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1 the endemic moth genus Hyposmocoma are truly amphibious.
2   Many species are aquatic; perhaps most are amphibious.
3 ene-to-Recent proboscideans are derived from amphibious ancestors.
4 h major mammalian aquatic lineage and infers amphibious ancestries of echidnas, moles, hyraxes, and e
5 e for which a skeleton was known was clearly amphibious and lived in coastal environments.
6 ating such evolutionary novelty because this amphibious ecology is unknown anywhere else.
7 i in the lungs of the American alligator, an amphibious ectotherm without air sacs, which suggests th
8    However, modern horseshoe crabs undertake amphibious excursions onto land to reproduce [12], rende
9 arwater and petrel relatives, despite having amphibious eyes(2), and an a priori mass advantage for o
10 verage mudskippers (Oxudercinae), a clade of amphibious fishes that have convergently evolved blinkin
11                              Mudskippers are amphibious fishes that have developed morphological and
12  the animal transforms from an aquatic to an amphibious form.
13  whose primitive skeleton indicates possible amphibious habits.
14 by the opposing selective pressures of their amphibious habits.
15                                   Such truly amphibious insects are unrecorded.
16 accular input alone during the transition to amphibious life.
17 ransitions from a strictly terrestrial to an amphibious lifestyle across small mammals (Afrosoricida,
18  indicating that monotremes first evolved an amphibious lifestyle in the Mesozoic, and providing supp
19  89 species of Hyposmocoma reveals that this amphibious lifestyle is an example of parallel evolution
20 ually high photosynthetic capacities through amphibious lifestyles and numerous anatomical convergenc
21 nsight into ecological plasticity, including amphibious lifestyles.
22 erians acquired physiological adaptations to amphibious lives by such regulation of the body fluids.
23 noids in the Cambrian and Ordovician reveals amphibious locomotion in tidal environments and fills a
24 ed robot that can morph its limbs' shape for amphibious locomotion.
25                                  Aquatic and amphibious mammals face olfactory and thermoregulatory c
26 ized that to cope with aquatic environments, amphibious mammals have expanded their thermoregulatory
27                                  Inspired by amphibious mammals that use air plastrons for thermal in
28 ndition and (2) evidence for a predominantly amphibious or fossorial mode of life in Pappochelys, whi
29 here are no indications that it was aquatic, amphibious, or unusual with respect to the ecology or be
30       Here we report a magnetically actuated amphibious origami millirobot that integrates capabiliti
31                            We anticipate the amphibious origami millirobots can potentially serve as
32                                              Amphibious plants are adapted to both aerial and aquatic
33             In general, underwater leaves of amphibious plants are devoid of stomata, yet their molec
34                                   We suggest amphibious refraction and protection from UV irradiation
35 nts when compared with their terrestrial and amphibious relatives.
36 sea snakes, plus eight independently marine, amphibious sea kraits [1].
37 Using the emerging model of the Brassicaceae amphibious species Rorippa aquatica, we lay the foundati
38  the thermoregulatory-olfaction trade-off in amphibious species.
39 system transitions, or the development of an amphibious symbiotic ecosystem.
40 d with gains in thermoregulatory capacity in amphibious taxa sampled from across mammalian phylogenet
41  spectrum from entirely terrestrial, through amphibious, to highly aquatic.
42 he physiological and ecological diversity of amphibious yeasts and their key evolutionary adaptations