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1 osome significantly more frequently than the acrocentrics.
2 d the two shortest chromosomes (2 and 4) are acrocentric and carry NORs subterminally in their short
3 rangements, which led to transitions between acrocentric and metacentric chromosomes in both directio
9 ic two-thirds of dog chromosome 9 (CFA9), an acrocentric chromosome of medium size: P4HB, GALK1, TK1,
11 ly unresolved sequences, representing entire acrocentric chromosome short arms, gene family expansion
16 nsidered, especially for cases involving the acrocentric chromosomes 14 and 15, in which UPD is assoc
18 mally located on the short arms (p11) of the acrocentric chromosomes and other heterochromatic region
19 fic segmental duplications, centromeric DNA, acrocentric chromosomes and subterminal heterochromatin.
20 including the pericentromeric regions of the acrocentric chromosomes and the heterochromatic portion
21 I (SatIII) DNA subfamilies cloned from human acrocentric chromosomes arose in the Hominoidea superfam
22 mensional preserved nuclei showed that human acrocentric chromosomes associate with hybrid cell nucle
25 arm and one on the distal long arm, whereas acrocentric chromosomes exhibit a single site on the dis
26 tions of 1q10 to the short arms of different acrocentric chromosomes have also been identified, inclu
28 ial participation of the telomeres of the 15 acrocentric chromosomes in the Rabl configuration after
29 t within human nuclei, positioning of all 10 acrocentric chromosomes is dictated by nucleolar associa
30 ignals of recombination between heterologous acrocentric chromosomes seen in the HPRC draft pangenome
31 d and sequenced rDNA fragments from specific acrocentric chromosomes to (1) study homogenization alon
32 nfined to long chromosome arms, transforming acrocentric chromosomes to (sub)metacentric chromosomes.
33 ned the nuclear location of individual human acrocentric chromosomes, and their associated NORs, in m
34 duplications, and the short arms of all five acrocentric chromosomes, unlocking these complex regions
35 eats on 4q and those adjacent to rDNA on the acrocentric chromosomes, we investigated whether the FSH
36 se as a result of a telomeric fusion between acrocentric chromosomes, whereas chromosomes 4 and 19 in
37 oximal telomeres on the short arms of the 15 acrocentric chromosomes, which are apparently composed p
38 r organizing regions (NOR) of the five human acrocentric chromosomes, ~50% remain transcriptionally i
54 raph(5) constructed from centromere-spanning acrocentric contigs indicates the presence of regions in
55 c chromosomes between centromere pairs forms acrocentric derivatives, (ii) de novo capping of newly s
57 s, (ii) de novo capping of newly synthesized acrocentric ends with telomeric DNA stabilizes these der
60 otype, like that of the human and unlike the acrocentric mouse, has enabled us to demonstrate that th
61 iety of chromosomal rearrangements involving acrocentric p-arms and observe silent, rDNA-containing N
62 ase, and found that nucleolar association of acrocentric p-arms can occur independently of rDNA conte
64 reviously recalcitrant to sequencing such as acrocentric p-arms, ribosomal DNA arrays, and telomeric
65 uniparental disomy (UPD) associated with an acrocentric rearrangement, carriers are presumed to be a
70 Our results show that various regions of the acrocentric short arm, and, particularly, satellite III