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1 We report the cloning of fission yeast mcm3 +.
2 associate with Mcm2-7 via interactions with Mcm3.
3 whose action is mediated by interaction with MCM3.
4 n bind to chromatin through interaction with MCM3.
5 We have characterized two mutant alleles, mcm3-1 and mcm3-10, in Saccharomyces cerevisiae and show
7 t Mcm3-10 is defective in a step before, and Mcm3-1 is defective in a step after the recruitment of t
11 characterized two mutant alleles, mcm3-1 and mcm3-10, in Saccharomyces cerevisiae and showed that the
12 ubiquitination by uba1-165, a suppressor of mcm3-10, restored the interaction of Mcm3-10p with subun
13 ssor of mcm3-10, restored the interaction of Mcm3-10p with subunits of the MCM complex and its recrui
15 ic core of the Mcm complex and that Mcm2 and Mcm3/5 may be involved in the regulation of the activity
16 e results, the interaction of either Mcm2 or Mcm3/5 with the Mcm4/6/7 complex resulted in the disasse
18 R-Cas9-mediated PrL->VTA projection-specific Mcm3/7 knockdown attenuated ESI-potentiated heroin-seeki
21 of the minichromosome maintenance protein 3 (MCM3), a component of the hexameric MCM DNA helicase.
26 therefore confused in databases because the MCM3 acetylase DNA sequence is contained entirely within
30 ation of KEAP1-interacting proteins revealed MCM3, an essential subunit of the replicative DNA helica
37 m5-bob1) strengthens the interaction between Mcm3 and Mcm5 and allows cells to enter S phase independ
38 n of Sld3 that is specifically defective for Mcm3 and Mcm5 interaction (sld3-m10), and also identifie
40 ing cell cycle and DNA damage response, with Mcm3 and Mcm7 (minichromosome maintenance proteins 3/7)
43 ow that members of the replicative helicase (Mcm3 and Mcm7) play a role in silencing and physically i
47 leotide reductase 2, thymidylate synthetase, MCM3, and MCM7 genes, but actin RNA was not affected.
49 rofiles of the licensing factors Orc2, Orc3, Mcm3, and Mcm7 with gene expression, replication timing,
51 e sites of KEAP1-dependent ubiquitylation in MCM3, and these sites are on predicted exposed surfaces
55 ns for KEAP1 within the nucleus and identify MCM3 as a novel substrate of the KEAP1-CUL3-RBX1 E3 liga
56 The results reported establish that MCM2 and MCM3 assemble into homohexamers and exhibit DNA binding,
58 treatment, the inhibitory phosphorylation of MCM3 at Ser-205 was reduced, and this reduction was acco
59 -tagged dsDNA to selectively enrich a stable MCM3-ATP-dsDNA complex for cryoEM structure determinatio
61 minichromosome maintenance complex protein, MCM3, bound TR in late-G(1)/S-arrested cells, which coin
64 forms and that distinct isoforms of Mcm2 and Mcm3 can be detected at specific stages of the cell cycl
65 on in cells, and impaired recruitment of the MCM3 complex to the oriP Surface conservation analysis r
67 3 + is essential and spores carrying a Delta mcm3 disruption arrest with an apparently replicated DNA
71 iability, but all attempts to delete TK1620 (MCM3) have been unsuccessful arguing that that MCM3 is e
73 with Stat1, suggesting that the presence of MCM3 in the group of Stat1TAD-interacting proteins is du
74 ated the carboxyl termini of mMCM3 and human MCM3 in vivo and the phosphorylated form of MCM3 retaine
75 ntain a cohesin-interaction motif from human MCM3 induce cohesin pausing, indicating that MCMs are 'a
78 KEAP1 targeting motif in MCM3 suggests that MCM3 is a point of direct contact between KEAP1 and the
80 M3) have been unsuccessful arguing that that MCM3 is essential and is likely the replicative helicase
85 1, coinciding with nucleosome remodeling and MCM3 loading, and preceding the onset of DNA replication
86 at the carboxyl terminus of chromatin-loaded MCM3 may be sequestered from ATM-dependent checkpoint si
90 prereplication complex proteins Orc1, Orc2, Mcm3, Mcm7, and Cdc6 and the novel DNA unwinding element
92 Ser-732) in the carboxyl terminus of murine MCM3 (mMCM3) and that ATM phosphorylates both sites in v
98 ensis mini-chromosome maintenance complex 3 (MCM3) on cryoEM grids through biotinylation and resolved
99 x undergoes dephosphorylation, and the Mcm2, Mcm3, or Mcm6 subunits are then actively phosphorylated
100 horylation sites are conserved in vertebrate MCM3 orthologs suggesting that this motif may serve impo
102 d ATR jointly contribute to UV light-induced MCM3 phosphorylation, but that ATM is the predominant UV
103 romotes net export by phosphorylation of the Mcm3 portion of this module and that nuclear export of t
104 etermined that KEAP1 does not regulate total MCM3 protein stability or subcellular localization.
106 was related to the time when Orc1, Orc2 and Mcm3 proteins became stably bound to hamster chromatin.
107 s redundancy, we see multiple sites bound to MCM3 (representative of the helicase) in the region flan
108 MCM3 in vivo and the phosphorylated form of MCM3 retained association with the canonical MCM complex
109 t a specific serine/threonine residue in the MCM3 subunit of CMG, which has been previously linked to
110 Here we report that Chk1 phosphorylates the MCM3 subunit of the MCM complex at Ser-205 under normal
111 Our analysis of a KEAP1 targeting motif in MCM3 suggests that MCM3 is a point of direct contact bet
112 lear localization signals (NLSs) on Mcm2 and Mcm3 that are each necessary, but not sufficient, for nu
113 ential, conserved carboxy-terminal domain of Mcm3 that interacts with and stimulates the ATPase activ
115 ffect steady-state levels of chromatin-bound MCM3, the ATM-phosphorylated form of MCM3 was preferenti
117 icate that only a small fraction of Mcm2 and Mcm3 tightly associates with chromatin, from late M phas
120 n-bound MCM3, the ATM-phosphorylated form of MCM3 was preferentially localized to the soluble, nucleo
124 and further examine one replication protein, Mcm3, where a cluster of consensus sites near a nucleocy
125 complexes with the same kinetics as MCM7 and MCM3, where they associated specifically with MCM7.
127 rylation of Ser-112 triggers the assembly of MCM3 with the remaining MCM subunits and subsequent chro