Researchers have developed a large-scale soft robotic arm inspired by the African elephant trunk. The study, co-authored by Michel Milinkovitch, demonstrates how principles derived from elephant biomechanics can help design more adaptable robotic systems.
New study reveals conserved yet flexible mechanisms driving reptile chromatophore differentiation. Milinkovitch-Tzika lab team identified novel cell subtypes in snakes & bearded dragons.
Milinkovitch’s lab reveals that elephant skin cracks as a stiff epidermis bends over microscopic bumps, forming a water‑retaining network for cooling. Their study of the trunk’s simple deformation patterns is now informing flexible soft‑robotic grippers.
His thesis, "Inferring Population Dynamics During Past Expansion Events Using Spatiotemporal Molecular Patterns", explores how genetic data distributed across space and time can reveal the demographic processes underlying past population expansions.
Researchers have developed a large-scale soft robotic arm inspired by the African elephant trunk. The study, co-authored by Michel Milinkovitch, demonstrates how principles derived from elephant biomechanics can help design more adaptable robotic systems.
New study reveals conserved yet flexible mechanisms driving reptile chromatophore differentiation. Milinkovitch-Tzika lab team identified novel cell subtypes in snakes & bearded dragons.