Patent classifications
C07K14/44
Methods and compositions for assessing antibody specificities
The present invention provides compositions and methods that can be used to determine a peptide signature for an antibody repertoire in a sample comprising multiple antibodies. The method can be used to characterize a phenotype in a sample, such as providing a diagnosis, prognosis or theranosis of a medical condition.
<i>Neospora </i>vaccine composition
The present invention relates to new protein compositions, methods for producing said protein compositions, pharmaceutical compositions comprising said protein compositions and methods for treating infections caused by Neospora caninum. In particular, the present invention relates to a protein composition comprising the proteins specified in Table A in an amount of at least about 2 times (fold change) higher than the same protein present in the whole tachyzoite, as calculated by quantitative label-free liquid chromatography-tandem mass spectrometry (LC-MS/MS).
<i>Neospora </i>vaccine composition
The present invention relates to new protein compositions, methods for producing said protein compositions, pharmaceutical compositions comprising said protein compositions and methods for treating infections caused by Neospora caninum. In particular, the present invention relates to a protein composition comprising the proteins specified in Table A in an amount of at least about 2 times (fold change) higher than the same protein present in the whole tachyzoite, as calculated by quantitative label-free liquid chromatography-tandem mass spectrometry (LC-MS/MS).
NSP10 SELF-ASSEMBLING FUSION PROTEINS FOR VACCINES, THERAPEUTICS, DIAGNOSTICS AND OTHER NANOMATERIAL APPLICATIONS
A fusion protein is provided which is based on a self-assembling gene-regulatory NSP10 protein and a protein or peptide capable of being fused to NSP10 without interfering with the assembly or aggregation of the resulting fusion protein. The disclosure also relates to any nanoparticle formed thereby whether complete or not, and methods for the use of the NSP10 fusion protein are also disclosed, including use as vaccines for any indication in humans or animals, therapeutic methods involving the use of the fusion proteins such as using the protein to targeted an antibody or receptor, such as for treating or diagnosing cancer, biosensors using the fusion protein, or the use of the fusion proteins in cell sorting or any imaging application.
NSP10 SELF-ASSEMBLING FUSION PROTEINS FOR VACCINES, THERAPEUTICS, DIAGNOSTICS AND OTHER NANOMATERIAL APPLICATIONS
A fusion protein is provided which is based on a self-assembling gene-regulatory NSP10 protein and a protein or peptide capable of being fused to NSP10 without interfering with the assembly or aggregation of the resulting fusion protein. The disclosure also relates to any nanoparticle formed thereby whether complete or not, and methods for the use of the NSP10 fusion protein are also disclosed, including use as vaccines for any indication in humans or animals, therapeutic methods involving the use of the fusion proteins such as using the protein to targeted an antibody or receptor, such as for treating or diagnosing cancer, biosensors using the fusion protein, or the use of the fusion proteins in cell sorting or any imaging application.
Uses of parasite macrophage migration inhibitory factors
This invention relates to compositions (e.g. vaccine compositions) which can be used to provide a subject with protective immunity against a parasite infection. The compositions comprise: (i) an immunologically effective amount of a nucleic acid (e.g. a nucleic acid-based vaccine) comprising a sequence which encodes a parasite macrophage migration inhibitory factor (MIF) antigen; (ii) a parasite MIF antigen; or (iii) an antibody which specifically binds to a parasite MIF antigen. The compositions may be used to treat infections and diseases caused by parasitic protozoans, such as a Plasmodium parasite, or parasitic helminths.
Uses of parasite macrophage migration inhibitory factors
This invention relates to compositions (e.g. vaccine compositions) which can be used to provide a subject with protective immunity against a parasite infection. The compositions comprise: (i) an immunologically effective amount of a nucleic acid (e.g. a nucleic acid-based vaccine) comprising a sequence which encodes a parasite macrophage migration inhibitory factor (MIF) antigen; (ii) a parasite MIF antigen; or (iii) an antibody which specifically binds to a parasite MIF antigen. The compositions may be used to treat infections and diseases caused by parasitic protozoans, such as a Plasmodium parasite, or parasitic helminths.
NSP10 self-assembling fusion proteins for vaccines, therapeutics, diagnostics and other nanomaterial applications
A fusion protein is provided which is based on a self-assembling gene-regulatory NSP10 protein and a protein or peptide capable of being fused to NSP10 without interfering with the assembly or aggregation of the resulting fusion protein. The disclosure also relates to any nanoparticle formed thereby whether complete or not, and methods for the use of the NSP10 fusion protein are also disclosed, including use as vaccines for any indication in humans or animals, therapeutic methods involving the use of the fusion proteins such as using the protein to targeted an antibody or receptor, such as for treating or diagnosing cancer, biosensors using the fusion protein, or the use of the fusion proteins in cell sorting or any imaging application.
NSP10 self-assembling fusion proteins for vaccines, therapeutics, diagnostics and other nanomaterial applications
A fusion protein is provided which is based on a self-assembling gene-regulatory NSP10 protein and a protein or peptide capable of being fused to NSP10 without interfering with the assembly or aggregation of the resulting fusion protein. The disclosure also relates to any nanoparticle formed thereby whether complete or not, and methods for the use of the NSP10 fusion protein are also disclosed, including use as vaccines for any indication in humans or animals, therapeutic methods involving the use of the fusion proteins such as using the protein to targeted an antibody or receptor, such as for treating or diagnosing cancer, biosensors using the fusion protein, or the use of the fusion proteins in cell sorting or any imaging application.
CIRCULAR TANDEM REPEAT PROTEINS
Circular handed alpha-helical repeat proteins are described. The repeat proteins have a number of uses as scaffolds for geometrically precise, arrayed presentation of cell-signaling or immune-related protein and peptide epitopes, as well as numerous other therapeutic, diagnostic, and nanotechnological uses.