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1 ermination (UV systems, as in some algae and bryophytes).
2 a vascular plant reported to transpose in a bryophyte.
3 ast to angiosperms, unisexuality prevails in bryophytes.
4 served among vascular plants, but not in the bryophytes.
5 implications for mating system evolution in bryophytes.
6 rasses, dicotyledons, ferns, Selaginella and bryophytes.
7 ation of maternal chloroplast inheritance in bryophytes.
8 d back to a time after the divergence of the bryophyte and spermatophyte lineages, but before the spl
10 , PGDD contains data for 26 plants including bryophytes and chlorophyta, as well as angiosperms with
11 evidenced by the conserved gene order among bryophytes and lycophytes, whereas ferns, gymnosperms, a
15 previously observed in other DT green algae, bryophytes and resurrection plants, other traits being d
16 are transitional evolutionary grades between bryophytes and seed plants, and has important implicatio
17 hese involved the evolution of embryophytes (bryophytes and tracheophytes) from a charophycean ancest
18 ompass a pool of diversity from which modern bryophytes and vascular plants emerged, but were competi
21 targeting mammals, fish, amphibians, birds, bryophytes, arthropods, copepods, plants and several mic
22 sperms, gymnosperms, pteridophytes, and some bryophytes as a strategy for enhancing phosphate acquisi
24 es have identified liverworts, hornworts and bryophytes as each being the first lineage of land plant
26 COS (A(S) ) uptake rates from two astomatous bryophytes at different relative water contents (RWCs),
28 predicted protein-protein interactome for a bryophyte based on the interolog method contains 67,740
33 arose by convergence in vascular plants and bryophytes, but the trajectory of branching form diversi
35 onal genetic studies between angiosperms and bryophytes can define those genetic changes that were re
39 eptophyta includes the Charophyceae plus the bryophytes, ferns, and all other multicellular land plan
43 he land plants and the mechanisms regulating bryophyte gametophytic shoot development are largely unk
44 he Huperzia chloroplast genome possesses the bryophyte gene order for a previously characterized 30 k
45 es diverged substantially in the nonvascular bryophyte groups (liverworts, mosses and hornworts), wit
47 portunity for postfertilization selection in bryophytes having short fertilization distances and spat
50 ascular plant lineage after diverging from a bryophyte-like ancestor nearly 500 million years ago.
51 s the hypothesis that early land plants were bryophyte-like and possessed a dominant gametophyte and
53 esent evidence for neochrome in hornworts (a bryophyte lineage) and demonstrate that ferns acquired n
57 ntial existence of CHI proteins in the basal bryophyte liverwort species and the lycophyte Selaginell
60 s (PUCs; e.g., epilithon, filamentous algae, bryophytes, macrophytes) in human-impacted aquatic ecosy
61 untries, the proportions of vascular plants, bryophytes, mammals, reptiles, dragonflies, and grasshop
62 s received almost no research attention, the bryophytes manifest a wide range of developmental respon
64 results suggest that ecosystems dominated by bryophytes might be strong atmospheric sinks of COS at n
65 ubstantial pretracheophyte fossil record for bryophytes (otherwise predicted by molecular systematics
67 regulation of spore germination in the model bryophyte Physcomitrella patens (Aphanoregma patens).
70 toolbox genes, and manipulation in the model bryophyte Physcomitrella patens has shown that the bHLH
71 g most phases in the life cycle of the model bryophyte Physcomitrella patens, including detailed spor
75 growth is essential for land colonization by bryophytes, plant sexual reproduction and water and nutr
76 on-year history of plants on land belongs to bryophytes, pteridophytes and gymnosperms, which eventua
77 has important implications for understanding bryophyte reproduction, suggesting the presence of a sig
78 Overall, this genome and those of other 2 bryophytes show that mitochondrial genomes in early land
79 en hypothesized that predecessors of today's bryophytes significantly increased global chemical weath
80 size that, as in gymnosperms, the low extant bryophyte species richness also results from massive ext
81 do not fully account for current patterns of bryophyte species richness, and we hypothesize that, as
82 ression in natural populations of a dioicous bryophyte species, Sphagnum lescurii, using microsatelli
83 We also show that a major component of the bryophyte submergence response is controlled by the phyt
86 reen alga group closest to the land plants), bryophytes (the most basal land plants), pteridophytes (
87 ding demonstrates the totipotent capacity of bryophytes, the ability of a cell to dedifferentiate int
88 rial plants, possibly early relatives of the bryophytes, this interpretation remains controversial as
89 yscomitrella patens UVR8 in experiments with bryophyte tissue and expression of green fluorescent pro
91 ametophyte generation-dominant life cycle in bryophytes to a diploid sporophyte generation-dominant l
92 green algae and most basal land plants, the bryophytes, we evaluated the presence of this signaling
93 dicotyledonous angiosperms, gymnosperms, and bryophytes, were produced in insect cells, and each CslA
94 AT4/6/8 arose early in land-plant evolution (bryophytes), whereas the phosphatase-minus GPAT1 to -3 a
95 lts emphasize the unrecognized resilience of bryophytes, which are commonly overlooked vis-a-vis thei
96 Unraveling the macroevolutionary history of bryophytes, which arose soon after the origin of land pl
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