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1 re consistent with disruption of the nuclear envelope.
2 common function of penetrating the bacterial envelope.
3 tion and biophysical properties of the viral envelope.
4 ECE2, and SECA2 was found in the chloroplast envelope.
5 the central plaque of the SPB to the nuclear envelope.
6  multi-protein assemblies that span the cell envelope.
7  used to suggest the organization of the HCV envelope.
8 is envelope compared to colonies without the envelope.
9 he gene products are distributed in the cell envelope.
10 ostly target elements in the parasite's cell envelope.
11  a planar-gap stage within the MS instrument envelope.
12 infectivity with a perturbation of the viral envelope.
13  line reporter construct, within the nuclear envelope.
14 eceptor for binding to PS exposed on the HCV envelope.
15 es, facilitating CCR5 recognition by the HIV envelope.
16 erichia coli are protected by a complex cell envelope.
17 ealed with use of sequential numbered opaque envelopes.
18 myelinated axons and perisynaptic astroglial envelopes.
19                      SYNE1 (synaptic nuclear envelope 1) encodes multiple isoforms of Nesprin1 (nucle
20 he expression of genes of the late cornified envelope-1 (Lce1) family involved in epidermal terminal
21                        Chromatin and nuclear envelope A-type lamin proteins are known to be key nucle
22           Structural nuclear LMNA-associated envelope abnormalities, that is, blebs, were confirmed b
23 en (1) force and the approximately 20 Hz SM1 envelope and (2) the absolute change rate of the force a
24                                    The viral envelope and 5'-UTR sequences of the lymphotropic HCV st
25 asmic reticulum (ER) consists of the nuclear envelope and a reticulated interconnected network of tub
26 -labeled microsections revealed that the HCV envelope and core proteins colocalize with apolipoprotei
27 ich we show is associated with both the cell envelope and cytoplasm.
28 elaxation of external tethers to the nuclear envelope and internal chromatin-chromatin tethers, toget
29 ent an important determinant of host thermal envelope and spatial distribution.
30 lis which monitors the assembly of the spore envelope and specifically eliminates, through cell lysis
31 roteins form a complex that bridges the cell envelope and that has been proposed to cause fusion of t
32 es viruses that carry glycoproteins in their envelopes and that are routinely used for infection of C
33 matitis, Rabies, Mokola and Ross River viral envelopes) and self-complementary adeno-associated viral
34 with an occluded CD4 binding site on the HIV envelope antigen, demonstrating a potentially important
35 ly gained through analyses of isolated viral envelope antigens, host CD4 receptors, and cognate antib
36                      Next, we used a climate-envelope approach to project how N-fixing tree relative
37  in nuclei, leading to disruption of nuclear envelope architecture, partial sequestration of factors
38 study, we tested the effects of the propolis envelope as a natural defense against Paenibacillus larv
39 mmunity had remained within the same thermal envelope as in the 1920s-1930s, community peak abundance
40 s in the division plane (eMTOCs) and nuclear-envelope associated MTOCs in interphase cells (iMTOCs).
41 ed decrease in expression of several nuclear envelope-associated components (Lamin B1, Lamin A/C, Sun
42 ression in keratinocytes and suggest nuclear envelope-associated genes as important targets mediating
43 ements of this multi-protein machine are the envelope-associated needle complex, the inner membrane e
44 genes included several involved in bacterial envelope biogenesis, protein translocation, and metaboli
45  of the mRNAs to the cytoplasm after nuclear envelope breakdown (NEBD) at prometaphase.
46 e retinoblastoma protein and lamins, nuclear envelope breakdown, and duplication of centrosomes.
47 ed in prometaphase within minutes of nuclear envelope breakdown.
48 arge quantities of unenveloped and partially enveloped capsids in neuronal cytoplasm.
49 ontrast, the CTD in empty HBV virions (i.e., enveloped capsids with no RNA or DNA) was found to be ph
50 e reveal that the extra-embryonic epithelial enveloping cell layer, thought mainly to provide protect
51  and, to a lesser extent, magnified cortical envelope coding in left posteromedial auditory cortex pr
52    We propose a framework in which magnified envelope coding in posteromedial auditory cortex disrupt
53 gher when challenged colonies had a propolis envelope compared to colonies without the envelope.
54                     Often the outermost cell envelope component, S-layers serve diverse functions inc
55                    Loss of BamE altered cell envelope composition, leading to slower growth and an in
56                                  Using power envelope computation and visual inspection of power dist
57 oordinates peptidoglycan (PG) remodeling and envelope constriction.
58 correlated with released particles with flat envelope curvature in the absence of the matrix (M1) pro
59 al spacing, acylation significantly affected envelope curvature.
60  that the surface treatment causes bacterial envelope damage and cell aggregation.
61 Moreover, the strength of LRTC of the speech envelope decreased at the maximal rate, suggesting an in
62                                     However, envelope-defective recombinant HIV-1 did not infect the
63 stribution function analysis, and difference envelope density analysis, with electron microscopy imag
64 ule to interact with three independent HIV-1 envelope determinants: the CD4 binding site, the membran
65 mer immunogen and did not require additional envelope diversity.
66 reened cohorts in Brazil and Mexico for ZIKV envelope domain III (ZEDIII) binding and neutralization.
67  prompted by release of GCL from the nuclear envelope during mitosis.
68 centers move from centrosomes to the nuclear envelope during muscle development.
69 le virus, DNA or RNA that express the virus' Envelope (E) glycoprotein as the antigen.
70 d others have defined antigenic sites on the envelope (E) protein of viruses of dengue virus serotype
71 mer spanning quaternary epitope in the DENV3 envelope (E) protein, but it is unclear whether all inte
72 N-linked glycosylation site within the viral envelope (E) protein, whereas many isolates of the Afric
73 by coexpressing precursor membrane (prM) and envelope (E) proteins, with an F108A mutation in the fus
74 ts of Lv2 susceptibility mapped to the HIV-2 envelope (Env) and capsid (CA).
75 ithin the variable loop 3 (V3) region of HIV envelope (Env) and neutralizing responses against easy-t
76 oadly neutralizing antibodies (bnAbs) to HIV envelope (Env) develop during natural infection can help
77 y for HIV-1 vaccine development is to define envelope (Env) evolution of broadly neutralizing antibod
78 n the present study, we investigated whether envelope (env) genes could be amplified from proviral DN
79                                    The HIV-1 envelope (Env) glycoprotein binds to host cell receptors
80                                          The envelope (Env) glycoprotein of HIV is the only intact vi
81 d with soluble recombinant SIVmac239-derived envelope (Env) gp140 and Gag p55 (protein) or with virus
82 targets the V3 glycan supersite on the HIV-1 envelope (Env) protein.
83 to stabilize the structurally flexible HIV-1 envelope (Env) trimer in a conformation that displays pr
84 d covering the surface of the HIV gp120/gp41 envelope (Env) trimer, and how the glycan shield impacts
85 rnary epitope at the apex of the surface HIV envelope (Env) trimer.
86  residue at position 169 (K169) in the HIV-1 envelope (Env) V2 region.
87 , chosen from 200 well-characterized clade C envelope (Env)-pseudotyped viruses from early infection.
88                        Ebolavirus (EBOV), an enveloped filamentous RNA virus causing severe hemorrhag
89                                      Nuclear envelope fluctuations are suppressed on the stiffest mat
90 nsport, mitotic spindle assembly and nuclear envelope formation.
91                                  The unusual envelope found in AFV1 also has many implications for bi
92 equencing a subgenomic fragment of the HIV-1 envelope from study participants in the DRC, we identifi
93                                           By envelope gene (env) sequencing, we identified eight muta
94                     Expression of the HERV-K envelope gene (env) was highly significantly increased i
95                              Strikingly, the envelope gene from a founder HIV-1 virus is far better a
96 erozygous splice site variant in the nuclear envelope gene SYNE1 in a child with severe dilated cardi
97  438 incident and 305 chronic specimens' HIV envelope genes from a diverse global cohort.
98                                Syncytins are envelope genes from endogenous retroviruses that have be
99 s starts with interactions between the viral envelope glycoprotein (Env) and cellular CD4 receptors a
100 and guide them to cells expressing the HIV-1 envelope glycoprotein (Env) are a promising new weapon f
101                 Designing an effective HIV-1 envelope glycoprotein (Env) immunogen for elicitation of
102 esidues (G382R and H442Y) into the SIVmac239 envelope glycoprotein (Env) markedly increased its neutr
103                   The development of soluble envelope glycoprotein (Env) mimetics displaying ordered
104 are among viruses for having a low number of envelope glycoprotein (Env) spikes per virion, i.e., app
105 this insight to generate a form of SIVmac239 envelope glycoprotein (Env) that utilized rhesus CD4 mor
106             Soluble, recombinant native-like envelope glycoprotein (Env) trimers of various human imm
107                     Interaction of the viral envelope glycoprotein (Env) with a specific cellular rec
108  immunogens that antigenically mimic the HIV envelope glycoprotein (Env), such as the soluble cleaved
109 y include a recombinant version of the viral envelope glycoprotein (Env).
110                     Although the Ebola virus envelope glycoprotein (GP1,2) antagonizes the trapping o
111  (MACV) and Junin virus (JUNV), bound to the envelope glycoprotein 1 (GP1) with JUNV monoclonal antib
112 e show that transgenic mice expressing HIV-1 envelope glycoprotein 120 in their central nervous syste
113 f the interaction between the gp120 exterior envelope glycoprotein and CD4; (ii) premature triggering
114               Membrane fusion induced by the envelope glycoprotein enables the intracellular replicat
115 e, we describe the crystal structure of HTNV envelope glycoprotein Gn, an integral component of the G
116 d a neuropathic pain model of perineural HIV envelope glycoprotein gp120 application onto the rat sci
117 rus, which binds to the cell surface via the envelope glycoprotein Gp64.
118 dly neutralizing antibodies (bNAbs) by HIV-1 envelope glycoprotein immunogens would be a major advanc
119  in providing the necessary stability to the envelope glycoprotein in order to withstand the interact
120                                          The envelope glycoprotein of diverse endogenous and exogenou
121 ate the binding affinities between the gp120 envelope glycoprotein of HIV-1 and three broadly neutral
122 pped to a conserved domain of the retroviral envelope glycoprotein of several exogenous as well as en
123 ers changes in the conformation of the HIV-1 envelope glycoprotein trimer important for virus entry.
124  use of various designs of recombinant HIV-1 envelope glycoprotein trimers that mimic the structure o
125 vesicular stomatitis virus-Zaire Ebola virus envelope glycoprotein vaccine (rVSVG-ZEBOV-GP) across a
126  epitope in the gp120 C1 region of the HIV-1 envelope glycoprotein.
127 HSV) entry through interactions with a viral envelope glycoprotein.
128 ion of replication-competent provirus, HIV-1 envelope glycoproteins (Env) are expressed and accumulat
129              HIV-1-infected cells presenting envelope glycoproteins (Env) in the CD4-bound conformati
130 1) entry into cells is mediated by the viral envelope glycoproteins (Env), a trimer of three gp120 ex
131                        HIV-1 and its surface envelope glycoproteins (Env), gp120 and gp41, have evolv
132 1 into target cells is mediated by the viral envelope glycoproteins (Env).
133                                          The envelope glycoproteins (Envs) from human immunodeficienc
134                                          The envelope glycoproteins (Envs) of HIV-1 continuously evol
135                                          The envelope glycoproteins (Envs) on the surfaces of HIV-1 p
136        In presence of cells expressing HIV-1 envelope glycoproteins (Envs), these BiKEs activated spe
137 ing of the CD4-mimetic compound to the HIV-1 envelope glycoproteins depends upon how many of the thre
138         However, the relative ability of SIV envelope glycoproteins to bind or utilize these CD4 orth
139 mer are bound and upon the propensity of the envelope glycoproteins to undergo conformational changes
140 res the coordinated action of multiple virus envelope glycoproteins, including gH, gL, and gB.
141  triggering of conformational changes in the envelope glycoproteins, leading to irreversible inactiva
142                                  A substrate envelope-guided design strategy is reported for improvin
143        In addition, colonies with a propolis envelope had significantly reduced levels of AFB clinica
144 To better understand the biogenesis of quasi-enveloped HAV (eHAV) virions, we conducted a quantitativ
145 a for specific functions in maintaining cell envelope homeostasis.
146                                    New HIV-1 envelope immunogens are being engineered to selectively
147 ciliated edge is represented as a continuous envelope imposing a periodic moving velocity boundary co
148 ation progression associate with the nuclear envelope in sap1 mutant cells.
149 pid formation of a bacterial biofilm that is enveloped in a complex extracellular polymeric substance
150                      The consequent isotopic envelopes in mass spectra can reveal the ion stoichiomet
151                   Diffusion of Env and other envelope incorporated proteins in mature HIV-1 is two or
152 l lysis, sporulating cells that assemble the envelope incorrectly.
153 el where power-law fluctuations of the alpha envelope inhibit baseline activity closely replicated ou
154 ization through their effect on enterococcal envelope integrity and antimicrobial resistance.
155 e polysaccharides that are critical for cell envelope integrity and cell shape and also represent key
156 gonistically to IreK and interfere with cell envelope integrity, antimicrobial resistance, and GIT co
157 roduce the Prg adhesins and display impaired envelope integrity, as evidenced by antibiotic susceptib
158 ks of aged cells include compromised nuclear envelope integrity, impaired nucleocytoplasmic transport
159 repeats and differed in a helical segment of envelope involved in entry and targeted by the host immu
160 n the plasma membrane, indicating that HIV-1 envelope is intrinsically a low mobility environment, ma
161               Dynein anchored on the nuclear envelope is known to be important for centrosome separat
162 ticularly in polar regions where the thermal envelope is narrow.
163 tive component of the Corynebacterineae cell envelope is the mycolyl-arabinogalactan (mAG) complex.
164 these lipids are transported across the cell envelope is(are) much less known.
165                   Deletion of late cornified envelope (LCE) genes LCE3B and LCE3C (LCE3B/C-del) is a
166 e lacked a functional corneocyte-bound lipid envelope leading to a severe skin barrier defect and pre
167 r functions including sterol uptake and cell envelope maintenance.
168 Others are targeted to the inner chloroplast envelope membrane by undescribed translocases.
169               FTSH12 was integrated into the envelope membrane in a coupled import-integration reacti
170 ess requires an ABC transporter in the inner envelope membrane with three subunits, TRIGALACTOSYLDIAC
171 membrane) machineries in the outer and inner envelope membranes, respectively.
172 he mutated residues, with loss of the native enveloping movement of the binding site around its ligan
173 uclear escape, a process referred to nuclear envelope (NE) budding.
174  spectrin 1) that associate with the nuclear envelope (NE) through a C-terminal KASH (Klarsicht/Anc1/
175 lies at the plasma membrane (PM) and nuclear envelope (NE).
176 leton (LINC) bridging complex at the nuclear envelope (NE).
177 mSPB) on the cytoplasmic side of the nuclear envelope (NE).
178                     Ebola virus (EBOV) is an enveloped negative-sense RNA virus that causes sporadic
179       Hantaviruses (family Bunyaviridae) are enveloped negative-sense tripartite RNA viruses.
180                             Arenaviruses are enveloped negative-strand RNA viruses that cause signifi
181 d viruses in that they acquire their primary envelope not through budding from cellular membranes but
182                                     The cell envelope of gram-negative bacteria, a structure comprisi
183 the outer membrane has long defined the cell envelope of Gram-negative bacteria.
184 ominant stress-bearing structure in the cell envelope of most bacteria, and also a potent stimulator
185              However, the indigestible outer envelope of the spermatophore delays female remating, al
186 MOSP) is a prominent constituent of the cell envelope of Treponema denticola (TDE) and one of its pri
187 ard (POB) agreed to make available a maximum envelope of US $45 million toward supporting countries n
188 tural layer between the nucleocapsid and the envelope of virions.
189 on both gene assays, 52 were positive on the envelope only, and none were positive on the NS2B only.
190 ted data were as follows: RNA or DNA genome, enveloped or not, primary transmission pathway, temperat
191 nstrate functional links between the nuclear envelope organization, chromatin architecture, and gene
192 conformation and that the protruding density envelopes originating from GstDnaB1-300 could completely
193 lopment, there was missorting of capsids and enveloped particles in the neuronal cytoplasm, which can
194 ) targeting the human cytomegalovirus (HCMV) envelope pentamer complex (PC) are thought to be importa
195 es, we show how the polarization and carrier-envelope phase (CEP) of HH pulses can be controlled by c
196 thus expected to have passive stable carrier-envelope phase, which can be used to seed either a chirp
197  coherently synthesise the passively carrier-envelope phase-stable signal and idler pulses to generat
198 function of the intensity and of the carrier envelope phase.
199 up of viruses that lack any lipid coating or envelope-play vital roles in all the stages of the viral
200                    Here we probe how the non-enveloped polyomavirus SV40 penetrates the endoplasmic r
201 iotics, virulence factors, peptides and cell envelope precursors.
202 c DNA vaccine encoding ZIKV pre-membrane and envelope (prME) completely protects mice against ZIKV-as
203                                  The climate-envelope projection showed that rhizobial N-fixing trees
204 in (a "class I" fusogen) and West Nile virus envelope protein ("class II").
205 estral sequence and reconstruct a functional envelope protein (ancHTenv) that could support infection
206                               Bacterial cell envelope protein (CEP) complexes mediate a range of proc
207 ns) that express either the full length ZIKV envelope protein (ZENV) alone or include the ZENV precur
208 nalyze binding interactions between the zika envelope protein (ZENV) and proposed host cell receptors
209 -bonding interaction network within the ZIKV envelope protein contribute to stability differences bet
210 cture epitopes near the hinge region between envelope protein domain I (EDI) and EDII.
211     Previous studies demonstrated that HIV-1 envelope protein gp120 binds and signals through alpha4b
212 agents dichloroacetate and paclitaxel or HIV envelope protein gp120.
213                For example, in the influenza envelope protein hemagglutinin (HA), the low pH in the e
214  to an I-Ab-associated epitope of the F-MuLV envelope protein is dominated by clones expressing a Val
215 ells that overexpress the GFP-tagged nuclear envelope protein lamin A.
216                             We show that the envelope protein PilY1 and functional type IV pili are r
217  have revealed the key features of the HIV-1 envelope protein that are associated with viral resistan
218                      It is a nonglycosylated envelope protein that is regulated as a gamma1 gene.
219 tes have co-opted a viral gene to produce an envelope protein that prevents infection by the HERV-T v
220 rsor to the membrane protein upstream of the envelope protein, and our rVSV-ZIKV constructs showed ef
221              The uncleaved ectodomain of the envelope protein, called gp140, has also been made as a
222 volunteers vaccinated with a recombinant HIV envelope protein.
223                                        HIV-1 envelope proteins (Envs) play a critical role in HIV inf
224 risk associated with ZIKV vaccines using the envelope proteins as immunogens).
225 ent nanodiamonds (FNDs) coated with vaccinia envelope proteins as the model system.
226 vious reports indicate that some HIV-1 gp120 envelope proteins bind to and signal through alpha4beta7
227  dromedaries with different soluble trimeric envelope proteins derived from HIV-1 subtype C.
228 100 bp open reading frame (ORF) encoding the envelope proteins is fully nested within the ORF of the
229            Taking advantage of the fact that envelope proteins of different HIV-1 strains exhibit dif
230 ologies between the Zika and Dengue viruses' envelope proteins raise the possibility that cross-react
231 of resistance to IFITM3 and that these HIV-1 envelope proteins share the same domain structure and si
232 ough chromosome movement mediated by nuclear envelope proteins, microtubules, and dynein.
233 ulated genes, most of which encoded putative envelope proteins.
234 tion to provide HDV with HBV surface antigen envelope proteins.
235 protein B (ApoB), ApoE, and the HCV core and envelope proteins.
236  We chose from 200 southern African, clade C envelope-pseudotyped viruses with neutralization titers
237 nesis and its duration is coupled to nuclear envelope reassembly and the nuclear sequestration of the
238 d separation checkpoint" that delays nuclear envelope reassembly and, consequently, Pebble nuclear se
239 s conditional on expression of the ecotropic envelope receptor murine cationic amino acid transporter
240 e causative agent, measles virus, is a small enveloped RNA virus that infects a broad range of cells
241 y of the H2S slow-releasing donor GYY4137 on enveloped RNA viruses from Ortho-, Filo-, Flavi- and Bun
242 l activity against a broad range of emerging enveloped RNA viruses, and should be further explored as
243               However, the importance of the envelope's multilayered architecture remains unknown.
244 logy can be used to generate full-length HCV envelope sequences at the single-molecule level, providi
245       Our results indicate that the propolis envelope serves as an antimicrobial layer around the col
246 lling of HIV-infected CD4 T cells by the HIV envelope-specific broadly neutralizing antibody PGT121.
247 codes multiple isoforms of Nesprin1 (nuclear envelope spectrin 1) that associate with the nuclear env
248  (HIV-1)/simian immunodeficiency virus (SIV) envelope spike (Env) mediates viral entry into host cell
249 extraordinary genetic diversity of the HIV-1 envelope spike [Env; trimeric (gp160)3, cleaved to (gp12
250 ich predicted T90 from DNA or RNA structure, enveloped status, whether primary transmission pathway w
251  can be completely bypassed by activating an envelope stress response without compromising traffickin
252 cherichia coli, CpxRA senses and responds to envelope stress; CpxA is a sensor kinase/phosphatase for
253 ance our understanding of mycobacterial cell envelope structure and dynamics and have implications fo
254 odel will provide a useful framework for HCV envelope structure and the development of antiviral stra
255 system indicate adaptation to different cell envelope structures, bacterial lifestyles, and/or bacter
256 sting cholesterol and desmosterol in the HSV envelope support similar levels of infectivity.
257  IM-to-OM distance is required for effective envelope surveillance and protection, suggesting that ce
258 iments, may result in rupture of the nuclear envelope that can lead to cell death, if not prevented o
259          The polysaccharide-rich wall, which envelopes the fungal cell, is pivotal to the maintenance
260 hyaloid membrane is a true basement membrane enveloping the posterior hyaloid surface.
261 annels capsids are able to reach the nuclear envelope, the site of their nuclear egress.
262 s to function as molecular solubilizers that envelope their insoluble cargo before transporting it to
263 ding proteins that are localized to the cell envelope; these include metallopeptidases, multidrug-res
264 ellum inflexible and alters the 3D flagellar envelope, thus preventing sperm from reorienting against
265 anions in interstellar clouds, circumstellar envelopes, Titan, and cometary comae.
266 ks of two using sequentially numbered sealed envelopes to glycaemic regulation with a bihormonal bion
267                               We found those envelopes to split in differential ion mobility (FAIMS)
268 cognize the V2 region at the apex of the HIV envelope trimer are among the most common bNAb specifici
269 ficiency of IDLVs pseudotyped with different envelopes (vesicular stomatitis, Rabies, Mokola and Ross
270 nsport of small molecules across the nucleic envelope via insertion of nanopores into the bilayers.
271 o viral infections: it traps newly assembled enveloped virions at the plasma membrane in infected cel
272 rograde transport of unenveloped capsids and enveloped virions.
273 sis virus (IHNV) as a model to study aquatic enveloped virus diseases and their inhibition.
274              Marburg virus (MARV) is a lipid-enveloped virus from the Filoviridae family containing a
275 ad-spectrum antiviral compound that inhibits enveloped virus infections by specifically targeting pho
276 , these results highlight the variability of enveloped virus persistence in the environment and the v
277       The apparent suitability of Phi6 as an enveloped virus surrogate was dependent on the temperatu
278                                         Many enveloped viruses cause devastating disease in aquacultu
279 embly.IMPORTANCE Poxviruses are unique among enveloped viruses in that they acquire their primary env
280                                              Enveloped viruses infect host cells by fusing their memb
281  compared with persistence values from other enveloped viruses reported in the literature.
282 arburg viruses are filoviruses: filamentous, enveloped viruses that cause haemorrhagic fever.
283                                              Enveloped viruses transfer their genomes into host cells
284        Hepatitis B viruses (HBVs), which are enveloped viruses with reverse-transcribed DNA genomes,
285                                     For many enveloped viruses, binding to a receptor(s) on a host ce
286                          As archetypical non-enveloped viruses, their biology has been extensively st
287 ntiviral compound that specifically inhibits enveloped viruses.
288 on, a process that remains enigmatic for non-enveloped viruses.
289                    Morphology of the nuclear envelope was assessed with immunofluorescence on culture
290 insights on the T-box mechanism, a molecular envelope was calculated from small angle X-ray scatterin
291  the tegument layer between capsid and viral envelope was reduced.
292   Using colonies with and without a propolis envelope, we quantified: 1) the antimicrobial activity o
293  and complete breaches in the bacterial cell envelope were observed.
294                                  The nuclear envelope, which can be modeled as a double lipid bilayer
295 teasome and its anchor, Cut8, at the nuclear envelope, which in turn regulates proteostasis of certai
296 er understanding of the structure of the HCV envelope, which is responsible for attachment and fusion
297                          Fusion of the viral envelope with a cellular membrane is required for releas
298 the cellular surface and fusion of the viral envelope with cellular membranes.
299  vulnerable and conserved sites on the HIV-1 envelope, with the goal of eliciting antiviral antibodie
300 tural layer between the nucleocapsid and the envelope within virus particles.

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