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HeLa cancer cells infected with the bacterium Neisseria meningitidis, observed using a scanning microscope. The microscope image was coloured after analysis. Here, the HeLa cells are being used as a model to study how the biomechanical properties of cells contribute to various processes, including infection in particular.

System for surface microstructuring using photopatterning. Photopatterning is used to control the geometry of cells, whose shape is variable, making it easier to produce statistics when a particular parameter is being studied. Research scientists use this to study how the mechanical properties of cells contribute to various processes, including infection in particular.

AFM platform of an atomic force microscope. Research scientists use this to study how the mechanical properties of cells contribute to various processes, including infection in particular.

AFM platform of an atomic force microscope. Research scientists use this to study how the mechanical properties of cells contribute to various processes, including infection in particular.

AFM platform of an atomic force microscope. Research scientists use this to study how the mechanical properties of cells contribute to various processes, including infection in particular.

AFM platform of a multimode microscope. Research scientists use this to study how the mechanical properties of cells contribute to various processes, including infection in particular.

AFM platform of an atomic force microscope. Research scientists use this to study how the mechanical properties of cells contribute to various processes, including infection in particular.

Tubulin (in green) and LC3 protein (in red) in HeLa cancer cells, observed using a structured illumination microscope. Here, the HeLa cells are being used as a model to study how the biomechanical properties of cells contribute to various processes, including infection in particular.

Actin in HeLa cells treated with the Staphylococcus aureus EDIN toxin observed using a structured illumination microscope. Here, the HeLa cells are being used as a model to study how the biomechanical properties of cells contribute to various processes, including infection in particular.

Actin in HeLa cells treated with the Staphylococcus aureus EDIN toxin observed using a structured illumination microscope. Here, the HeLa cells are being used as a model to study how the biomechanical properties of cells contribute to various processes, including infection in particular.

Actin (in white), Golgi apparatus (in red) and nucleus (in blue) of HeLa cells observed using a confocal microscope. Here, the HeLa cells are being used as a model to study how the biomechanical properties of cells contribute to various processes, including infection in particular.

HeLa cancer cells infected with the bacterium Listeria monocytogenes, with actin comet tails, observed using a scanning electron microscope. Here, the HeLa cells are being used as a model to study how the biomechanical properties of cells contribute to various processes, including infection in particular.

HeLa cancer cells infected with the bacterium Listeria monocytogenes, with actin comet tails, observed using a scanning electron microscope. Here, the HeLa cells are being used as a model to study how the biomechanical properties of cells contribute to various processes, including infection in particular.

HeLa cancer cells treated with bafilomycin A for two hours, observed using a structured illumination microscope. Here, the HeLa cells are being used as a model to study how the biomechanical properties of cells contribute to various processes, including infection in particular.

Tubulin (in green) and LC3 protein (in red) in HeLa cancer cells, observed using a structured illumination microscope. Here, the HeLa cells are being used as a model to study how the biomechanical properties of cells contribute to various processes, including infection in particular.

HeLa cancer cells treated with bafilomycin A and rapamycin for two hours, observed using a structured illumination microscope. Here, the HeLa cells are being used as a model to study how the biomechanical properties of cells contribute to various processes, including infection in particular.

Tubulin (in green) and LC3 protein (in red) in HeLa cancer cells, observed using a structured illumination microscope. Here, the HeLa cells are being used as a model to study how the biomechanical properties of cells contribute to various processes, including infection in particular.

HeLa cancer cells treated with bafilomycin A for two hours, observed using a structured illumination microscope. Here, the HeLa cells are being used as a model to study how the biomechanical properties of cells contribute to various processes, including infection in particular.

HeLa cancer cells treated with bafilomycin A and rapamycin for two hours, observed using a structured illumination microscope. Here, the HeLa cells are being used as a model to study how the biomechanical properties of cells contribute to various processes, including infection in particular.

HeLa cancer cells treated with rapamycin for two hours, observed using a structured illumination microscope. Here, the HeLa cells are being used as a model to study how the biomechanical properties of cells contribute to various processes, including infection in particular.

Tubulin (in green) and LC3 protein (in red) in HeLa cancer cells, observed using a structured illumination microscope. Here, the HeLa cells are being used as a model to study how the biomechanical properties of cells contribute to various processes, including infection in particular.

3D view of HUVEC endothelial cells incorporating an elasticity map, observed using an atomic force microscope. By manipulating this type of cell, research scientists are notably studying infection by N. meningitidis bacteria and intoxication processes involving S. aureus EDIN or anthrax EF.

3D view of HUVEC endothelial cells incorporating an elasticity map, observed using an atomic force microscope. By manipulating this type of cell, research scientists are notably studying infection by N. meningitidis bacteria and intoxication processes involving S. aureus EDIN or anthrax EF.

3D view of HUVEC endothelial cells incorporating an elasticity map, observed using an atomic force microscope. By manipulating this type of cell, research scientists are notably studying infection by N. meningitidis bacteria and intoxication processes involving S. aureus EDIN or anthrax EF.

3D view of HUVEC endothelial cells observed using an atomic force microscope. In this view, the topology of the cell is shown on the left, and an elasticity map on the right. By manipulating this type of cell, research scientists are notably studying infection by N. meningitidis bacteria and intoxication processes involving S. aureus EDIN or anthrax EF.

HeLa cancer cells marked for actin observed at the interface with the substrate using a confocal microscope. Here, the HeLa cells are being used as a model to study how the mechanical properties of cells contribute to various processes, including infection in particular.

HeLa cancer cells marked for vimentin, observed using a stimulated emission depletion microscope. Here, the HeLa cells are being used as a model to study how the mechanical properties of cells contribute to various processes, including infection in particular.

HeLa cancer cells marked for vimentin, observed using a stimulated emission depletion microscope. Here, the HeLa cells are being used as a model to study how the mechanical properties of cells contribute to various processes, including infection in particular.