US2010173388A1PendingUtilityA1
Recombinant poxvirus expressing homologous genes inserted into the poxviral genome
Est. expiryMay 16, 2022(expired)· nominal 20-yr term from priority
A61P 35/00A61P 31/20A61P 31/18A61P 31/14A61P 37/00A61P 37/04A61P 31/12A61P 1/16C07K 14/005A61K 35/76C12N 15/86C12N 2710/24122A61K 2039/5256C12N 2840/20C12N 2840/203A61K 2039/53C12N 2770/24122C12N 2710/24143Y02A50/30C12N 15/863A61K 31/70
71
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Claims
Abstract
The present invention relates to a recombinant poxvirus vector capable of expressing two or more homologous, foreign sequences, which derive from different variants of a microorganism, and which have a homology of 50% or above. The invention further relates to a method for preparing such recombinant poxvirus and the use of such recombinant poxvirus as medicament or vaccine. Additionally, a method for affecting preferably inducing, an immune response in a living animal, including a human, is provided.
Claims
exact text as granted — not AI-modified1 - 27 . (canceled)
28 . A recombinant MVA expressing at least two exogenous sequences,
wherein the expression of each of the exogenous sequences is controlled by the same poxyiral transcriptional control element.
29 . The recombinant MVA of claim 28 , wherein each of the transcriptional control elements is a vaccinia virus promoter.
30 . The recombinant MVA of claim 29 , wherein each of the transcriptional control elements is a vaccinia virus p7.5 promoter.
31 . The recombinant MVA of claim 28 , wherein each of the exogenous sequences is inserted at a naturally occurring deletion site of the MVA genome.
32 . The recombinant MVA of claim 29 , wherein each of the exogenous sequences is inserted at a naturally occurring deletion site of the MVA genome.
33 . The recombinant MVA of claim 30 , wherein each of the exogenous sequences is inserted at a naturally occurring deletion site of the MVA genome.
34 . The recombinant MVA of claim 28 , wherein each of the exogenous sequences is inserted at an intergenic region of the MVA genome.
35 . The recombinant MVA of claim 29 , wherein each of the exogenous sequences is inserted at an intergenic region of the MVA genome.
36 . The recombinant MVA of claim 30 , wherein each of the exogenous sequences is inserted at an intergenic region of the MVA genome.
37 . The recombinant MVA of claim 28 , wherein two exogenous sequences are inserted into the MVA genome at different insertion sites.
38 . The recombinant MVA of claim 29 , wherein two exogenous sequences are inserted into the MVA genome at different insertion sites.
39 . The recombinant MVA of claim 30 , wherein two exogenous sequences are inserted into the MVA genome at different insertion sites.
40 . The recombinant MVA of claim 28 , wherein three exogenous sequences are inserted into the MVA genome at different insertion sites.
41 . The recombinant MVA of claim 29 , wherein three exogenous sequences are inserted into the MVA genome at different insertion sites.
42 . The recombinant MVA of claim 30 , wherein three exogenous sequences are inserted into the MVA genome at different insertion sites.
43 . The recombinant MVA of claim 28 , wherein the exogenous sequences encode Dengue virus antigens.
44 . The recombinant MVA of claim 29 , wherein the exogenous sequences encode Dengue virus antigens.
45 . The recombinant MVA of claim 30 , wherein the exogenous sequences encode Dengue virus antigens.
46 . The recombinant MVA of claim 40 , wherein the exogenous sequences are inserted into IGR 136-137, IGR 07-08, and IGR 44-45 of the MVA genome.
47 . The recombinant MVA of claim 41 , wherein the exogenous sequences are inserted into IGR 136-137, IGR 07-08, and IGR 44-45 of the MVA genome.
48 . The recombinant MVA of claim 42 , wherein the exogenous sequences are inserted into IGR 136-137, IGR 07-08, and IGR 44-45 of the MVA genome.Cited by (0)
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