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1 the acidic residues destabilized GFP::SpxA1(tail) .
2 at 3 or 11 weeks (P < .000l, Barnard test, 2-tailed).
3 d UBL domains (UBL1-2) within the C-terminal tail.
4 g the last 19 amino acids of the cytoplasmic tail.
5 cone because of mobility of its unsaturated tail.
6 reassociated with the alpha-subunit carboxyl tail.
7 NA-binding domains (dsRBDs) and a C-terminal tail.
8 which revealed loss of the pancreas body and tail.
9 ntributed by nonmuscle structures within the tail.
10 DNA translocation into bacteria through the tail.
11 r of perturbed interactions with the mutated tail.
12 rcentage of the atoms without the attractive tail.
13 rlinked by three loops and a long C-terminal tail.
14 ures with a characteristic hypertransmission tail.
15 mmodated by the oligomers as an unstructured tail.
16 f macrocystic/unilocular lesions of the body-tail.
17 tabilized by the centrally positioned MTF1 C-tail.
18 l, telescope-eye, albinism, and heart-shaped tail.
19 olutionarily extended N-terminal cytoplasmic tail.
20 hich account for the extended n -> pai* band tails.
21 oligonucleotides and 3'-terminal transferase tailing.
22 idine insertion/deletion editing, and 3' A/U-tailing.
27 d proteins (GET) pathway targets and inserts tail-anchored (TA) proteins into the endoplasmic reticul
28 is well known for extraction of mislocalized tail-anchored ER proteins from the mitochondrial outer m
29 e EMC activities, as an insertase regulating tail-anchored protein levels and a broader role in polyt
33 ing cDNA synthesis by aiming at the poly(A)+-tail and (2) introduced a pre-amplification of human RNA
35 s autoregulatory role for the mammalian CRY1 tail and conservation of PHR-tail interactions in both m
37 kable similarities in the functions of the C-tail and sigma3.2 finger of the bacterial factor suggest
38 ls and binds directly to both the N-terminal tail and the histone fold domain of non-nucleosomal CenH
42 ht on the roles played by disordered tubulin tails and tail modifications in the molecular mechanism
43 substrates with TTGT or UUGU single-stranded tails and that the KH domain is critically important for
44 domain of the measles virus nucleoprotein (N(TAIL)) and the X domain (XD) of the measles virus phosph
45 ills and mouse skin) and appendages (Xenopus tail), and provide recommendations on how to adapt the a
46 terferon-gamma(-/-) malignancies of the ear, tail, and foot comprised poorly differentiated, round to
47 ne regulatory light chain interacts with the tail, and the other with the partner head, revealing how
49 ugh curves show early arrivals and very long tails, and this type of transport is usually referred to
50 nds to generate long, 3' single-stranded DNA tails, annealing of complementary sequence segments (mic
53 lar muscle cell populations in the post-anal tail are generated from tailbud, declining Fgf signallin
54 inor effects in tryptophan fluorescence peak tailing are observed over a large pH range (5.5-9.0).
56 embranes where both glycerophospholipid acyl tails are predominantly 16-18 carbons long, S. japonicus
57 c ordering, including a tendency for head-to-tail association into polar, chain-like assemblies havin
58 overlap via tropomyosin-tropomyosin head-to-tail associations, forming a continuous strand along the
59 r cassette to bind hypo-acetylated histone 4 tails at promoters, guaranteeing continuous progression
64 stance, at higher speed and performed larger tail bends, indicating that Somatostatin 1.1 inhibits sp
65 This establishes multivalent, synergistic H3-tail binding causing distinct cellular localization and
66 AD2, KDM5B, NSD2, FOXP1, MED13L, DYRK1A; one-tailed binomial test P <= 4.08E-05) contributed to the c
67 rst genetic assessment of the Australian red-tailed black-cockatoo (Calyptorhynchus banksii), a wides
69 e anticoagulant effects ex vivo and in vivo (tail-bleeding assay and FeCl(3)-induced thrombosis).
73 In the neuromesodermal precursors of the tail bud(4), WNT signalling promotes the mesodermal fate
75 ks, most particularly the presence of a long-tailed but monotone decline in the probability of intera
77 be measured rapidly in whole, intact larval tails by adapting protocols developed for ex vivo muscle
78 which involves reading of acetylated histone tails by the bromodomain-containing proteins SMARCA2 (BR
79 dius of gyration decreases linearly with the tail charge q, the trend is explained using a simple pol
80 tion of acidic amino acids to the GFP::SpxA2(tail) chimera stabilized GFP, while deletion of the acid
84 DOPC because mobilities of both unsaturated tails confer a cone shape to DOPC, and PGPC separates fo
87 e transmembrane domain (TMD) and cytoplasmic tail (CT), can reshape the antigenic structure of the En
89 gnaling, serine 365 (S365) in the C-terminal tail (CTT) of STING is phosphorylated, leading to induct
92 erent synthetic strategies including head-to-tail cyclization (C1), side-chain-to-tail cyclization (C
93 head-to-tail cyclization (C1), side-chain-to-tail cyclization (C2), and a disulfide bond cross-linkag
94 s of cyclic peptides that are small, head-to-tail cyclized, composed of proteinogenic amino acids and
98 The first examination of MHC-DOB in white-tailed deer found significantly less polymorphism (11 al
99 region in ruminants, and suggests that white-tailed deer may have a recombination hotspot between the
100 amples from heterozygous (G(96)/S(96)) white-tailed deer orally dosed with CWD from homozygous (G(96)
104 an undergo self-assembly either as a tail-to-tail dimer, showing monomer-dimer sigmoidal transitions,
106 scribing the transition from light- to heavy-tailed distributions along a continuum of behavior as pa
112 acement of its transmembrane and cytoplasmic tail domains with their counterparts from bovine parainf
115 the ossifying hypochord-induced loss of the tail during metamorphosis has enabled the evolution of t
117 hlight the complex interplay between histone tails, epigenetic enzymes, and modulators of enzymatic a
119 es may also use sequential processes of acyl tail exposure, followed by membrane curvature and distal
121 entially lost in incomplete prophages, while tail fiber, transposase and integrase genes are signific
122 equence of events during pyocin contraction: tail fibres trigger lateral dissociation of baseplate tr
125 es gene transfection and the length of alkyl tail, flexibility of sterol ring and polarity due to -OH
126 ly active potent antinociceptive activity in tail-flick assay in mice, with diminished tolerance, dep
127 n driven by a migratory drop-off in the fork-tailed flycatcher (Tyrannus savana) resulting in reprodu
128 sequence segments (microhomologies) in these tails, followed by microhomology-primed synthesis suffic
129 poly(A) binding KPAF4 shields the nascent A-tail from uridylation and decay thereby protecting pre-m
132 error signals are early and phasic in the PH tail, global value maximum signals are delayed and susta
133 as no affinity for DNA but deletion of the C-tail greatly increases Mtf1's DNA binding affinity.
135 early developmental boundary between the two tail halves in the chicken, then followed major developm
138 trations revealed that Mtf1 with an intact C-tail has no affinity for DNA but deletion of the C-tail
139 probability distributions which have lighter tails (higher settling rates) than the inverse Gaussian.
140 of wild-caught, juvenile American alligator tails identifies a distinct pattern of wound repair in m
141 or the determination of the lipid fatty acyl tail identities and positions, which is not possible via
142 secondary cases is consistent with being fat-tailed, implying that large superspreading events are ex
145 important role for the dimethylbenzimidazole tail in moving the cobalamin cofactor between active sit
148 ple architecture, synthesize such C-terminal tails in the absence of a small ribosomal subunit and mR
150 10) of the human CD300f receptor cytoplasmic tail inhibits the protein kinase C phosphorylation of a
153 ment is absolutely dependent on the arrestin tail interaction, and in one of the cellular backgrounds
155 t, with reference to the current "core" and "tail" interaction model for arrestin-GPCR interaction.
157 mammalian CRY1 tail and conservation of PHR-tail interactions in both mammalian cryptochromes highli
158 insect cryptochromes, which also utilize PHR-tail interactions to reversibly control their activity.
160 asts with lepidosaurs, where the regenerated tail is radially organized around a central endoskeleton
162 ently having the ability to autotomize their tail, it is unlikely that they actually made use of this
163 glaucous gulls, rough-legged hawks and long-tailed jaegers) feeding on a pulsed resource (brown and
164 isrupts the four-helix bundle at the head-to-tail junction, leading to weaker tropomyosin-tropomyosin
165 glutamylation and polyglycylation of tubulin tails lead to slower protein diffusion along MTs, althou
167 omplex (MHC) class I-binding epitopes in the tail length tape measure protein (TMP) of a prophage fou
169 ave almost no effect on steady-state poly(A)-tail lengths of their targets in mouse fibroblasts, whic
170 approaches steady state, whereas effects on tail lengths peak for recently transcribed target mRNAs
171 ate measurements of the effects of miRNAs on tail lengths, mRNA levels, and translational efficiencie
173 es whose backbones are cyclized from head to tail, like the membrane permeable and orally bioavailabl
174 on in serum was correlated with radiological tail-like patterns, characteristic of the infiltrative M
176 st, C-TMDs with sufficient hydrophobicity or tails longer than ~80 residues are quickly released from
177 the lognormal distribution which has heavier tails (lower settling rates) than the inverse Gaussian;
179 te colobus), Macaca nemestrina (southern pig-tailed macaque), and Mandrillus leucophaeus (the drill).
180 mong bonnet macaques, but not rhesus or long-tailed macaques, individuals who were more well-connecte
181 l approaches to show that two molecules with tails made of alkyl carbon, alkylphosphocholines (APCs)
182 cessibility, nucleosome positioning, histone tail modifications and enhancer-promoter interactions in
183 roles played by disordered tubulin tails and tail modifications in the molecular mechanism of protein
184 broadly (1000-fold) and are larger for short-tailed mRNAs that have previously undergone more rapid d
186 dimer sigmoidal transitions, or as a head-to-tail noncentrosymmetric columnar polymer, exhibiting a n
191 ly, we provided evidence that the C-terminal tail of DHHC5 can be palmitoylated in response to stimul
193 vely, our results reveal that the N-terminal tail of GiKIN14a is a de facto dual regulator of motilit
200 ntent ratios between the head, midpiece, and tail of the cells can predict the percentages of success
203 omplex with only a phosphorylated C-terminal tail of the vasopressin 2 receptor activates Src as effi
204 lata (SNr), ~30% in the VTA, and ~70% in the tail of the VTA (also called the rostromedial tegmental
207 likely causal gene for fat deposition in the tails of sheep through transcriptome, RT-PCR, qPCR, and
212 embrane helix, and a short carboxyl-terminal tail, or as a soluble ectodomain that acts as a decoy re
217 -injection effects of FA were evaluated by 2-tailed paired t test comparison of mean 5-minute preinje
218 over 1 year (mean change 2.24 +/- 3.09; two-tailed paired t-test P = 0.009) and over 2 years (mean c
219 over 2 years (mean change 4.00 +/- 3.79; two-tailed paired t-test P = 0.031) with respective standard
222 at form the rigid inner tubes of contractile tail phages, such as T4, and its C-terminal domain adopt
223 in and kinase domain, which is relieved by C-tail phosphorylation, but the precise molecular mechanis
224 ) CFU/cm(2) counts were higher in p-trap and tail pipe biofilm samples from HCP compared to PR sinks
225 ansitions in cells is the reversible head-to-tail polymerization of hub proteins into filaments that
228 t acts within the membrane to increase lipid tail protrusion and promote stalk formation and then act
229 nce in an alpine-obligate species, the white-tailed ptarmigan (Lagopus leucura), a species distribute
231 ture and contemporary gene flow in the thorn-tailed rayadito (Aphrastura spinicauda), a passerine bir
233 he essential role of the myeloid lineage for tail regeneration in the regeneration-competent tadpoles
234 re, we took advantage of naturally occurring tail regeneration-competent and -incompetent development
235 a finding that suggested that the flexible C-tail region of these factors autoregulates their DNA bin
237 irst anatomical and histological evidence of tail repair with regrowth in an archosaur, the American
240 bearing different tpy "heads" and thiolate "tails" scrambles to afford up to 10 ternary assemblies v
241 fic via the incorporation of a SNP at the 3' tail, sequences other than the target sequence will also
242 Here, we introduce single cell RNA Cap And Tail sequencing (scRCAT-seq), a method to demarcate the
244 ant of large whole-tail skins, but not small tail skins (0.8 cm x 0.8 cm), led to exhaustion of anti-
246 )alamin binds with its dimethylbenzimidazole tail splayed into a side pocket and its corrin ring buri
247 icrotubule-sliding model, in which kinesin-5 tails stabilize motor domains in the microtubule-bound s
251 eightened; immobility times decreased on the tail suspension and forced swim tests; and sucrose prefe
252 a second IQ domain to the Ca(V)1.3 carboxyl tail switched the apparent functional stoichiometry, per
254 phenotypes, including dorsal fin loss, long-tail, telescope-eye, albinism, and heart-shaped tail.
255 upports a model in which a single C-terminal tail tethers XLF to Ku, while allowing XLF to form inter
257 rcylaldehyde headgroup linked to a 15-carbon tail that harbors two conjugated all-trans trienes separ
258 by a conformational change in the C-terminal tail that leads to creation of an enlarged binding cavit
261 The reconstructed region extends from the tail tip to the origin of the most posterior peripheral
262 n convert mouse embryonic fibroblasts, adult tail-tip fibroblasts and postnatal supporting cells into
265 Here, we apply MHRA to a population of long-tailed tits Aegithalos caudatus, a non-territorial passe
267 operative contexts, so we conclude that long-tailed tits use the same kin discrimination rule to avoi
268 hydrophobic complementarity between the TnT tail (TnT1) and tropomyosin, which is difficult to recon
269 that uses its N-terminal microtubule-binding tail to achieve minus-end-directed processivity on singl
270 RM and ankyrin motifs within its cytoplasmic tail to bind actin, LYVE-1 displays little if any direct
271 ra - that in many extant squamates allow the tail to separate and the animal to escape predation.
273 (LNA)-containing oligo(dT) probes to poly(A) tails to maximize RNA capture selectivity and efficiency
276 nine 1 can undergo self-assembly either as a tail-to-tail dimer, showing monomer-dimer sigmoidal tran
280 partner affiliation (Proximity, Contact, and Tail Twining) and infant carrying were determined from l
281 activation of the cytoplasmic immunoglobulin tail tyrosine (ITT) motif in transmembrane IgE (mIgE) im
284 etent mice with HCC, induced by hydrodynamic tail vein injection of proto-oncogenes, enhanced HCC dev
291 ecific acetylated lysine residues on histone tails where they facilitate the assembly of transcriptio
292 n the first capillary bed encountered in the tail, whereas cells overexpressing constitutively active
293 berrant translation products with C-terminal tails which assist with RQC-mediated protein degradation
294 conserved N-linked glycan within the IgG-Fc tail, which is essential for IgG function, shows variabl
298 Initially, steric clashes of the Mtf1 C-tail with short RNA-DNA hybrids cause abortive synthesis
300 ve impaired neutrophil directed migration to tail wounds with an initial lag in recruitment early aft