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1 to a positive selection during evolution of anthropoids.
2 re otherwise restricted to living and fossil anthropoids.
3 simiids (middle Eocene, China) are primitive anthropoids.
4 gs), which are convergent with other smaller anthropoids.
5 ECV, similar to extant lemurs and Oligocene anthropoids.
6 red convergently with other highly dexterous anthropoids.
7 alternative view is that adapiforms are stem anthropoids.
8 o-body mass ratio lower than those of living anthropoids.
9 nstability of this locus may be intrinsic in anthropoids.
10 tion sets variously places Nosmips as a stem anthropoid, a nonadapiform stem strepsirrhine, or even a
12 groups were present in the Eocene of Africa-anthropoids, adapiforms, and advanced strepsirrhines.
14 rains of select mammalian species, including anthropoid and strepsirrhine primates, a tree shrew, rod
15 sed phylogenetic analyses of early Old World anthropoids and extinct and extant New World monkeys (pl
16 ess represents an unparalleled extreme among anthropoids and found taxa displaying population-level h
17 hylogenetic position of tarsiers relative to anthropoids and Paleogene omomyids remains a subject of
19 rough the study of a broader array of living anthropoids and the increasingly dense fossil record of
21 sessed many of the derived features of later anthropoids and was a diurnal and probably dimorphic spe
22 bear striking resemblances to Eocene African anthropoids, and our phylogenetic analysis suggests a re
23 ng of Alu monomers on the lineage leading to anthropoids, and recognize an unexpected abundance of lo
25 independently in platyrrhine and catarrhine anthropoids, and the relative brain size of the last com
26 extremely similar in New World primates and anthropoid apes, with the human LP-pulvinar value close
29 al features that these adapiforms share with anthropoids are therefore most parsimoniously interprete
30 onatal brain mass, and neonatal body mass in anthropoids are used to estimate birthweights of extinct
32 ies of coadaptive changes that optimized the anthropoid biochemical machinery for aerobic energy meta
33 scribe craniodental remains of the primitive anthropoid Biretia from approximately 37-million-year-ol
34 opsin retinal release rates at the origin of anthropoids, both of which are expected to greatly enhan
35 al morphology that is not seen in any living anthropoid, but is preserved in Aegyptopithecus, stem pl
36 of a Tarsius-Anthropoidea clade) or as stem anthropoids, but rather as sister taxa of crown Strepsir
38 d Afrotarsius are sister taxa within a basal anthropoid clade designated as the infraorder Eosimiifor
40 others congruent with more visually oriented anthropoids, consistent with lemurs occupying an 'interm
41 than previously thought; (iii) oligopithecid anthropoids did not go extinct at the Eocene-Oligocene b
42 tinct primates (including all candidate stem anthropoids) does not place adapiforms as haplorhines (t
43 on-synonymous substitution rates occurred in anthropoid ETC genes that encode subunits of Complex III
44 te and best-preserved cranium of a Paleogene anthropoid ever found, that of a small female of the ear
45 ted subunits have been present during all of anthropoid evolution and (ii) the noncovalent env motif
46 (Callithrix jacchus), an early divergent in anthropoid evolution from humans, apes, and macaques.
49 t least another 2.5 Ma; (iv) propliopithecid anthropoids first appear in the Fayum area at approximat
50 er, the extent of cellular similarity across anthropoid foveas and the molecular underpinnings of fov
52 ithecus sylviae and Catopithecus browni, two anthropoids from late Eocene sediments of the Fayum Depr
54 ther inference is that when the earlier stem anthropoid gamma gene duplicated, gamma2 (at its greater
55 hylogenetic evidence that placenta expressed anthropoid GH genes have undergone strong adaptive evolu
56 ropoids, the colonization of Africa by early anthropoids hailing from Asia was a decisive event in pr
57 on the lineage leading to the LCA of extant anthropoids have been implicated in GH signaling at the
60 form taxa is found to be as strong as in the anthropoids, in contradiction to an earlier study which
61 ties of BAR 1002'00 within a large sample of anthropoids (including fossil apes and hominins) and rec
62 to be Eocene in age; (ii) the youngest Fayum anthropoids, including well known species such as Aegypt
63 mphasis on the dental evidence for Paleogene anthropoid interrelationships, but cladistic analyses of
66 cture of the fusion gene is conserved in all anthropoid lineages, but only the N-terminal half of the
68 gree of dimorphism suggests that these early anthropoids lived in social groups with a polygynous mat
69 es the involucrin coding region of other non-anthropoid mammals in possessing a segment of related, s
70 edded in the vestibular morphology of extant anthropoids (monkeys, apes and humans) and two extinct a
71 or COX evolution underlying expansion of the anthropoid neocortex, our findings underscore that impor
72 rhines (tarsiers and anthropoids) to that of anthropoids (New World monkeys and catarrhines) and that
73 econstruct the origin and early evolution of anthropoid or 'higher' primates (monkeys, apes and human
77 rocessing network were present in the common anthropoid primate ancestor living approximately 35 mill
79 Western Amazonia revealed that two distinct anthropoid primate clades of African origin colonized So
81 e conservation of the MHC-E locus throughout anthropoid primate evolution, we identified the homologu
82 discovered genus and species of parapithecid anthropoid primate from Santa Rosa in Amazonian Peru.
83 uman frontal cortex in comparison with other anthropoid primate species (New World monkeys, Old World
85 al densitometry to the cochlear nuclei of an anthropoid primate, the Senegalese baboon (Papio anubis)
86 t with a model in which SETMAR is part of an anthropoid primate-specific regulatory network centered
87 ty for (strategic) self-control is unique to anthropoid primates (as suggested by the Passingham-Wise
88 size in mammals is particularly prominent in anthropoid primates (i.e., monkeys, apes, and humans) an
89 the origin and early evolutionary history of anthropoid primates (monkeys, apes, and humans) is a cur
90 synonymous/synonymous changes in the stem of anthropoid primates (New World monkeys and catarrhines),
91 it is surprising that many of these genes in anthropoid primates (New World monkeys, Old World monkey
92 a developmental model of limb covariation in anthropoid primates and demonstrate that both humans and
93 investigate prefrontal cortex scaling across anthropoid primates and find that great ape and human pr
96 peration and coordination that extend beyond anthropoid primates and may potentially be managed throu
99 he pulvinar nuclei in prosimian primates and anthropoid primates have evolved along somewhat differen
101 n and neurons of the NAc in humans and other anthropoid primates in order to determine whether there
102 comparison of the TGIFLX sequences among 16 anthropoid primates revealed a significantly higher rate
104 n years (Myr), i.e., during the evolution of anthropoid primates, a single lineage of families has ev
106 are evolutionarily conserved across rodents, anthropoid primates, and humans.(10) Neuron density in B
110 ation in 1786 individuals from 38 species of anthropoid primates, including monkeys, apes, and humans
111 at of later hominids and non-knuckle-walking anthropoid primates, suggesting that knuckle-walking is
112 amined COX IV evolution in the two groups of anthropoid primates, the catarrhines (hominoids, cercopi
114 gnathic features that also occur in younger anthropoid primates-notably the earliest catarrhine ance
134 s frequently supported an African origin for anthropoids, recent discoveries of older and phylogeneti
137 ed and 69 publicly available sequences in 10 anthropoid species indicate functional diversification b
139 transposons into three different categories: anthropoid specific (40-63 My), primate specific (64-80
140 sent in rodents, this locus is apparently an anthropoid-specific expansion of the APOBEC family.
142 and differs substantially from that of early anthropoids such as Bahinia, Phenacopithecus, and Parapi
143 ated rates of nonsynonymous substitutions in anthropoids such as observed for COX8L are also shown by
145 s do not align with trends found among other anthropoids, suggesting that unique selective pressures
147 hecines than they are to any other Paleogene anthropoid taxon, and that Proteopithecus exhibits humer
148 iven the Oligocene-Recent history of African anthropoids, the colonization of Africa by early anthrop
150 common ancestor of haplorhines (tarsiers and anthropoids) to that of anthropoids (New World monkeys a
151 y provide the scaffold for other distinctive anthropoid traits including coalition formation, coopera
152 st alternative models of evolution along the anthropoid tree of life, including fossils like the ples
153 crane (Grus grus, n = 20), demoiselle crane (Anthropoides virgo, n = 66), black-necked crane (Grus ni
155 suggest that, surprisingly, a third clade of anthropoids was involved in the Paleogene colonization o
156 origin of canine dimorphism and polygyny in anthropoids was not associated with the evolution of lar
157 ias and clarify the phylogenetic position of anthropoids with respect to other major primate clades.