Bioinformatic, Biochemical, and Immunological Mining of MHC Class I Restricted T Cell Epitopes for a Marburg Nucleoprotein Microparticle Vaccine

The Marburg virus (MARV), the virus responsible for Marburg hemorrhagic fever (MHF), is considered a top-priority pathogen for vaccine development. Recent outbreaks in Equatorial Africa have highlighted the urgency of MARV because of its high fatality rate and historical concerns about potential wea...

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Main Authors: Paul E. Harris, Scott Burkholz, Charles V. Herst, Reid M. Rubsamen
Format: Article
Language:English
Published: MDPI AG 2024-03-01
Series:Vaccines
Subjects:
Online Access:https://www.mdpi.com/2076-393X/12/3/322
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author Paul E. Harris
Scott Burkholz
Charles V. Herst
Reid M. Rubsamen
author_facet Paul E. Harris
Scott Burkholz
Charles V. Herst
Reid M. Rubsamen
author_sort Paul E. Harris
collection DOAJ
description The Marburg virus (MARV), the virus responsible for Marburg hemorrhagic fever (MHF), is considered a top-priority pathogen for vaccine development. Recent outbreaks in Equatorial Africa have highlighted the urgency of MARV because of its high fatality rate and historical concerns about potential weaponization. Currently, there are no licensed vaccines for MARV. Existing vaccine candidates rely on attenuated recombinant vesicular stomatitis virus carrying MARV glycoprotein (VSVΔG) or the chimpanzee replication-defective adenovirus 3 vector ChAd3-MARV. Although these platforms provide significant protection in animal models, they face challenges because of their limited thermal stability and the need for cold storage during deployment in resource-poor areas. An alternative approach involves using adjuvanted poly (lactic-co-glycolic acid) (PLGA) microparticles loaded with synthetic peptides representing MHC class I—restricted T cell epitopes. This vaccine platform has demonstrated effectiveness in protecting against SARS-CoV-2 and EBoV disease in animal models and has the advantage of not requiring cold storage and remaining stable at room temperature for over six months. This report outlines the design, manufacturing, and in vivo immunogenicity testing of PLGA microparticle human vaccines designed to prevent Marburg hemorrhagic fever.
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spelling doaj.art-22f5aff2156740a0b32e7c19ea6a63572024-03-27T14:07:08ZengMDPI AGVaccines2076-393X2024-03-0112332210.3390/vaccines12030322Bioinformatic, Biochemical, and Immunological Mining of MHC Class I Restricted T Cell Epitopes for a Marburg Nucleoprotein Microparticle VaccinePaul E. Harris0Scott Burkholz1Charles V. Herst2Reid M. Rubsamen3Vagelos College of Physicians and Surgeons, Columbia University, New York, NY 10032, USAFlow Pharma Inc., Warrensville Heights, OH 44128, USAFlow Pharma Inc., Warrensville Heights, OH 44128, USAFlow Pharma Inc., Warrensville Heights, OH 44128, USAThe Marburg virus (MARV), the virus responsible for Marburg hemorrhagic fever (MHF), is considered a top-priority pathogen for vaccine development. Recent outbreaks in Equatorial Africa have highlighted the urgency of MARV because of its high fatality rate and historical concerns about potential weaponization. Currently, there are no licensed vaccines for MARV. Existing vaccine candidates rely on attenuated recombinant vesicular stomatitis virus carrying MARV glycoprotein (VSVΔG) or the chimpanzee replication-defective adenovirus 3 vector ChAd3-MARV. Although these platforms provide significant protection in animal models, they face challenges because of their limited thermal stability and the need for cold storage during deployment in resource-poor areas. An alternative approach involves using adjuvanted poly (lactic-co-glycolic acid) (PLGA) microparticles loaded with synthetic peptides representing MHC class I—restricted T cell epitopes. This vaccine platform has demonstrated effectiveness in protecting against SARS-CoV-2 and EBoV disease in animal models and has the advantage of not requiring cold storage and remaining stable at room temperature for over six months. This report outlines the design, manufacturing, and in vivo immunogenicity testing of PLGA microparticle human vaccines designed to prevent Marburg hemorrhagic fever.https://www.mdpi.com/2076-393X/12/3/322MarburgT cell epitopevaccineCynomolgus macaquesMafa-A63
spellingShingle Paul E. Harris
Scott Burkholz
Charles V. Herst
Reid M. Rubsamen
Bioinformatic, Biochemical, and Immunological Mining of MHC Class I Restricted T Cell Epitopes for a Marburg Nucleoprotein Microparticle Vaccine
Vaccines
Marburg
T cell epitope
vaccine
Cynomolgus macaques
Mafa-A63
title Bioinformatic, Biochemical, and Immunological Mining of MHC Class I Restricted T Cell Epitopes for a Marburg Nucleoprotein Microparticle Vaccine
title_full Bioinformatic, Biochemical, and Immunological Mining of MHC Class I Restricted T Cell Epitopes for a Marburg Nucleoprotein Microparticle Vaccine
title_fullStr Bioinformatic, Biochemical, and Immunological Mining of MHC Class I Restricted T Cell Epitopes for a Marburg Nucleoprotein Microparticle Vaccine
title_full_unstemmed Bioinformatic, Biochemical, and Immunological Mining of MHC Class I Restricted T Cell Epitopes for a Marburg Nucleoprotein Microparticle Vaccine
title_short Bioinformatic, Biochemical, and Immunological Mining of MHC Class I Restricted T Cell Epitopes for a Marburg Nucleoprotein Microparticle Vaccine
title_sort bioinformatic biochemical and immunological mining of mhc class i restricted t cell epitopes for a marburg nucleoprotein microparticle vaccine
topic Marburg
T cell epitope
vaccine
Cynomolgus macaques
Mafa-A63
url https://www.mdpi.com/2076-393X/12/3/322
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