Explores the mechanobiology of cell growth, focusing on essential components, force curve-based sample characterization, and the impact of turgor pressure on growth.
Explores micro- and nanoelectromechanical systems, including practical applications, RF resonators, motion detection, and sensitive mass detection using carbon nanotubes.
Covers the fundamental concepts of structural mechanics, including materials properties, stress and strain, equilibrium of forces and moments, and elementary structures.
Explores embryonic tissue mechanics, challenges in modeling biological tissues, and solid-fluid transitions in equilibrium, focusing on the dynamics of nuclei and subcellular elements.
Covers the application of the plasticity condition in a plate with a hole and the estimation of the plastic zone region using the elastic stress field.