Abstract: The present invention relates to a method for determining the in vivo localization of double-strand breaks in a host cell, comprising incubating a host cell suspected to comprise DNA double-strand breaks and a linear polynucleotide comprising a known sequence, detecting the in vivo insertion sites of said polynucleotide in the genome of said host cell, and assessing the in vivo localization of double-strand breaks. Further envisaged by the present invention is a method for obtaining an endonuclease with altered in vivo specificity. Finally, the present invention is directed to a kit for determining in vivo specificity of an endonuclease.

Abstract: The present invention relates to a method for determining the in vivo localization of double-strand breaks in a host cell, comprising incubating a host cell suspected to comprise DNA double-strand breaks and a linear polynucleotide comprising a known sequence, detecting the in vivo insertion sites of said polynucleotide in the genome of said host cell, and assessing the in vivo localization of double-strand breaks. Further envisaged by the present invention is a method for obtaining an endonuclease with altered in vivo specificity. Finally, the present invention is directed to a kit for determining in vivo specificity of an endonuclease.

Abstract: The present invention concerns recombinant measles virus as a therapeutic, in particular a recombinant measles virus comprising a suicide gene in its genome, a mutated viral hemagglutinin, and a specificity domain specifically recognizing a cancer antigen. Furthermore, it relates to a polynucleotide coding for such a recombinant measles virus and a vector comprising said polynucleotide. The current invention also relates to a method for the manufacture of and a medicament comprising said recombinant measles virus, as well as a method for treating a solid tumor using said recombinant measles virus.

Abstract: A method of increasing cell proliferation by modulating levels of EVI and related genes. Activation of EVI-1, PRDM16, or SETBP1 can increase the proliferation rate, self renewal and/or in vitro and/or in vivo survival and/or engraftment of human cells, either in vitro or in vivo. The gene modulation can be performed by various means, including traditional cloning methods and retroviral-based gene activation methods. The method can also be used to more efficiently deliver gene-corrected cells to a patient in need of treatment.