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1 es) and Lophotrochozoa (including snails and annelids).
2 fusiformis, an early-branching, conditional annelid.
3 ed larvae of Platynereis dumerilii, a marine annelid.
4 intermediate ventral ganglionic mass in the annelid.
5 in of larval Platynereis dumerilii, a marine annelid.
6 he leech Helobdella sp. Austin, a clitellate annelid.
7 tally even among the monophyletic clitellate annelids.
8 ied with barnacles, echinoderms, molluscs or annelids.
9 y bear no homology to the metatroch found in annelids.
10 cepted to support a direct relationship with annelids.
11 rise to the segmental ectoderm of clitellate annelids.
12 cts after their phyletic separation from the annelids.
13 d in all vertebrates and many arthropods and annelids.
14 hordate neurulation and elongation stages of annelids.
15 or head or tail amputation in amphioxus and annelids.
16 zyme complements are largely conserved among annelids.
17 ecovered as the most basal of the stem-group annelids.
18 hared with molluscs, but not with autonomous annelids.
19 during the life cycles of this and two other annelids.
20 s the most abundant sterol in gutless marine annelids.
21 organization observed in several macroscopic annelids.
22 via teloblastic divisions, as in clitellate annelids.
23 erved nature of mitochondrial genomes within annelids.
24 oes closely resemble the armature of certain annelids.
25 most recent common ancestor of chordates and annelids.
26 gical and morphological diversity in ancient annelids.
27 e taxonomic interpretations, including among annelids [1, 3], lophophorates [4], and pentastomids [5]
28 ies have been lost three times among naidine annelids, a group of small aquatic worms that typically
30 ts as the organizer of the embryonic axes in annelids, although this has never been demonstrated dire
31 ique multifunctional enzyme, from the marine annelid Amphitrite ornata dehalogenates 2,4,6-tribromoph
33 (spinose and dentate) suggest that in a pre-annelid an earlier and more complete scleritome may have
34 vertebrate, ascidian, hemichordate, mollusc, annelid and arthropod, but not in RNAs from several cnid
35 position of introns in 30 genes of a marine annelid and showed that over 60% of the introns occupy p
36 However, unlike the case found in polychaete annelid and soil nematode embryos, there is no evidence
40 her with previous studies on regeneration in annelids and amphibians, these results suggest a conserv
43 are interested in understanding whether the annelids and arthropods shared a common segmented ancest
46 erative abilities (i.e. placozoans, sponges, annelids and bryozoans) are susceptible to intron integr
47 sive plants reducing the abundance of native annelids and chordates, but not mollusks or arthropods.
51 scales has prompted comparison with various annelids and molluscs, and has been used as a template t
52 recent cooption and, since the divergence of annelids and molluscs, there has been a shift in onset o
57 ganisms from distinct taxa (a crustacean, an annelid, and a gastropod) during pulse exposures to four
59 Both "protostome" animals (e.g., mollusks, annelids, and arthropods) and "deuterostomes" (e.g., ech
60 from existing data for arthropods, mollusks, annelids, and chordates (77 species total) and found sig
62 and estimated that protostomes (arthropods, annelids, and mollusks) diverged from deuterostomes (ech
63 other lophotrochozoans, including molluscs, annelids, and nemerteans, supporting a grouping of the t
64 ngia is possibly related to panarthropods or annelids, and sheds light on the origin of segmentation
70 ms, demonstrated for the metameric brains of annelids, arthropods, and chordates and the asegmental c
71 e screen 247 animal genomes from four phyla (annelids, arthropods, mollusks, chordates), spanning 19
72 ut establishing direct links with such basal annelids as Ipoliknus at present must remain conjectural
73 olution of the trochozoans (encompassing the annelids as well as such groups as the brachiopods and m
74 Hox cluster genes are most similar to known annelid, brachiopod, and nemertean Hox gene homeodomain
75 ) have been assigned variously to stem-group annelids, brachiopods, stem-group molluscs or stem-group
76 nelida(1)) are the sister group of all other annelids but contrast with Cambrian taxa in both lifesty
77 mbryological and morphological features with annelids, but each group also has been considered as a s
78 data reveal the cell type diversity of adult annelids by single cell transcriptomics and suggest that
79 rors the former hypothesis that interstitial annelids, called archiannelids, were at the base of the
81 larval and juvenile stages of the polychaete annelid Capitella sp. I and en in a second polychaete, H
82 l and juvenile development in the polychaete annelid Capitella sp. I., a member of the third group of
83 oxC, FoxF, FoxL1 and FoxQ1 families from the annelid Capitella teleta and the molluscs Lottia gigante
84 us pharmacological inhibition studies in the annelid Capitella teleta, a sister clade to the mollusks
85 etylcholine binding protein (AChBP) from the annelid Capitella teleta, Ct-AChBP, in complex with vare
86 he published fate map of the spiral-cleaving annelid Capitella teleta, we used infrared laser cell de
90 broad FaNaC family that includes mollusk and annelid channels gated by FMRFa, FVRIamides, and/or Wami
92 e and gut [3, 4]; however, both lack primary annelid characters such as segmentation and chaetae [5].
93 many of the observed differences between the annelid classes correlate with changes in life history.
94 characters such as presence of molluscan vs. annelid cross for phylogenetic analyses is reviewed.
96 al polychaete Capitella capitata using a pan-annelid cross-species antibody to the hunchback-like gen
97 which included soft bodied organisms such as annelids, crustaceans and bivalves, mainly colonizing so
98 ur finding of a functional AChBP in a marine annelid demonstrates that AChBPs may exhibit variations
99 three closely related microscopic dinophilid annelids (Dinophilus gyrociliatus, D. taeniatus and Tril
101 nce for a metameric body plan reminiscent of annelids early in the evolutionary history of lophophora
103 Many members of the spiralian phyla (i.e., annelids, echiurans, vestimentiferans, molluscs, sipuncu
107 in protostome animals (arthropods, molluscs, annelids etc.), but a break has also been reported in so
108 lids, providing a constraint on the tempo of annelid evolution and revealing unrecognized ecological
111 la palmiformis, members of the Alvinellidae, annelid family strictly endemic to deep-sea hydrothermal
120 challenge the currently accepted paradigm of annelid hemoglobin evolution and adaptation to reducing
121 he equally cleaving embryo of the polychaete annelid Hydroides, MAPK activation was not detected in t
122 om a wide array of arthropods, molluscs, and annelids includes motifs that directly bind Gro and CtBP
126 g spiral cleaving embryos (e.g. mollusks and annelids), it has long been known that one blastomere at
128 in chemosensory-neurosecretory cells in the annelid larval apical organ and signals to its receptor,
136 y other protostomes, including the segmented annelids, molting animals (Ecdysozoa) are commonly consi
137 invertebrate groups, including molluscs and annelids-most lineages specify cell fates conditionally,
138 s the greatest number of introns observed in annelid mtDNA genomes, and possibly in bilaterians.
142 erved mode of development found in mollusks, annelids, nemerteans, entoprocts, and some marine platyh
143 e species from five more spiralian phyla-the annelids, nemerteans, phoronids, brachiopods and rotifer
144 s and shares less than 30% identity with the annelid nerve myoglobin it most closely resembles among
147 excretory organs of a phoronid, brachiopod, annelid, onychophoran, priapulid, and hemichordate that
149 rphological difference between chordates and annelids or arthropods is the opposite orientation of th
151 ed chromosome-scale genome sequencing in the annelid Owenia fusiformis with transcriptomic and epigen
153 proximodistal axis of developing polychaete annelid parapodia, onychophoran lobopodia, ascidian ampu
155 y myelin sheaths in vertebrates, oligochaete annelids, penaeid and caridean shrimp, and calanoid cope
158 med previous findings of multiple origins of annelid, placozoan and sponge RVT-IM domains and provide
160 tigate ciliary metachronism in larvae of the annelid Platynereis dumerelii, using whole-body high-spe
161 innervation of the musculature in the marine annelid Platynereis dumerilii and identify smooth muscle
162 that a highly conserved beta-catenin in the annelid Platynereis dumerilii exhibits a reiterative, ne
163 precise locations in the brain of the marine annelid Platynereis dumerilii with a success rate of 81%
164 ume of an entire three-segmented worm of the annelid Platynereis dumerilii, it yields a visually cons
165 lls in a developing invertebrate, the marine annelid Platynereis dumerilii, that converges and extend
167 ht measurements from a habitat of the marine annelid Platynereis dumerilii, we found that temporal ch
169 encing and mosaic transgenesis in the marine annelid Platynereis dumerilii, we map cellular profiles
170 te three-segmented young worms of the marine annelid Platynereis dumerilii, with a rich diversity of
176 four-eye visual circuit in the larva of the annelid Platynereis using serial-section transmission el
177 We established stable transgenesis in the annelid Platynereis, a reference species for evolutionar
183 d shell fields in brachiopods, mollusks, and annelids provide molecular evidence supporting the conse
184 lychaete that unambiguously belongs to crown annelids, providing a constraint on the tempo of annelid
187 a conservative route to genome compaction in annelids, reminiscent of that observed in the vertebrate
191 atodes, arthropods, platyhelminthes, and the annelids; some of which could comprise species complexes
193 ead-specific expression of Lox22-Otx in this annelid species supports data from two other bilaterian
194 only one pdf homolog in several mollusk and annelid species; two in Onychophora, Priapulida, and Nem
196 up the foundation for functional studies in annelid stem cells, and presents newly established techn
198 toderm in the leech Helobdella, a clitellate annelid (superphylum Lophotrochozoa) featuring stereotyp
199 s of orthonectid, a small group of parasitic annelids that live in other invertebrates, is the smalle
200 ugus and related species, are the only known annelids that survive obligately in glacier ice and snow
207 e microRNA miR-7 is perfectly conserved from annelids to humans, and yet some of the genes that it re
208 lves, advancing from reflex-driven behavior (Annelids) to associative learning (arthropods), abstract
211 nt micromeres (2d and 4d) of the oligochaete annelid Tubifex tubifex are essential for embryonic axis
218 extracellular respiratory complexes found in annelids, where they serve the same function as red bloo
227 ion-selective CLR from the hydrothermal vent annelid worm Alvinella pompejana that opens at low pH.
228 small: we find that the force exerted by the annelid worm Nereis virens in making and moving into suc
234 in signaling regulates circadian swimming in annelid worms by rhythmically activating cholinergic neu
236 d animal lineages from insects, crustaceans, annelid worms, and fishes, we find more species in linea