Insights from the Study of B-Cell Epitopes of a Microbial Pathogen by Phage Display

The human immune system evolved to defend against the panoply of microbial threats. By harnessing such ability, vaccines have cumulatively saved hundreds of millions of lives. Despite such tremendous success, there have also been remarkable failures, such as the lack of a clinically proven vaccine against <i>Staphylococcus aureus</i> (SA), which continues to pose an urgent public health threat. In practice, it has proven challenging to identify the molecular basis for relevant epitopes for this pathogen. Here, we summarize our experience implementing an integrated approach using phage display technology for the identification of B-cell epitopes of microbial virulence factors, which we developed with a focus on SA. This approach was used to define minimal B-cell epitopes of the staphylococcal leucocidin family of pore-forming toxins (PFTs) that have been implicated in staphylococcal clinical infection. Our methodology provides proof of principle for an approach well suited for the rapid and efficient generation of modular protein-based vaccines for protection from clinical infection, which can be used to target pathogens for which no vaccine is currently available.

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Publication Details

Journal
Cold Spring Harbor Protocols
Published
2025-11-07
DOI
https://doi.org/10.1101/pdb.top107777
Primary Topic
vaccines and immunoinformatics approaches
Type
article
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article

Insights from the Study of B-Cell Epitopes of a Microbial Pathogen by Phage Display

Gregg J. Silverman
Cold Spring Harbor Protocols
vaccines and immunoinformatics approaches
article

Insights from the Study of B-Cell Epitopes of a Microbial Pathogen by Phage Display

Gregg J. Silverman
article en

Abstract

The human immune system evolved to defend against the panoply of microbial threats. By harnessing such ability, vaccines have cumulatively saved hundreds of millions of lives. Despite such tremendous success, there have also been remarkable failures, such as the lack of a clinically proven vaccine against <i>Staphylococcus aureus</i> (SA), which continues to pose an urgent public health threat. In practice, it has proven challenging to identify the molecular basis for relevant epitopes for this pathogen. Here, we summarize our experience implementing an integrated approach using phage display technology for the identification of B-cell epitopes of microbial virulence factors, which we developed with a focus on SA. This approach was used to define minimal B-cell epitopes of the staphylococcal leucocidin family of pore-forming toxins (PFTs) that have been implicated in staphylococcal clinical infection. Our methodology provides proof of principle for an approach well suited for the rapid and efficient generation of modular protein-based vaccines for protection from clinical infection, which can be used to target pathogens for which no vaccine is currently available.

Cold Spring Harbor Protocols
New York University (US)
vaccines and immunoinformatics approaches
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Insights from the Study of B-Cell Epitopes of a Microbial Pathogen by Phage Display — Gregg J. Silverman · Cold Spring Harbor Protocols (2025) | TGRS Research Map | TGRS