Patent classifications
A61K39/12
TILAPIA LAKE VIRUS VACCINES
The present invention relates to vaccine compositions comprising attenuated strain of Tilapia Lake Virus (TiLV) for protecting tilapia fish against infection by (TiLV). The invention also relates to methods for using the vaccines to protect tilapines from TiLV-induced disease.
RNA VIRUS ATTENUATION BY ALTERATION OF MUTATIONAL ROBUSTNESS AND SEQUENCE SPACE
The application generally relates to the attenuation of a RNA virus or of a clone thereof and involves the alteration of sequence space, more particularly the reduction, of mutational robustness of said RNA virus or clone. The means of the application are more particularly dedicated to the attenuation of an infectious RNA virus or clone, for the production of immunogenic composition or vaccine. More particularly, the means of the application involve the replacement of codon(s) by different codon(s), which is(are) selected to differ by only one nucleotide from a codon STOP, more particularly by different but synonymous codon(s), which is(are) selected to differ by only one nucleotide from a codon STOP.
RNA VIRUS ATTENUATION BY ALTERATION OF MUTATIONAL ROBUSTNESS AND SEQUENCE SPACE
The application generally relates to the attenuation of a RNA virus or of a clone thereof and involves the alteration of sequence space, more particularly the reduction, of mutational robustness of said RNA virus or clone. The means of the application are more particularly dedicated to the attenuation of an infectious RNA virus or clone, for the production of immunogenic composition or vaccine. More particularly, the means of the application involve the replacement of codon(s) by different codon(s), which is(are) selected to differ by only one nucleotide from a codon STOP, more particularly by different but synonymous codon(s), which is(are) selected to differ by only one nucleotide from a codon STOP.
ADAPTATION OF ATTENUATED INFECTIOUS BRONCHITIS VIRUS (IBV) TO EMBRYONIC KIDNEY CELLS AND VACCINE THEREBY PRODUCED
Disclosed are methods for preparing a vaccine against infection by infectious bronchitis virus (IBV). The methods typically include passing a heterogeneous attenuated population of IBV in chicken embryonic kidney cells, and optionally may include further passaging the heterogeneous attenuated population of IBV in embryonated chicken eggs (ECE) in order to obtain passaged attenuated population of IBV. Also disclosed are passaged attenuated populations of IBV in which the populations display a desired degree of homogeneity. Also disclosed are vaccines comprising the passaged attenuated populations of IBV and methods of vaccination comprising administering the disclosed vaccines.
ADAPTATION OF ATTENUATED INFECTIOUS BRONCHITIS VIRUS (IBV) TO EMBRYONIC KIDNEY CELLS AND VACCINE THEREBY PRODUCED
Disclosed are methods for preparing a vaccine against infection by infectious bronchitis virus (IBV). The methods typically include passing a heterogeneous attenuated population of IBV in chicken embryonic kidney cells, and optionally may include further passaging the heterogeneous attenuated population of IBV in embryonated chicken eggs (ECE) in order to obtain passaged attenuated population of IBV. Also disclosed are passaged attenuated populations of IBV in which the populations display a desired degree of homogeneity. Also disclosed are vaccines comprising the passaged attenuated populations of IBV and methods of vaccination comprising administering the disclosed vaccines.
VACCINATION
The present invention relates to compositions for use in and methods for protecting against Herpes Zoster (HZ).
ADJUVANT COMPOSITION CONTAINING AT LEAST ONE INFLUENZA VIRUS NEUTRALIZING AND BINDING MOLECULE AND VACCINE COMPOSITION CONTAINING SAME
This invention relates to an adjuvant composition containing at least one binding molecule for neutralizing influenza virus and a vaccine composition containing the same. The composition containing at least one binding molecule for neutralizing influenza virus is capable of increasing the effects of a vaccine, and can thus be used as an adjuvant, which increases an immune response upon vaccine administration, and is very useful in the prevention of diseases caused by viruses.
LIPID A MIMICS, METHODS OF PREPARATION, AND USES THEREOF
The invention provides lipid A mimics in which one or both of the sugar residues of a natural lipid A disaccharide backbone has been replaced with an aromatic group. These lipid A mimics may further differ from a natural lipid A molecule with respect to other structural characteristics, such as, a different number of phosphate groups present, changes in the number, structure and location of lipid chains and/or changes in the spacing and linkage of the sugar residues (or their aromatic replacements). The lipid A mimics may be lipid A agonists and as such may be useful as immunostimulatory agents in inducing or patenting an antibody and/or cell-mediated immune response, or may be lipid A antagonists and as such may be useful in treating or preventing a lipopolysaccharide (LPS)/lipid A-mediated disease or disorder. Also provided are methods for preparing the lipid A mimics.
LIPID A MIMICS, METHODS OF PREPARATION, AND USES THEREOF
The invention provides lipid A mimics in which one or both of the sugar residues of a natural lipid A disaccharide backbone has been replaced with an aromatic group. These lipid A mimics may further differ from a natural lipid A molecule with respect to other structural characteristics, such as, a different number of phosphate groups present, changes in the number, structure and location of lipid chains and/or changes in the spacing and linkage of the sugar residues (or their aromatic replacements). The lipid A mimics may be lipid A agonists and as such may be useful as immunostimulatory agents in inducing or patenting an antibody and/or cell-mediated immune response, or may be lipid A antagonists and as such may be useful in treating or preventing a lipopolysaccharide (LPS)/lipid A-mediated disease or disorder. Also provided are methods for preparing the lipid A mimics.
INFLUENZA VIRUS VACCINATION REGIMENS
Provided herein are immunization regimens for inducing an immune response (e.g., an antibody response) against influenza virus. In specific aspects, the immunization regimens involve the administration of a chimeric hemagglutinin (HA), a headless HA or another influenza virus stem domain based construct (e.g., the HA stem domain or a fragment thereof) to a subject. In certain aspects, the immunization regimens also involve the administration of an influenza virus neuraminidase immunogen.