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1 n approach termed Codon Consequence Scanner (COCOS).
2 tor to generate Ra(COCO)(2-)((aq)) (log K(Ra(COCO)2-) = 5.97 +/- 0.01), a rare example of a molecular
3 eprotonated COCO(4-) chelator to generate Ra(COCO)(2-)((aq)) (log K(Ra(COCO)2-) = 5.97 +/- 0.01), a r
4 elators with high negative charge [-4 for Ra(COCO)(2-)((aq))] and many donor atoms [>=11 in Ra(COCO)(
5 (2-)((aq))] and many donor atoms [>=11 in Ra(COCO)(2-)((aq))] provided a framework for stable complex
6                  The experiments based on MS COCO 2017 and self-made datasets show that, compared wit
7 3)Ra(2+) reacted with the fully deprotonated COCO(4-) chelator to generate Ra(COCO)(2-)((aq)) (log K(
8  the slow pyrolysis carbonization of nata de coco, a renewable resource.
9  A gain-of-function cDNA screen reveals that Coco, a secreted antagonist of TGF-beta ligands, induces
10 re, we demonstrate a vital role for maternal Coco, a secreted antagonist of TGFbeta signalling, in th
11                                 We find that Coco, a Xenopus DAN family member, and two TGF-beta liga
12 al changes were observed for PTU binding to [CoCo(AAP)] and [CoZn(AAP)] but not for [ZnCo(AAP)], whil
13 c absorption spectra, recorded at pH 7.5 of [CoCo(AAP)], [CoZn(AAP)], and [ZnCo(AAP)] upon addition o
14 he electronic absorption and EPR spectra of [CoCo(AAP)], [CoZn(AAP)], and [ZnCo(AAP)] were recorded i
15  of the catalytically competent [Co_(AAP)], [CoCo(AAP)], and [ZnCo(AAP)] enzymes recorded in the pres
16                              EPR spectra of [CoCo(AAP)]-1c, [ZnCo(AAP)]-1c, and [CoZn(AAP)]-1c were a
17 aramagnetic resonance (EPR) spectrum of the [CoCo(AAP)]-bestatin complex exhibited no observable perp
18                                        Thus, Coco acts as both an inhibitor and an enhancer of signal
19 logical activity, we have renamed this clone Coco, after the Spanish word meaning head.
20  using standard benchmarks, specifically the COCO and CIFAR10 datasets.
21 plate (GRP), and aberrant expression of both Coco and Pitx2c were associated with abnormal LR symmetr
22  holds true for all the beak shapes of Tree, Cocos, and Warbler Finches (three distinct genera).
23 y identified the BMP/Activin/Nodal inhibitor Coco as an enhancer of TGFbeta1 signaling.
24 damental importance for the effectiveness of CoCos as a financial stability enhancing mechanism.
25                                 Molecularly, Coco binds to TGFbeta1 and enhances TGFbeta1 binding to
26                 In contrast, di-Co(II) Bla2 (CoCo-Bla2) is substantially more active than the mono-Co
27 e found 18-crown-6-tetracarboxylic acid (H(4)COCO) bound Ra(2+), Ba(2+), and Sr(2+) to form M(H(x)COC
28 der some network structures, the presence of CoCos can increase (and not reduce) financial fragility,
29 , the OpenMonkeyPose dataset) and on humans (COCO) can.
30 sembl variant effect predictor (VEP) plugin, COCOS captures amino acid sequence alterations stemming
31 , together with inhibitors such as Lefty and Coco/Cerl2, have been shown to provide the signals that
32                                              COCO-CL can be used as a semi-independent method to deli
33                     We propose a new method, COCO-CL, for hierarchical clustering of homology relatio
34 sorption and EPR spectra of [Co_(DapE)] and [CoCo(DapE)] indicate that the first Co(II) binding site
35  interaction between the two Co(II) ions in [CoCo(DapE)] is very weak.
36         We conclude that derriere, Xnr1, and Coco define a posttranscriptionally regulated signaling
37  for normal levels of Xnr1 expression, while Coco directly inhibits both ligands.
38 ferent from that observed for L-Met binding [CoCo(EcMetAP-I)].
39                                      Whereas Coco enhances the manifestation of traits associated wit
40 et, the latest clinical trial reported by Lo-Coco et al in the New England Journal of Medicine is a p
41 nstrated that left-right patterning requires Coco exclusively on the right side, and Xnr1 and derrier
42            Mechanistic studies indicate that Coco exerts this effect by blocking lung-derived BMP lig
43 by DFT computation was CO2 -->*COOH-->*CO-->*COCO-->*COCH2 OH-->*CH2 OCH2 OH-->CH3 CH2 OH.
44 ctionalized macrocyclic oligo(cyclooctene)s (cOCOEs) in high purity and high yield by exploiting the
45 dy the role of contingent convertible bonds (CoCos) in a complex network of interconnected banks.
46                                              Coco induces a discrete gene expression signature, which
47 equential suboptimal conversions that damage CoCos investors.
48                                 We show that Coco is required to prevent Activin and Nodal signals in
49 es, inhabiting the Galapagos archipelago and Cocos Island, constitute an iconic model for studies of
50  the El Nino-Southern Oscillation (ENSO), at Cocos Island, Costa Rica, the site of multiple marine he
51 and Wolf drift primarily towards Malpelo and Cocos Islands, some reaching Costa Rica and Colombia.
52 s them a potentially optimal choice for both CoCos issuers and buyers.
53 ron paramagnetic resonance (EPR) spectra of [CoCo(MetAP)] also indicated that the Co(II) geometries a
54                              EPR studies on [CoCo(MetAP)] also revealed that at pH 7.5 there is no si
55 ersea Hunter Group that operates in Isla del Coco National Park, Costa Rica, to (1) determine the fre
56                     Corn starch (CS)/nata de coco (NDC) were hybridized with addition of glycerin as
57  the Zn2 site (ZnCo-NDM-1), as well as both (CoCo-NDM-1).
58  phases (BOAP) derived from the pyrolysis of Cocos nucifera (coconut), Syagrus coronata (licuri), and
59 ted to the real sample application in honey, cocos nucifera and egg white.
60 teristics of oil bodies from mature coconut (Cocos nucifera L.) fruit.
61 ine the biochemical constituents in coconut (Cocos nucifera L.) haustorium, a spongy tissue formed du
62                   Coexpression of a coconut (Cocos nucifera) 12:0-coenzyme A-preferring lysophosphati
63 ocarpus heterophyllus), and mature coconuts (Cocos nucifera) from different Brazilian regions (3 lots
64                               Coconut water (Cocos Nucifera) is shown to be a source of essential ele
65 ste stream from food crops, such as coconut (Cocos nucifera) shell, which is nonedible, not of use fo
66 m size) within a minute from tender coconut (Cocos nucifera) water.
67 ion of the commonly introduced coconut palm, Cocos nucifera, interrupts the flow of allochthonous mar
68 arnauba [Copernicia prunifera], and coconut [Cocos nucifera]) endocarps contain lignin polymers deriv
69 natae, Tuber curcumae and Scletrotium poriae cocos) on the cytotoxic action of Abeta(1-40) were teste
70 lina hepatica, Serpula lacrymans, Wolfiporia cocos or Dacryopinax sp.
71  from four wheat varieties grown using soil, coco-peat with nutrient solution (CNS) and water (soaked
72 he bridging water molecule, observed in the [CoCo(PfMetAP-II)] structure, is absent.
73 est anomaly next to the boundary beneath the Cocos Plate and the Caribbean Plate.
74       Many of the natural frequencies of the Cocos Plate are closely associated with the frequencies
75 ductivity of the LAB beneath the edge of the Cocos plate at the Middle America trench offshore of Nic
76                   However, subduction of the Cocos plate at the Middle American subduction system has
77                    Subduction of the central Cocos plate encounters a thick high-velocity feature ben
78 aves that traverse the deep mantle under the Cocos plate resolve structures above the core-mantle bou
79               Finite element modeling of the Cocos Plate reveals normal modes which appear consistent
80 present images of the D'' region beneath the Cocos plate using Kirchhoff migration of horizontally po
81 ns of widespread intraplate magmatism on the Cocos Plate where a thin partial melt channel was imaged
82  data sensitive to a LAB channel beneath the Cocos Plate(9).
83    The northern and southern segments of the Cocos plate, including the Mexican flat slab subduction,
84    Our expectation is that future work using COCO-Search18 will far surpass these initial efforts, fi
85                   We thoroughly characterize COCO-Search18, and benchmark it using three machine-lear
86                                 We introduce COCO-Search18, the first dataset of laboratory-quality g
87                               We benchmarked CoCo-ST against ten state-of-the-art spatial-domain-dete
88                                              CoCo-ST also effectively distinguishes cell clusters and
89 ng a target sample with a background sample, CoCo-ST detects both high-variance, broadly shared struc
90                                              CoCo-ST is accessible at GitHub.
91 mpare and contrast spatial transcriptomics' (CoCo-ST), a graph contrastive feature representation fra
92                                              Coco synergizes with TGFbeta1 in both cell culture and X
93                            In the absence of Coco, the TGF-beta signal is bilateral.
94               To highlight its significance, COCOS was applied to data from the 1000 Genomes Project.
95 und Ra(2+), Ba(2+), and Sr(2+) to form M(H(x)COCO)(x-2).
96 lactamase NDM-1, heterodimetallic analogues (CoCo-, ZnCo-, and CoCd-) of the enzyme were generated an