Javascript must be enabled to continue!
VaccineDesigner: A Web-based Tool for Streamlined Multi-epitope Vaccine Design
View through CrossRef
Abstract
Background
Multi-epitope vaccines have become the preferred strategy for protection against infectious diseases by integrating multiple MHC-restricted T-cell and B-cell epitopes that elicit both humoral and cellular immune responses against pathogens. Computational methods address various aspects independently, yet their orchestration is technically challenging as most bioinformatics tools are accessible through heterogeneous interfaces and lack interoperability features. The present work proposes a novel framework for rationalized multi-epitope vaccine design that streamlines end-to-end analyses through an integrated Web-based environment.
Results
VaccineDesigner is a comprehensive Web-based framework that streamlines the design of protective epitope-based vaccines by seamlessly integrating computational methods for B-cell, CTL, and HTL epitope prediction. VaccineDesigner incorporates single epitope prediction and evaluation as well as additional analyses, such as multi-epitope vaccine generation, estimation of population coverage, molecular mimicry, and proteasome cleavage. The functionalities are transparently integrated into a modular architecture, providing a single access point for rationalized, multi-epitope vaccine generation, time and cost-effectively.
Conclusions
VaccineDesigner is a Web-based interface for developing multi-epitope vaccines. Given a protein sequence, VaccineDesigner identifies and evaluates candidate B-cell, CTL, and HTL epitopes and constructs a library of multi-epitope vaccines that combine strong immunogenic responses, safety, and broad population coverage. The source code is available under the academic license at:
https://github.com/BiolApps/VaccineDesigner
. VaccineDesigner is freely accessible at:
http://bioinformatics.med.auth.gr/VaccineDesigner
.
Title: VaccineDesigner: A Web-based Tool for Streamlined Multi-epitope Vaccine Design
Description:
Abstract
Background
Multi-epitope vaccines have become the preferred strategy for protection against infectious diseases by integrating multiple MHC-restricted T-cell and B-cell epitopes that elicit both humoral and cellular immune responses against pathogens.
Computational methods address various aspects independently, yet their orchestration is technically challenging as most bioinformatics tools are accessible through heterogeneous interfaces and lack interoperability features.
The present work proposes a novel framework for rationalized multi-epitope vaccine design that streamlines end-to-end analyses through an integrated Web-based environment.
Results
VaccineDesigner is a comprehensive Web-based framework that streamlines the design of protective epitope-based vaccines by seamlessly integrating computational methods for B-cell, CTL, and HTL epitope prediction.
VaccineDesigner incorporates single epitope prediction and evaluation as well as additional analyses, such as multi-epitope vaccine generation, estimation of population coverage, molecular mimicry, and proteasome cleavage.
The functionalities are transparently integrated into a modular architecture, providing a single access point for rationalized, multi-epitope vaccine generation, time and cost-effectively.
Conclusions
VaccineDesigner is a Web-based interface for developing multi-epitope vaccines.
Given a protein sequence, VaccineDesigner identifies and evaluates candidate B-cell, CTL, and HTL epitopes and constructs a library of multi-epitope vaccines that combine strong immunogenic responses, safety, and broad population coverage.
The source code is available under the academic license at:
https://github.
com/BiolApps/VaccineDesigner
.
VaccineDesigner is freely accessible at:
http://bioinformatics.
med.
auth.
gr/VaccineDesigner
.
Related Results
VaccineDesigner: A Web-Based Tool for Streamlined Multi-Epitope Vaccine Design
VaccineDesigner: A Web-Based Tool for Streamlined Multi-Epitope Vaccine Design
Background: Multi-epitope vaccines have become the preferred strategy for protection against infectious diseases by integrating multiple MHC-restricted T-cell and B-cell epitopes t...
Burden of the Beast
Burden of the Beast
Introduction
Throughout the COVID-19 pandemic, and its fluctuating waves of infections and the emergence of new variants, Indigenous populations in Australia and worldwide have re...
Immunoinformatic Approaches to Explore Monkeypox Virus to Design B and T Cell Multi-epitope Subunit Vaccine
Immunoinformatic Approaches to Explore Monkeypox Virus to Design B and T Cell Multi-epitope Subunit Vaccine
Background: Monkeypox virus (MPXV), a member of the Orthopoxvirus genus, is closely related to the variola and vaccinia viruses and has emerged as a significant global public healt...
Measles Vaccination Coverage and Protective Effectiveness in the Amhara Regional State, Ethiopia, 2019-2024
Measles Vaccination Coverage and Protective Effectiveness in the Amhara Regional State, Ethiopia, 2019-2024
Abstract
Background:
Despite the availability of an effective vaccine, measles remains a major public health problem in Ethiopi...
Optimising tool wear and workpiece condition monitoring via cyber-physical systems for smart manufacturing
Optimising tool wear and workpiece condition monitoring via cyber-physical systems for smart manufacturing
Smart manufacturing has been developed since the introduction of Industry 4.0. It consists of resource sharing and networking, predictive engineering, and material and data analyti...
A novel monoclonal antibody targeting the hemagglutinin–neuraminidase of peste des petits ruminants virus maintains neutralizing activity by blocking viral adsorption and receptor interaction
A novel monoclonal antibody targeting the hemagglutinin–neuraminidase of peste des petits ruminants virus maintains neutralizing activity by blocking viral adsorption and receptor interaction
ABSTRACT
Peste des petits ruminants (PPR) is a highly contagious viral disease that primarily aff...
An In silico study of derivative of Newcastle disease virus epitopes based vaccine against Hemagglutunin neuraminidase protein
An In silico study of derivative of Newcastle disease virus epitopes based vaccine against Hemagglutunin neuraminidase protein
Abstract
The causative agent of Newcastle disease (ND) is Newcastle disease virus. It belongs to avian species of Orthoavulavirus, Avulavirinae subfamily and if left...

