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1 facilitate rapid range expansion of a native anuran.
2 te in the sequence of metamorphic changes in anurans.
3 gastrulation, differing in this regard from anurans.
4 signals is essential to call recognition in anurans.
5 about the ancestral developmental pattern in anurans.
6 g that tadpole gigantism occurred among stem-anurans.
7 es transmission of parental skin microbes in anurans.
8 d no such effect on postmetamorphic juvenile anurans.
9 gically relevant and widespread in arid-zone anurans.
10 l events in limb formation in metamorphosing anurans.
11 on selectivity and acoustic communication in anurans.
12 n theory (e.g., mammals [1-5]; birds [6, 7]; anurans [8, 9]), but this does not usually include alarm
15 the third most common infectious disease of anurans after ranavirus infections and chytridiomycosis.
16 on, and connectivity the subdivisions of the anuran alar hypothalamus possess many features shared wi
18 ell proliferation throughout the brain of an anuran amphibian using 5-bromo-2'-deoxyuridine (BrdU).
20 ogy of putative receptors in the brain of an anuran amphibian, the male bullfrog (Rana catesbeiana).
21 is the major component of social behavior in anuran amphibians (frogs and toads) and has served as a
24 two low-frequency-tuned inner-ear organs in anuran amphibians - the amphibian papilla and sacculus,
27 frogs (family Dendrobatidae) are terrestrial anuran amphibians displaying a wide range of coloration
29 iverse and phylogenetically ancient group of anuran amphibians that include important vertebrate cell
30 udy analyzes the main features of the BST in anuran amphibians to establish putative homologies with
35 aggregates (LAs) were found in the mucosa of anuran amphibians, suggesting that O-MALT evolved from a
37 and regulation of neuromodulatory systems in anuran amphibians, tracing and immunohistochemical inves
43 ere we assessed calling activity of tropical anurans and addressed how species composition varied dur
44 apod limb development, urodeles deviate from anurans and amniotes in at least two key respects: their
45 n across all three limb axes, in contrast to anurans and amniotes where Fgf-signaling regulates cell
46 ions influence colour lightness evolution in anurans and filtered for more similarly coloured species
47 nt in the early evolutionary history of stem-anurans and has remained stable for at least 161 million
48 be more segregated than in elasmobranchs and anurans and have some surprising similarities to those i
49 as an immunostimulatory agent as it does in Anurans and mammals, nor did it affect keratinocyte migr
50 ensive assessment of their occurrence across anurans and performed ancestral character state reconstr
51 ny species with primary growth oocytes, e.g. anurans and reptiles, to predict maturity stages in fema
52 dentify a "large size-wide skull" pattern of anuran, and possibly amphibian, evolutionary allometry.
55 polymorphism in the ecology and evolution of anurans, and provides a framework for future research on
56 predators of invertebrates (birds, lizards, anurans, and spiders), seed predators (rodents), and her
57 t in all genera of dendrobatids and in other anurans, and to its unnatural enantiomer, PTX (-)-251D.
62 he variation of calling activity in tropical anuran assemblages suggest potential trade-offs mediated
68 However, we present here evidence that two anurans, Brachycephalus ephippium and B. pitanga, are in
71 Together, these results suggest that the anuran CeA evaluates the valence of acoustic cues and in
72 ation consistent the function of PTX 251D in anuran chemical defense against ectoparasitic arthropods
73 ative analyses reveal 13 conserved ancestral anuran chromosomes from which contemporary frog genomes
74 gative effect of anthropogenic vibrations on anuran communication, and the urgent need for further in
76 hat Pr may be under-recognized as a cause of anuran declines, especially in the context of pathogen c
77 f Se (and other metal and metalloids) during anuran development and the implications of transference
78 hological changes during embryonic stages of anuran development have been well documented, much less
81 tionships between envelope components of the anuran egg, and provide further evidence supporting the
82 k sensitivity of green-sensitive rods in the anuran eye, likely increasing contrast of this signal fo
83 ces from six frog species representing three anuran families (Hylidae, Centrolenidae and Ranidae).
89 ow that the occurrence of high biliverdin in anurans (frogs and toads) has evolved multiple times dur
90 class of auditory neurons in the midbrain of anurans (frogs and toads) responds only to a series of s
91 the genetic diversification patterns of both anurans genera and the existence of paleodrainage system
92 up of mostly diurnal leaf-litter Neotropical anurans has both toxic/colorful and palatable/cryptic sp
95 d from bullfrogs are more virulent in native anuran hosts compared to genotypes isolated from native
96 n greatest in large-bodied, range-restricted anurans in wet climates in the Americas and Australia.
99 Our results suggest that MHC evolution in anurans is a dynamic process and that variation in numbe
101 The extent of cellular proliferation in anurans is similar to that of fishes and reptiles and th
102 n of an ossifying hypochord to the coccyx in anurans is unique among vertebrates and remains a develo
105 mong a predator-prey system of dragonfly and anuran larvae in tropical montane (242-3,631 m) and habi
106 ess the susceptibility of several species of anurans, lizards, and fish as paratenic hosts for Dracun
109 of tissue degeneration and remodeling during anuran metamorphosis as a mechanism for altering tissue-
111 s that appear to be common to salamander and anuran metamorphosis, and also highlight clear transcrip
114 ts can increase the adverse effects of Bd on anurans, no studies have examined the interactive effect
115 e we report a late-stage tadpole of the stem-anuran Notobatrachus degiustoi from the Middle Jurassic
117 Amphibian Perkinsea (Pr) is a worldwide anuran pathogen associated with mass mortality events, y
118 tory of cranial hyperossification across the anuran phylogeny, and tested for relationships between e
119 e establish Pr infection patterns in natural anuran populations and identify important covariates inc
121 wed both unambiguous characterization of the anuran pretectal nuclei with regard to their origin in t
122 difficulty exists in Xenopus tropicalis, an anuran quickly becoming a relevant model for genetic, ge
124 code and Sxph family expansion among diverse anurans separated by ~140 My of evolution provides a mol
125 ts illustrate that the basal hypothalamus of anurans shares many features of specification, regionali
127 rval fitness traits were investigated in two anuran species (Bufo calamita and Rana temporaria) under
128 The SPI mortality events affected numerous anuran species and occurred over a broad geographic area
131 may alter the post-embryonic development of anuran species in freshwater environs, where IBF is a pe
135 Dracunculus L3s were recovered from four anuran species, two lizard species, and one fish species
136 approximately 10x greater than in two other anuran species, which do not produce foot flags (Rana pi
140 interactive effects of pesticides and Bd on anuran survival and no effects of pesticides on infectio
141 ely considered to be the juvenile hormone of anuran tadpoles and to counteract the effects of thyroid
142 easing threat to amphibian populations, with anuran tadpoles being particularly susceptible to these
148 of alkaloids that are found in virtually all anurans that are chemically defended by the presence of
151 e important functions of colour lightness in anurans - thermoregulation, pathogen and UVB protection
152 preaxial dominance, whereas in amniotes and anurans, these developmental sequences are reversed.
156 n the developmental changes that lead to the anuran urostyle, with an emphasis on understanding the o
157 investigated the taphonomy of the Geiseltal anurans using diverse microbeam imaging and chemical ana
158 glossal nerve is a derived characteristic of anurans, which has resulted from the re-routing of affer
160 d prior to the divergence of salamanders and anurans, while others fused independently and randomly a
163 t modifications in seven tissue types of the anuran Xenopus laevis, including oocyte, egg, sperm, ear
165 as been successfully applied to a variety of anurans, yet the approach has seen limited use for inter