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1 on diverse organisms (e.g., birds, fish, and mammals).
2 lar area-basal medial ganglionic eminence of mammals).
3 neurons (ENs) in fish (cerebellar nuclei in mammals).
4 izen-scientist-reported sightings of a large mammal.
5 trajectories and performance in a long-lived mammal.
6 tissue damage, image quality, and species of mammal.
7 nal inheritance of epigenetic information in mammals.
8 n humans and their additional forms in other mammals.
9 pleiotropic functions in multiple tissues in mammals.
10 enes were described only in humans and other mammals.
11 actor in the extinction of large terrestrial mammals.
12 trol the direction of locomotor movements in mammals.
13 the larger end of the range observed across mammals.
14 d immune system adjustments is restricted to mammals.
15 the extinction of 38 genera of mostly large mammals.
16 actor of GATA TFs in Drosophila, as shown in mammals.
17 t finer scales remains largely unexplored in mammals.
18 obes contribute to reward-guided learning in mammals.
19 between this aquatic mammal and terrestrial mammals.
20 g to search for additional RQC strategies in mammals.
21 organization shared by reptiles, birds, and mammals.
22 groups from phytoplankton to fish and marine mammals.
23 volved in craniofacial embryo development in mammals.
24 commands left-right locomotor asymmetries in mammals.
25 P2, one of three SREBP isoforms expressed in mammals.
26 intestinal health and tissue homeostasis in mammals.
27 s present in cells and tissues of nonprimate mammals.
28 proteins (AGOs) regulate gene expression in mammals.
29 tant for a range of ethological behaviors in mammals.
30 rectile function and male sexual behavior in mammals.
31 the use of functional bicistronic operons in mammals.
32 e are considered the first carnivorous crown mammals.
33 h hepatic autophagy and lipid degradation in mammals.
34 ition reflexes are sexually dimorphic across mammals.
35 xual differentiation and gonadal function in mammals.
36 ral thermoregulatory circuitry in non-torpid mammals.
37 hanisms to cope with hypoxia have evolved in mammals.
38 d-induced recruitment of beige adipocytes in mammals.
39 mus is the principal circadian timekeeper of mammals.
40 om individual organs and even to some entire mammals.
41 ecular underpinnings are similar to those in mammals.
42 pecific transcriptional program in placental mammals.
43 each microglial cell remains constant across mammals.
44 lism increases adiposity in humans and other mammals.
45 idering the absence of homologous enzymes in mammals.
46 Loss of SMN entirely is embryonic lethal in mammals.
47 n support mechanisms different from those of mammals.
48 d regulation of pancreatic cell signaling in mammals.
49 xonomic rank) ranging from microorganisms to mammals.
50 y and extrastriate cortical areas in various mammals.
51 n Southwestern Africa on forest and savannah mammals.
52 ffector repertoire in bats relative to other mammals.
53 age-associated phenotypes and pathologies in mammals.
54 as rarely been investigated in Bornean small mammals.
55 olymers in living organisms from bacteria to mammals.
56 MRAP2 loss-of-function results in obesity in mammals.
57 damental aspect of aging in humans and other mammals.
58 plays strong phylogenetic signal among other mammals.
59 both canonical and noncanonical pathways in mammals.
60 erates at the scale of the whole organism in mammals.
61 tabolism present in chick embryos but not in mammals.
62 different mechanistic roles in yeast versus mammals.
63 ns for model organisms ranging from yeast to mammals.
64 e few examples of epimorphic regeneration in mammals.
65 her population densities among large-brained mammals.
66 econdary and tertiary lymphoid structures in mammals.
67 New neurons are generated in adult mammals.
68 directed toward reprogramming Muller glia in mammals.
69 pecific features for germline development in mammals.
70 the emergence of global DNA demethylation in mammals.
71 story interact to influence range changes in mammals.
72 d have been intensively studied in yeast and mammals.
73 lutionary constraint in large and long-lived mammals.
74 faction is critical for survival in neonatal mammals.
75 n of phagocytic granulocytes in the blood of mammals.
76 ger protein (KRAB-ZFP) family diversified in mammals.
77 analysis of these vessels is challenging in mammals.
78 miniscent to that of the sensory cortices of mammals.
79 ytes to fertilized embryos in Drosophila and mammals.
80 as orexigenic hypothalamic neuropeptides in mammals.
81 ) is a key component of NO-cGMP signaling in mammals.
82 n POLG gene, which became fixed in placental mammals.
83 s a principal driver of a molecular clock in mammals.
84 lls and myofibroblasts for alveologenesis in mammals.
85 t, leading to infections in humans and other mammals.
86 w noxious mechanical stimuli are detected in mammals.
87 at a rate similar to that observed in other mammals.
88 s important drivers of adaptive evolution of mammals.
89 scopic model for the core circadian clock in mammals.
90 fish, and later in amphibians, reptiles, and mammals.
91 sperm, a few reach the fertilization site in mammals.
92 ample size and at a broad taxonomic scale in mammals.
93 to as ORF-Y that arose de novo in placental mammals.
98 ked mole-rat genome revealed, uniquely among mammals, a histidine point variation in the neuronal pot
99 serotype in a gyrencephalic brain of larger mammals, a hu.32 vector expressing the green fluorescent
106 ish tracking an object using electrosense, a mammal and an insect localizing an odor source, and a mo
109 rs-which include 53.8% of terrestrial birds, mammals and amphibians-are in increasing peril through u
110 e of well-investigated cytochromes P450 from mammals and bacteria enabled us to identify those residu
111 nits of the plant complex compared to yeast, mammals and bacteria, as well as the details of the gamm
116 se of the complex inter-relationship between mammals and their gut microbes, the number of studies ad
118 ting predominantly of plants and terrestrial mammals and variably complemented with aquatic resources
120 The GET system was originally described in mammals and yeast but was recently shown to be partially
121 SERPINE1 mRNA-binding protein 1 [SERBP1] in mammals), and recently, late-annotated short open readin
123 estigate the ecotoxicity of fecal sterols in mammals, and consequent implications for human health.
124 th is not inextricably linked to lifespan in mammals, and highlight the importance of evaluating heal
125 ethylation patterns were similar to those in mammals, and hypo- and hypermethylation were predictive
128 as S-OPA1 is an inactive cleavage product in mammals, and that stress-induced OPA1 cleavage causes mi
129 neural development in animals from flies to mammals, and yet they belong to a large transcription fa
130 elocity relationships are well documented in mammals, architecture dynamics of the chewing muscles an
131 s and movements between spatial locations in mammals are "recycled" in humans to represent a bidimens
133 The photosensitive functions of Opn3 in mammals are poorly understood, and whether Opn3 has a ro
137 e elevated gene expression and processing in mammals at the two rush hours, with the particular genes
139 al period for ocular dominance plasticity in mammals, be extended by blocking sensory neurons early i
140 es from unicellular nanoflagellates to large mammals belonging to both aquatic and terrestrial realms
143 Australopithecus anamensis clusters with mammal browsers, Kenyanthropus platyops is distinct from
146 deficits are permanent for humans and other mammals, but nonmammals can recover hearing and balance
148 ates signaling from many immune receptors in mammals, but was not previously implicated in IL-17 sign
149 Acomys cahirinus) appears to be unique among mammals by showing little scarring or fibrosis after ski
151 own to cause deformities in birds, fish, and mammals can transfer from parents to progeny during embr
155 ts of ionizing radiation on the abundance of mammals collected in the Chernobyl Exclusion Zone (CEZ)
156 fferences along range margins, surveying the mammal community along the boreal-temperate and forest-t
161 As such, our study reveals that, similar to mammals, Drosophila uses iron limitation as an immune de
162 APG, a highly conserved protein in eutherian mammals, elicits a transcriptional response in the endom
163 landscapes associated with aging and CR in a mammal, enhances our understanding of the robustness of
165 lthough EZHIP is not found outside placental mammals, expression of human EZHIP reduces H3K27me3 in D
168 s degradation of numerous miRNAs in cells of mammals, flies, and nematodes, thereby specifying the ha
171 from a stable isotope perspective on fossil mammals from the Argentine Pampas during the Great Ameri
173 tection of physiologically similar states in mammals has led many to ponder whether animals experienc
175 iomyocyte: studies in zebrafish and neonatal mammals have convincingly demonstrated the regenerative
177 However, the biological functions of 6mA in mammals have yet to be adequately explored, largely due
178 ed as an evolutionarily conserved pathway in mammals; however, how this pathway was evolved to be fun
179 is a hallmark of active odorant sampling by mammals; however, the adaptive function of this behavior
180 sis of umbilical cords from humans and other mammals identified differential arterial-venous proteogl
183 antly extended using milks from a variety of mammals, including bovine, Asian buffalo, African lion,
184 thologs of a wide range of domestic and wild mammals, including camels, cattle, horses, goats, sheep,
185 human ACE2 or of ACE2 orthologs from various mammals, including Chinese rufous horseshoe bat and Mala
189 Flaviviridae, widely infect humans and other mammals, including nonhuman primates, bats, horses, pigs
190 lic rates and oxygen consumption relative to mammals, increasing reactive oxygen species (ROS) format
191 paclitaxel-induced peripheral neuropathy in mammals, indicating that epidermal mitochondrial H(2)O(2
193 and control, a homologous definition across mammals is available - but currently not employed by mos
194 The timing of female maturation in wild mammals is often constrained by ecological variables tha
196 recent discovery of meningeal lymphatics in mammals is reshaping our understanding of fluid homeosta
202 ood cellular description of fertilisation in mammals, many of the molecules involved remain unknown,
206 and species-specific changes in terrestrial mammal movement rates in response to increasing temperat
208 of ID MMEs (1955-2018) across extant marine mammals (n = 129) in relation to key life-history charac
213 eveals that - unlike in Drosophila and as in mammals - olfactory receptors may play a role, providing
216 tion end products (RAGE) plays a key role in mammal physiology and in the etiology and progression of
217 However, recent evolutionary analyses of mammals, plants, and flies report pervasive rapid evolut
219 its significant antigenicity and absence in mammals, Pse is considered an attractive target for vacc
220 ormation and the medial prefrontal cortex of mammals represent the surrounding physical space by enco
225 tic analyses revealed that paralogs found in mammals, sauropsids, amphibians, and chondrichthyes, are
228 Sex chromosomes in males of most eutherian mammals share only a small homologous segment, the pseud
229 tions and processing strategies in birds and mammals share some strikingly similar characteristics de
233 We posit that tapirs, large herbivorous mammals showing variable sagittal crest development acro
234 face perception may not be ubiquitous across mammals.SIGNIFICANCE STATEMENT To explore the evolutiona
235 ID MMEs have been reported in 14% of marine mammal species (95% CI 9%-21%), with 72% (n = 36; 95% CI
237 Studies regularly assert that 'fast-lived' mammal species exhibiting greater fecundity and shorter
238 es, and how they might have influenced early-mammal species in existence when IgE first developed.
239 not been reported ubiquitously among marine mammal species, indicating that intrinsic (host) and/or
241 revealing dream mentation in humans to other mammals, specifically those that exhibit unusual sleep s
242 to C57BL/6 mice (Mus), which similar to all mammals studied to date exhibits spinal scarring followi
244 Umbilical vessel dimorphism is conserved in mammals, suggesting that differential proteoglycan dynam
248 type has likely saved the lives of many more mammals than have ever died from allergy, so justifying
249 likely to induce physiological disorders in mammals that could explain the decrease in their abundan
250 Because bottlenose dolphins are long-lived mammals that develop comorbidities of aging similar to h
252 sed in neuronal and endocrine cells in adult mammals, that is required for D1 dopamine receptor-depen
254 ce of direct interactions between an aquatic mammal, the West Indian manatee, a federally threatened
261 ur study shows that comparable to the PFC in mammals, the NCL in birds varies considerably across spe
262 ving a similar organization to that of other mammals, the olfactory system of the African wild dog ha
263 tudied was similar to that observed in other mammals, the one feature that differed was the high prop
264 eta and CypA are both highly conserved among mammals, the requirement for two different cellular cofa
266 mediating various physiological processes in mammals, their role is not well understood in insects.
269 ehaviors are taxonomically widespread, among mammals they are only known in the harbor porpoise (Phoc
270 have the capacity to infect and replicate in mammals, they show very limited capacity for transmissio
271 tions suggest that it is possible for marine mammals to be exposed to mosquito-vectored pathogens thr
272 frican naked mole-rats were likely the first mammals to evolve eusociality, and thus required adaptat
273 ion of 204 species of terrestrial non-volant mammals to identify drivers of recent contraction and ex
274 the MAGE genes likely expanded in eutherian mammals to protect the germline from environmental stres
275 icity of the thermoregulatory system allowed mammals to thrive in variable environmental conditions a
276 two extant species that bracket the synapsid-mammal transition and use the relationship between form
279 atics analysis of PMEL17 homologs from other mammals uncovered that long and short RPT isoforms are c
284 ng short open reading frame 124 [CCDC124] in mammals) was found to be involved in translational recov
288 y CxD7L1 evolved to enhance blood-feeding in mammals, where ADP plays a key role in platelet aggregat
289 he Gcn4 transcription factor (called ATF4 in mammals), which facilitates the supply of metabolic prec
290 is a fatal encephalitis in humans and other mammals, which continues to present a public health thre
291 own broad protective efficacies in birds and mammals, which correlate with the ability to induce elev
292 eplicates in a wide variety of cell types in mammals, which has made attributing pathologic outcomes
293 primary non-shivering thermogenesis organ in mammals, which plays essential roles in maintaining the
294 tifies a distinct pattern of wound repair in mammals while exhibiting features in common with regener
295 Management and conservation of wide-ranging mammals will depend on holistic strategies that integrat
296 nd likely other ice-associated Arctic marine mammals, will cope with changes in Arctic sea ice dynami
297 e skate (Leucoraja erinacea) mirrors that of mammals, with developing chondrocytes co-expressing gene
298 tically linked to methylation variability in mammals, with implications for phenotypic variation and
300 mune system differs when compared with other mammals, yet the role that virus-derived endogenous elem