Measure membrane tension and quantify receptor-ligand interactions via tether pulling and bead-cell adhesion assays.

Obtain the mechanical properties of the nuclear and cytoplasmic medium by applying creep & stress-relaxation tests inside cells.

Study the viscoelastic state of the cytoplasm or the nucleus by measuring their G modulus with our TimSOM active rheology routine.

Measure the binding forces between cells while having absolute control on cells orientation and contact time.

Indent or stretch cells and characterize their stiffness, elasticity, and viscosity.

Measure the forces generated by moving cells, and study the dynamics of cell motion.

Use our rheology workflow to measure the G modulus of colloids, gels, biofilms or liquid crystals. Quantify colloidal particles interactions.

Quantify the activity of motor proteins and the forces they generate. Obtain the mechanical properties of microfilaments and microtubules.

Quantify the physical properties of membranes performing tether pulling and receptor-ligand binding experiments.

Explore the mechanical properties of the cell nucleus and the cytoplasmic medium directly measuring inside the cell.

Measure the G modulus and viscoelastic properties of intracellular medium such as the cytoplasm or the nucleoplasm with our automatized active rheology routine.

Manipulate cells to engage cell-cell interactions and quantify their interaction forces.

Perform cell indentation or stretching assays to study how cells respond to mechanical stress and characterize their stiffness and elasticity.

Study the dynamics of cell motility by measuring the forces generated by trapped cells.

Quantify colloidal particles interactions and perform rheology assays inside colloids, gels, biofilms or liquid crystals to get their viscoelastic properties. 

Measure forces generated by molecular motors and characterize the mechanical properties of microfilaments and microtubules in vitro and in vivo conditions.