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1 in, and pons of the minke whale, a mysticete cetacean.
2 we examined allelic variants of the MC4R in cetaceans.
3 etrapods, comparable in diversity to today's cetaceans.
4 on of noise-induced hearing loss in stranded cetaceans.
5 ochondrial mutation rates that are common to cetaceans.
6 reat apes, elephants, and some large-brained cetaceans.
7 ase states and breath metabolite profiles in cetaceans.
8 pigs and peccaries (that is, Suina) than to cetaceans.
9 r than phylogenetically derived estimates in cetaceans.
10 ry (asymmetrical SWS or ASWS) as observed in cetaceans.
11 resembling the unihemispheric slow waves of cetaceans.
12 he fin whale genome and analysed FGFs from 8 cetaceans.
13 t alternative mechanisms may have evolved in cetaceans.
14 ociated with gastritis and clinical signs in cetaceans.
15 velopment of gastric ulcers and gastritis of cetaceans.
16 can be obtained for physically unrestrained cetaceans.
17 wide variety of animal taxa, from insects to cetaceans.
18 mpling for remotely assessing health of wild cetaceans.
19 k mobility as suggested for rhinoceroses and cetaceans.
20 hus implicating FGF23 in low bone density in cetaceans.
21 al sleep phenomenology present in odontocete cetaceans.
22 one of the most important viral pathogens in cetaceans.
23 closest extant terrestrial relatives of the cetaceans.
24 n the suppression of REM sleep in odontocete cetaceans.
25 n the peripheral blood leukocytes in captive cetaceans.
26 r of animal species ranging from primates to cetaceans.
27 ng ecology, energy balance, and body size in cetaceans.
28 a large clade of carnivores, ungulates, and cetaceans.
29 th indicatora potential health indicator for cetaceans.
30 titors and potential predators of many other cetaceans.
33 acutus) and from the feces of three captive cetaceans (a Pacific white-sided dolphin [Lagenorhynchus
36 nter (NOAA) conducted six ship line-transect cetacean abundance surveys in the California Current off
38 mation about a possible pathogenic branch of cetacean alphaherpesviruses that might be responsible fo
39 concentration-response experiments with PB, cetacean and seal spp. immune cells to evaluate the effe
40 for the first time in southwestern Atlantic cetaceans and in contrast to North American marine mamma
41 n phylogeography and demographic history for cetaceans and other vertebrates, despite great uncertain
43 ift-generating flipper-stroke for propulsion cetaceans and provides an additional function for the un
44 ong vertebrates, only microchiropteran bats, cetaceans and some rodents are known to produce and dete
45 lated to the recent massive killing of small cetaceans and to the continuing incidental catches in co
46 oceti: Phocoenidae) are some of the smallest cetaceans and usually feed near the seafloor on small fi
51 ning species (such as humans and some birds, cetaceans, and pinnipeds, but not nonhuman primates) are
53 ca) can be potential predators of many other cetaceans, and the interception of their vocalizations b
55 ms such as cichlids, coelacanths, seals, and cetaceans are active in UV-blue color environments, but
63 ) the remaining orders of placental mammals (cetaceans, artiodactyls, perissodactyls, carnivores, pan
64 egacy of noise overexposure in mass stranded cetaceans as a key to understanding the complex processe
65 n serve as an indication of health status in cetaceans as it occurs prior to alterations in hematolog
66 between brain mass and GI was evident in the cetaceans as seen in other mammals, with all cetaceans s
68 pregnant females in several species of wild cetaceans: Balaenapteraacutorostrata , Delphinusdelphis
73 has been linked to demethylation of MeHg in cetaceans, but its role in attenuating Hg toxicity in be
77 me echolocating bat species and echolocating cetaceans, contrasting with purifying selection on non-e
78 gas-forming disease afflicting some stranded cetaceans could be a type of decompression sickness (DCS
81 he recent and diverse radiation of delphinid cetaceans (dolphins) represents a good example of this.
82 arnivores, perissodactyls, artiodactyls, and cetaceans (e.g., 100% bootstrap value with both maximum
83 imple, two-dimensional ray-dynamics model of cetacean echolocation to examine the role played by coas
87 l competence, developed quickly and early in cetacean evolution, as soon as the taxa are associated w
88 ed a key 'point of no return' event in early cetacean evolution, leading to full independence from li
92 es the existence of a fossil lineage linking cetaceans (first known in the early Eocene) to hippos (f
94 eting our results in the context of both the cetacean fossil record and the known functions of Shh su
95 ined African elephant and several species of cetaceans (from smaller to larger brained) in comparison
98 g naivety has made this cryptic, deep-diving cetacean highly susceptible to disturbance, although qua
100 cological transitions dominate each phase of cetacean history, this context is rarely stated explicit
103 This methodology may hold promise for large cetaceans in the wild for which routine collection of bl
105 he impact of noise over-exposure in stranded cetaceans is challenging, as the lesions that lead to he
107 ius), one of the closest extant relatives to cetaceans, is a large African even-toed ungulate (Artiod
111 recent discovery of rod monochromacy in some cetacean lineages provides a novel opportunity to invest
112 he MC4R from representative species of major cetacean lineages uniquely associated with the toothed w
113 ed bone density, is greatly increased in the cetacean liver under hypoxic conditions, thus implicatin
115 digestive and immune system functioning, yet cetacean microbiomes remain largely unexplored, in part
116 ntity plays an important role in structuring cetacean microbiomes, even at fine-scale taxonomic level
118 ry transition that occurred independently in cetaceans, mosasauroids, chelonioids (sea turtles), icht
119 us associations between naval activities and cetacean MSEs, and an absence of other identifiable fact
120 of other identifiable factors known to cause cetacean MSEs, indicates naval activity to be the most p
121 sity data set, we show that much of observed cetacean paleodiversity can indeed be explained by diato
123 te change and marine exploitation on current cetacean populations may benefit from insights into what
126 ception of their vocalizations by unintended cetacean receivers may be particularly important in medi
127 ception of their vocalizations by unintended cetacean receivers may trigger anti-predator behavior th
131 cetaceans as seen in other mammals, with all cetaceans showing similar GIs irrespective of brain mass
132 ing any particular artiodactyl family as the cetacean sister group and supports monophyly of artiodac
134 es indicate that VEN volume follows in these cetacean species a pattern similar to that in hominids,
140 limate change on the geographic range of ten cetacean species in the eastern North Atlantic and to as
141 show that the distribution of VENs in these cetacean species is comparable to that reported in human
143 With the technique now validated for these cetacean species, blubber P4 is a reliable diagnostic of
144 hod to reproducibly sample breath from small cetaceans, specifically Atlantic bottlenose dolphins (Tu
147 that a number of coastlines known to attract cetacean strandings produce acoustical "Dead Zones" wher
148 are found in species representative of both cetacean suborders in addition to hominids and elephants
149 ence in the Prestin gene among some bats and cetaceans suggest that parallel adaptations for high-fre
150 ic amniote groups (sea snakes, sirenians and cetaceans), suggesting that this mode of sex determinati
151 integrated 23 years of aerial and shipboard cetacean surveys, linked them to environmental covariate
153 population structure of a cryptic deep ocean cetacean, the Gray's beaked whale (Mesoplodon grayi).
155 ting Odontoceti, and size, with the smallest cetacean, the vaquita, at 1.4 meters and the largest, th
156 specialists [4], we find evidence that stem cetaceans, the archaeocetes, were more sensitive to high
157 the skeletons of two early Eocene pakicetid cetaceans, the fox-sized Ichthyolestes pinfoldi, and the
158 documenting the presence of retroviruses in cetaceans, though the occurrences of cancers and immunod
159 of stranded (n = 929) or biopsied (n = 152) cetaceans, three out of four species:- striped dolphins
161 Morphological cladistic analyses have shown cetaceans to be most closely related to one or more meso
164 ve been rendered nonfunctional in Odontoceti cetaceans (toothed whales, including dolphins and orcas)
166 ntral paradigm of aquatic locomotion is that cetaceans use fluke strokes to power their swimming whil
169 volved in observing and recording individual cetaceans, very little is known about how they use their
170 , He=0.624-0.675), and, in contrast to other cetaceans, we found a complete lack of genetic structure
173 rders Perissodactyla + Cetartiodactyla minus cetaceans) were merged with host trait data and IUCN Red
174 nd control found in other mammals, including cetaceans, were present in the river hippopotamus, with
175 e cognitive capacities of dolphins and other cetaceans (whales and porpoises) has importance for the
177 lutionary lineage from microchiropterans and cetaceans (which have evolved ultrasonic hearing to mini
178 pelvic paddling, unlike later sirenians and cetaceans, which lost the hindlimbs and enlarged the tai
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