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1 ype 1a variant), and HJ3-5 (a genotype 1a/2a chimeric virus).
2 ue to the increased replication level of the chimeric virus.
3 3 of coxsackievirus A20, in the context of a chimeric virus.
4 HeLa cells inoculated with either strain of chimeric virus.
5 polypeptide, are required to create a viable chimeric virus.
6 on and enhance the growth properties of this chimeric virus.
7 ll as a replication-competent VSV/SARS-CoV-2 chimeric virus.
8 nslational activity of the HRV2 IRES in this chimeric virus.
9 GPC maturation and production of infectious chimeric viruses.
10 by virus neutralization assays using capsid chimeric viruses.
11 nfluence the CPE and replication rate of the chimeric viruses.
12 ene of other flaviviruses as live-attenuated chimeric viruses.
13 on capacity compared to the drug-susceptible chimeric viruses.
14 ts, resulting in the production of AAV2/AAV3 chimeric viruses.
15 utralization sensitivity of the parental and chimeric viruses.
16 ria parasitica were used to construct viable chimeric viruses.
17 e three constructs were recovered as viable, chimeric viruses.
18 for neurovirulence (or attenuation) of these chimeric viruses.
19 duce mature virus occurs upon infection with chimeric viruses.
20 M protein was not affected in either of the chimeric viruses.
21 lung lesions, indicating attenuation of the chimeric viruses.
22 d cells with several panels of AR86/Girdwood chimeric viruses.
27 system developed for IBDV, we generated five chimeric viruses after transfection by electroporation p
28 eutralizing antibody-inducing ability of the chimeric viruses against heterologous PRRSV strains.
30 ally, to assess the genetic stability of the chimeric virus, an Npro-null BVDV (BVDV-Npro in which th
31 ve gp120 and specific point mutant variants, chimeric virus analysis, and peptide inhibition of viral
32 mical analyses confirmed the identity of the chimeric virus and further revealed variant viruses due
33 (wt) recombinant A2 virus to create a wt AB chimeric virus and then for a series of A2 derivatives w
34 ed 3-week-old chickens with D78, IM, GLS, or chimeric viruses and analyzed their bursae for pathologi
36 B and HCV, we generated HCV NS2 to -4A/GBV-B chimeric viruses and established a chimera-infected marm
38 g these full-length cDNA clones, constructed chimeric viruses and mapped the virulence factors involv
39 whole-inactivated virus, live-attenuated or chimeric virus, and protein or viruslike particle vaccin
41 thogenic simian/human immunodeficiency virus chimeric viruses are known to induce a rapid, irreversib
42 ulated subcutaneously with one dose of these chimeric viruses (as monovalent or tetravalent formulati
48 strain of mumps virus (MuVJL5), we rescued a chimeric virus bearing the F and HN glycoproteins of BMV
49 t nonneuropathogenic PVF-e5 MuLV, which is a chimeric virus between PVC-211 MuLV and F-MuLV, fail to
51 I mutations increased the infectivity of the chimeric virus by augmenting the initiation of viral cDN
53 virus evolution in the host, we constructed chimeric viruses by introducing variant envelope genes r
54 kaging, a prerequisite for the generation of chimeric viruses by recombination, and also shed light o
55 affecting virus replication, we constructed chimeric viruses by swapping open reading frame 1 (ORF1)
56 o understand these phenomena, we constructed chimeric viruses by using a type A(12) infectious cDNA a
57 that this intranasally administered PIV3(HA) chimeric virus can be used to immunize infants with mate
62 omes expressing the E6 and E7 oncogenes from chimeric virus-cell mRNAs, but less is known about HPV i
67 s revealed a dramatic increase in fitness of chimeric virus containing env(m584) (K315R/N640D) over t
69 Here we show the generation of an infectious chimeric virus containing six out of the eight bat virus
71 emic, we used an EILV cDNA clone to design a chimeric virus containing the chikungunya virus (CHIKV)
72 g this measurement, we demonstrated that the chimeric virus containing the E mutation had a lower vir
73 e killed by recombinant MHV-JHM (RJHM) and a chimeric virus containing the spike of MHV-JHM in the MH
74 n cells appeared resistant to infection with chimeric viruses containing autologous envelope sequence
75 Targeted recombination was used to select chimeric viruses containing either the MHV-1 S gene or g
76 d woman 1 year following seroconversion, and chimeric viruses containing envelope genes representativ
81 nuated DENV-2 virus strain (TDV-2) and three chimeric viruses containing the premembrane and envelope
82 n an attenuated dengue 2 virus (TDV-2) and 3 chimeric viruses containing the premembrane and envelope
86 irus (PV) 5'-terminal cloverleaf in a PV/HCV chimeric virus (containing the HCV IRES), resulting in a
90 ing the properties of genetically engineered chimeric viruses created from OTai and a bovine-virulent
91 HeLa cells inoculated with either strain of chimeric virus demonstrated that the chimeric viruses sy
103 ion against the more pathogenic SHIV89.6P, a chimeric virus encoding env of the primary HIV89.6.
104 s were also described after rapid passage of chimeric viruses encoding IIIB env in rhesus and pig-tai
106 f full-length, replication competent MJ4/gag chimeric viruses, encoding the gag gene and 142 nucleoti
112 ics system, we generated and characterized a chimeric virus expressing the spike of bat coronavirus S
117 inct neutralization phenotype of PRRSV-01, a chimeric virus (FL01) was generated by replacing the str
118 -based selection allowed by the interspecies chimeric virus fMHV (MHV containing the ectodomain of th
122 monocyte-derived dendritic cells to T cells, chimeric virus from acute Envs achieved significantly lo
126 mosquito infection determinants, reciprocal chimeric viruses generated from epizootic subtype IAB an
127 s virus (JEV) and by comparing the resultant chimeric viruses generated from RNA-transfected mosquito
128 ons designed to enhance encapsidation of the chimeric virus genome and to express an attenuated simia
129 f of concept for the feasibility of creating chimeric virus genomes that express lentivirus structura
133 udy revealed that pigs infected with the two chimeric viruses had significant reductions in viral-RNA
137 mentary to that previously described for the chimeric virus HSV-2 333/LAT1 and indicate that the HSV-
138 ble for these phenotypes, we constructed the chimeric virus HSV2-LAT-E1, in which exon 1 (from the LA
139 AT in A5+ neurons (as does HSV-1), while the chimeric viruses HSV2-LAT-P1 (LAT promoter swap) and HSV
141 idemic strain infectious clone, creating the chimeric virus icSZ16-S, which was infectious but yielde
142 o experiments demonstrate replication of the chimeric virus in mouse lung with notable pathogenesis.
143 in Av, supported systemic infection with the chimeric virus in Nicotiana benthamiana, Nicotiana tabac
145 acute and chronic envelope (Env)-expressing chimeric virus in primary human target cells and mucosal
147 Analysis of infections with two of these chimeric viruses in MEFs detected lower early viral RNA
148 of neurovirulence and immunogenicity of the chimeric viruses in mice correlate with the degree of ad
151 The level of replication of rB/HPIV3-RSV chimeric viruses in the respiratory tract of rhesus monk
152 te the role of E3 in spike assembly, we made chimeric viruses in which E3 from one alphavirus species
153 in these contrasting phenotypes by designing chimeric viruses in which the F and HN glycoproteins or
154 egy, illustrated here for PIV1, is to create chimeric viruses in which the two protective antigens, t
156 Monkeys immunized with these bovine-human chimeric viruses, including the more highly attenuated o
158 together with the YF capsid; however, viable chimeric viruses incorporating the entire JE structural
160 rulence and tissue tropism observed with the chimeric viruses indicate a significant role for this se
162 Lysates of HeLa cells inoculated with either chimeric virus induced the proliferation of the mIL-4-re
163 estricted replication in rhesus monkeys, the chimeric viruses induced a level of resistance to HPIV3
165 utralizing IgG 6 h after intravenous SIV/HIV chimeric virus inoculation as monitored by PCR analyses
167 SIN E2 will form a chimeric heterodimer, the chimeric virus is almost nonviable, producing about 10(-
170 pseudotyping is widely used for engineering chimeric viruses, it has remained unknown whether a viru
171 In this study, we constructed a bivalent chimeric virus-like particle (VLP) presenting the VP1 (a
172 nic variation, we tested the hypothesis that chimeric virus-like particle (VLP)-based vaccine platfor
174 o-incorporated with influenza HA-antigens in chimeric virus-like particles (cVLPs), in boosting stron
177 antigenic differences over time, we created chimeric virus-like particles (VLPs) between the GII.4-1
178 (HIV-1)/simian immunodeficiency virus (SIV) chimeric virus macaque model (SHIV) permits the in vivo
182 HCV, we established an infectious clone and chimeric virus of hepatotropic and lymphotropic HCV stra
189 to T-cell trans infection assay, chronic Env-chimeric virus pools were transmitted more efficiently b
193 o the poliovirus (PV) genome, generating the chimeric virus PV-RIPO, selectively abrogates viral tran
196 DEN1Delta30, rDEN4Delta30, and two antigenic chimeric viruses, rDEN2/4Delta30 and rDEN3/4Delta30, bot
198 d-type or cold-passaged 45L (cp45L) PIV3(HA) chimeric viruses replicated 5- to 10-fold less well than
203 e was specific to the chimeric virus, as the chimeric virus-resistant animals were susceptible to mar
204 extended cultivation of cells exposed to the chimeric virus resulted in selection of mutants exhibiti
205 nthesis for several of the single and double chimeric viruses resulted from a partial defect in prime
209 rotein, single-residue knockout mutants, and chimeric viruses revealed that G37080 broadly cross-neut
211 ceptor knockout (IFNAR(-/-)) mice with these chimeric viruses revealed that PLpro deISGylation activi
212 gtail macaques were infected with an SIV/HIV chimeric virus, RT-SHIV(mne), in which SIV reverse trans
214 ian immunodeficiency virus/HIV type 1 (SHIV) chimeric virus SHIV(DH12R) induces a systemic depletion
215 mian immunodeficiency virus (SIV) or SIV/HIV chimeric virus (SHIV) has been widely used to model aspe
216 of a simian immunodeficiency virus (SIV)/HIV chimeric virus (SHIV) infection in two monkeys following
218 ion of a pathogenic CCR5 (R5)-tropic SIV/HIV chimeric virus (SHIV) molecular clone (SHIV(AD8-EO)) rev
220 pathogenic simian immunodeficiency virus/HIV chimeric viruses (SHIVs) cause extremely rapid, irrevers
221 thogenic simian/human immunodeficiency virus chimeric viruses (SHIVs) during infections of rhesus mon
222 the ability of simian-human immunodeficiency chimeric viruses (SHIVs) showing varying degrees of muco
223 eficiency virus/human immunodeficiency virus chimeric viruses (SHIVs) that differ from one another by
226 s of the integration-site selection of these chimeric viruses showed no significant change in integra
227 sorption and neuraminidase activities of the chimeric viruses showed significant differences from tho
232 icantly increased the pathogenicity of the L-chimeric virus, suggesting that the L gene probably cont
233 rain of chimeric virus demonstrated that the chimeric viruses synthesized capsid protein 1D at approx
236 cipitation of a panel of SIVsmH4/SIVsmE543-3 chimeric viruses tentatively assigned the neutralization
240 nfluenza A virus vaccine, we have designed a chimeric virus that takes advantage of the fact that inf
241 ivity to T-649 and (ii) T-649 sensitivity of chimeric viruses that contain sequences derived from CXC
242 the biological properties of three pairs of chimeric viruses that contained envelope genes represent
244 umor induction, we constructed five distinct chimeric viruses that have various amino acid coding seq
245 inant vesicular stomatitis virus (VSV)-based chimeric viruses that include genes from other viruses s
246 ell culture-derived viruses (JFH1 or related chimeric viruses that replicate efficiently in cell cult
247 hat of wild-type D2 16681 virus, resulted in chimeric viruses that retained PDK-53 characteristic phe
250 ces distinguish the JE E proteins of the two chimeric viruses, therefore implicating one or more resi
254 nic progressors (CP; n = 41) by constructing chimeric viruses using patient-derived gag-protease sequ
255 the development of a novel self-replicating chimeric virus vaccine candidate that is designed to pro
256 y generate two recombinant Candid1 JUNV/LASV chimeric viruses (via envelope glycoprotein [GPC] exchan
258 cultures demonstrated that the yield of the chimeric virus was between 0.5 to 2 log units less than
266 IN sequences back into the original SG3(IN2) chimeric virus, we demonstrated that mutations in both R
275 zing antibody titers induced by rB/HPIV3-RSV chimeric viruses were equivalent to those induced by inf
278 nd virulence of a representative flavivirus, chimeric viruses were generated using the West Nile viru
281 In order to map pathogenic determinants, chimeric viruses were prepared between FIV-C36 and FIV-P
285 s showed that the pathogenicities of N and P chimeric viruses were similar to those of their respecti
288 riptional and translational control, and the chimeric virus, which was not viable on the level of pla
289 ummary, the serially passaged SHIV subtype-E chimeric virus will be important for studies aimed at de
291 ved from the F protein of NDV) resulted in a chimeric virus with enhanced incorporation of the foreig
296 s of EIII can allow the generation of viable chimeric viruses with significantly altered antigenicity