1. Recent advancements in single dose slow‐release devices for prophylactic vaccines
- Author
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Ray, Sayoni, Puente, Armando, Steinmetz, Nicole F, and Pokorski, Jonathan K
- Subjects
Biomedical and Clinical Sciences ,Immunology ,Biotechnology ,Immunization ,Vaccine Related ,Prevention ,Bioengineering ,Prevention of disease and conditions ,and promotion of well-being ,3.4 Vaccines ,Infection ,Good Health and Well Being ,Humans ,Vaccines ,Vaccination ,Drug Delivery Systems ,Nanostructures ,Drug Discovery ,controlled release ,immune cell kinetics ,implant ,microneedle ,microparticle ,PLGA ,prophylactic vaccines ,single dose ,slow release ,vaccine delivery ,vaccine kinetics ,Medicinal and Biomolecular Chemistry ,Biomedical Engineering ,Nanotechnology ,Nanoscience & Nanotechnology ,Medical biotechnology ,Medicinal and biomolecular chemistry - Abstract
Single dose slow-release vaccines herald a new era in vaccine administration. An ideal device for slow-release vaccine delivery would be minimally invasive and self-administered, making these approaches an attractive alternative for mass vaccination programs, particularly during the time of a pandemic. In this review article, we discuss the latest advances in this field, specifically for prophylactic vaccines able to prevent infectious diseases. Recent studies have found that slow-release vaccines elicit better immune responses and often do not require cold chain transportation and storage, thus drastically reducing the cost, streamlining distribution, and improving efficacy. This promise has attracted significant attention, especially when poor patient compliance of the standard multidose vaccine regimes is considered. Single dose slow-release vaccines are the next generation of vaccine tools that could overcome most of the shortcomings of present vaccination programs and be the next platform technology to combat future pandemics. This article is categorized under: Therapeutic Approaches and Drug Discovery > Emerging Technologies Implantable Materials and Surgical Technologies > Nanomaterials and Implants Biology-Inspired Nanomaterials > Protein and Virus-Based Structures.
- Published
- 2023