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1 mosome supercoiling and remove links between sister chromosomes.
2 during cell division to physically separate sister chromosomes.
3 nded DNA breaks, and improper segregation of sister chromosomes.
4 oteolysis and delayed mitotic disjunction of sister chromosomes.
5 ndergo anaphase B and successfully segregate sister chromosomes.
6 ed direct evidence for active segregation of sister chromosomes.
7 egrates, by utilizing transposon ends on two sister chromosomes.
8 nal attachment and proper segregation of all sister chromosomes.
9 experiments distinguish contacts on the two sister chromosomes.
10 nd consistent with translational symmetry of sister chromosomes.
11 nslational symmetry between newly replicated sister chromosomes.
13 annealing of DNA ends generated in different sister chromosomes after transposase nicks DNA near part
14 n studied extensively in the case of dimeric sister chromosomes and when chromosome organization is i
15 g Bacillus subtilis sporulation, segregating sister chromosomes are anchored to cell poles and the ch
17 ominant DNA markers, as would be expected if sister chromosomes are rejoined, rather than the 3:1 rat
19 to invaginate, the termini of the completed sister chromosomes are transiently held apart at the cel
23 ration after replication and movement of the sister chromosomes away from the division septum prior t
24 ought to depend on the physical proximity of sister chromosomes, because it is inhibited when chromos
25 etric form known as a "perversion." Next, as sister chromosomes become distinct parallel units, their
26 nd other effects is that thus far replicated sister chromosomes become spatially separated (individua
27 ell and acts to align and stretch duplicated sister chromosomes before their ultimate segregation int
28 poisomerase-mediated entanglements until all sister chromosomes bi-orient along the spindle apparatus
29 n response to the tension that is exerted on sister chromosomes by the forces of the spindle that wil
30 translocase that facilitates decatenation of sister chromosomes by TopIV and resolution of chromosome
33 the nuclear pore, Ig gene hypermutation, and sister chromosome cohesion have all been demonstrated or
35 e findings show that, in addition to loss of sister chromosome cohesion, successful anaphase requires
37 e cyclin B (CYC-B(S)) in Drosophila embryos, sister chromosomes disjoined normally but their anaphase
38 nome condensation and orderly convergence of sister chromosomes, diverse stress conditions prime bact
39 , formed by homologous recombination between sister chromosomes during DNA replication, are resolved
40 dinates cohesin removal with decatenation of sister chromosomes during mitosis in mammalian cells.
42 al notable pathways, including signatures of sister chromosome exchange separation and mitotic nuclea
43 Dimer replicon products have experienced a sister-chromosome exchange event in addition to deletion
44 pansion events are accompanied by reciprocal sister-chromosome exchange, producing dimeric plasmids c
45 rearrangements: simple replication slippage, sister-chromosome exchange-associated slippage, and sing
47 pleted human cells accumulate fragile sites, sister chromosome exchanges, and double strand breaks at
49 f the genome during mitosis by ensuring that sister chromosomes form bipolar attachments with microtu
51 arked differences in organization of the two sister chromosomes in the entire region between KRTAP5-6
52 s imply that segregation of Escherichia coli sister chromosomes is not a smooth continuous process bu
55 , formed by homologous recombination between sister chromosomes, normally require cell division to be
56 al steps in the resolution and separation of sister chromosomes occur at the replication terminus, wh
59 some cancer cells or in natural endocycles, sister chromosomes remain paired and produce four-strand
61 c chromosome is replicated, and as dicentric sister chromosomes segregate during mitosis, a chromosom
63 y, we demonstrate that these barriers affect sister chromosome segregation by visualizing specific ch
65 hat consequently, the arm regions of mitotic sister chromosomes separate precociously while cohesion
67 vealing a requirement for Cdc20 in efficient sister chromosome separation and chromosome-microtubule
69 nction of the protease separase in promoting sister chromosome separation, the role of separase durin
71 omosome cohesion model, replication produces sister chromosomes that are paired along much of their l
72 omologues reveal that bivalents form between sister chromosomes, the genetically identical products o
73 d Mps1, may prevent premature disjunction of sister chromosomes, the other, consisting of Bfa1 and Bu
74 oint tension magnitude for properly attached sister chromosomes to facilitate robust mechanochemical
76 ssion until microtubules attach each pair of sister chromosomes to opposite poles of the mitotic spin
77 anaphase until correct bipolar attachment of sister chromosomes to the mitotic spindle is attained.
79 tion of DNA are the driving forces that move sister chromosomes toward their respective origins, whic
80 e removal of cohesion and catenation between sister chromosomes, two physical linkages established du
82 that FtsK segregates the terminus region of sister chromosomes whether they are monomeric or dimeric
83 ough a nonrandom, zipper-like convergence of sister chromosomes, which is proposed to rely on the rec