Abstract: The present invention provides an in vitro method for monitoring interphase nuclear envelope rupture events in a eukaryotic cell or screening or identifying compound capable of increasing or decreasing the intensity and/or frequency of interphase nuclear envelope rupture events in a eukaryotic cell. These methods relate on a protein having a cytosolic non-nuclear localization in interphase and a non-sequence specific DNA binding activity. Interphase nuclear envelope rupture events are characterized by the presence of the protein of the invention in the nucleus of the eukaryotic cell.

Abstract: The present invention provides an in vitro method for monitoring interphase nuclear envelope rupture events in a eukaryotic cell or screening or identifying compound capable of increasing or decreasing the intensity and/or frequency of interphase nuclear envelope rupture events in a eukaryotic cell. These methods relate on a protein having a cytosolic non-nuclear localization in interphase and a non-sequence specific DNA binding activity. Interphase nuclear envelope rupture events are characterized by the presence of the protein of the invention in the nucleus of the eukaryotic cell.

Abstract: The subject matter of the present invention is a device for guiding cell migration comprising a substrate having a textured surface intended to be brought into contact with cells, said textured surface having an anisotropic three-dimensional structure consisting of a network of projections inclined relative to the normal to the plane formed by said textured structure, in the direction imparted by said anisotropic structure. The invention also concerns, according to another aspect, a method for guiding cell migration including the bringing into contact of cells with a substrate having a textured surface and an anisotropic three-dimensional structure, said structure consisting of projections inclined as previously described. The device or method according to the invention can in particular be applied in the fields of dermatology, implantology and tissue engineering.

Abstract: A guiding device in which cells are confined between a support surface and a textured surface of a substrate, said textured surface having an anisotropic three-dimensional structure having a repeating pattern that repeats according to a repeat axis, said repeating pattern having a succession of guide spaces adjacent to one another according to the repeat axis, each of said guide spaces being capable of receiving at least one portion of one of the cells and being oriented according to a direction of anisotropy to guide a movement of the cells in the direction of anisotropy.

Abstract: A guiding device in which cells are confined between a support surface and a textured surface of a substrate, said textured surface having an anisotropic three-dimensional structure having a repeating pattern that repeats according to a repeat axis, said repeating pattern having a succession of guide spaces adjacent to one another according to the repeat axis, each of said guide spaces being capable of receiving at least one portion of one of the cells and being oriented according to a direction of anisotropy to guide a movement of the cells in the direction of anisotropy.

Abstract: The subject matter of the present invention is a device for guiding cell migration comprising a substrate having a textured surface intended to be brought into contact with cells, said textured surface having an anisotropic three-dimensional structure consisting of a network of projections inclined relative to the normal to the plane formed by said textured structure, in the direction imparted by said anisotropic structure. The invention also concerns, according to another aspect, a method for guiding cell migration including the bringing into contact of cells with a substrate having a textured surface and an anisotropic three-dimensional structure, said structure consisting of projections inclined as previously described. The device or method according to the invention can in particular be applied in the fields of dermatology, implantology and tissue engineering.

Abstract: The present invention relates to methods and devices for adhering cells in a specific and predetermined position with an adhesive control of internal cell organization, methods for preparing such devices, methods for studying modifications of cell shape and global internal cell organization such as the distribution of cellular compartments, centrosome centering, spindle orientation, internal compartmentalization and internal transports, methods for screening compounds of interest which enhance or inhibit specific cell functions.

Abstract: The present invention relates to methods and devices for adhering cells in a specific and predetermined position with an adhesive control of internal cell organisation, methods for preparing such devices, methods for studying modifications of cell shape and global internal cell organization such as the distribution of cellular compartments, centrosome centering, spindle orientation, internal compartimentalization and internal transports, methods for screening compounds of interest which enhance or inhibit specific cell functions.