Patent classifications
A61K39/15
ANTI-HERV-K ENVELOPE ANTIBODY AND USES THEREOF
The present invention relates to a novel antibody against HERV-K envelope that targets a conserved region not affected by glycosylation or by native conformation, and its use in diagnostics and/or in therapy.
MAMMARY TUMOR VIRUS VACCINE
Disclosed is a vaccine containing an MTV transition protein. A further version of the invention is a vaccine comprising MTV polypeptides coupled to a carrier protein. MTV may be treated by providing an MTV vaccine with an MTV transition protein; and, administering said vaccine.
MAMMARY TUMOR VIRUS VACCINE
Disclosed is a vaccine containing an MTV transition protein. A further version of the invention is a vaccine comprising MTV polypeptides coupled to a carrier protein. MTV may be treated by providing an MTV vaccine with an MTV transition protein; and, administering said vaccine.
Bovine rotavirus fusion protein and calf diarrhea multivalent vaccine
Provided are a bovine rotavirus fusion protein and calf diarrhea multivalent vaccine. The bovine rotavirus fusion protein contains a VP6 fragment, wherein the VP6 fragment contains an amino acid sequence as represented by SEQ ID NO. 4, and at least one loop region of the following (a)?(c) is substituted with an antigenic epitope derived from bovine coronavirus and/or an antigenic epitope derived from E. coli: (a) amino acid residues of sites 168-177; with an amino acid sequence as represented by SEQ ID NO. 1; (b) amino acid residues of sites 194-205; with an amino acid sequence as represented by SEQ ID NO. 2; and (a) amino acid residues of sites 296-316, with an amino acid sequence as represented by SEQ ID NO. 3, The bovine rotavirus fusion protein contains a plurality of antigenic epitopes, and can enable a host to generate a plurality of antibodies after immunizing the host.
Bovine rotavirus fusion protein and calf diarrhea multivalent vaccine
Provided are a bovine rotavirus fusion protein and calf diarrhea multivalent vaccine. The bovine rotavirus fusion protein contains a VP6 fragment, wherein the VP6 fragment contains an amino acid sequence as represented by SEQ ID NO. 4, and at least one loop region of the following (a)?(c) is substituted with an antigenic epitope derived from bovine coronavirus and/or an antigenic epitope derived from E. coli: (a) amino acid residues of sites 168-177; with an amino acid sequence as represented by SEQ ID NO. 1; (b) amino acid residues of sites 194-205; with an amino acid sequence as represented by SEQ ID NO. 2; and (a) amino acid residues of sites 296-316, with an amino acid sequence as represented by SEQ ID NO. 3, The bovine rotavirus fusion protein contains a plurality of antigenic epitopes, and can enable a host to generate a plurality of antibodies after immunizing the host.
Method of microwave vacuum drying spherical-shaped pellets of biological materials
Methods for preparing dried pellets of biological materials are described. The pellets can have a substantially spherical shape and are prepared by freezing droplets of a liquid composition of a desired biological material on a solid surface followed by microwave vacuum drying the frozen droplets. These methods are useful for preparing dried pellets having a high concentration of a desired biological material, in particular a therapeutic protein or vaccine, and which have a faster reconstitution time than lyophilized powder cakes prepared in vials.
Method of microwave vacuum drying spherical-shaped pellets of biological materials
Methods for preparing dried pellets of biological materials are described. The pellets can have a substantially spherical shape and are prepared by freezing droplets of a liquid composition of a desired biological material on a solid surface followed by microwave vacuum drying the frozen droplets. These methods are useful for preparing dried pellets having a high concentration of a desired biological material, in particular a therapeutic protein or vaccine, and which have a faster reconstitution time than lyophilized powder cakes prepared in vials.
OPTIMIZED POLYPEPTIDE FOR A SUBUNIT VACCINE AGAINST AVIAN REOVIRUS
An isolated polypeptide comprising an amino acid sequence corresponding to the amino acid residues forming a full or partial -helical domain, the hinge domain, the -triple spiral domain and a full or partial globular head domain of an avian reovirus sigma C protein, and lacking the amino acid sequence that is N-terminal to said -helical domain is provided. Furthermore, a vaccine comprising, or a viral vector expressing, at least one of the isolated polypeptides of the present invention is provided.
OPTIMIZED POLYPEPTIDE FOR A SUBUNIT VACCINE AGAINST AVIAN REOVIRUS
An isolated polypeptide comprising an amino acid sequence corresponding to the amino acid residues forming a full or partial -helical domain, the hinge domain, the -triple spiral domain and a full or partial globular head domain of an avian reovirus sigma C protein, and lacking the amino acid sequence that is N-terminal to said -helical domain is provided. Furthermore, a vaccine comprising, or a viral vector expressing, at least one of the isolated polypeptides of the present invention is provided.
METHOD FOR PRODUCING ARTIFICIAL RECOMBINANT ROTAVIRUS
Provided is a method for producing an artificial recombinant virus of the family Reoviridae, the method comprising the steps of: (1) introducing a FAST protein expression vector and/or a capping enzyme expression vector into host cells; (2) introducing a vector containing expression cassettes for individual RNA genome segments of a virus or introducing a set of single-stranded RNA transcripts from the expression cassettes into host cells; and (3) culturing the host cells.
The method of the present invention allows more efficient production of an artificial recombinant virus of the family Reoviridae as compared with conventional methods and allows artificial recombinant rotavirus production without using a helper virus.