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1 ly improved the antibody response to the H+F DNA vaccine.
2 nce of a simian immunodeficiency virus (SIV) DNA vaccine.
3 zation was followed by administering Bla g 1 DNA vaccine.
4 istered alone or in combination with the JS7 DNA vaccine.
5 halable dry powder, and early administration DNA vaccine.
6 /-), recipient mice to respond better to the DNA vaccine.
7 uvants did not enhance immunogenicity of the DNA vaccine.
8 une responses despite multiple high doses of DNA vaccine.
9 igen presentation relative to a control scFv DNA vaccine.
10 ost efficacy when using the IL-12(High)/F1-V DNA vaccine.
11 p41, even with 1% of the dose of nontargeted DNA vaccine.
12 compared to an equal dose of a conventional DNA vaccine.
13 mmunized by a single injection with a unique DNA vaccine.
14 ent protein in vitro than did a conventional DNA vaccine.
15 s showing efficacy with an FIV-pPPRDelta vif DNA vaccine.
16 nt vesicular stomatitis virus (mtdVSV) and a DNA vaccine.
17 y than active vaccination with an anti-CHIKV DNA vaccine.
18 he Marburgvirus Angola strain expressed in a DNA vaccine.
19 pproach to enhance the immunogenicity of the DNA vaccine.
20 ther oral insulin or a proinsulin-expressing DNA vaccine.
21 ocyte responses in mucosal compartments than DNA vaccines.
22 articles (VLPs) and the simplicity of use of DNA vaccines.
23 g properties essential to generate effective DNA vaccines.
24 HIV gag to mice successively as protein and DNA vaccines.
25 an ongoing challenge for the development of DNA vaccines.
26 radermal injection using optimized synthetic DNA vaccines.
27 ds for enhancing immune responses to plasmid DNA vaccines.
28 substantially improves the immunogenicity of DNA vaccines.
29 the immunity and protection that result from DNA vaccines.
30 (Low)/F1, IL-12(Low)/V, or IL-12(Low) vector DNA vaccines.
31 Ad5) has frequently been used as a boost for DNA vaccines.
32 and therefore the immunogenicity of plasmid DNA vaccines.
33 making them attractive candidate vectors for DNA vaccines.
34 imeric CD40L and GITRL are new adjuvants for DNA vaccines.
35 an increase the magnitude of the response to DNA vaccines.
36 ich is mainly activated by the CpG motifs of DNA vaccines.
37 cells (DCs) attenuates antitumor effects of DNA vaccines.
38 ach endowing immunomodulatory properties for DNA vaccines.
39 vo delivery to enhance the immunogenicity of DNA vaccines.
40 absent in melanoma 2 (Aim2) as a sensor for DNA vaccines.
41 e induced by 2 immunizations with sGP and GP DNA vaccines.
42 n shaping the Ag-specific immune response to DNA vaccines.
43 c CD8 T cells induced by subunit (peptide or DNA) vaccines.
44 immunogenicity of (1) a 4-dose regimen of a DNA vaccine, (2) a 3-dose priming regimen of the DNA vac
45 uated the safety and immunogenicity of these DNA vaccines (4 mg administered intramuscularly by Bioje
46 the amount of IL-12 produced by the two F1-V DNA vaccines, Ab responses and Th cell responses to F1-
52 me the capacity of a single high dose of HIV DNA vaccine alone to induce long-lasting and polyfunctio
54 form and have previously shown that improved DNA vaccines alone are capable of inducing both binding
55 alities [anticancer vaccination, TC1 (HPV E7 DNA vaccine), alphaPD-1, and MC38] and found that CAFs b
57 lomavirus 16 (HPV16)-targeted version of the DNA vaccine also induced L2 antibodies and protected mic
58 l of 299 individuals received 2 doses of JS7 DNA vaccine and 2 doses of MVA/HIV62B at 0, 2, 4, and 6
63 8(+) T cell immunity develop to a subsequent DNA vaccine and improved protection to intranasal challe
65 ngly upregulated only in the presence of the DNA vaccine and trends to positively correlate with seve
67 he ProstVac poxviral vaccine, a PAP-encoding DNA vaccine, and immune checkpoint inhibitory approaches
70 ytokines have modulated immunity elicited by DNA vaccines, and replication-competent Ad-recombinant p
71 demonstrate that CD4(+) T cells facilitated DNA vaccine antigen clearance in a Fas/FasL-dependent ma
76 g cellular and humoral responses against the DNA vaccine antigens, which included Gag, Pol, Env, Nef,
77 t the preclinical assessment of an optimized DNA vaccine approach that targets four P. falciparum ant
78 hese findings support the concept of using a DNA vaccine approach to generate a potent pan-arenavirus
79 4gp140 antigen when cation-complexed plasmid DNA vaccines are applied topically to the murine pulmona
80 e (LNP)-formulated Andes virus or Zika virus DNA vaccines are elevated over unformulated vaccine.
83 etic anti-Ebola virus glycoprotein (EBOV-GP) DNA vaccines as a strategy to expand protective breadth
85 ne in mice that had been primed by GP or sGP DNA vaccine augmented the levels of anti-GP antibody res
86 ion was achieved using a multivalent epitope DNA vaccine based on epitope selection from cottontail r
87 t protein analogs of the expressed genes and DNA vaccines based on the multigene clusters have been s
88 own to augment the immunogenicity of plasmid DNA vaccines, but its mechanism of action has not been f
89 improved the immunogenicity of HA-expressing DNA vaccines by using codon-optimized HA sequences for e
90 nstration that a Sindbis virus-based measles DNA vaccine can elicit robust MV immunity in neonates by
91 mized IL-15 immune adjuvant delivered with a DNA vaccine can impact the cellular immune profile in no
92 inhibitor to the TME, combined with an HER-2 DNA vaccine can improve immune surveillance against HER-
96 s a proof-of-concept that LNP formulation of DNA vaccines can be used to produce more potent active v
98 BDES, which functions as both a subunit and DNA vaccine, can offer a promising multistage vaccine ca
100 pe-specific dengue virus serotype 2 (DENV-2) DNA vaccine candidates were evaluated for their immunoge
101 -mimicking shikimoyl headgroup are promising DNA vaccine carriers for dendritic cell (DC) transfectio
104 responses when administered 2 days after the DNA vaccine, compared with simultaneous administration.
105 uenza challenge model we show that a plasmid DNA vaccine complexed to a less toxic form of PEI called
106 y, immunogenicity, and protection by testing DNA vaccines comprised of GP genes with deleted N-linked
107 potential of DC-mediated immunization with a DNA vaccine consisting of HIV-1-p55gag (gag, group-speci
109 dengue virus type 2 (DENV-2) vaccines: (i) a DNA vaccine containing the prM-E gene region (D), (ii) a
110 These results suggest that MHC II-targeted DNA vaccines could play a role in situations of pandemic
111 ted and tested in conjunction with a plasmid DNA vaccine (D1ME-DNA) expressing identical dengue virus
112 synthetic, multivalent, highly concentrated, DNA vaccine delivered by a minimally invasive, novel ski
113 ine elicited higher antibody titers than the DNA vaccine delivered with EP, T-cell response rates wer
115 Multiple-injection regimens of the EBOV-GP DNA vaccine, delivered by intramuscular administration f
116 ting of dendritic cells is an ideal goal for DNA vaccine delivery in order to stimulate both arms of
118 of PEI could be utilised for topical plasmid DNA vaccine delivery to human mucosal tissue surfaces, a
120 y illustrates a new pathway of polymer-based DNA vaccine delivery via bystander cells without direct
123 nella vaccine (RASV) strain into a universal DNA vaccine-delivery vehicle, our approach was to geneti
124 immunization of mice with a single dose of a DNA vaccine derived from pathogenic SHIV(KU2) (Delta4SHI
126 whole, the data suggested that while the gag DNA vaccine did not prime detectable early CTL responses
127 studies demonstrate how rationally designed DNA vaccines directed against self antigens for enhanced
133 oaches to enumerate disease-related T cells, DNA vaccines, eliciting responses to pre-assembled MHC-p
135 he gene gun administration of CIITA DNA with DNA vaccines employing different strategies to improve M
140 We found that immunization of mice with a DNA vaccine encoding BAFF or APRIL multitrimers, togethe
143 ults of a phase I/IIa trial conducted with a DNA vaccine encoding human PAP in patients with stage D0
144 dendritic cells (DCs) and were primed with a DNA vaccine encoding immunodeficiency virus antigens mix
146 nded these studies by delivering a synthetic DNA vaccine encoding Leishmania glycosomal phosphoenolpy
147 This study is the first to demonstrate that DNA vaccine encoding midge allergen is effective in prev
151 om prostate cancer patients immunized with a DNA vaccine encoding prostatic acid phosphatase (PAP) an
153 f mice that were previously immunized with a DNA vaccine encoding the P. berghei sexual-stage antigen
156 we report that administration of a synthetic DNA vaccine encoding ZIKV pre-membrane and envelope (prM
157 ses elicited by Sindbis virus replicon-based DNA vaccines encoding measles virus (MV) hemagglutinin (
160 Genetic technology allows construction of DNA vaccines encoding selected tumor antigens together w
165 study data have re-established the value of DNA vaccines, especially in priming high-level Ag-specif
174 of regimens substituting the DNA-HIV-PT123 (DNA) vaccine for ALVAC-HIV in different sequences or com
176 oved for human use (VR1020), an Sm-p80-based DNA vaccine formulation confers a 46% reduction in the w
178 However, 2 immunizations with GP but not sGP DNA vaccine fully protected mice from lethal challenge.
179 to dsDNA, potentially impacting responses to DNA vaccines, gene therapy, and autoimmune disease patho
180 It has been known since the discovery of DNA vaccines >20 y ago that DNA vaccines can function as
181 During the Mexican flu pandemic, a targeted DNA vaccine (HA from A/California/07/2009) was generated
184 glycoprotein (GP); protein-based subunit and DNA vaccines have been tested with moderate success.
194 to a human immunodeficiency virus type 1 Env DNA vaccine in mice and allowed a 10-fold reduction in v
198 ogenicity and efficacy of a TcdA/B RBD-based DNA vaccine in preclinical models of acute toxin-associa
200 cond, we demonstrate the crucial role of the DNA vaccine in soluble factors release, such as MCP-1 or
202 We have developed in this study a novel DNA vaccine in which viral hemagglutinin (HA) is bivalen
203 ted the involvement of Aim2 as the sensor of DNA vaccines in eliciting Ag-specific Ab responses.
204 ur understanding on the potential utility of DNA vaccines in generating Ag-specific immune responses.
205 tion of immune responses (IR) induced by HIV DNA vaccines in humans is one of the great challenges in
207 -boost immunization regimens with GP and sGP DNA vaccines in mice and their efficacy against lethal E
208 of mtdVSV-NS1-based vaccine or two doses of DNA vaccine induced high levels of NS1-specfic antibody
211 signaling pathways is an approach to improve DNA vaccine-induced adaptive immunity for infectious dis
212 The magnitude and durability of a plasmid DNA vaccine-induced immune response is shaped by immune
213 emonstrated the requirement of type I IFN in DNA vaccine-induced immune responses via the Aim2 pathwa
215 ndicate a previously unreported link between DNA vaccine-induced pyroptotic cell death and vaccine im
216 ed to CD4(+) T lymphocytes within a model of DNA vaccine-induced tumor immunity to Tag-expressing tum
218 ating that the potent priming induced by the DNA vaccine initially framed the immune responses in suc
219 ble Salmonella endosomal escape to release a DNA vaccine into the cytosol, and to decrease Salmonella
222 e that the limited immunogenicity of plasmid DNA vaccines is the result, at least in part, of the rap
223 Here we describe the development of a SFTSV DNA vaccine, its immunogenicity, and its protective effi
224 g that the fusion protein (administered as a DNA vaccine) maintained the immunogenicity of both PdSP1
225 on of BALB/c mice indicated that hepatitis B DNA vaccine/Man-CS-Phe polyplexes not only induced multi
226 n humans, human immunodeficiency virus (HIV) DNA vaccines may need to include immunostimulatory adjuv
228 ty and immunogenicity of two investigational DNA vaccines, one (EBO vaccine) encoding Ebola virus Zai
230 ificant improvement in the efficiency of the DNA vaccine platform, resulting in immune responses that
231 whether a combination of GX-188E therapeutic DNA vaccine plus pembrolizumab showed antitumour activit
232 DNA has been shown to enhance the potency of DNA vaccines, possibly by facilitating uptake of the pla
235 mouse T cell response to vaccinia virus or a DNA vaccine potentiated antigen-specific CD8(+) memory T
236 east tumors and, when combined with an HER-2 DNA vaccine, prevented HER-2(+) primary tumor recurrence
237 BAPCs were tested for in vivo delivery of a DNA vaccine previously designed to activate immune respo
239 accination of BALB/c mice with an i.m. HBsAg-DNA vaccine prime followed by an intranasal boost with H
240 ing antibodies in rabbits (following a gp120 DNA vaccine prime) and that the antisera competed with b
242 a rMVA vaccine administered with and without DNA vaccine priming METHODS: GeoVax pGA2/JS7 DNA (D) and
246 rted the safety and immunologic effects of a DNA vaccine (pTVG-HP [MVI-816]) encoding prostatic acid
247 deficiency virus type 1 (HIV-1) PENNVAX(R)-B DNA vaccine (PV) is a mixture of 3 expression plasmids e
249 d boosted intradermally on day 56 with PfCSP DNA vaccine pVR2571 induced high titers of serum NANP im
250 erformed detailed assessment of an HIV-1 gag DNA vaccine recipient (subject 00015) who was previously
251 ic) amounts of helper antigen plasmid into a DNA vaccine regimen dramatically increased T cell-depend
253 nation of CIITA DNA with CRT/E6 and Ii-PADRE DNA vaccines represents a potentially effective means to
254 c immunization of mice with the IL-13Ralpha2 DNA vaccine resulted in protection against D5alpha2 tumo
256 dition, antibody induced by the IL-13Ralpha2 DNA vaccine showed a modest but significant inhibitory e
257 dings demonstrate that the route and dose of DNA vaccines significantly impact the quality of immune
258 demonstrate that immunization with a CFP-10 DNA vaccine stimulates a specific T-cell response only t
259 sociated fibroblasts, we constructed an oral DNA vaccine targeting fibroblast activation protein (FAP
260 We have previously engineered a synthetic DNA vaccine targeting the MERS coronavirus Spike (S) pro
262 Our findings demonstrate that use of the DNA vaccine technology could be used to produce candidat
263 se data demonstrate the feasibility of using DNA vaccine technology coupled with the duck/egg system
265 VCL-CB01, a candidate cytomegalovirus (CMV) DNA vaccine that contains plasmids encoding CMV phosphop
266 ing a candidate preventive/therapeutic naked-DNA vaccine that expresses human calreticulin (hCRT) fus
267 en with self-antigens could produce a potent DNA vaccine that may be applicable to other tumor-associ
269 ome immune tolerance to HER-2, we formulated DNA vaccines that express both human HER-2 and heterolog
272 induced pyroptosis/apoptosis that allows the DNA vaccine time to traffic to the nucleus for efficient
273 erferon (IFN-gamma) was tested as a proviral DNA vaccine to extend previous studies showing efficacy
274 allowed an otherwise ineffective therapeutic DNA vaccine to further stimulate antiviral immunity, the
276 evolutionize means for effective delivery of DNA vaccines to stimulate mucosal, systemic, and cellula
277 tio to receive a cytomegalovirus therapeutic DNA vaccine (TransVax; Vical, San Diego, CA, USA) or pla
281 eRNA41H was integrated into the backbone of DNA vaccine vectors expressing H5N1 influenza virus hema
283 gned to intramuscular (IM) vaccinations with DNA vaccine, VRC-HIVDNA016-00-VP, (weeks 0, 4, 8) by Bio
284 ated immune profile induced by a recombinant DNA vaccine was assessed in the simian/HIV (SHIV) and ma
285 f L. major transmission by P. duboscqi, this DNA vaccine was defined as partially protective, in the
286 and immunogenicity of a first-generation WNV DNA vaccine was demonstrated in a clinical trial and a s
289 d with a single high dose of Delta4SHIV(KU2) DNA vaccine were monitored longitudinally for vaccine-in
292 tigational Ebolavirus and Marburgvirus WT GP DNA vaccines were safe, well tolerated, and immunogenic
293 second-generation, chemokine-fused idiotype DNA vaccines, when combined with myotoxins that induced
294 vaccine, (2) a 3-dose priming regimen of the DNA vaccine with a booster dose of an adenovirus type 5
295 ty and protection, we combined the SIVmac239 DNA vaccine with protein immunization using inactivated
298 ralizing antibody titers than those with the DNA vaccines, with C-prM-E VLPs giving slightly higher t
300 cipients against tissue-restricted Ags using DNA vaccines would decrease the risk of relapse without