The Use of Synthetic Carriers in Malaria Vaccine Design

Malaria vaccine research has been ongoing since the 1980s with limited success. However, recent improvements in our understanding of the immune responses required to combat each stage of infection will allow for intelligent design of both antigens and their associated delivery vaccine vehicles/vect...

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Main Authors: Liam Powles, Sue D. Xiang, Cordelia Selomulya, Magdalena Plebanski
Format: Article
Language:English
Published: MDPI AG 2015-10-01
Series:Vaccines
Subjects:
Online Access:http://www.mdpi.com/2076-393X/3/4/894
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spelling doaj-bfb6781a579c4113a746ac0fc5d83c8d2020-11-24T22:58:35ZengMDPI AGVaccines2076-393X2015-10-013489492910.3390/vaccines3040894vaccines3040894The Use of Synthetic Carriers in Malaria Vaccine DesignLiam Powles0Sue D. Xiang1Cordelia Selomulya2Magdalena Plebanski3Department of Chemical Engineering, Monash University, Clayton, VIC 3800, AustraliaDepartment of Immunology and Pathology, Monash University, Melbourne, VIC 3004, AustraliaDepartment of Chemical Engineering, Monash University, Clayton, VIC 3800, AustraliaDepartment of Immunology and Pathology, Monash University, Melbourne, VIC 3004, AustraliaMalaria vaccine research has been ongoing since the 1980s with limited success. However, recent improvements in our understanding of the immune responses required to combat each stage of infection will allow for intelligent design of both antigens and their associated delivery vaccine vehicles/vectors. Synthetic carriers (also known as vectors) are usually particulate and have multiple properties, which can be varied to control how an associated vaccine interacts with the host, and consequently how the immune response develops. This review comprehensively analyzes both historical and recent studies in which synthetic carriers are used to deliver malaria vaccines. Furthermore, the requirements for a synthetic carrier, such as size, charge, and surface chemistry are reviewed in order to understand the design of effective particle-based vaccines against malaria, as well as providing general insights. Synthetic carriers have the ability to alter and direct the immune response, and a better control of particle properties will facilitate improved vaccine design in the near future.http://www.mdpi.com/2076-393X/3/4/894malariavaccinevectorsyntheticpropertiesparticlesnanoparticles
collection DOAJ
language English
format Article
sources DOAJ
author Liam Powles
Sue D. Xiang
Cordelia Selomulya
Magdalena Plebanski
spellingShingle Liam Powles
Sue D. Xiang
Cordelia Selomulya
Magdalena Plebanski
The Use of Synthetic Carriers in Malaria Vaccine Design
Vaccines
malaria
vaccine
vector
synthetic
properties
particles
nanoparticles
author_facet Liam Powles
Sue D. Xiang
Cordelia Selomulya
Magdalena Plebanski
author_sort Liam Powles
title The Use of Synthetic Carriers in Malaria Vaccine Design
title_short The Use of Synthetic Carriers in Malaria Vaccine Design
title_full The Use of Synthetic Carriers in Malaria Vaccine Design
title_fullStr The Use of Synthetic Carriers in Malaria Vaccine Design
title_full_unstemmed The Use of Synthetic Carriers in Malaria Vaccine Design
title_sort use of synthetic carriers in malaria vaccine design
publisher MDPI AG
series Vaccines
issn 2076-393X
publishDate 2015-10-01
description Malaria vaccine research has been ongoing since the 1980s with limited success. However, recent improvements in our understanding of the immune responses required to combat each stage of infection will allow for intelligent design of both antigens and their associated delivery vaccine vehicles/vectors. Synthetic carriers (also known as vectors) are usually particulate and have multiple properties, which can be varied to control how an associated vaccine interacts with the host, and consequently how the immune response develops. This review comprehensively analyzes both historical and recent studies in which synthetic carriers are used to deliver malaria vaccines. Furthermore, the requirements for a synthetic carrier, such as size, charge, and surface chemistry are reviewed in order to understand the design of effective particle-based vaccines against malaria, as well as providing general insights. Synthetic carriers have the ability to alter and direct the immune response, and a better control of particle properties will facilitate improved vaccine design in the near future.
topic malaria
vaccine
vector
synthetic
properties
particles
nanoparticles
url http://www.mdpi.com/2076-393X/3/4/894
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