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1  to the adoption of tools by early stone-age hominins.
2 odes of interbreeding with other Paleolithic hominins.
3  humans and Neanderthals diverged from other hominins.
4 utatively introgressed variants from archaic hominins.
5 ation of adjacent cortical regions of fossil hominins.
6 e on the earliest European Acheulean-bearing hominins.
7 namics and evolution of weaning practices in hominins.
8  Neanderthals, Denisovans and possibly other hominins.
9 deciduous premolars and permanent molars) in hominins.
10 e hunting or scavenging debate amongst early hominins.
11 hat early hominins were as speciose as later hominins.
12 volution, including that of our own lineage, hominins.
13 te picture of feeding adaptations in extinct hominins.
14 four primary postcanine teeth in the row for hominins.
15 a critical element in the dietary ecology of hominins.
16 ar benefits in other mammals including early hominins.
17 hological synapomorphies of African apes and hominins.
18 ods-complicating dietary inferences of early hominins.
19 means for assessing late maturation in early hominins.
20  these are absent on the teeth of most early hominins.
21 be reflected in robust adaptations in fossil hominins.
22 l Elefante-TE9 and Gran Dolina-TD6 Atapuerca hominins (1.2-0.8 million years ago - Myr) as compared w
23                    Our results shed light on hominin abilities to adjust to new environments, facilit
24 nstructing diet is critical to understanding hominin adaptations.
25 astic processes such as natural selection or hominin admixture.
26 ard significant consumption of C(4) foods in hominins after this divergence has emerged as a landmark
27 dern human-like bipedalism first appeared in hominins, all known South African hominins show morpholo
28                 Intriguingly, ancient fossil hominins also exhibit substantial phalangeal curvature,
29 nvironment, and utility as a model for early hominin anatomy.
30 eu5Ac) hydroxylase (CMAH), which occurred in hominin ancestors ~2 to 3 Mya.
31 ess challenges for our hunting and gathering hominin ancestors.
32 eting the palaeoenvironments occupied by our hominin ancestors; and also for evaluating the volcanic
33 cause it marks the appearance of both fossil hominins ancestral to the later Neandertals and the Ache
34 vide a new tool to assess the diet of fossil hominins and associated fauna, as well as trophic relati
35 values against delta(13)C values for several hominins and co-existing primates in the Turkana Basin a
36 V58 variants may have coevolved with archaic hominins and dispersed across the planet through host in
37 oncerning the dietary adaptations of archaic hominins and early Homo has been fuelled by contradictor
38 ggest that large CNVs originating in archaic hominins and introgressed into modern humans have played
39 ing vertebra, also occurs in all other early hominins and is higher than in most humans or extant ape
40  reduced locomotor endurance in the earliest hominins and likely restricted ranging.
41 natomically modern humans, extinct Denisovan hominins and mice revealed a TNFAIP3 allelic series with
42 the genetic relationship between Pleistocene hominins and modern humans.
43 ssil teeth to reconstruct the diets of early hominins and other extinct species.
44 tially drier phases, during which fossils of hominins and other fossils accumulated in open caves.
45 ion of the curvature parameter among extinct hominins and show that a human-like transverse arch was
46 posed to explain the origin of bipedalism in hominins and suspension in great apes (hominids); howeve
47 insights into the relationship between early hominins and the changing resources around them.
48 oportion of ancestry from an unknown extinct hominin, and this ancestry is absent from Europeans and
49 one of the best-preserved skulls of a fossil hominin, and was initially designated as the type specim
50  data from primates including humans, fossil hominins, and a wide sample of fossil primates including
51 latory architecture between AMHs and archaic hominins, and provide an avenue for exploring phenotypic
52 is could suggest that the motivations behind hominin anthropophagy may not have been purely nutrition
53           We find that features of the early hominin Ardipithecus ramidus torso that are argued to ha
54 d functional morphological analyses of early hominins are compatible with consumption of hard foods,
55 imorphism within a single species of bipedal hominins as early as 3.66 million years ago.
56 ) skull has revealed the most complete early hominin atlas yet found, having been cemented by breccia
57            Anatomy and function of the early hominin atlas, and thus, its evolutionary history, are p
58 tW 573 atlas, along with other less complete hominin atlases from Sterkfontein (StW 679) and Hadar (A
59 6 to 1.05 Ma) from the Shungura Formation, a hominin-bearing site in southwestern Ethiopia.
60 ate age at dental maturation in early fossil hominins because direct histological evidence for the ti
61 risen, it is critical to explain how ancient hominins began to produce vocalization flexibly, without
62 mportant additions to the Pliocene record of hominin behaviour and morphology.
63 tudies using enamel proteomes to investigate hominin biology across the existence of the genus Homo.
64  suggests that the evolutionary precursor of hominin bipedalism was African ape-like terrestrial quad
65         As a result of our analysis a single hominin bone (Denisova 11) was identified, supported thr
66 f a tooth and mitochondrial DNA from several hominin bone fragments, identified through proteomic scr
67  climatic changes that would have influenced hominins, both morphologically and behaviorally.
68  to reconstruct locomotor behavior in fossil hominins, but few studies have provided detailed empiric
69 at distinguishes the genus Homo from earlier hominins, but recent stable isotopic analyses of fossils
70 t the comparatively low nutritional value of hominin cannibalism episodes support more socially or cu
71 ntrast with the European record, research on hominin/carnivore interactions in Africa has primarily r
72 , Ethiopia, provides the only known complete hominin cervical and thoracic vertebral column before 60
73 analysis of the faces of extinct taxa in the hominin clade over the last 6 million years.
74 mparative framework, we conclude that in the hominin clade there were probably no hard-food specialis
75  their evolution are well studied within the hominin clade.
76 cranial and dental size and shape within the hominin clade.
77 g evidence of locomotor diversity within the hominin clade.
78 tempts to determine its placement within the hominin clade.
79  selection for higher muscle mass in archaic hominins compared with humans.
80 ated age at dental maturation in this fossil hominin compares well with what is known for living grea
81                        The earliest European hominin crania associated with Acheulean handaxes are at
82 date, and contextualize the discovery of two hominin crania from Drimolen Main Quarry in South Africa
83 stocene localities to have provided a fossil hominin cranium associated with Acheulean bifaces in a c
84           Here we describe a nearly complete hominin cranium from Woranso-Mille (Ethiopia) that we da
85                                     A fossil hominin cranium was discovered in mid-Pliocene deltaic s
86 ensive analysis of the ecological context of hominin diet at East Turkana during a period crucial for
87                                              Hominin dietary specialization is crucial to understandi
88         New approaches to the study of early hominin diets have refreshed interest in how and when ou
89 wever, the timing and geographic patterns of hominin diets in this region differ from those observed
90 d that the thoracolumbar transition in early hominins differed from that of most extant apes and huma
91 to understand the social behaviors of fossil hominins directly from fossil data.
92  when investigating ecogeographic models for hominin dispersals.
93 ncountering modern humans on Flores or other hominins dispersing through southeast Asia, such as Deni
94 inct shift in brain-body scaling occurred as hominins diverged from other primates, and again as huma
95 ic, and evolutionary significance of archaic hominin DNA that persists in present-day individuals.
96  mammalian DNA that often includes traces of hominin DNA, even at sites and in layers where no homini
97 at Western Europe was populated by adaptable hominins during this time.
98  consequently the potential role of water in hominin evolution and dispersal remains unresolved.
99 sistent with the savanna hypothesis of early hominin evolution and reignite the debate on the drivers
100 malism in ancient settings and its impact on hominin evolution has not been addressed before, althoug
101                                     Ideas on hominin evolution have long invoked the emergence from f
102 or driver of long-term ecological change and hominin evolution in eastern Africa during the Plio-Plei
103 other, has been widely practiced since early hominin evolution to increase infant survival and thrivi
104 , it follows that the vast majority of early hominin evolution transpired in the context of ecosystem
105 rogression from nonlanguage to language over hominin evolution, and in emerging sign systems today.
106                    Diet is a major driver of hominin evolution, but most of the geochemical evidence
107 tualizing the environmental context of early hominin evolution, but the degree to which modern ecosys
108 vidence of elevated rates only much later in hominin evolution, suggesting that fast-evolving traits
109                                   Throughout hominin evolution, the brain of our ancestors underwent
110 itable analogs for the ancient ecosystems of hominin evolution.
111 onments and testing ecological hypotheses of hominin evolution.
112 f these tissues increased over the course of hominin evolution.
113  to drier intervals, thus biases the view of hominin evolutionary history and behaviour, and places t
114     It has been suggested that bipedalism in hominins evolved from an ancestor that was a palmigrade
115  the foot and find its skeletal correlate in hominin feet.
116  argued that in the Middle Palaeolithic (MP) hominin fire use was limited by the availability of fire
117                  This is the area where most hominin first occurrences are located, and consequently
118                                              Hominin footprints are disproportionately abundant in th
119 tracks from northwestern Kenya, including 97 hominin footprints attributed to Homo erectus.
120 ose outstanding record includes the earliest hominin footprints in the world (3.66 million years old)
121 ing for preservation bias, this abundance of hominin footprints indicates repeated use of lakeshore h
122                                       Fossil hominin footprints preserve data on a remarkably short t
123 or more than 1,100 ancient human and archaic hominin (for example, Neandertal) individuals.
124 a is, to our knowledge, the only Pleistocene hominin fossil found in the country.
125 to test due to the fragmentary nature of the hominin fossil record and the lack of methods capable of
126 n detailed carbon isotopic evidence from the hominin fossil record of the Shungura and Usno Formation
127 pe) and investigate their development in the hominin fossil record.
128 topic age estimates and encompass the entire hominin fossil record.
129                                   The Yiyuan hominin fossil site is one of the few localities in Chin
130 n of central Flores, Indonesia, have yielded hominin fossils attributed to a population ancestral to
131 rom the fossiliferous deposits show that the hominin fossils can be confidently dated to 0.64 +/- 0.0
132                                        While hominin fossils from the sequence older than 2.7 Ma are
133                                          The hominin fossils occur alongside the remains of an insula
134 ological assemblages exists, the scarcity of hominin fossils often impedes the understanding of which
135  the perceived complex geological context of hominin fossils, poor chronological resolution, and a la
136        We also report three direct dates for hominin fragments and obtain a mitochondrial DNA sequenc
137 nthropus robustus is a small-brained extinct hominin from South Africa characterized by derived, robu
138 ease and then increase in body mass in early hominins from a chimpanzee-sized LCA.The pattern of body
139 ographically and temporally dispersed fossil hominins from Asia and to understand in a coherent manne
140 tial evolutionary link between H. naledi and hominins from Sterkfontein and Swartkrans.
141 l factor in the vocal communicative split of hominins from the ape background may thus have been copi
142 2)Ca iso-space being distinct from all other hominins from the Turkana Basin area as well as from the
143 t unique to Paranthropus but occurred in all hominins from this fossil sequence.
144 Morocco, and interpret the affinities of the hominins from this site with other archaic and recent hu
145 n two feet dates back 6-7 Ma, reconstructing hominin gait evolution is complicated by a sparse fossil
146                  Denisovans are members of a hominin group who are currently only known directly from
147  revealed the presence of a hitherto unknown hominin group, the Denisovans(1,2), and high-coverage ge
148                         At least 3 different hominin groups appear to have been involved in Asia, of
149 the possibility of detecting the presence of hominin groups at sites and in areas where no skeletal r
150 erstanding the complex relationships between hominin groups that inhabited Eurasia in the Middle and
151 (ka) is recorded genetically by the multiple hominin groups they met and interbred with along the way
152 elationships between H. antecessor and other hominin groups, and pave the way for future studies usin
153 rritoriality and energetic costs invested by hominin groups.
154 lationship) that distinguish them from known hominin groups.
155 ogical and fossil evidence indicates archaic hominins had not spread as far as the Sahul continent (N
156 nstrate previously unrecognized diversity in hominin hand use.
157 facture and use, but when and how many times hominin hands became principally manipulative remains un
158 g to the Neandertal clade, whereas the Arago hominins have been attributed to an incipient stage of N
159                                              Hominins have been making tools for over three million y
160 cent discoveries of multiple middle Pliocene hominins have raised the possibility that early hominins
161 he putative archaic introgression of ancient hominins, have been poorly explored at the genome level.
162 will continue to change our understanding of hominin history.
163 demonstrate that a morphologically primitive hominin, Homo naledi, survived into the later parts of t
164 H. erectus paratype molars from 1891 are not hominin (human lineage), but instead are more likely to
165 on of those biomes will have likely affected hominin hunting behaviours because of their intermediary
166 ionary history and behaviour, and places the hominins in a community of comparatively dry-adapted fau
167          Yet H. erectus differs from earlier hominins in having relatively smaller teeth, reduced che
168 fferences between Australopithecus and later hominins in South Africa and contribute to the increasin
169 e in Africa, but the fossil evidence for any hominins in subequatorial Africa was very sparse.
170          The existence of a diverse array of hominins in subequatorial comports with our present know
171 The cranial morphology of the earliest known hominins in the genus Australopithecus remains unclear.
172 gical implements manufactured and/or used by hominins in the past offers a means of assessing how pre
173  This hand use is distinct from other fossil hominins in this study, including A. afarensis and A. af
174 ge to subsequent Middle and Late Pleistocene hominins, including modern humans, Neanderthals and Deni
175  they encountered and interbred with archaic hominins, including Neanderthals and Denisovans [1, 2].
176 ortant if we are to understand the nature of hominin interaction, and aspects of their cultural and s
177 le over this time interval even with minimal hominin introgression.
178 capacities of Homo sapiens relative to other hominins is a major focus for human evolutionary studies
179 ng the detailed dietary behaviour of extinct hominins is challenging(1)-particularly for a species su
180 ng is that phalangeal curvature among fossil hominins is evidently best interpreted as a primitive tr
181  Characterizing dental development in fossil hominins is important for distinguishing between them an
182  among Late Middle Pleistocene (LMP) African hominins is largely unknown, thus precluding the definit
183 iodental and mandibular morphology in fossil hominins is not always clear, at least in part because o
184 ned role in the ecology of ancestral bipedal hominins is unresolved.
185 ests that the stone technology of east Asian hominins lacked a Levallois component during the late Mi
186    Footprints represent a unique snapshot of hominin life.
187 iation, including gene flow with now-extinct hominins like Neanderthals and Denisovans.
188                          We propose that the hominin lineage experienced a decline in maximum dynamic
189  40,000 years ago, Neanderthals, the ancient hominin lineage most closely related to modern humans, i
190        Bipedalism is a defining trait of the hominin lineage, associated with a transition from a mor
191 th emergence of paternal provisioning in the hominin lineage.
192 ne Africa contained multiple contemporaneous hominin lineages (that is, Homo sapiens(8,9), H. heidelb
193        It is now evident that a diversity of hominin lineages existed in this region, with some diver
194 approximately the divergence time of the Pan-hominin lineages.
195 sand years ago for a tooth from the Irhoud 3 hominin mandible.
196  Further exploration led to the discovery of hominin material, now comprising 131 hominin specimens,
197          While the origin of narrow steps in hominins may be linked to minimizing energetic cost of l
198 stand how patterns of taxonomic diversity in hominins may have developed.
199                          The study of fossil hominin molars shows how these various attributes are co
200 have a central role in models of Pleistocene hominin morphology, dispersal and divergence.
201 um vivax was a necessary adaptation as early hominins moved to colder areas with shorter mosquito bre
202 tudy of the archaeological remains of fossil hominins must rely on reconstructions to elucidate the b
203   Genome sequences are known for two archaic hominins-Neanderthals and Denisovans-which interbred wit
204 , inferring brain reorganization from fossil hominin neurocrania (=braincases) remains a challenge, a
205 ils often impedes the understanding of which hominins occupied a site.
206    The fossil record shows that two types of hominins occupied the region during this period-Neandert
207            Our results indicate that archaic hominins occupied the Tibetan Plateau in the Middle Plei
208                 This uptake of C(4) foods by hominins occurred during a period marked by an overall t
209       The phylogenetic relationships between hominins of the Early Pleistocene epoch in Eurasia, such
210 od preferences in the past, particularly for hominins of the Pliocene and early Pleistocene.
211 e-containing variation acquired from archaic hominins or adaptive variants in specific populations-im
212         Recent discoveries from archaeology, hominin paleontology, geochronology, genetics, and paleo
213 ns of C(4) dietary utilization in the robust hominin Paranthropus The results show that the most impo
214                     The 4.4 million-year-old hominin partial skeleton attributed to Ardipithecus rami
215 eginning of the demographic collapse of this hominin phenotype.
216 s taxon, and clarifies hypotheses concerning hominin phylogeny.
217  a role in the turn-overs of hunter-gatherer hominin populations during MIS3 and at other times in th
218 ted variations in isolation and dispersal of hominin populations in the past.
219  landscapes and ecosystems occupied by early hominin populations.
220                                 We show that hominin postcanine teeth have evolved at a relatively co
221 haeological evidence of widespread and early hominin presence in the area.
222                Here we present evidence that hominins preserved in the Sterkfontein Caves practiced t
223                Our results suggest that some hominins previously assigned as hard food consumers (e.g
224 hat hybridization between modern and archaic hominins provided an important reservoir of advantageous
225 rsial because of the lack either of a direct hominin radiocarbon date or of molecular confirmation of
226 omised the degree to which the South African hominin record can be used to test hypotheses of human e
227 en inferred to be from a Denisovan, an Asian hominin related to Neanderthals, on the basis of an amin
228 nments that were apparently untouched by its hominin relatives.
229 unctional genomic insights about our extinct hominin relatives.
230 ntal wear processes of the earliest European hominins remain unknown because most of the academic att
231 ults of this work suggest that some of these hominin remains accumulated in the cave by geological pr
232                                              Hominin remains appear related to three different sedime
233 plant biomarkers, clustered bone debris, and hominin remains define a clear spatial pattern that plac
234 in DNA, even at sites and in layers where no hominin remains have been discovered.
235  collagen fingerprinting has for identifying hominin remains in highly fragmentary archaeological ass
236                                          The hominin remains represent at least three individuals bas
237                                          The hominin remains represent three individuals: EQH1, a non
238 tar cave system has produced abundant fossil hominin remains within the Dinaledi Chamber, representin
239 mass spectrometry (ZooMS) to find additional hominin remains.
240 represents a second depositional context for hominin remains.
241  association with anthropogenically modified hominin remains.
242 Africa preserves a rich collection of fossil hominins representing Australopithecus, Paranthropus and
243 els lack fine-scale resolution due to fossil hominin scarcity and the time-averaged accumulation of f
244 ethod called IBDmix to identify introgressed hominin sequences, which, unlike existing approaches, do
245 ppeared in hominins, all known South African hominins show morphological adaptations to bipedalism, s
246  oldest and richest African Middle Stone Age hominin site that documents early stages of the H. sapie
247 ogical studies on Chinese Middle Pleistocene hominin sites, indicate that the time span from 600-400
248 in this lake margin environment, relative to hominin skeletal fossil frequency in the same deposits.
249 is among the oldest and most complete fossil hominin skeletons discovered.
250 analyses of the genome of a ~34,000-year-old hominin skull cap discovered in the Salkhit Valley in no
251 dow into an important transitional period in hominin social behavior.
252 taxonomic diversity is also reflected in non-hominin species and provides evidence of endemic evoluti
253               Homo floresiensis, a primitive hominin species discovered in Late Pleistocene sediments
254  Australopithecus afarensis was not the only hominin species during the middle Pliocene, and that the
255  new fossils are recovered and the number of hominin species grows, the question of how and when the
256 ent with mammalian extinction rates, typical hominin species lifespans, the frequency of well-charact
257           Homo erectus is the founding early hominin species of Island Southeast Asia, and reached Ja
258 with 12 models corresponding to eight fossil hominin species.
259 t and posterior tooth size reduction in some hominin species.
260 istent pattern of differentiation from other hominin species.
261  of microevolutionary change within an early hominin species.
262  more specifically, reversions of an ancient hominin-specific duplication of these exons.
263 scribe the age and context of the Mata Menge hominin specimens and associated archaeological findings
264                  We identified 28 additional hominin specimens through zooarchaeology by mass spectro
265 on about the behaviour and health of ancient hominin specimens, as well as a unique system that is us
266 very of hominin material, now comprising 131 hominin specimens, within a second chamber, the Lesedi C
267  in more wooded landscapes compared to later hominins such as Paranthropus and Homo, and has implicat
268 NA inherited from interbreeding with archaic hominins, such as Neandertals, yet the influence of this
269 ng divergent gene regulation between archaic hominins, such as Neanderthals, and AMH sequences, and f
270 iens, including its interbreeding with other hominins, such as Neanderthals, and the ways in which na
271 er second molar in this 160,000-y-old fossil hominin suggests greater antiquity for the trait.
272 s across the skeleton not found in any other hominin taxon, which has hindered attempts to determine
273  also complicates our understanding of early hominin taxonomy and phylogenetic relationships.
274 t source of evidence for understanding early hominin technological and cultural variation.
275               These differences suggest that hominin technology is distinctly different from generali
276 c gradient' in mammal, and more specifically hominin, teeth since Butler and Dahlberg.
277 , ultimately affecting our interpretation on hominin territoriality and energetic costs invested by h
278 metabolic costs for cerebral tissues in this hominin than have been attributed to extant humans and m
279  first record of behaviour consistent with a hominin that used its hand for both arboreal locomotion
280 och in Eurasia, such as Homo antecessor, and hominins that appear later in the fossil record during t
281 tween anatomically modern humans and extinct hominins; the development of an increasingly detailed de
282 nferred positional behaviour of the earliest hominins, thus suggesting that this morphology was proba
283 ght the complexities of dietary responses by hominins to changes in the availability of food resource
284 trogression of genetic variants from archaic hominins to humans and emerging ancient genome data sets
285 e, these results suggest that the ability of hominins to manipulate fire independent of exploitation
286             The dietary responses of extinct hominins to seasonal fluctuations in food availability a
287 sent at Olduvai Gorge may have allowed early hominins to thermally process edible plants and meat, su
288 lumbar vertebral columns are known for early hominins, to date, no complete cervical or thoracic seri
289 ing valuable comparative insights into early hominin tool crafting [9].
290 ng question: are there rules that govern how hominin tooth size evolves?
291                                      The two hominin trackways present are parallel to one another, o
292  in the same direction further suggest these hominins traversed this lakeshore in multi-male groups.
293                                       Within hominins, we detected a pattern of directional and accel
294 rather than lPAH abundance, we argue that MP hominins were able to control fire and utilize it regard
295 reconstructions suggest that the Chagyrskaya hominins were adapted to the dry steppe and hunted bison
296 inins have raised the possibility that early hominins were as speciose as later hominins.
297                                 The earliest hominins were bipedal but retained ape-like features in
298 umans have more fragile skeletons than other hominins, which may result from physical inactivity.
299 he impact of local-scale conditions on early hominins, who likely experienced a varied and more dynam
300 oreal bipedalism was prohibitively risky for hominins whose increasingly modern anatomy prevented the

 
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