Literature DB >> 29801750

Correlates of adjuvanticity: A review on adjuvants in licensed vaccines.

Giuseppe Del Giudice1, Rino Rappuoli2, Arnaud M Didierlaurent3.   

Abstract

After decades of slow progress, the last years have seen a rapid acceleration of the development of adjuvanted vaccines which have lately been approved for human use. These adjuvants consist of different components, e.g. aluminium salts, emulsions such as MF59 and AS03, Toll-like receptor (TLR) agonists (CpG ormonophosphoryl lipid A (MPL) adsorbed on aluminium salts as in AS04) or combination of immunopotentiators (QS-21 and MPL in AS01). Despite their distinctive features, most of these adjuvants share some key characteristics. For example, they induce early activation (although at different levels) of innate immunity which then translates into higher antibody and cellular responses to the vaccine antigens. In addition, most of these adjuvants (e.g. MF59, AS03, AS04) clearly induce a wider breadth of adaptive responses able to confer protection against, for example, heterovariants of the influenza viruses (MF59, AS03) or against human papillomavirus strains not contained in the vaccine (AS04). Finally, the use of some of these adjuvants has contributed to significantly enhance the immune response and the efficacy and effectiveness of vaccines in the elderly who experience a waning of the immune responsiveness to infection and vaccination, as shown for MF59- or AS03-adjuvanted influenza vaccines and AS01-adjuvanted herpes zoster vaccine. These results, together with the track record of acceptable safety profiles of the adjuvanted vaccines, pave the way for the development of novel vaccines at the extremes of age and against infections with a high toll of morbidity and mortality. Here, we review the mechanisms associated with the performance of those adjuvanted vaccines in animal models and in humans through recent advances in systems vaccinology and biomarker discovery. We also provide some perspectives on remaining knowledge gaps but also on opportunities that could accelerate the development of new vaccines.
Copyright © 2018 The Authors. Published by Elsevier Ltd.. All rights reserved.

Entities:  

Keywords:  Adjuvants; Antibody response; Cellular response; Efficacy; Hepatitis B virus; Herpes zoster; Human papillomavirus; Immunostimulation; Innate immunity; Pandemic influenza; Seasonal influenza; Vaccines

Mesh:

Substances:

Year:  2018        PMID: 29801750     DOI: 10.1016/j.smim.2018.05.001

Source DB:  PubMed          Journal:  Semin Immunol        ISSN: 1044-5323            Impact factor:   11.130


  158 in total

1.  Antibody responses to crucial functional epitopes as a novel approach to assess immunogenicity of vaccine adjuvants.

Authors:  Sita Awasthi; Lauren M Hook; Gokul Swaminathan; Tina M Cairns; Benjamin Brooks; Jeffrey S Smith; Noah T Ditto; Marian E Gindy; Andrew J Bett; Amy S Espeseth; Gary H Cohen; Harvey M Friedman
Journal:  Vaccine       Date:  2019-05-29       Impact factor: 3.641

2.  Specific targeting of IL-1β activity to CD8+ T cells allows for safe use as a vaccine adjuvant.

Authors:  Jan Tavernier; Sarah Gerlo; Bram Van Den Eeckhout; Lien Van Hoecke; Elianne Burg; Sandra Van Lint; Frank Peelman; Niko Kley; Gilles Uzé; Xavier Saelens
Journal:  NPJ Vaccines       Date:  2020-07-23       Impact factor: 7.344

3.  H7N9 influenza split vaccine with SWE oil-in-water adjuvant greatly enhances cross-reactive humoral immunity and protection against severe pneumonia in ferrets.

Authors:  Jørgen de Jonge; Harry van Dijken; Femke de Heij; Sanne Spijkers; Justin Mouthaan; Rineke de Jong; Paul Roholl; Eduardo Alfredo Adami; Milena Apetito Akamatsu; Paulo Lee Ho; Livia Brunner; Nicolas Collin; Martin Friede; José A Ferreira; Willem Luytjes
Journal:  NPJ Vaccines       Date:  2020-05-11       Impact factor: 7.344

Review 4.  Vaccine Design Informed by Virus-Induced Immunity.

Authors:  Rhiannon R Penkert; Jane S Hankins; Neal S Young; Julia L Hurwitz
Journal:  Viral Immunol       Date:  2020-05-05       Impact factor: 2.257

5.  IL-33 enhances the kinetics and quality of the antibody response to a DNA and protein-based HIV-1 Env vaccine.

Authors:  Sanghita Sarkar; Michael S Piepenbrink; Madhubanti Basu; Juilee Thakar; Michael C Keefer; Ann J Hessell; Nancy L Haigwood; James J Kobie
Journal:  Vaccine       Date:  2019-03-27       Impact factor: 3.641

Review 6.  Targeting innate immunity for tuberculosis vaccination.

Authors:  Shabaana A Khader; Maziar Divangahi; Willem Hanekom; Philip C Hill; Markus Maeurer; Karen W Makar; Katrin D Mayer-Barber; Musa M Mhlanga; Elisa Nemes; Larry S Schlesinger; Reinout van Crevel; Raman (Krishna) Vankayalapati; Ramnik J Xavier; Mihai G Netea
Journal:  J Clin Invest       Date:  2019-09-03       Impact factor: 14.808

7.  Comparative study of α-helical and β-sheet self-assembled peptide nanofiber vaccine platforms: influence of integrated T-cell epitopes.

Authors:  Yaoying Wu; Sean H Kelly; Luis Sanchez-Perez; John H Sampson; Joel H Collier
Journal:  Biomater Sci       Date:  2020-05-26       Impact factor: 6.843

8.  Chimeric Hemagglutinin-Based Influenza Virus Vaccines Induce Protective Stalk-Specific Humoral Immunity and Cellular Responses in Mice.

Authors:  Angela Choi; Badiaa Bouzya; Klaus-Daniel Cortés Franco; Daniel Stadlbauer; Arvind Rajabhathor; Ronan N Rouxel; Roland Mainil; Marie Van der Wielen; Peter Palese; Adolfo García-Sastre; Bruce L Innis; Florian Krammer; Michael Schotsaert; Corey P Mallett; Raffael Nachbagauer
Journal:  Immunohorizons       Date:  2019-04-01

9.  Laser adjuvant for vaccination.

Authors:  Satoshi Kashiwagi
Journal:  FASEB J       Date:  2020-01-28       Impact factor: 5.191

10.  Pulmonary mucosal immunity mediated through CpG provides adequate protection against pulmonary Mycobacterium tuberculosis infection in the mouse model. A role for type I interferon.

Authors:  Amber Troy; Sandra C Esparza-Gonzalez; Alicia Bartek; Elizabeth Creissen; Linda Izzo; Angelo A Izzo
Journal:  Tuberculosis (Edinb)       Date:  2020-06-06       Impact factor: 3.131

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