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1 gain access to the genome sequestered in the nucleocapsid.
2 n and other viral proteins to form a helical nucleocapsid.
3  and appears to form a core in the center of nucleocapsid.
4 in conserved regions of membrane, spike, and nucleocapsid.
5 ts bullet shaped particle contains a helical nucleocapsid.
6 cription solely upon local disruption of the nucleocapsid.
7 binding-register of viral genomic RNA within nucleocapsids.
8 ired for efficient nuclear egress of progeny nucleocapsids.
9 on reconstructions of complete mononegavirus nucleocapsids.
10 he nucleoprotein (N), giving rise to helical nucleocapsids.
11 in the nuclear release or transport of viral nucleocapsids.
12  large RNA polymerase (L) decorate the viral nucleocapsids.
13 sary for efficient nuclear egress of progeny nucleocapsids.
14 and packaging of the viral genome into viral nucleocapsids.
15 d that these gaps frequently contained viral nucleocapsids.
16 latory mechanisms of nuclear egress of viral nucleocapsids.
17 the circularized DNAs that are packaged into nucleocapsids.
18 s largely exposed in fully assembled measles nucleocapsids.
19                                 We show that nucleocapsid AC141 associates with the lepidopteran Tric
20                                          The nucleocapsid acts as a scaffold for virus assembly and a
21 nct HLA-A*02:01/HBV epitope complexes of HBV nucleocapsid and envelope proteins, we mapped their topo
22 ata to generate models of HIV-1 genomic RNA, nucleocapsid and integrase condensed into a mature ribon
23    Finally, nucleic acids interact with both nucleocapsid and matrix domains, and proteolytic process
24 es from 6 patients with COVID-19 showed anti-nucleocapsid and spike protein antibodies appearing betw
25 rements of plasma or serum antibodies to the nucleocapsid and spike proteins were analyzed using luci
26  highly complex structural layer between the nucleocapsid and the envelope of virions.
27 ment, a complex structural layer between the nucleocapsid and the envelope within virus particles.
28 g hemifusion but failing to uncoat the viral nucleocapsid and to replicate in host nuclei.
29  the site of virion assembly and coordinates nucleocapsid and virus formation.
30      These viral inclusions contain the EBOV nucleocapsids and are sites of viral replication and nuc
31 nfected nuclei results in coiling of genomic nucleocapsids and suppression of viral transcription.
32  is necessary for pgRNA packaging into viral nucleocapsids and the initiation of viral reverse transc
33 , packaging of viral RNA with C protein into nucleocapsid, and budding of prM and E proteins into vir
34  spike receptor binding domain (RBD), S1+S2, nucleocapsid, and ORF6 to ORF10 of SARS-CoV-2, to the HC
35 ore analyzed cellular responses to membrane, nucleocapsid, and spike proteins in individuals sufferin
36 zee-adenovirus-155, encoding RSV fusion (F), nucleocapsid, and transcription antitermination proteins
37 r with other antibodies such as RBD, S1, and nucleocapsid antibody nor with proteins such as interleu
38             Specificity was higher using the nucleocapsid antibody tests (99.3% and 99.7%) than using
39                                          Two nucleocapsid antibody tests (Abbott IgG and Roche total
40                           In conclusion, two nucleocapsid antibody tests outperformed a spike protein
41                                      The two nucleocapsid antibody tests were more sensitive than the
42 tor System for Rapid Detection of SARS-CoV-2 nucleocapsid antigen (Veritor), a chromatographic immuno
43                                A recombinant nucleocapsid antigen specifically captures SARS-CoV-2 an
44 ) vectors co-expressing SARS-CoV-2 spike and nucleocapsid antigens, two immunodominant antigens impli
45      The stability of the genomic RNA in the nucleocapsid appears to regulate its accessibility to th
46 on mediated by the viral glycoproteins, HMPV nucleocapsids are released into the cell cytoplasm.
47                                              Nucleocapsids are too large to diffuse in the cytoplasm
48 nica multiple nucleopolyhedrovirus (AcMNPV), nucleocapsids are transported through the cell.
49 esults indicate that the mechanisms by which nucleocapsids are transported to the farthest reaches of
50 ing spacer peptide 1 that connects capsid to nucleocapsid, are intrinsically disordered.
51 l RdRp uses the genomic RNA inside the viral nucleocapsid as the template to synthesize viral RNAs.
52 LK1 is associated with the biogenesis of the nucleocapsid, as BI-2536 leads to its decreased intracel
53 on between VP24 and NP was required for both nucleocapsid assembly and genome packaging.
54 s inhibitors showed intact nuclear stages of nucleocapsid assembly but the cytoplasmic virus maturati
55 ggested that both SBAs and BAs inhibited HBV nucleocapsid assembly by binding to the heteroaryldihydr
56 core protein that play roles in defining the nucleocapsid assembly pathway.
57 rms a structured oligomer that is suited for nucleocapsid assembly, and phosphorylated protein forms
58 ng the organization of the pre-genome during nucleocapsid assembly, facilitating subsequent reverse t
59 es in particular, the mechanistic process of nucleocapsid assembly, RNA encapsidation, and the roles
60 ption and acting as a nucleation complex for nucleocapsid assembly.
61 d protein, SD1, plays a critical role in the nucleocapsid assembly.
62 ion was associated with enhanced exposure of nucleocapsid-associated DNA, the exposed viral DNA indee
63                                   AC141 is a nucleocapsid-associated protein required for BV egress a
64 in-dependent long-distance transport of EBOV nucleocapsids before budding at the cell surface.
65 e involved in membrane targeting, packaging, nucleocapsid binding, and proton transport.
66 ages of these mutants showed assembled viral nucleocapsids but no completed, mature virions.
67 izes the 5'-triphosphorylated dsRNA on FLUAV nucleocapsids but that polymorphisms at position 627 of
68 it positions the polymerase complex onto the nucleocapsid, but also acts as a chaperone for the nucle
69 act HIV-1 cores or in vitro-assembled capsid-nucleocapsid (CA-NC) complexes.
70 ivity to SUN1, and in vitro-assembled capsid-nucleocapsid (CANC) nanotubes captured SUN1 and SUN2 fro
71 ading frame (dORF) located downstream of the nucleocapsid coding region.
72 r, DRFs also bound in vitro assembled capsid-nucleocapsid complexes and promoted the disassembly of H
73 act HIV-1 cores or in vitro assembled capsid-nucleocapsid complexes, while EB1 did not.
74             Furthermore, coexpression of the nucleocapsid component VP35 overcomes deletion of NP-Ct
75 s reveal the identity and arrangement of the nucleocapsid components, and suggest that the formation
76 in-core links nucleoprotein oligomerization, nucleocapsid condensation, RNA encapsidation, and access
77                                          The nucleocapsid conformation depends on the reverse transcr
78 es have a highly organized structure, with a nucleocapsid core containing the RNA genome surrounded b
79  highly specific and suggest that cognate MP-nucleocapsid core protein interactions are required for
80 hese interactions are able to redirect viral nucleocapsid core proteins from their sites of replicati
81 d that they interact only with their cognate nucleocapsid core proteins.
82 ns of binding sites in cytoplasmic vs. viral nucleocapsids demonstrate that budding causes discrete c
83 avian FLUAV restriction factor and highlight nucleocapsid disruption as an antiviral strategy.
84  cccDNA synthesis from intracellular progeny nucleocapsid DNA.
85 g domain; and the C-terminal, genome-binding nucleocapsid domain.
86 ing the matrix, capsid, spacer peptide 1 and nucleocapsid domains (referred to as DeltaGag) by hetero
87 sport systems may be involved in baculovirus nucleocapsid egress and BV formation.
88                           Marginally located nucleocapsids entered filopodia, moved inside, and budde
89  a bacilliform virus containing a rod shaped nucleocapsid enveloped in an elliptical membrane.
90 C protein assembles onto genomic RNA to form nucleocapsid, followed by prM and E envelopment and viri
91  RNA (pgRNA) and DNA polymerase complex into nucleocapsids for reverse transcriptional DNA replicatio
92 lusion bodies (IBs) are cytoplasmic sites of nucleocapsid formation and RNA replication, housing key
93 omains (CTD) of capsid proteins regulate the nucleocapsid formation.
94 and is membrane enveloped, while SSRV1 has a nucleocapsid formed by a homodimer and is not enveloped.
95 he size of the RNP globule, and exclusion of nucleocapsid from regions with RNA secondary structure d
96 gress complex (NEC) for efficient transit of nucleocapsids from the nucleus to the cytoplasm.
97                      Viral titer estimation, nucleocapsid gene amplification, and viral antinucleocap
98 s packaged and protected by long filamentous nucleocapsid-helix structures (RNPs).
99 ht into the architecture of the rabies virus nucleocapsid highlights the surprising structural diverg
100           The presence of anti-spike or anti-nucleocapsid IgG antibodies was associated with a substa
101       Rate ratios were similar when the anti-nucleocapsid IgG assay was used alone or in combination
102 ed by anti-spike (primary analysis) and anti-nucleocapsid IgG assays, and staff members were followed
103 earman rho = 0.386; P < .001) than with anti-nucleocapsid IgG avidity (Spearman rho = 0.211; P = .026
104               SARS-CoV-2 anti-spike and anti-nucleocapsid IgG titers and avidity were measured in a l
105 Gag domains outside the CA (e.g., matrix and nucleocapsid) impact Gag oligomerization as well as imma
106 st the S-protein, its RBD-subunit, and viral nucleocapsid in a cohort of COVID-19 convalescent patien
107 r CLPs in bacteria but failed to form stable nucleocapsids in hepatoma cells.
108 ribution of vesicular stomatitis virus (VSV) nucleocapsids in the cytoplasm of infected cells was ana
109 in filaments are responsible for mobility of nucleocapsids in the cytoplasm, but that actin filaments
110 ier for most DNA viruses that assemble their nucleocapsids in the nucleus.
111 ncy entry of BV and the retention of progeny nucleocapsids in the perinuclear space during egress.
112 rogeny, which results in the accumulation of nucleocapsids in the T cell nucleus.
113 ered, resulting in the accumulation of viral nucleocapsids in the T cell nucleus.
114 was readily detectable in the densely packed nucleocapsids inside perinuclear viral inclusions and in
115           In this study, we examined whether nucleocapsids interact with lepidopteran kinesin-1 motor
116 status of the genome, which in turn controls nucleocapsid interaction with the envelope proteins for
117 to membrane fusion and delivery of the viral nucleocapsid into the cellular cytoplasm.
118 ution in the cytoplasm, the incorporation of nucleocapsids into virions as determined in pulse-chase
119 r role than microtubules in incorporation of nucleocapsids into virions.
120   Prior studies have shown that the entry of nucleocapsids involves the polymerization of actin to pr
121           Formation of the hepatitis B virus nucleocapsid is an essential step in the viral lifecycle
122                                     The SIFV nucleocapsid is formed by a heterodimer of two homologou
123 sttranslational processing of the spikes and nucleocapsid is necessary to produce infectious virus.
124  a common mechanism of how the growth of the nucleocapsid is orchestrated, and highlight an interacti
125 nd E3 glycoproteins before assembly with the nucleocapsid is the key to producing fusion-competent ma
126 oteolytic processing at the spacer peptide 1|nucleocapsid junction by HIV-1 protease is accelerated i
127                                              Nucleocapsids labeled with VP39 fused with three copies
128 capsid within intact viruses and recombinant nucleocapsid-like assemblies.
129 c acid, is thereby shown to be essential for nucleocapsid-like particle assembly.
130        The structure of an empty mumps virus nucleocapsid-like particle is determined to 10.4 A resol
131                   Previous studies of NCs or nucleocapsid-like particles (NCLPs) from RSV and other n
132 developed approach to assemble measles virus nucleocapsid-like particles on specific sequences of RNA
133                    After aggregation to form nucleocapsid-like particles upon incubation with an olig
134  cryo-electron microscopy of nucleocapsid or nucleocapsid-like structures.
135   In addition to NP, other components of the nucleocapsid localize to IBs, including VP35, VP24, VP30
136 ral inclusions and in the dispersed rod-like nucleocapsids located outside of viral inclusions.
137 psids and are sites of viral replication and nucleocapsid maturation.
138  in vitro trackable assembly of RSV-specific nucleocapsids may enable in-depth mechanistic analyses o
139               The role of actin filaments in nucleocapsid mobility was also confirmed by live-cell im
140  here that, somewhat surprisingly, the viral nucleocapsid (N) and phosphoprotein (P) genes together c
141 CoV antigens, mostly derived from SARS-CoV-2 nucleocapsid (N) and spike (S).
142 utralizing titers and antibodies against the nucleocapsid (N) and the receptor binding domain (RBD) o
143  Here, we report a unique phenomenon of PEDV nucleocapsid (N) cleavage by the PEDV-encoded 3C-like pr
144 IgG, IgM and IgA antibodies, as well as anti-nucleocapsid (N) IgG antibody, while children with and w
145 onstrate that the 3'-terminal portion of the nucleocapsid (N) mRNA of Rift Valley fever virus, a phle
146  for NF-kappaB regulation and determined the nucleocapsid (N) protein as the NF-kappaB activator.
147 lation of plasmid DNA vaccine expressing IBV nucleocapsid (N) protein by the QAC adjuvant system (pQA
148 assay was conceived for Spike (S) protein or Nucleocapsid (N) protein detection using magnetic beads
149 d interactions of M with itself and with the nucleocapsid (N) protein drive virus assembly and buddin
150                               The SARS-CoV-2 nucleocapsid (N) protein is highly homologous to the N p
151 ctive and respiratory syndrome virus (PRRSV) nucleocapsid (N) protein is the main component of the vi
152                                          The nucleocapsid (N) protein of coronaviruses serves two maj
153 sor was fabricated by immobilizing the virus nucleocapsid (N) protein on carbon nanofiber-modified sc
154 eading frame that overlaps that of the viral nucleocapsid (N) protein thus limiting options for mutag
155 reover, GFP-MxA condensates included the VSV nucleocapsid (N) protein, a protein previously shown to
156 matitis virus (VSV)-infected Huh7 cells, the nucleocapsid (N) protein, which participates in forming
157    Our analysis identified the spike (S) and nucleocapsid (N) proteins as promising targets for deopt
158                                    Since the nucleocapsid (N) proteins of these viruses show the grea
159 e, we highlight the use of VIStEDD for nsp6, nucleocapsid (N), and spike (S) surface glycoprotein.
160 r PEDV structural proteins, i.e., spike (S), nucleocapsid (N), membrane (M), and envelope (E).
161 V-2 S1 subunit of the spike glycoprotein and nucleocapsid (N)-based ELISAs not only showed high speci
162 k of cellular and spliced viral RNAs via its nucleocapsid (NC) domain and drives gRNA encapsidation a
163                      Disruption of the viral nucleocapsid (NC) domain integrity affects HIV-1 budding
164                    The primary NLS is in the nucleocapsid (NC) domain of Gag and binds directly to im
165 lecules but is facilitated by binding of the nucleocapsid (NC) domain to nucleic acid.
166 teractions of the highly flexible NA-binding nucleocapsid (NC) domain.
167 5'-leader of the unspliced viral RNA and the nucleocapsid (NC) domains of a small number of assemblin
168 ediated predominantly by the capsid (CA) and nucleocapsid (NC) domains, which have conserved structur
169 ed domains-the matrix (MA), capsid (CA), and nucleocapsid (NC) domains-drives different phases of vir
170 tion of the N-terminal MA and the C-terminal nucleocapsid (NC) of Gag with the bilayer, since both ar
171                           In contrast, HIV-1 nucleocapsid (NC) promotes formation of the extended dim
172 gion (5' UTR) of HIV-1 RNA that are bound by nucleocapsid (NC) protein, which is derived from Gag dur
173 tive proteins: the matrix (MA), capsid (CA), nucleocapsid (NC), and p6 proteins.
174 ional domains: matrix (MA), capsid (CA), and nucleocapsid (NC).
175  of the pregenomic RNA (pgRNA) into immature nucleocapsids (NC), which are converted to mature NCs co
176 facilitate viral RNA packaging into immature nucleocapsids (NCs) and the early stage of viral DNA syn
177 syncytial virus (RSV) polymerase are helical nucleocapsids (NCs), formed by viral RNAs that are encap
178 the host cell and (ii) egress and budding of nucleocapsids newly produced from the plasma membrane.
179                 M proteins interact with the nucleocapsid (NP or N) components of vRNPs, and these in
180 f full-length recombinant metastable helical nucleocapsid of Hantaan virus (Hantaviridae family, Buny
181                             In addition, the nucleocapsid of the immature virus is more compact than
182 onfirmed by live-cell imaging of fluorescent nucleocapsids of a virus containing P protein fused to e
183                       The mechanism by which nucleocapsids of Autographa californica multiple nucleop
184 nt entry of BV and nuclear egress of progeny nucleocapsids of baculoviruses.
185                                              Nucleocapsids of nonsegmented negative-strand viruses li
186 erized an intriguing phenomenon in which the nucleocapsids of some PEDV strains are proteolytically p
187                    Assembly of paramyxoviral nucleocapsids on the RNA genome is an essential step in
188 cleoprotein, and cryo-electron microscopy of nucleocapsid or nucleocapsid-like structures.
189  were derived from the C-terminus of the HIV nucleocapsid p7 protein (NCp7-F2) and finger 3 of the Sp
190                      The resulting synthetic nucleocapsids package one full-length RNA genome for eve
191 e in host cells to initiate viral fusion and nucleocapsid penetration into the cytoplasm.
192 therapy to the clinic), membrane, spike, and nucleocapsid peptides elicited interferon-gamma producti
193 cessary transcriptional machinery to the HBV nucleocapsid promoter to modestly enhance viral pregenom
194              Here, we demonstrate that CCHFV nucleocapsid protein (CCHFV-NP) augments mRNA translatio
195 ure of the N-terminal domain of the MERS-CoV nucleocapsid protein (MERS-CoV N-NTD).
196 ts with PD and determined that measles virus nucleocapsid protein (MVNP) was expressed in 70% of thes
197                                   Hantavirus nucleocapsid protein (N protein) binds to the 5' caps of
198                    The multifunctional CCHFV nucleocapsid protein (N protein) plays a crucial role in
199 e-sense genomic RNA completely coated by the nucleocapsid protein (N) and associated by a phosphoprot
200 possibility that the multivalent RNA-binding nucleocapsid protein (N) from severe acute respiratory s
201 e interpret to reflect the lack of the viral nucleocapsid protein (N) on the template.
202 rovirus genome are encapsidated by the viral nucleocapsid protein (N) to form ribonucleoprotein (RNP)
203                         Interaction of viral nucleocapsid protein (N) with this conserved sequence fa
204 c RNA is sequestered within a homopolymer of nucleocapsid protein (N).
205                We report that the SARS-CoV-2 nucleocapsid protein (N-protein) undergoes liquid-liquid
206 in (L) and the phosphoprotein (P), while the nucleocapsid protein (NP) encapsulates the viral RNA gen
207                         Hantavirus encodes a nucleocapsid protein (NP) to encapsidate the genome and
208  must require a conformational change in the nucleocapsid protein (NP) to make the RNA accessible by
209               Both regions interact with the nucleocapsid protein (NP), an essential component of the
210 benzamides (DISeBAs) as novel HIV retroviral nucleocapsid protein 7 (NCp7) inhibitors.
211  genome (open reading frame 1ab [ORF1ab] and nucleocapsid protein [N]).
212 g assay could be demonstrated before day 12; nucleocapsid protein Abs emerged less consistently.
213 mic RNA segments, each sheathed by the viral nucleocapsid protein and bound by the RNA-dependent RNA-
214 t of the nuclear localization signals in the nucleocapsid protein and distinct inserts in the spike g
215                  Tightly packed complexes of nucleocapsid protein and genomic RNA form the core of vi
216 vestigation and characterization of the PEDV nucleocapsid protein and its possible link to cell cultu
217 genes to assess the abilities of Phlebovirus nucleocapsid protein and RNA-dependent RNA polymerase to
218 leavage site exposed on the apex of the HAZV nucleocapsid protein arm domain that is cleaved during H
219 s that a helix structural element in the MuV nucleocapsid protein becomes open when the sequestered R
220 trand, and the interaction is independent of nucleocapsid protein binding.
221  derived from either the PIV5 or Nipah virus nucleocapsid protein C-terminal ends are sufficient to d
222 ies reported here reveal that the hantavirus nucleocapsid protein counteracts the PKR antiviral respo
223 tes in a critical interaction with the viral nucleocapsid protein early in infection.
224               Sera were screened by MERS-CoV nucleocapsid protein enzyme-linked immunosorbent assay a
225 ce that seroreactivity using SARS-CoV-2 anti-nucleocapsid protein IgG and anti-spike IgM assays are g
226 Abs to the receptor-binding domain (RBD) and nucleocapsid protein in addition to conventional isotype
227    Although structures are available for the nucleocapsid protein in complex with RNA, and also for p
228  significant response to SARS-CoV-2 spike or nucleocapsid protein in the ELISPOT assay.
229    Further studies revealed that Andes virus nucleocapsid protein inhibited PKR dimerization, a criti
230 of paramyxovirus particles depends on matrix-nucleocapsid protein interactions which enable efficient
231 tobenzamide thioester that targets the viral nucleocapsid protein NCp7, causing zinc ejection and pre
232  stem-loop structure brought on by the HIV-1 nucleocapsid protein NCp7.
233                              Antibody to the nucleocapsid protein of SARS-CoV-2 is more sensitive tha
234  structure, even in the absence of the HIV-1 nucleocapsid protein or other RNA chaperones.
235  interactions between the RNA genome and the nucleocapsid protein regulate the activity of vRdRp, whi
236 symptom onset, antibodies against SARS-CoV-2 nucleocapsid protein showed 100% sensitivity and 100% sp
237 caspase cleavage site, DQVD, within the HAZV nucleocapsid protein that is also conserved in CCHFV.
238 or target for neutralizing Abs) or the viral nucleocapsid protein that is known to be highly immunoge
239 e Abbott Architect immunoassay targeting the nucleocapsid protein were run in 3 SARS-CoV-2 IgG immuno
240 deficient nuclear interactions with the SYNV nucleocapsid protein were unable to suppress transcripti
241 D-19 antigens (spike S1, spike S1S2, and the nucleocapsid protein).
242 ntly, we detected an expansion of SARS-CoV-2 nucleocapsid protein-specific Ab-secreting cells in all
243 on between the coronavirus M protein and the nucleocapsid protein.
244  most epitopes were located in ORF1ab or the nucleocapsid protein.
245  G (IgG) antibodies specific for recombinant nucleocapsid proteins (recN) from hCoVs 229E, NL63, OC43
246 ing cells specific for the hemagglutinin and nucleocapsid proteins appeared in circulation in multipl
247                Emerging models indicate that nucleocapsid proteins of other viruses can form biomolec
248  AC141 or VP39, suggesting that either other nucleocapsid proteins or adaptor proteins may be require
249 ns near the C-terminal ends of paramyxovirus nucleocapsid proteins that are important for matrix prot
250                             In addition, the nucleocapsid proteins VP39, FP25, and BV/ODV-C42 were al
251 ond to peptides from the membrane, spike, or nucleocapsid proteins were more common in subjects who d
252     T cell responses to SARS-CoV-2 spike and nucleocapsid proteins were present in only 1 participant
253 rocess that starts with the formation of the nucleocapsid providing a confined space where the viral
254 gamma134.5 gene product of HSV-1 facilitates nucleocapsid release to the cytoplasm through bridging t
255                                Consequently, nucleocapsids released by potential superinfectors are s
256 ctions either coils or prevents uncoiling of nucleocapsids released by the superinfecting SYNV virion
257 , and the N- and C-terminal zinc knuckles of nucleocapsid) retain their fold and reorient semi-indepe
258               The structure reveals a 13-mer nucleocapsid ring whose diameter, cavity, and pitch/heig
259 ic, non-infectious virions without affecting nucleocapsid-RNA interactions.
260 nosorbent assay based on the recombinant NiV nucleocapsid (rNiV-N) protein.
261 s in that the genomic RNA sequestered in the nucleocapsid serves as the template.
262 o transcription run-on assay, containing RSV nucleocapsids, showed that AZ-27 inhibits synthesis of t
263 ta analysis indicated the formation of virus-nucleocapsid-sized (or wider) channels extending through
264 ults for the impact of CTD truncation on the nucleocapsid stability.
265 ts of variation were identified in spike and nucleocapsid structural proteins as well as the 3' untra
266            Our thermodynamic analysis of the nucleocapsid structure and stability indicates that appr
267 ase activity without major disruption of the nucleocapsid structure.
268  series of CRISPR-Cas13a-based antibacterial nucleocapsids, termed CapsidCas13a(s), capable of sequen
269 A viruses condense their genome into helical nucleocapsids that constitute essential templates for vi
270 help elucidate the assembly mechanism of the nucleocapsid (the viral RNA genome packaged by the nucle
271 he template RNA is always sequestered in the nucleocapsid, the viral RdRp must find a way to open it
272 viruses likely involves the passage of viral nucleocapsids through MP-gated plasmodesmata, but the mo
273 gy and might help the polymerase remodel the nucleocapsid to allow RNA synthesis to occur efficiently
274 y packages genomic RNA (gRNA) into the viral nucleocapsid to produce infectious virus.
275              We explore the ability of these nucleocapsids to evolve virus-like properties by generat
276         This is likely due to the ability of nucleocapsids to follow shorter paths to the plasma memb
277 volves the polymerization of actin to propel nucleocapsids to nuclear pores and entry into the nucleu
278 lating at the plasma membrane and recruiting nucleocapsids to the budding sites.
279 ubules were responsible for migration of VSV nucleocapsids to the plasma membrane for virus assembly.
280  Although the UL31 and UL34 proteins control nucleocapsid transit in infected cells, the molecular in
281      Until now, no live-cell studies on EBOV nucleocapsid transport have been performed, and particip
282                                              Nucleocapsid transport was arrested upon depolymerizatio
283 ss, as well as the trajectories and speed of nucleocapsid transport, remain unknown.
284 ication of cellular proteins involved in the nucleocapsid transport.
285 me, viral ribonucleoprotein (RNP) particles (nucleocapsids) travel from their initial sites of synthe
286 ted cells, but the mechanism by which AcMNPV nucleocapsids traverse the cytoplasm is unknown.
287                 The intrinsic flexibility of nucleocapsids usually prevents their full-length structu
288 n of green fluorescent protein (GFP)-labeled nucleocapsid viral protein 30 (VP30) in EBOV-infected ce
289 lization studies demonstrated that the Sf-RV nucleocapsid was targeted to plasmodesmata, while two fo
290         Since the core of NP is rigid in the nucleocapsid, we suggest that interactions between this
291 whereas functional antibody responses to the nucleocapsid were elevated in deceased individuals.
292                                              Nucleocapsids were located near the cell nucleus at earl
293 ells expressing DN NSF revealed that progeny nucleocapsids were retained in a perinuclear space surro
294                                         EBOV nucleocapsids were visualized by expression of green flu
295 virions, resulting in defective uncoating of nucleocapsid when infecting new cells.
296 s, the genomic RNA is sequestered inside the nucleocapsid when the viral RNA-dependent RNA polymerase
297                                    The viral nucleocapsid, which is minimally composed of the protein
298                     Here we create synthetic nucleocapsids, which are computationally designed icosah
299 inalized by the enclosure of the icosahedral nucleocapsid within a heterogeneous envelope.
300 ng to determine the structure of Ebola virus nucleocapsid within intact viruses and recombinant nucle

 
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