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1 r hand posture in a terrestrial environment (Gorilla).
2 some nonhuman primates (e.g., chimpanzee and gorilla).
3 ine lineages (i.e., humans, chimpanzees, and gorillas).
4 ivating C1-specific receptor (Gg-KIR2DSa) in gorilla.
5 angeal lengths were most similar to those of Gorilla.
6 as a dramatic amplification of LCR22s in the gorilla.
7 es with low or no sperm competition like the gorilla.
8 adly conserved among bonobo, chimpanzee, and gorilla.
9 ss-species transmission from western lowland gorillas.
10 brillar (diffuse) nature of Abeta plaques in gorillas.
11 ry with gorillas have acquired bacteria from gorillas.
12 e blood vessels were more widespread in male gorillas.
13 the neocortex and hippocampus of the oldest gorillas.
14 impanzees and a novel recombinant species in gorillas.
15 o the simian immunodeficiency virus found in gorillas.
16 nd the basigin receptor from both humans and gorillas.
17 s, in a manner similar to that of silverback gorillas.
18 s different from that previously reported in gorillas.
19 ce between eastern (A, B) and western (C, D) gorillas.
20 ch the level of precision seem in humans and gorillas.
21 d cell populations from humans, bonobos, and gorillas.
22 lowing a zoonotic transfer of parasites from gorillas.
23 c indels were monomorphic in chimpanzees and gorillas.
24 that of zoo chimpanzees than of Cameroonian gorillas.
25 BOV), a major threat to wild chimpanzees and gorillas.
26 o transmit parasites of both chimpanzees and gorillas.
27 L. major parasites in fecal samples from the gorillas.
29 9 of 62 chimpanzees (11.3%) and two from 11 gorillas (18%) were HBV-infected (15% combined frequency
30 population sizes of chimpanzees (21,000) and gorillas (25,000), which each inhabit only one part of a
31 g sequence in 63 chimpanzees, 11 bonobos, 48 gorillas, 37 orangutans and 2 gibbons and observed undes
32 Tested in two conditions, zoo-housed apes (2 gorillas, 5 chimpanzees) were familiarized to videos of
33 c cat (24.08 % homozygous), Virunga Mountain Gorilla (78.12 %), inbred Abyssinian cat (62.63 %), Tasm
34 ty to human A3C I188 and that chimpanzee and gorilla A3C form dimers at the same interface as human A
35 ess, here we demonstrate that chimpanzee and gorilla A3C have approximately equivalent activity to hu
38 s of naive chimpanzees, bonobos, and western gorillas across 14 field sites in Africa) to a novel obj
39 ility and safety of a new low-seroprevalence gorilla adenovirus (GAd; GC46) as a gene transfer vector
41 ngle horizontal transfer between an infected gorilla and a human, and became global as the result of
44 dent gene-containing duplications within the gorilla and chimpanzee that are absent in the human line
46 mic sequence coverage from a western lowland gorilla and integrating these data into a physical and c
47 ncluding marmoset, pig, zebra finch, lizard, gorilla and wallaby, which were added in the past year.
48 m 73 Cameroonian wild-caught chimpanzees and gorillas and 91 Old World monkey (OWM) species were scre
49 V between sympatric species of apes (such as gorillas and chimpanzees in Central Africa) or between h
55 ies of hundreds of chimpanzees, bonobos, and gorillas and developed a phylogenetic approach to recons
60 de polymorphisms, one in chimpanzees, one in gorillas and one in orangutans with derived allele frequ
62 EE exceeded that of chimpanzees and bonobos, gorillas and orangutans by approximately 400, 635 and 82
64 al day(-1)) in humans, chimpanzees, bonobos, gorillas and orangutans to test the hypothesis that the
67 poral lobe white matter tracts in the human, gorilla, and chimpanzee great apes and in the macaque mo
68 of a genome sequence for the western lowland gorilla, and compare the whole genomes of all extant gre
69 cingulate cortex (ACC) of human, chimpanzee, gorilla, and macaque samples provide clues about genetic
70 nferior frontal gyrus of chimpanzee, bonobo, gorilla, and orangutan brains through direct cytoarchite
71 sed and assembled 3 ape genomes (chimpanzee, gorilla, and orangutan) using long-read and 10x Genomics
74 ction across semiwild sanctuary chimpanzees, gorillas, and a sample of humans exposed to markedly dif
75 ammalian species richness in chimpanzees and gorillas, and an interspecific analysis of geographic ov
76 lasmodium species widespread in chimpanzees, gorillas, and bonobos places the origin of Plasmodium ma
78 R cDNA were characterized from PBMC of three gorillas, and genomic DNA were characterized for six add
80 us about the cultural lives of chimpanzees, gorillas, and orangutans and consider the ways in which
81 other closely related "great apes" (bonobos, gorillas, and orangutans) express several CD33-related S
82 ted nonhuman hominids (chimpanzees, bonobos, gorillas, and orangutans), comparative studies suggest a
85 l sample of 19 chimpanzees, four bonobos, 14 gorillas, and six orangutans, in which interpretable MSY
86 in most primates, including chimpanzees and gorillas, and were part of a prominent adaptation of Aus
90 s) violent intergroup conflict, but mountain gorillas are non-territorial herbivores with low feeding
94 n sizes of humans, bonobos, chimpanzees, and gorillas are, respectively, 10,400, 12,300, 21,300, and
95 Western lowland gorillas (Gorilla gorilla gorilla) are infected with a simian immunodeficiency vir
100 fusion was observed in most eastern gorilla (Gorilla beringei beringei and G. b. graueri) specimens (
102 e ratios in feces of wild mountain gorillas (Gorilla beringei) to test the hypothesis that diet shift
103 le preparations and plasma from chimpanzees; gorillas; bonobos; cynomolgus monkeys; wild-type, apoE(-
105 wer affinity than human BSG and did not bind gorilla BSG, mirroring the known host tropism of P. falc
107 nase APOBEC3G as a barrier for chimpanzee-to-gorilla, but not gorilla-to-human, virus transmission.
110 ored the histology of this fusion in eastern gorillas by examining the cyto- and myeloarchitecture wi
112 are consistent with co-divergence with their gorilla, chimpanzee and bonobo hosts, suggesting a times
113 rd, forest elephant, forest buffalo, western gorilla, chimpanzee and mandrill) in 225 sites throughou
114 A encoded complex I subunits from orangutan, gorilla, chimpanzee, human and all available vertebrate
115 zations from infant and juvenile orangutans, gorillas, chimpanzees, and bonobos, as well as tickle-in
118 separate the human-chimpanzee clade from the gorilla clade at between 6 and 7 million years ago and p
120 es and 54 fecal samples from chimpanzees and gorillas collected from Cameroonian forest floors were s
121 -pulvinar complex in gibbon, chimpanzee, and gorilla compared to humans, however, did not show that t
123 ations using modern humans, chimpanzees, and gorillas confirm that this technique is accurate and tha
126 alleles of SNPs by genotyping chimpanzee and gorilla DNA, and have identified SNPs where the non-ance
129 To investigate this, 27 chimpanzee and 27 gorilla fecal samples collected from undisturbed jungle
131 the isotopic and nutritional composition of gorilla foods is largely independent, highlighting the d
132 rn lowland (n = 103), and mountain (n = 218) gorillas for gorilla SIV (SIVgor) antibodies and nucleic
133 aviors observed in living chimpanzees and/or gorillas (for instance, upright feeding, male dominance
134 es of multi-male, multi-female wild mountain gorilla (G. beringei) groups attacking extra-group males
136 h human and other ape genomes shows that the gorilla genome has been subjected to the highest rate of
137 We generated a high-quality assembly of the gorilla genome using single-molecule, real-time sequence
139 ur analysis suggests that the chimpanzee and gorilla genomes are structurally more derived than eithe
140 tially distributed in human, chimpanzee, and gorilla genomes, whereas baboon has a single putative an
141 d African great ape (chimpanzee, bonobo, and gorilla) genomes, substantially less is known about vari
143 an, Pongo pygmaeus (4.6 y), and the gorilla, Gorilla gorilla (3.8 y), obtained from the dental histol
144 netically characterised from Old World apes; Gorilla gorilla (gorilla), Pan troglodytes (chimpanzee),
145 ey food resource for the Endangered mountain gorilla Gorilla beringei beringei and Endangered golden
147 samples from wild western lowland gorillas (Gorilla gorilla gorilla) in Cameroon for the presence of
148 In this study, six western lowland gorillas (Gorilla gorilla gorilla) were tested under different con
149 assessed in a sample of 31 captive gorillas (Gorilla gorilla) and 19 captive orangutans (Pongo pygmae
150 g human populations have devastated gorilla (Gorilla gorilla) and common chimpanzee (Pan troglodytes)
151 zees (Pan troglodytes) and western gorillas (Gorilla gorilla), but not in eastern gorillas (Gorilla b
152 , mandrill (Mandrillus sphinx), and gorilla (Gorilla gorilla), two of which (De Brazza's guenon and m
153 nvestigated Macaca mulatta, Pan troglodytes, Gorilla gorilla, and Homo sapiens haplotypes using trans
154 ape species (Pan paniscus, Pan troglodytes, Gorilla gorilla, Pongo pygmaeus) by varying whether apes
156 t of the t(4;19) chromosome translocation in Gorilla gorilla, suggesting a potential role for transpo
157 oinsular fusion was observed in most eastern gorilla (Gorilla beringei beringei and G. b. graueri) sp
158 expanding human populations have devastated gorilla (Gorilla gorilla) and common chimpanzee (Pan tro
159 eglectus), mandrill (Mandrillus sphinx), and gorilla (Gorilla gorilla), two of which (De Brazza's gue
160 rillas (Gorilla gorilla), but not in eastern gorillas (Gorilla beringei) or bonobos (Pan paniscus).
161 ble isotope ratios in feces of wild mountain gorillas (Gorilla beringei) to test the hypothesis that
163 ened fecal samples from wild western lowland gorillas (Gorilla gorilla gorilla) in Cameroon for the p
165 task were assessed in a sample of 31 captive gorillas (Gorilla gorilla) and 19 captive orangutans (Po
166 in chimpanzees (Pan troglodytes) and western gorillas (Gorilla gorilla), but not in eastern gorillas
167 e orangutan, Pongo pygmaeus (4.6 y), and the gorilla, Gorilla gorilla (3.8 y), obtained from the dent
169 ment and interaction patterns of 17 mountain gorilla groups, we investigated how the occurrence of ag
170 at both SEMG1 and SEMG2 we observed several gorilla haplotypes that contain at least one premature s
175 gut communities of sympatric chimpanzees and gorillas have converged in terms of community compositio
177 showing accelerated evolution on each of the gorilla, human and chimpanzee lineages, and evidence for
180 discovery of swampy clearings frequented by gorillas in northern Congo has provided the first opport
182 Hand preference data are presented from 33 gorillas in seated and standing postures, covering the p
183 ta of free-ranging sympatric chimpanzees and gorillas in southeastern Cameroon and sympatric chimpanz
185 ld western lowland gorillas (Gorilla gorilla gorilla) in Cameroon for the presence of these pathogens
191 ss the extent of structural variation in the gorilla lineage by generating 10-fold genomic sequence c
192 ated over 7665 structural changes within the gorilla lineage, including sequence resolution of invers
194 the radiation of the human, chimpanzee, and gorilla lineages, duplicative transposition seeding even
202 ron 1 are conserved among human, chimpanzee, gorilla, mouse, and rat, suggesting a conserved biologic
203 ve crossed the species barrier to humans and gorillas on at least five occasions, generating pandemic
205 All the HTLV-1-positive hunters bitten by a gorilla or chimpanzee were infected with a subtype B str
206 y viruses (SIVs) infecting wild chimpanzees, gorillas, or monkeys (SIVcpz, SIVgor, or SIVgsn/SIVmon/S
207 s, including humans, great apes (chimpanzee, gorilla, orangutan), Old- and New-World monkeys (macaque
209 nzee counterparts and to available sequenced gorilla, orangutan, and Old World monkey counterparts, a
210 4, 13, 13, 17, and 17 repeats in the gibbon, gorilla, orangutan, bonobo, neanderthal, and human Liat1
212 ir analysis of DNA from humans, chimpanzees, gorillas, orangutans and macaques (HCGOM), Patterson et
214 e findings indicate that P. falciparum is of gorilla origin and not of chimpanzee, bonobo or ancient
216 gly, our results indicate that the human and gorilla orthologues of the genes disrupted in chimpanzee
219 erised from Old World apes; Gorilla gorilla (gorilla), Pan troglodytes (chimpanzee), Pongo pygmaeus (
220 pothesis of in situ African evolution of the Gorilla-Pan-human clade, and is concordant with the deep
222 arum emerged following the transmission of a gorilla parasite, perhaps within the last 10,000 years,
223 itochondrial cytochrome b gene obtained from gorilla parasites closely related to human P. falciparum
226 ampus in old male and female western lowland gorillas, placing this species at relevance in the conte
227 he predicted recovery time for this specific gorilla population from a single outbreak ranged from 5
228 A further recent decline in the mountain gorilla population has led to extensive inbreeding, such
229 to illustrate the resilience of a well-known gorilla population to disease, modeled on prior document
233 ature that has become more common in eastern gorillas, possibly as the result of a population bottlen
237 ity to PARV4 (63% and 18% in chimpanzees and gorillas, respectively), HBoV (73% and 36%), and B19 vir
238 nuclear gene sequences from chimpanzees and gorillas revealed that 99% grouped within one of six hos
239 in sperm of seven species-human, chimpanzee, gorilla, rhesus macaque, mouse, rat, and dog-to investig
240 ther, our findings demonstrate that mountain gorilla's infection with GbbLCV-1 could provide valuable
244 up O epidemic; however, the possibility that gorillas served as an intermediary host cannot be exclud
245 compare 15 Cameroonian hunters infected with gorilla SFV (cases) to 15 controls matched for age and e
247 non-human African apes (i.e., chimpanzee and gorilla) should be more like each other than either shou
249 a beneficial function, though the loss from gorilla shows that it is not essential for survival or r
253 ng the human-chimpanzee and human-chimpanzee-gorilla speciation events at approximately 6 and 10 mill
254 dus is most similar to living chimpanzee and gorilla species among a large sample of anthropoid prima
255 We also compare the western and eastern gorilla species, estimating an average sequence divergen
256 nvestigate this possibility, we searched for gorilla-specific HML-2 elements using both in silico dat
258 that have arisen since the human-chimpanzee-gorilla split may be responsible for the physiological d
262 primates but not from New World primates or gorilla, suggesting an integration event more than 30 mi
263 ug delivery field is faced with an invisible gorilla syndrome, i.e., seeing a gorilla when it is not
265 in intron 9, which was present in human and gorilla tau, and for the nucleotide at position +29 of t
266 ne content is more similar between human and gorilla than between human and chimpanzee, even though h
268 , Faith PD and Shannon) was higher among zoo gorillas than among those in the Cameroonian forest, but
269 est a twofold higher nucleotide diversity in gorillas than in humans, but suggest a threefold higher
271 r anatomies and behaviors of chimpanzees and gorillas therefore constitute poor models for the origin
272 ofiles are more like the human than like the gorilla; these profiles demonstrate that chimpanzees are
273 from six of the infected chimpanzee and both gorillas; those from P. t .ellioti grouped with previous
274 invasive approach, that wild chimpanzees and gorillas throughout central Africa are endemically infec
275 arge number of wild chimpanzees and mountain gorillas to directly infer their average generation time
278 ts in chimpanzees, but was never observed in gorillas until after a demographic transition left ~25%
279 mpus of aged male and female western lowland gorillas using immunohistochemistry and histochemistry.
280 Africa) or between humans and chimpanzees or gorillas, variants of HBV infecting captive wild-born no
283 ase of B cell lymphoma found in the Mountain gorilla was incorrectly referred to as Gibbon lymphocryp
284 ence of EBV or an EBV-like virus in mountain gorillas, we conducted the first population-wide survey
288 ix western lowland gorillas (Gorilla gorilla gorilla) were tested under different conditions that aim
291 n invisible gorilla syndrome, i.e., seeing a gorilla when it is not present and missing a gorilla whe
293 fore the divergence of human, chimpanzee and gorilla, while subfamilies SVA_E and SVA_F are restricte
294 substitutions from chimpanzees, bonobos and gorillas, with an additional fixed substitution found in
296 of the coding exons and splice sites for 16 gorilla Y chromosome genes of the X-degenerate region.
297 Moreover, we have utilized the assembled gorilla Y Chromosome sequence to design genetic markers