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1 CCP with thiol at one end provides the ease of CSGMA fun
2 CCP/CSGMA electrodes were characterized using label-free
3 CCP/CSGMA electrodes were found to be selective against
4 CCPs were typified by their sphericity, small size, and
5 N-BDAN (2D CCP-BD), the bithiophene-based 2D CCP-Th exhibits a wide light-harvesting range (up to 674
6 onding biphenyl-bridged 2D CCP-HATN-BDAN (2D CCP-BD), the bithiophene-based 2D CCP-Th exhibits a wide
7 d with the corresponding biphenyl-bridged 2D CCP-HATN-BDAN (2D CCP-BD), the bithiophene-based 2D CCP-
8 rbon-linked conjugated polymer framework (2D CCP-HATN) has a nitrogen-doped skeleton, a periodical du
10 d the robust sp(2) carbon-carbon linkage, 2D CCP-HATN hybridized with carbon nanotubes shows a high c
11 r facilitated charge transfer, which make 2D CCP-Th a promising candidate for PEC water reduction.
12 ng from the shape-persistent framework of 2D CCP-HATN integrated with the electrochemical redox-activ
18 by selective engagement of FH, via CCPs 1-4, CCPs 6-8 and CCPs 19-20, with polyanion-rich host surfac
22 Chanda, Cook, and Putterman (abbreviated CCP) have now reanalyzed it, taking as a unit of analysi
26 hibition of GSK3beta accelerates CME, alters CCP dynamics and, unexpectedly, increases the rate of CC
29 without (TD) the distal leg inhibits CME and CCP dynamics by perturbing clathrin interactions with AP
34 engagement of FH, via CCPs 1-4, CCPs 6-8 and CCPs 19-20, with polyanion-rich host surfaces that bear
35 e verification, we use DASC-resolved ACs and CCPs to quantify CME progression in 11 EAP knockdown con
37 ], anti-cyclic citrullinated peptide 2 [anti-CCP-2], and RF isotypes), and sera from 99 antibody-nega
40 latives (even those negative for RF and anti-CCP-2) demonstrate reactivity to multiple ACPAs, and the
41 Women with anti-CCP-positive RA and anti-CCP-negative RA had different characteristics with regar
42 that were positive for both antibodies, anti-CCP positivity predated anti-PAD-4 positivity in 9 of 13
43 of probable clinical RA in 2 clinics as anti-CCP positivity or self-reported validated use of disease
47 hared epitopes was also much higher for anti-CCP-positive women (18.2%, as opposed to only 5.5% for w
49 ated level of any RF isotype and/or IgG anti-CCP antibodies was further associated with an enhanced b
50 e presence of any RF isotype and/or IgG anti-CCP autoantibodies together with an elevated CRP level i
53 9-2011), we evaluated the prevalence of anti-CCP positivity among 15,691 (10.2% of 161,808) WHI parti
55 sitive first-degree relatives and 8% of anti-CCP-2- negative first-degree relatives were positive for
60 for anti-cyclic citrullinated peptide (anti-CCP) antibodies and anti-mycobacterial Hsp65 antibodies.
61 IgG anti-cyclic citrullinated peptide (anti-CCP) antibodies together with an elevated C-reactive pro
62 pes, anti-cyclic citrullinated peptide (anti-CCP) antibodies, 14 cytokines and chemokines (by bead-ba
63 RP), anti-cyclic citrullinated peptide (anti-CCP) antibodies, interleukin-6 (IL-6), and soluble tumor
65 age, anti-cyclic citrullinated peptide (anti-CCP) antibody titer, disease duration, and C-reactive pr
66 for anti-cyclic citrullinated peptide (anti-CCP), a highly sensitive and specific marker for rheumat
67 s of anti-cyclic citrullinated peptide (anti-CCP), anti-citrullinated vimentin (anti-Cit-vimentin), a
69 d baseline specimens, we measured serum anti-CCP, rheumatoid factor (RF), and antinuclear antibody in
70 ectly correlated with the levels of the anti-CCP antibodies, of the Th1/Th17 cytokines, and of the co
71 ated with seropositivity for RF and the anti-CCP antibody, which was highly relevant given the associ
72 1B, was significantly associated in the anti-CCP-positive RA subgroup (P = 4 x 10(-8), OR 0.89), conf
74 ti-PAD-4 positivity was associated with anti-CCP positivity (odds ratio 5.13 [95% confidence interval
76 as opposed to only 5.5% for women with anti-CCP-negative DMARD-positive RA and 6.6% for anti-CCP-neg
80 interactions are difficult to study because CCPs display a large degree of lifetime heterogeneity an
82 to immediate neighbors, but the bend between CCPs 10 and 11 is counter to the arc traced by CCPs 11-1
87 tions in C4 and MASP-2 residues at the C345C-CCP interface inhibit the intermolecular interaction and
88 used on the three N-terminal domains (called CCPs or SCRs) of the important complement regulator, hum
89 nes the 6-member cytosolic carboxypeptidase (CCP) family that metabolizes polyglutamate side chain an
92 mbinant C4BP mutants, which (i) lack certain CCP domains or (ii) have mutations in single aa as well
93 oited to extract carcinogenic chlorophenols (CCPs) from environmental waters, and a simple and fast m
95 the rate of CCP maturation, bTfnR-containing CCPs exhibited significantly longer lifetimes than other
96 olved as a key regulatory node to coordinate CCP formation and cargo sorting and ensure high spatial
98 mutants with additional aa between different CCP domains were used to determine that the binding is m
101 lar defects upon knockdown suggest that each CCP may have a function in microtubule modification and
104 port a model in which spores actively engage CCP primarily through BclA interaction with C1q, leading
108 e more B cells with autoimmune potential for CCP than those without such HLA alleles (odds ratio 8.1,
109 rtner of endocytic proteins, is required for CCP assembly, but little is currently known about its co
110 structure yielded an S-shaped structure for CCPs 10-13 in which modules are tilted by 80-110 degrees
115 of putative PfRh4-interacting residues from CCP 1 into their homologous positions within CCP 8; stri
116 factors are likely cleaved C-terminally from CCP tandems, suggesting that not only domain architectur
119 ant for its targeting to nascent and growing CCPs, whereas the membrane-binding and curvature-generat
120 eveal that up to four consecutive homologous CCP domains (i-iv), responsible for inhibition, bind in
123 Trp residue, Trp(208) in LmP and Trp(191) in CCP, that is situated adjacent to the proximal His heme
124 zard ratio for a 1-unit change [doubling] in CCP 1.89; 95% CI 1.54-2.31; p=5.6x10(-9)) and the best m
125 y one source of the large heterogeneities in CCP dynamics and provide a mechanism for the anomalous d
126 hazard ratio (HR) for each unit increase in CCP score (range, -1.62 to 2.16) was 2.1 (95% CI, 1.6 to
127 emain as to the molecular events involved in CCP initiation, stabilization, and curvature generation.
128 sured the expression of 31 genes involved in CCP with quantitative RT-PCR on RNA extracted from forma
132 -based temporal regulatory system results in CCP maturation being delayed and/or stalled, hence impai
136 ensitive detector of phenotypic variation in CCP dynamics that is uncorrelated to the variation in bi
142 ng that baggage, AJR emphasize institutions, CCP emphasize social capital, and I identify many differ
144 d it controls specific receptor loading into CCPs by sensing when a sufficient quorum is reached.
148 ining 20 complement-control protein modules (CCPs 1-20), may be compromised by disease-linked mutatio
149 terminal complement control protein modules (CCPs 1-3) of CR1, which intriguingly also accommodate bi
150 ng of 20 complement control protein modules (CCPs), and its splice product FH-like protein 1 (FHL-1;
155 ing Cit-fibrinogen and Cit-vimentin, but not CCP-2, were associated with an increased aortic plaque b
156 equently, the catalase activity of Cta1, not CCP activity, contributes to mitochondrial H2O2 detoxifi
160 mong orthologues, a structural dependency of CCP 14 on its neighbors is suggested; this has implicati
161 to "necked"/"closed" CCVs and a doubling of CCP/CCV diameter, whereas AP2 depletion has opposite eff
163 CCPs and show that the stochastic nature of CCP assembly plays a crucial role in causing their obser
165 changes in cargo loading altered the rate of CCP maturation, bTfnR-containing CCPs exhibited signific
166 rn, NECAP recruits drivers of late stages of CCP formation, including SNX9, via a site distinct from
167 ns and their adaptors during early stages of CCP nucleation and stabilization and highlight the impor
168 s 13-14 and 14-15, the aberrant structure of CCP 13 and the variability of 13-14 linker sequences amo
171 ion to control of initiation and assembly of CCPs, EGF stimulation also elicited a Ca(2+)- and PKC-de
172 -15 and 8-15, implied flexible attachment of CCPs 8 and 9 to CCP 10 but compact and intimate arrangem
173 duct FH-like protein 1 (FHL-1; consisting of CCPs 1-7) are major regulators of the alternative pathwa
183 d visualized it with a solution structure of CCPs 1-3 derived by NMR and small angle x-ray scattering
184 12, to form a three-dimensional structure of CCPs 10-12 and validated it by small-angle X-ray scatter
185 gnals to facilitate formation of a subset of CCPs, thus modulating its own signaling and endocytosis.
189 tution mutagenesis the PfRh4-binding site on CCP 1 and visualized it with a solution structure of CCP
192 fication and ciliary function and that other CCPs are not able to compensate for the loss of one.
193 ivation of the classical complement pathway (CCP) was a primary mechanism for spore phagocytosis.
195 e for the anti-cyclic citrullinated peptide (CCP) antibodies were more likely to have moderate to sev
197 yer of thiol terminated coiled-coil peptide (CCP) linked together by the thrombin specific cleavage s
199 istic of both yeast cytochrome c peroxidase (CCP) and plant cytosolic ascorbate peroxidase (APX).
200 rystal structure of cytochrome c peroxidase (CCP) compound I (CmpI) using data obtained with the Stan
202 mplexes, which initiate clathrin-coated pit (CCP) assembly, are activated by conformational changes i
204 uantitative analysis of clathrin-coated pit (CCP) dynamics, we have evaluated the differential functi
205 to a decreased rate of clathrin-coated pit (CCP) initiation and increased lifetimes of productive CC
206 ion event starts during clathrin-coated pit (CCP) initiation and increases throughout CCP lifetime.
207 docytic cargoes control clathrin-coated pit (CCP) maturation, but it is not known how such regulation
209 s via the formation of clathrin-coated pits (CCPs) at the plasma membrane, which invaginate to form c
210 hology and kinetics of clathrin-coated pits (CCPs) by directly following their dynamics of formation,
214 ntly, Lpd localizes to clathrin-coated pits (CCPs) just before vesicle scission and regulates vesicle
216 d growth/maturation of clathrin-coated pits (CCPs) that eventually pinch off and internalize as clath
217 rs via the assembly of clathrin-coated pits (CCPs) that invaginate and pinch off to form clathrin-coa
220 in the ratio of "open" clathrin-coated pits (CCPs) to "necked"/"closed" CCVs and a doubling of CCP/CC
221 centrated at endocytic clathrin-coated pits (CCPs) via interactions with the scaffold protein interse
222 ed by the formation of clathrin-coated pits (CCPs), in which adaptors nucleate clathrin assembly.
225 water-soluble cationic conjugated polymers (CCPs), poly(phenylene ethynylene) (PPE) derivatives, are
226 hitinous materials of cicada casting powder (CCP), shrimp shell powder (SSP), squid pen powder (SPP),
228 We also estimate the lifetimes of productive CCPs and show that the stochastic nature of CCP assembly
229 iation and increased lifetimes of productive CCPs, as determined by quantitative live-cell total inte
230 White Part A HIV Care Coordination Program (CCP), launched at 28 agencies in 2009, applies multiple
232 alue of a predefined cell cycle progression (CCP) score in two cohorts of patients with prostate canc
233 k score, denoted the cell-cycle progression (CCP) score, in predicting contemporary radical prostatec
234 ion in the analysis of cytochrome c protein (CCP) and C-reactive protein (CRP (with less side interfe
236 Indeed, the complement control protein (CCP) 8 domain of C4BP, which would otherwise be sterical
237 dentified on the complement control protein (CCP) domain 1/CCP2 and CCP8 of the C4BP alpha-chains.
238 sed to show that complement control protein (CCP) domains 8 and 2 of the alpha-chain were responsible
240 sed of repeating complement control protein (CCP) domains where two to four successive domains contri
241 which consist of complement control protein (CCP) domains, similarly to the immunomodulatory HpARI an
242 s composed of 30 complement control protein (CCP) modules, organized into four long homologous repeat
243 h consists of 20 complement control protein (CCP) modules, protects self-tissue but not foreign organ
247 lution structures of overlapping recombinant CCP pairs, 10-11 and 11-12, to form a three-dimensional
248 and low-risk subset; the combined CAPRA-S + CCP score consistently predicted outcomes across the ran
249 ng data for the longer recombinant segments, CCPs 10-15 and 8-15, implied flexible attachment of CCPs
250 ollectively, our SICM-FCM findings at single CCP level, backed up by electron microscopy data, argue
251 cture with CCP 12 from the previously solved CCP 12-13 structure yielded an S-shaped structure for CC
254 activities is formed by only two successive CCPs wherein each participates in the function, albeit C
256 ) and also to nuclear DNA via its N-terminal CCP module pair (CCP1/2), tethering active IL-33 within
257 g of a ligand-binding site in the C-terminal CCPs 19-20 that is cryptic in full-length native FH.
259 urface plasmon resonance to demonstrate that CCP 1 contains all the critical residues for PfRh4 inter
260 mon trafficking components and indicate that CCP regulation by signaling receptors can operate via di
262 , named decay cofactor protein, we show that CCP functional units can be linked to design a dual-acti
269 ive model (final multivariate analysis), the CCP score and prostate-specific antigen (PSA) concentrat
273 Heterogeneity in the hazard ratio for the CCP score was not noted in any case for any clinical var
276 this study provide strong evidence that the CCP score is a robust prognostic marker, which, after ad
277 In MASP-2, an exosite located within the CCP domains recognizes the C4 C345C domain 60 A from the
278 d highlight the importance of GAK throughout CCP maturation that is consistent with GAK's multifuncti
281 plied flexible attachment of CCPs 8 and 9 to CCP 10 but compact and intimate arrangements of CCP 14 w
282 hrough BclA interaction with C1q, leading to CCP activation and opsonophagocytosis of spores in an Ig
284 ding times of cargo molecules associating to CCPs are much shorter than the overall endocytic process
287 itol phosphatase synaptojanin 1 localizes to CCPs and controls early stabilization and maturation eff
290 eves this inhibition, effectively triggering CCP scission and producing a receptor-containing endocyt
292 achieved by selective engagement of FH, via CCPs 1-4, CCPs 6-8 and CCPs 19-20, with polyanion-rich h
295 imposing CCP 12 of this 10-12 structure with CCP 12 from the previously solved CCP 12-13 structure yi
297 CCP 1 into their homologous positions within CCP 8; strikingly, this engineered binding site had an a
299 phosphate-5-kinase cannot be detected within CCPs but functions in initiation and controls the rate a