コーパス検索結果 (1語後でソート)
通し番号をクリックするとPubMedの該当ページを表示します
1 bundant birds, fishes, burrowing shrimps and polychaetes.
2 ro-dimer formation in the GKs from these two polychaetes.
3 loss from animal tissues were 20% d(-1) for polychaetes, 10% d(-1) for crabs, and 6% d(-1) for fish
6 Dehaloperoxidase (DHP) from the terebellid polychaete Amphitrite ornata is a bifunctional enzyme th
7 dehaloperoxidase (DHP), from the terebellid polychaete Amphitrite ornata is designed to catalyze the
9 (DHP), found in the coelom of the terebellid polychaete Amphitrite ornata, is a dual-function protein
10 gen transport hemoglobin from the terebellid polychaete Amphitrite ornata, is the first globin identi
11 e (DHP), discovered in the marine terebellid polychaete Amphitrite ornata, is the first heme-containi
14 rect contribution of two macrofaunal groups, polychaetes and bivalves, to methane and nitrous oxide f
15 ssemblages differed, with significantly less polychaetes and more oligochaetes in treatments exposed
16 ylsiloxane (PDMS), and organisms ranged from polychaetes and oligochaetes to bivalves, aquatic insect
17 solated mineral-free exception (e.g., marine polychaetes and squids), minerals are thought to be indi
21 sufficiently bioavailable to deposit-feeding polychaetes, and macrofauna assimilate Cs from these pol
23 g/Wnt1) in larval and juvenile stages of the polychaete annelid Capitella sp. I and en in a second po
24 uring larval and juvenile development in the polychaete annelid Capitella sp. I., a member of the thi
27 d along the proximodistal axis of developing polychaete annelid parapodia, onychophoran lobopodia, as
28 u hybridization in larvae of Chaetopterus, a polychaete annelid with a tagmatized axial body plan.
31 erns which suggest that both sea urchins and polychaete annelids use Hox genes in a very similar fash
35 e arthropods and the nonganglionic brains of polychaete annelids, polyclad planarians, and nemerteans
38 esponses in early life history stages of the polychaete Arenicola marina and found both synergistic a
40 provides the first assessment of ornamental polychaetes but more importantly highlights the issues s
41 Part of this rich diversity includes annelid polychaetes but unfortunately, our understanding of such
42 f a segmentation gene homologue in the basal polychaete Capitella capitata using a pan-annelid cross-
43 l life-history traits in the deposit-feeding polychaete Capitella teleta and extrapolate these to pos
44 holine-binding protein (AChBP) in the marine polychaete Capitella teleta, from the annelid phylum.
46 creatine kinase (CK) from a protostome, the polychaete Chaetopterus variopedatus, were elucidated an
51 s including barnacles, decapods, gastropods, polychaetes, etc.) were more universally present in muss
53 hey display many characteristics atypical of polychaete eyes, such as ciliary photoreceptors [3,4] th
56 hat without having proper nutrients from the polychaetes, female broodstock might not be ready to dev
59 r and possessed the largest jaws recorded in polychaetes from the fossil record, with maxillae reachi
60 in and it has been compared with nemerteans, polychaetes, gastropods, conodonts, and the stem arthrop
63 e provision of live feed supplement (such as polychaetes) has not been emphasized in previous studies
66 he molecular mechanism suggested for another polychaete, Hydroides elegans, highlighting likely molec
70 ed by dwelling traces of marine bivalves and polychaetes in the upper layers and sea anemones at the
71 ehaloperoxidase activities in other infaunal polychaetes, including halometabolite-producing species.
73 ic analyses, belonging to two main lineages: polychaete-infecting (5 species) and oligochaete-infecti
74 ssimilation efficiency of (137)Cs was 16% in polychaetes ingesting Fukushima sediment, up to 55% in c
76 n two noncellular tissues, mussel byssus and polychaete jaws, recent studies suggest that one natural
77 contains small molecules that mimic natural polychaete mating pheromones, evoking the mating phenoty
80 lopsis oscura and the chlorocruorin from the polychaete Myxicola infundibulum, over the pH range 3.5-
82 ly with tissue residue in the marine benthic polychaete Neanthes arenaceodentata exposed in the same
83 We have been studying one population of the polychaete Nereis (Hediste) diversicolor exhibiting inhe
84 which is released by swimming females of the polychaete Nereis succinea to activate spawning behavior
85 was significantly accumulated in the marine polychaete Nereis virens (N. virens) in the AgNP-citrate
88 s are found at hydrothermal vents, where the polychaete Paralvinella sulfincola lives on vent sulfide
90 mber and provenance of species of ornamental polychaetes (sabellids and serpulids) traded was underta
91 quantity of MeHg in benthic chironomids and polychaetes seems to be driven by MeHg accumulation via
92 fluid dynamics for three species of swimming polychaetes, spanning two orders of magnitude in size.
93 and molecular analyses show that two further polychaete species are shared with vents beyond the Indi
95 time of AP pattern formation in leech and in polychaete suggests that the anterior organizing functio
96 worm, Sabellaria alveolata, a reef-building polychaete that supports high biodiversity, we carried o
97 To our knowledge, Dannychaeta is the oldest polychaete that unambiguously belongs to crown annelids,
98 , which inhabits estuary mudflats with other polychaetes that secrete a range of toxic brominated phe
99 Fan worms (Annelida: Sabellidae) are sessile polychaetes that spend their adult lives in tubes and pr
100 low oxygen levels on the feeding ecology of polychaetes, the dominant macrofaunal animals in deep-se
101 tes, and macrofauna assimilate Cs from these polychaetes to account for >90% of their body burden.
103 umbricus terrestris and Tubifex tubifex, the polychaetes Tylorrhynchus heterochaetus, Arenicola marin
108 ette filter toxicants and microfibres on the polychaete worm Hediste diversicolor (ragworm), a widesp
111 cone snail, Conus imperialis Using the model polychaete worm Platynereis dumerilii, we demonstrate th
112 the dominance and distribution of the known polychaete worm species living in a naturally acidic sea
113 on metals zinc and copper in the jaws of two polychaete worm species Nereis and Glycera, respectively
116 n vent ecosystems in other oceans, including polychaete worms (Siboglinidae), bathymodiolid mussels,
118 bioeroding sea urchins and burrowing fauna (polychaete worms, bivalve mollusks) increased from N to