Role of Metallic Nanoparticles in Vaccinology: Implications for Infectious Disease Vaccine Development

被引:87
|
作者
Marques Neto, Lazaro Moreira [1 ]
Kipnis, Andre [1 ]
Junqueira-Kipnis, Ana Paula [1 ]
机构
[1] Univ Fed Goias, Dept Microbiol Immunol Pathol & Parasitol, Inst Trop Pathol & Publ Hlth, Goiania, Go, Brazil
来源
FRONTIERS IN IMMUNOLOGY | 2017年 / 8卷
关键词
particulate vaccine; adjuvant; immune response; Th1; Th17; CHELATING NANOLIPOPROTEIN PARTICLES; IRON-OXIDE NANOPARTICLES; HIS-TAGGED PROTEINS; GOLD NANOPARTICLES; IMMUNE-RESPONSES; IN-VITRO; TIO2; NANOPARTICLES; INFLAMMATORY RESPONSES; GLYCOCONJUGATE VACCINE; ANTIBODY-PRODUCTION;
D O I
10.3389/fimmu.2017.00239
中图分类号
R392 [医学免疫学]; Q939.91 [免疫学];
学科分类号
100102 ;
摘要
Subunit vaccines are safer but less immunogenic than live-attenuated vaccines or whole cell inactivated vaccines. Adjuvants are used to enhance and modulate antigen (Ag) immunogenicity, aiming to induce a protective and long-lasting immune response. Several molecules and formulations have been studied for their adjuvanticity, but only seven have been approved to formulate human vaccines. Metallic nanoparticles (MeNPs), particularly those containing gold and iron oxides, are widely used in medicine for diagnosis and therapy and have been used as carriers for drugs and vaccines. However, little is known about the immune response elicited by MeNPs or about their importance in the development of new vaccines. There is evidence that these particles display adjuvant characteristics, promoting cell recruitment, antigen-presenting cell activation, cytokine production, and inducing a humoral immune response. This review focuses on the characteristics of MeNPs that could facilitate the induction of a cellular immune response, particularly T-helper 1 and T-helper 17, and their potential functions as adjuvants for subunit vaccines.
引用
下载
收藏
页数:10
相关论文
共 50 条
  • [2] Hydatid disease: vaccinology and development of the EG95 recombinant vaccine
    Gauci, C
    Heath, D
    Chow, C
    Lightowlers, MW
    EXPERT REVIEW OF VACCINES, 2005, 4 (01) : 103 - 112
  • [3] Systems vaccinology for cancer vaccine development
    Petrizzo, Annacarmen
    Tagliamonte, Maria
    Tornesello, Marialina
    Buonaguro, Franco M.
    Buonaguro, Luigi
    EXPERT REVIEW OF VACCINES, 2014, 13 (06) : 711 - 719
  • [4] Systems Vaccinology in HIV Vaccine Development
    Zhang, Jielin
    Askenase, Philip
    Crumpacker, Clyde S.
    VACCINES, 2022, 10 (10)
  • [5] Bacterial infectious disease control by vaccine development
    Curtiss, R
    JOURNAL OF CLINICAL INVESTIGATION, 2002, 110 (08): : 1061 - 1066
  • [6] One vaccinology? Overcoming challenges in vaccine development
    Benfield, Camilla
    VETERINARY RECORD, 2016, 179 (20) : 508 - 509
  • [7] Vaccinomics, predictive vaccinology and the future of vaccine development
    Haralambieva, Iana H.
    Poland, Gregory A.
    FUTURE MICROBIOLOGY, 2010, 5 (12) : 1757 - 1760
  • [8] Early detection of emerging infectious diseases - implications for vaccine development
    Macintyre, C. Raina
    Lim, Samsung
    Gurdasani, Deepti
    Miranda, Miguel
    Metcalf, David
    Quigley, Ashley
    Hutchinson, Danielle
    Burr, Allan
    Heslop, David J.
    VACCINE, 2024, 42 (07) : 1826 - 1830
  • [9] Structure-based Vaccine Development (Structural Vaccinology)
    Malito, E.
    ACTA CRYSTALLOGRAPHICA A-FOUNDATION AND ADVANCES, 2014, 70 : C697 - C697
  • [10] A reverse vaccinology approach to swine dysentery vaccine development
    Song, Yong
    La, Tom
    Phillips, Nyree D.
    Bellgard, Matthew I.
    Hampson, David J.
    VETERINARY MICROBIOLOGY, 2009, 137 (1-2) : 111 - 119