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1 odified by whole genome duplication (causing allopolyploidy).
2 tant, especially after chromosomal doubling (allopolyploidy).
3 ompletely homologous (homoeologous) genomes (allopolyploidy).
4      Two of these events were inferred to be allopolyploidy.
5 methods, and explicitly tested scenarios for allopolyploidy.
6 , epigenetic and transcriptomic responses to allopolyploidy.
7 xa for comparing the longer term outcomes of allopolyploidy.
8 d by chromosome doubling, a process known as allopolyploidy.
9 o genomic processes that occur subsequent to allopolyploidy.
10 stem for studying the genome evolution after allopolyploidy.
11 ng the evolutionary dynamics associated with allopolyploidy.
12 uplication associated with hybridization, or allopolyploidy, allows these chromosome sets to persist
13 he species sampled are the result of genetic allopolyploidy and result from 28 distinct tetraploidy e
14 temporal progression of genomic responses to allopolyploidy and the underlying mechanisms, remain poo
15  our understanding of genome evolution after allopolyploidy, and could facilitate crop improvements t
16  Nicotiana section Repandae, which arose via allopolyploidy (approximately 5 million years ago) invol
17                           Autopolyploidy and allopolyploidy are common in many plants and some animal
18 not observed and its short-term responses to allopolyploidy are mainly manifested as a high proportio
19                 Molecular data indicate that allopolyploidy arose independently in temperate (AABB) a
20 esented, suggesting an adaptive role of some allopolyploidy-associated transcriptional changes.
21 ana is an excellent system in which to study allopolyploidy because half of the species are allotetra
22 , a prominent genetic consequence of nascent allopolyploidy, can exacerbate, diversify and perpetuate
23 ter and wider corolla tubes, suggesting that allopolyploidy could provide an escape from specialist p
24                 We reveal one shared ancient allopolyploidy event involving Populus, Salix and two si
25 yploidy events within Stachys, including one allopolyploidy event underlying the Hawaiian mints and t
26 ively recent whole-genome duplications or an allopolyploidy event.
27                     However, detecting early allopolyploidy events and understanding the specific sub
28                             Meanwhile, older allopolyploidy events tend to show biases in duplicate l
29 olution patterns following three independent allopolyploidy events.
30 ults highlight white clover as an example of allopolyploidy-facilitated niche expansion, where two pr
31                                              Allopolyploidy generates diversity by increasing the num
32                                              Allopolyploidy greatly expands the range of possible reg
33      Hybridization coupled to polyploidy, or allopolyploidy, has dramatically shaped the evolution of
34 v provided conclusive evidence for segmental allopolyploidy in B. decumbens, with strong preferential
35 as well as the effects of recent and ancient allopolyploidy in Brassica napus, on genes implicated in
36                Our findings demonstrate that allopolyploidy in itself need not be associated with inc
37            The results support the impact of allopolyploidy in miRNA-guided regulation of plant respo
38 r history of human-induced hybridization and allopolyploidy in the Swiss Alps.
39         The role of polyploidy, particularly allopolyploidy, in plant diversification is a subject of
40        We propose a "mix and match" model of allopolyploidy, in which subgenome origin drives homoeol
41                                              Allopolyploidy involves hybridization and duplication of
42                                              Allopolyploidy involves the fusion of genomes from diffe
43                                              Allopolyploidy is a prevalent process in plants, having
44                                              Allopolyploidy is an evolutionary and mechanistically in
45                                              Allopolyploidy is an important process during plant evol
46   The genomic shock hypothesis suggests that allopolyploidy is associated with genome changes driven
47        This underestimation of the extent of allopolyploidy is due in at least three cases to homogen
48                                              Allopolyploidy is formed by combining two or more diverg
49                                              Allopolyploidy is often associated with increased photos
50 oid lineages, perhaps helping to explain why allopolyploidy is so pervasive in plant evolution.
51                      A putative advantage of allopolyploidy is the possibility of differential select
52              Nascent fibre evolution, before allopolyploidy, is elucidated by comparison of spinnable
53 explained by autopolyploidy or, if there was allopolyploidy, it happened within the Californian redwo
54 se in net diversification rate; nonetheless, allopolyploidy itself is a major mode of speciation.
55 e, a deeper understanding of the kinetics of allopolyploidy may allow us to better understand both bi
56 nto genome function gained from the study of allopolyploidy may be applicable to hybrids of any type
57                          We hypothesize that allopolyploidy may have increased the likelihood of bene
58 ustness of plant cytonuclear interactions to allopolyploidy may reflect features that are general to
59                             Here we document allopolyploidy-mediated chemical defense evolution in th
60                                              Allopolyploidy often triggers phenotypic novelty and gen
61                Here, we study the effects of allopolyploidy on floral morphology in Nicotiana, using
62 his process, we explored the consequences of allopolyploidy on xenobiotic tolerance in the genus Spar
63 awaiian species may reflect the influence of allopolyploidy or of selection and adaptive divergence.
64 ain genomes from different parental species (allopolyploidy) or include multiple sets of the same gen
65                                              Allopolyploidy promotes differentiation and facilitates
66                                              Allopolyploidy resulting from hybridization and genome d
67 pproximately 60 million years (Myr) ago, and allopolyploidy reuniting divergent Gossypium genomes app
68 ary global expansion was probably enabled by allopolyploidy that accelerated genetic novelty through
69 cal framework for elucidating the underlying allopolyploidy that includes a newly adapted tool (DGS-T
70 vide evidence for the selective advantage of allopolyploidy through the fixation of intergenomic hete
71                                      Genetic allopolyploidy was documented using the characteristic p
72 ne interspecific hybridization, resulting in allopolyploidy; whereas homoploid hybrid speciation was
73 ften accompanied by nuclear genome doubling (allopolyploidy), which has been hypothesized to perturb
74                       Polyploidy, especially allopolyploidy, which entails merging divergent genomes
75 k for utilizing transcriptome data to detect allopolyploidy, which is important as it may have differ
76 badense genome advances our understanding of allopolyploidy, which will help improve cotton fiber qua
77  identify evidence for de novo adaptation to allopolyploidy within the A. arenosa sub-genome of A. su