulsion killed all the
271 voltage dependence of activation and slowing deactivation, similar to perfusion of isoproterenol.
278 )beta2gamma2 receptors also exhibited faster deactivation than their WT counterparts, revealing that
279 ponent hemispheric pattern of activation and deactivation that depends on the availability of interau
280 itability contributes to the functional mPFC deactivation that is causal for the pain phenotype and r
282 that drive leukemia regulomes, as well as TF deactivations that alter host T cells in CTCL patients.
283 its zymogenic form and the possible modes of deactivation (thrombin mediated secondary cleavage) of t
285 agonist application revealed faster glycine deactivation times for the N46K mutant compared with the
289 ome antihyperlipidemics may inhibit warfarin deactivation via the hepatic cytochrome P450 system.
294 l activation and reduced posterior cingulate deactivation, whereas OCD patients showed temporoparieta
295 aC helix is highly disordered, a hallmark of deactivation, whereas the BRI1 alphaC helix is moderatel
296 oplasmic region of melanopsin contributes to deactivation, which in turn determines response latency
298 2Me, Cl, Br, and CN, indicative of alpha-CH2 deactivation with HAT that predominantly occurs from the
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