Dendritic cell activation by a micro particulate based system containing the influenza matrix-2 protein virus-like particle (M2e VLP)

被引:4
作者
Gomes, Kimberly Braz [1 ]
Allotey-Babington, Grace Lovia [1 ]
D'Sa, Sucheta [1 ]
Kang, Sang-Moo [2 ]
D'Souza, Martin J. [1 ]
机构
[1] Mercer Univ, Ctr Drug Delivery Res, Vaccine Nanotechnol Lab, Atlanta, GA 30341 USA
[2] Georgia State Univ, Ctr Inflammat Immun & Infect, Inst Biomed Sci, Atlanta, GA 30303 USA
关键词
Virus-like particles (VLPs); Microparticle vaccine; Influenza; IMMUNE-RESPONSES; VACCINE; PRECURSORS; GENERATION; INTERFACE; INDUCTION; SUBSETS; PEPTIDE; INNATE; ORIGIN;
D O I
10.1016/j.ijpharm.2022.121667
中图分类号
R9 [药学];
学科分类号
1007 ;
摘要
M2e VLP was previously described as a vaccine that incorporates the extracellular region of the matrix 2 protein (M2e), which is highly conserved amongst all the strains of influenza. In this study, we analyzed activation status of dendritic cells (DCs) after exposure to M2e VLP, stimulating DCs with M2e VLP and co-culturing the stimulated DCs with T cells to observe innate and adaptive immune responses. The M2e VLP microparticle was prepared by encapsulating into a polymer matrix using the one-step spray drying method. Adjuvants Alhydrogel (R), MPL-A (R) or Addavax (TM) were used to enhance the DC stimulatory effects by the M2e VLP microparticle. The M2e VLP microparticle yield was found to be 92% and the encapsulation yield was around 84% with a size of approximately 2.78 mu m. There was no short-term cytotoxicity found in DCs and macrophages with concentrations up to 1500 mu g/mL of M2e VLP microparticle, however long-term exposure resulted in 25% decrease in viability of cells with concentrations more than or equal to 500 mu g/mL. The M2e VLP microparticle vaccine with Alhydrogel (R) and MPL-A (R) induced high levels of TNFix in both DCs and macrophages. The high levels of MHC I, II, CD28, B7-1, ICAM-1, LFA-1 expression and IL-12 release in the M2e VLP microparticle group with Alhydrogel (R) suggests that the M2e VLP vaccine with this adjuvant activated T cells via the Th2 pathway. The increased expression of MHC I, II, CD40, CD154, ICAM-1 and LFA-1 on DCs and the release of IL-12 in the M2e VLP microparticle culture of DCs with MPL-A (R) demonstrated that the M2e VLP vaccine with this adjuvant activated T cells via the Th1 pathway. The decrease in fluorescence in the Alhydrogel (R) and MPL-A (R) group illustrates the proliferation of T cells took place following exposure of DCs to the M2e VLP microparticle with these adjuvants. The M2e VLP microparticle exhibited higher stimulatory responses of DCs than the M2e VLP in suspension. Furthermore, the presence of Alhydrogel (R) and MPL-A (R) enhanced the stimulatory effects of DCs by the M2e VLP microparticle (MP) vaccine.
引用
收藏
页数:12
相关论文
共 50 条
  • [31] Universal protection against influenza viruses by multi-subtype neuraminidase and M2 ectodomain virus-like particle
    Kim, Ki-Hye
    Li, Zhuo
    Bhatnagar, Noopur
    Subbiah, Jeeva
    Park, Bo Ryoung
    Shin, Chong Hyun
    Pushko, Peter
    Wang, Bao-Zhong
    Kang, Sang-Moo
    PLOS PATHOGENS, 2022, 18 (08)
  • [32] Development of a universal influenza A vaccine based on the M2e peptide fused to the papaya mosaic virus (PapMV) vaccine platform
    Denis, Jerome
    Acosta-Ramirez, Elizabeth
    Zhao, Yinghi
    Hamelin, Marie-Eve
    Koukavica, Irena
    Baz, Mariana
    Abed, Yacine
    Savard, Christian
    Pare, Christine
    Macias, Constantino Lopez
    Boivin, Guy
    Leclerc, Denis
    VACCINE, 2008, 26 (27-28) : 3395 - 3403
  • [33] Heterologous expression, purification and characterization of the influenza A virus M2e gene fused to Mycobacterium tuberculosis HSP70359-610 in prokaryotic system as a fusion protein
    Ebrahimi, Seyyed Mahmoud
    Tebianian, Majid
    MOLECULAR BIOLOGY REPORTS, 2010, 37 (06) : 2877 - 2883
  • [34] Highly conserved M2e and hemagglutinin epitope-based recombinant proteins induce protection against influenza virus infection
    Guo, Yan
    He, Lei
    Song, Nianping
    Li, Pei
    Sun, Shihui
    Zhao, Guangyu
    Tai, Wanbo
    Jiang, Shibo
    Du, Lanying
    Zhou, Yusen
    MICROBES AND INFECTION, 2017, 19 (12) : 641 - 647
  • [35] Heterologous expression, purification and characterization of the influenza A virus M2e gene fused to Mycobacterium tuberculosis HSP70359–610 in prokaryotic system as a fusion protein
    Seyyed Mahmoud Ebrahimi
    Majid Tebianian
    Molecular Biology Reports, 2010, 37 : 2877 - 2883
  • [36] Development of Recombinant Vaccine against A(H1N1) 2009 Influenza Based on Virus-like Nanoparticles Carrying the Extracellular Domain of M2 Protein
    Kotlyarov, R. Y.
    Kuprianov, V. V.
    Migunov, A. I.
    Stepanova, L. A.
    Tsybalova, L. M.
    Kiselev, O. I.
    Ravin, N. V.
    Skryabin, K. G.
    ACTA NATURAE, 2010, 2 (02): : 71 - 76
  • [37] Antigenicity and immunogenicity of HA2 and M2e influenza virus antigens conjugated to norovirus-like, VP1 capsid-based particles by the SpyTag/SpyCatcher technology
    Heinimaki, Suvi
    Lampinen, Vili
    Tamminen, Kirsi
    Hankaniemi, Minna M.
    Malm, Maria
    Hytonen, Vesa P.
    Blazevic, Vesna
    VIROLOGY, 2022, 566 : 89 - 97
  • [38] Virus-like Particles of Nodavirus Displaying the Receptor Binding Domain of SARS-CoV-2 Spike Protein: A Potential VLP-Based COVID-19 Vaccine
    Kumar, Kiven
    Tan, Wen Siang
    Arshad, Siti Suri
    Ho, Kok Lian
    INTERNATIONAL JOURNAL OF MOLECULAR SCIENCES, 2023, 24 (05)
  • [39] Complete protection against a H5N2 avian influenza virus by a DNA vaccine expressing a fusion protein of H1N1 HA and M2e
    Park, Ki Seok
    Seo, Yong Bok
    Lee, Ji Yeung
    Im, Se Jin
    Seo, Sang Hwan
    Song, Min Suk
    Choi, Young Ki
    Sung, Young Chul
    VACCINE, 2011, 29 (33) : 5481 - 5487
  • [40] Virus-like Particles Containing Multiple M2 Extracellular Domains Confer Improved Cross-protection Against Various Subtypes of Influenza Virus
    Kim, Min-Chul
    Song, Jae-Min
    O, Eunju
    Kwon, Young-Man
    Lee, Youn-Jeong
    Compans, Richard W.
    Kang, Sang-Moo
    MOLECULAR THERAPY, 2013, 21 (02) : 485 - 492