Abstract: The present invention relates to high-titer hybrid vims vectors which produce virus-like vesicle (VLVs) and compositions and methods thereof for targeting a malignancy or infectious disease. VLVs are a capsid-free, self-replicating artificial virus platform carrying positive-strand capped and polyadenylated RNA encoding an in vitro evolved Semliki Forest vims (SFV) RNA-dependent RNA replicase and the vesicular stomatitis virus (VSV) glycoprotein. The VLVs of the present invention and pharmaceutical compositions thereof encode for polynucleotide and/or polypeptide therapeutic agents useful in methods for the treatment, prophylaxis, and prevention of malignancies and infectious diseases.

Abstract: Compositions that include at least a portion of at least one pathogen-associated molecular pattern and at least a portion of at least one member selected from the group consisting of a Den1 viral envelope protein, a Den2 viral envelope protein, a Den3 viral envelope protein and a Den4 viral envelope protein are employed in methods to stimulate a protective immune response in a subject.

Abstract: Methods of making a protein that stimulates a protective immune response in a subject include separating a portion of a protein from a naturally occurring influenza viral hemagglutinin to form a protein portion.

Abstract: Compositions that include at least a portion of at least one pathogen-associated molecular pattern and at least a portion of at least one member selected from the group consisting of a Den1 viral envelope protein, a Den2 viral envelope protein, a Den3 viral envelope protein and a Den4 viral envelope protein are employed in methods to stimulate a protective immune response in a subject.

Abstract: Compositions that include at least a portion of at least one pathogen-associated molecular pattern and at least a portion of at least one member selected from the group consisting of a Den1 viral envelope protein, a Den2 viral envelope protein, a Den3 viral envelope protein and a Den4 viral envelope protein are employed in methods to stimulate a protective immune response in a subject.

Abstract: Methods of making a protein that stimulates a protective immune response in a subject include separating a portion of a protein from a naturally occurring influenza viral hemagglutinin to form a protein portion.

Abstract: Methods of making a protein that stimulates a protective immune response in a subject include separating a portion of a protein from a naturally occurring influenza viral hemagglutinin to form a protein portion. The protein portion includes at least a portion of a globular head, and at least a portion of at least one secondary structure having at least one ?-sheet at a bottom of the globular head that causes the globular head to essentially retain its tertiary structure. The protein portion made by the methods of the invention lacks a transmembrane domain, a cytoplasmic domain and an HA2 subunit. A nucleic acid sequence encoding the protein portion is transformed into a prokaryotic host cell.

Abstract: Methods of making a protein that stimulates a protective immune response in a subject include separating a portion of a protein from a naturally occurring influenza viral hemagglutinin to form a protein portion. The protein portion includes at least a portion of a globular head, and at least a portion of at least one secondary structure having at least one ?-sheet at a bottom of the globular head that causes the globular head to essentially retain its tertiary structure. The protein portion made by the methods of the invention lacks a transmembrane domain, a cytoplasmic domain and an HA2 subunit. A nucleic acid sequence encoding the protein portion is transformed into a prokaryotic host cell.

Abstract: Methods of making a protein that stimulates a protective immune response in a subject include separating a portion of a protein from a naturally occurring influenza viral hemagglutinin to form a protein portion.

Abstract: Methods that stimulate a protective immune response in a subject include a portion of a protein from a naturally occurring viral hemagglutinin, wherein the protein portion includes at least a portion of a globular head and at least a portion of at least one secondary structure that causes the globular head to essentially retain its tertiary structure, and wherein the protein portion lacks a transmembrane domain, a cytoplasmic domain and an HA2 subunit. Compositions administered to the subject can further include a carrier and can be administered in single or multiple doses.

Abstract: Compositions that include at least a portion of at least one pathogen-associated molecular pattern and at least a portion of at least one member selected from the group consisting of a Den1 viral envelope protein, a Den2 viral envelope protein, a Den3 viral envelope protein and a Den4 viral envelope protein are employed in methods to stimulate a protective immune response in a subject.

Abstract: Compositions that include at least a portion of at least one pathogen-associated molecular pattern and at least a portion of at least one member selected from the group consisting of a Den1 viral envelope protein, a Den2 viral envelope protein, a Den3 viral envelope protein and a Den4 viral envelope protein are employed in methods to stimulate a protective immune response in a subject.

Abstract: Compositions that include at least a portion of at least one pathogen-associated molecular pattern and at least a portion of at least one member selected from the group consisting of a Den1 viral envelope protein, a Den2 viral envelope protein, a Den3 viral envelope protein and a Den4 viral envelope protein are employed in methods to stimulate a protective immune response in a subject.

Abstract: Compositions that include at least one protein that activates a Toll-like Receptor and includes at least a portion of at least one Toll-like Receptor agonist and at least a portion of at least one papillomavirus suppressor binding protein, papillomavirus transforming protein and papillomavirus capsid protein can be employed in methods that stimulate an immune response in a subject, in particular, a protective immune response in a subject. Compositions can further include an adjuvant and a carrier protein.

Abstract: Fusion proteins comprise at least a portion of at least one flagellin and at least a portion of at least one Dengue viral envelope protein. The fusion proteins are used to stimulate an immune response and protective immunity in a subject.

Abstract: Methods of making and compositions that stimulate a protective immune response in a subject include a portion of a protein from a naturally occurring viral hemagglutinin, wherein the protein portion includes at least a portion of a globular head and at least a portion of at least one secondary structure that causes the globular head to essentially retain its tertiary structure, and wherein the protein portion lacks a membrane fusion domain, a transmembrane domain and a cytoplasmic domain. Compositions can further include a Toll-like Receptor agonist and a carrier protein.

Abstract: Compositions comprise a flagellin component that is at least a portion of a flagellin, wherein the flagellin component includes at least one cysteine residue and whereby the flagellin component activates a Toll-like Receptor 5. Compositions can further include an antigen, such as an influenza antigen. The compositions are used to stimulate an immune response and a protective immune response in a subject.

Abstract: Compositions that include at least one fusion protein that includes at least a portion of at least one flagellin and at least a portion of at least one malaria antigen can be employed in methods that stimulate an immune response in a subject, in particular, sterile immunity and a protective immune response in a subject.

Abstract: Compositions that include at least one protein that activates a Toll-like Receptor and includes at least a portion of at least one Toll-like Receptor agonist and at least a portion of at least one papillomavirus suppressor binding protein, papillomavirus transforming protein and papillomavirus capsid protein can be employed in methods that stimulate an immune response in a subject, in particular, a protective immune response in a subject. Compositions can further include an adjuvant and a carrier protein.

Abstract: Compositions, fusion proteins and polypeptides comprise at least one pathogen-associated molecular pattern and at least a portion of at least one integral membrane protein of an influenza viral antigen. The compositions, fusion proteins and polypeptides are used to stimulate an immune response in a subject.