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1 zed but estrogen-replaced nonhuman primates (African green monkeys).
2 SFV serotype 3 (SFVagm-3), isolated from an African green monkey.
3 cur among natural SIV variants isolated from African green monkeys.
4 animal model of lymphatic obstruction using African green monkeys.
5 to dietary cholesterol, and less responsive African green monkeys.
6 V-1 and simian immunodeficiency viruses from African green monkeys.
7 from vervet, grivet, and tantalus species of African green monkeys.
8 oost neutralization titers in RSV-preexposed African green monkeys.
9 ts implanted in the striatum of MPTP-treated African green monkeys.
10 ulated in the dorsal and ventral striatum of African green monkeys.
11 vaccine candidates after a single passage in African green monkeys.
12 elae of SARS-CoV-2 using SARS-CoV-2 infected African green monkeys.
13 increased suPAR levels and glomerulopathy in African green monkeys.
14 igtail macaques, rhesus macaques, and vervet African green monkeys.
15 simian immunodeficiency virus infections of African Green Monkeys.
16 tion in both LDL receptor-deficient mice and African green monkeys.
19 luding human A3C (hA3C), human A3DE (hA3DE), African green monkey A3F (agmA3F), and rhesus macaque A3
20 irus (SIV) Vif was shown to bind and degrade African green monkey A3G (agmA3G) and, unexpectedly, hum
22 G but not rhesus macaque APOBEC3G (rhA3G) or African green monkey (AGM) APOBEC3G (agmA3G) because of
23 veloped for studying HeV infection, with the African green monkey (AGM) appearing to most faithfully
28 , we examined the pathogenesis of HeV in the African green monkey (AGM) following intratracheal inocu
29 e, preclinical studies were conducted in the African green monkey (AGM) inhalational model of pneumon
31 ddress this issue, we established a neonatal African green monkey (AGM) nonhuman primate model that c
33 Conversely, the Vif protein encoded by the African green monkey (agm) simian immunodeficiency virus
34 amics of the A3G-Vif interaction within four African green monkey (AGM) subspecies, which are each na
36 is achieved by comparing a natural SIV host, African green monkey (AGM) to an AIDS susceptible specie
37 function, we isolated cDNA clones of human, African green monkey (AGM), and NIH/Swiss mouse CCR5s, a
39 of SIVsab from its natural host, the sabaeus African green monkey (AGM), to a new host, the pigtailed
43 SIV) infection in its natural hosts, such as African green monkeys (AGM) and sooty mangabeys (SM).
47 d plasma were assessed in naturally infected African green monkeys (AGM) of the vervet subspecies (Ch
49 te pathogenic differences between strains, 4 African green monkeys (AGM) were exposed to NiVM and 4 A
50 onprogressive infection (SIVagm infection of African green monkeys (AGM)), and transient, controlled
57 their virulence in BALB/c mice, ferrets, and African green monkeys (AGMs) (Chlorocebus aethiops).
58 three viral pathogens in two populations of African green monkeys (AGMs) (Chlorocebus sabaeus) from
60 e employ such approach to compare T cells of African green monkeys (AGMs) and rhesus macaques (RMs).
63 lar, the geographically dispersed species of African green monkeys (AGMs) are all infected with highl
69 reflect the findings in humans and evaluated African green monkeys (AGMs) as a nonhuman primate model
70 ous (approximately 98-99% identical) CCR5 of African green monkeys (AGMs) avidly binds beta-chemokine
71 To test the hypothesis that SIV-infected African green monkeys (AGMs) avoid AIDS due to virus rep
72 rison with m102.4 for the ability to protect African green monkeys (AGMs) from a stringent NiV challe
76 c SIV infection in sooty mangabeys (SMs) and African green monkeys (AGMs) is associated with low leve
77 rability of rVSV-DeltaG-NiVBG, we vaccinated African green monkeys (AGMs) one year before challenge w
79 partments of chronically SIV-infected sabeus African green monkeys (AGMs) revealed that gastrointesti
81 collected from pigtailed macaques (PTMs) and African green monkeys (AGMs) that experience different S
82 ansmitted SIVsab from the sabaeus species of African green monkeys (AGMs) to pigtailed macaques (PTMs
83 ial of NiV delivered by the aerosol route in African green monkeys (AGMs) used the Malaysia strain (N
84 A group of 10 rhesus macaques (RMs) and 10 African green monkeys (AGMs) was exposed to aerosolized
86 hoid organs from chronically SIVagm-infected African green monkeys (AGMs) were frequently CXCR5(+) an
94 immunodeficiency virus (SIV) hosts, such as African green monkeys (AGMs), sustain nonpathogenic SIV
105 ailed macaques [PTMs]) and nonpathogenic (in African green monkeys [AGMs]) SIVsab infections to asses
107 m neutralizing antibody titers obtained from African green monkeys and after human vaccination and na
108 we demonstrate that nonhuman primates (NHPs; African green monkeys and cynomolgus macaques) harbor se
109 We identified multiple SAMHD1 haplotypes in African Green Monkeys and find that the vpr gene from di
110 ral SIV hosts (for example, sooty mangabeys, African green monkeys and mandrills) share many features
112 rated fats and cholesterol to nonpathogenic (African green monkeys) and pathogenic (pigtailed macaque
113 As the outcomes of SIVsab infection in PTMs, African green monkeys, and rhesus macaques are different
114 ost efficiently in the respiratory tracts of African green monkeys, and the infected animals develope
115 in the TRIM5alpha B30.2 domain v1 region of African green monkeys are also associated with broader a
116 pathogenic infections in natural hosts, such African green monkeys, are characterized by a lack of gu
118 A] were administered separately to groups of African green monkeys by the intranasal/intratracheal ro
122 r molecule directed secretion of both Ags in African green monkey cells and functioned as an adjuvant
123 V(SYK) Vpr proteins are capable of arresting African green monkey cells but are completely inactive i
124 HuTRS1 (RhTRS1) fulfills these functions in African green monkey cells, but not rhesus or human cell
127 CypA soon after entry into rhesus macaque or African green monkey cells, where, paradoxically, the in
133 0 lymphocyte-depleting antibodies to sabaeus African green monkeys (Chlorocebus sabaeus) before chall
134 ke gammaherpesviruses recently identified in African green monkeys, Chlorocebus rhadinovirus types 1
136 exhibited a range of restriction in mice and African green monkeys comparable with that of two attenu
139 1-NTP, and in vivo studies in cynomolgus and African Green monkeys demonstrated a >10-fold higher lun
140 IVcpz [from chimpanzees] and SIVagmSab [from African green monkeys]) discordantly in different region
141 ha variants from humans, rhesus monkeys, and African green monkeys displayed different but overlappin
142 Here we show that many CD4(+) T cells from African green monkeys downregulate CD4 in vivo as they e
144 nary artery atherosclerosis were examined in African green monkeys fed diets containing cholesterol a
147 reviously shown that intranasal SV protected African green monkeys from challenge with the related hu
149 arteriviruses (family Arteriviridae) in wild African green monkeys from Zambia (malbroucks [Chloroceb
155 We evaluated the immunological responses of African green monkeys immunized with multiple F and G pr
159 ttenuated/nonprogressive infection) and from African green monkeys infected with SIVsab9315BR (nonpat
162 r the onset of clinical anthrax disease, the African green monkey is a suitable animal model exhibiti
164 two attenuated viruses adapted to growth in African green monkey kidney (AGMK) and MRC-5 cells, resp
165 unknown natural function which serves as an African green monkey kidney (AGMK) cell receptor for HAV
167 clonal antibodies raised against susceptible African green monkey kidney (AGMK) cells as probes.
168 s isolated from a cDNA expression library of African green monkey kidney (AGMK) cells by using protec
170 V cellular receptor 1 (havcr-1) and protects African green monkey kidney (AGMK) clone GL37 cells (GL3
172 (HAV), HM175/P16, enhance growth in cultured African green monkey kidney (BS-C-1) cells but not in fe
174 ase cDNA and establishing stably transfected African green monkey kidney (CV1) cell lines expressing
176 ed cells, and produced very small plaques on African green monkey kidney (Vero) cells that were simil
177 s, including porcine kidney (PK15) cells and African green monkey kidney (Vero) cells, was inhibited
178 H1N1, H3N2, H5N1 and H7N9 vaccine viruses in African green monkey kidney and Madin-Darby canine kidne
180 xpansions and deletions were monitored in an African green monkey kidney cell culture system (COS-7 c
184 he virus within a few cycles of infection in African green monkey kidney cell lines CV-1, CV-1P, TC-7
185 process generates H2O2, was introduced into African green monkey kidney cells (CV-1 cells) under the
186 ges in cell homeostasis were investigated in African green monkey kidney cells (CV-1) by assessing th
187 ytes, Kv1.3, was heterologously expressed in African Green Monkey kidney cells (CV-1) using a vaccini
188 AM, human U937 cells (histiocytic lymphoma), African green monkey kidney cells (MARC-145 and Vero), p
189 fectivity of HSV-1 derived from immortalized African green monkey kidney cells (Vero), immortalized h
190 omes were microsurgically removed from BSC-1 African green monkey kidney cells before the completion
195 urine melanoma cell line but not to the CV-1 African green monkey kidney cells, which express CD44 at
197 gly present in SARS-CoV-2-infected controls (African green monkey kidney clone E6 [Vero E6] cultures)
199 ty of their respective intracellular niches, African green monkey kidney epithelial (Vero) cells, A/J
200 inoculation was detected in only six: three African green monkey kidney epithelial cell lines (Vero,
201 ibit SV40 DNA replication in infected BSC-1 (African green monkey kidney epithelial) cells, albeit at
202 sseriae interact with CD66a-transfected COS (African green monkey kidney) and CHO (Chinese hamster ov
205 Vero cells, which were derived from the African green monkey kidney, represent one of the few ma
206 lly active in 293T (embryonic kidney), Vero (African-green monkey kidney epithelial), 3T12 (mouse fib
209 four different species of naturally infected African green monkeys living in different regions across
210 V-1 cDNA, complete suppression of macaque or African green monkey Lv1 was achieved by the additive ef
212 ecies of natural SIV hosts (sooty mangabeys, African green monkeys, mandrills, sun-tailed monkeys, an
216 validated the use of RSV (Memphis 37) in an African green monkey model of intranasal infection and i
217 or G (PIV5/G) protein in the cotton rat and African green monkey models for their replication, immun
219 The recombinant viruses were administered to African green monkeys (NDV-BC and NDV-LS) and rhesus mon
226 irus has adapted to the polymorphisms of the African Green Monkey population in which it is found.
229 transfection and deletion analysis in BSC-1 (African green monkey, renal epithelial) cells revealed t
232 hepatitis after intravenous inoculation into African green monkeys, rhesus monkeys, and marmosets.
234 daily 10 mg/kg IV administration of 1 in an African Green monkey RSV model demonstrated a >2-log(10)
235 proteins; the human and, to a low level, the African green monkey sequences bound soluble HCV E2 (sE2
236 most cleavage-efficient mutant, R-R-R-R, in African green monkeys showed that there was no detectabl
238 n target only human Apo3G (hApo3G), whereas, African green monkey simian immunodeficiency virus (SIVa
240 bey (simian immunodeficiency virus SIV(SM)), African green monkey (SIV(AGM)), and Sykes' monkey (SIV(
241 imian immunodeficiency viruses isolated from African green monkeys (SIVagm) contain a single accessor
242 an immunodeficiency virus (SIV) that infects African green monkeys (SIVagm) contains a vpr homologue,
244 during nonpathogenic infection with SIV from African green monkeys (SIVagm), follicles remain general
245 HIV-2 and simian immunodeficiency virus from African green monkeys (SIVagm), in one round of viral re
249 an HIV-1 (simian immunodeficiency virus from African green monkeys [SIVagm] and Rhesus macaques [SIVm
251 he red-capped mangabey (SIVrcm), the sabaeus African green monkey (SIVagmSAB), and the chimpanzee (SI
252 an immunodeficiency virus (SIV) that infects African green monkeys (SIVagmTAN), unlike human Apobec3D
253 gm infection in its sabaeus monkey host, the African green monkey species endemic to West Africa.
255 assays developed to measure SIVagm from two African green monkey subspecies demonstrated high levels
256 correlated with that previously observed for African green monkeys, suggesting that the HAE model has
258 on the CD4(+) T cells of young mandrills and African green monkeys than on those of adults, we propos
259 boost RSV neutralization antibody titers in African green monkeys that had been infected previously.
263 model for NiV infection, we exposed 6 adult African green monkeys to a large-particle (approximately
265 Here, we compared the plasma virome of West African green monkeys to that in their descendants after
269 by at least two different retroviruses, and African green monkey TRIM5alpha was able to inhibit infe
276 the lower respiratory tract of RSV-infected African green monkeys when administered once daily via i
277 y and protective efficacy in cotton rats and African green monkeys, which are among the best availabl
278 virus (HAV) was originally isolated from an African green monkey with hepatitis and appears to repre
279 ers and 4 tissue samples from a NiV-infected African green monkey with viral loads as low as 52 genom
280 elop a more natural NHP model, we challenged African green monkeys with the Bangladesh strain of NiV