Abstract: Disclosed herein are multivalent nanoparticle vaccine compositions suitable for use in influenza vaccines. The nanoparticles include effective amounts of influenza glycoproteins that provide increased immune responses compared to a commercially available influenza vaccine composition. The present disclosure also provides vaccine formulation strategies that are cost effective and are convenient for clinical use. Methods of administering the nanoparticle vaccine compositions to a subject are also disclosed.

Abstract: Disclosed herein are nanoparticles suitable for use in vaccines. The nanoparticles present antigens from pathogens surrounded to and associated with a detergent core resulting in enhanced stability and good immunogenicity. Dosages, formulations, and methods for preparing the vaccines and nanoparticles are also disclosed.

Abstract: Disclosed herein are nanoparticles suitable for use in vaccines. The nanoparticles present antigens from pathogens surrounded to and associated with a detergent core resulting in enhanced stability and good immunogenicity. Dosages, formulations, and methods for preparing the vaccines and nanoparticles are also disclosed.

Abstract: Disclosed herein are multivalent nanoparticle vaccine compositions suitable for use in influenza vaccines. The nanoparticles include effective amounts of influenza glycoproteins that provide increased immune responses compared to a commercially available influenza vaccine composition. The present disclosure also provides vaccine formulation strategies that are cost effective and are convenient for clinical use. Methods of administering the nanoparticle vaccine compositions to a subject are also disclosed.

Abstract: Disclosed herein are multivalent nanoparticle vaccine compositions suitable for use in influenza vaccines. The nanoparticles include effective amounts of influenza glycoproteins that provide increased immune responses compared to a commercially available influenza vaccine composition. The present disclosure also provides vaccine formulation strategies that are cost effective and are convenient for clinical use. Methods of administering the nanoparticle vaccine compositions to a subject are also disclosed.

Abstract: Disclosed herein are nanoparticles suitable for use in vaccines. The nanoparticles present antigens from pathogens surrounded to and associated with a detergent core resulting in enhanced stability and good immunogenicity. Dosages, formulations, and methods for preparing the vaccines and nanoparticles are also disclosed.

Abstract: Disclosed herein are methods and nanoparticles suitable for use in reducing exacerbations in COPD patients. The methods and compositions advantageously reduce the incidence of hospitalization in COPD patients that occurs in response to environmental insults such as exposure to or infection by RSV. Dosages, formulations, and methods for preparing the vaccines and nanoparticles are also disclosed.

Abstract: Disclosed herein are nanoparticles suitable for use in vaccines. The nanoparticles present antigens from pathogens surrounded to and associated with a detergent core resulting in enhanced stability and good immunogenicity. Dosages, formulations, and methods for preparing the vaccines and nanoparticles are also disclosed.

Abstract: Disclosed herein are multivalent nanoparticle vaccine compositions suitable for use in influenza vaccines. The nanoparticles include effective amounts of influenza glycoproteins that provide increased immune responses compared to a commercially available influenza vaccine composition. The present disclosure also provides vaccine formulation strategies that are cost effective and are convenient for clinical use. Methods of administering the nanoparticle vaccine compositions to a subject are also disclosed.

Abstract: Disclosed herein are nanoparticles suitable for use in vaccines. The nanoparticles present antigens from pathogens surrounded to and associated with a detergent core resulting in enhanced stability and good immunogenicity. Dosages, formulations, and methods for preparing the vaccines and nanoparticles are also disclosed.

Abstract: Disclosed herein are nanoparticles suitable for use in vaccines. The nanoparticles present antigens from pathogens surrounded to and associated with a detergent core resulting in enhanced stability and good immunogenicity. Dosages, formulations, and methods for preparing the vaccines and nanoparticles are also disclosed.

Abstract: The present disclosure relates to vaccine compositions that comprise a Zika virus antigen and an adjuvant. The present disclosure also provides methods for inducing a protective immune response by administering the disclosed vaccine compositions in a subject in needs thereof. The present methods also comprise the binding of the Zika virus vaccine to Zika virus cellular receptor proteins.

Abstract: Disclosed herein are nanoparticles suitable for use in vaccines. The nanoparticles present antigens from pathogens surrounded to and associated with a detergent core resulting in enhanced stability and good immunogenicity. Dosages, formulations, and methods for preparing the vaccines and nanoparticles are also disclosed.

Abstract: Mitochondriotropic phospholipid vesicles, i.e., mitochondriotropic liposomes, that comprise a hydrophobized amphiphilic delocalized cation, such as those comprising, e.g., a triphenylphosphonium or a quinolinium moiety, incorporated into the phospholipid membrane of the vesicles, or liposomes, are disclosed. The hydrophobized portion of the amphiphilic delocalized cation, e.g., a fatty acid or other phospholipid derivative, is embedded in the phospholipid membrane of the liposome, and the amphiphilic portion of the cation is exposed on the surface of the liposome. Mitochondriotropic liposomes constitute a mitochondria-targeted drug delivery system, permitting the transport of a high payload of therapeutic water-soluble molecules in their native (i.e., active) state specifically and exclusively to mitochondria in living mammalian cells.