Christian Scholz

Friedrich-Alexander-Universität Erlangen-Nürnberg, Heinrich Heine University Düsseldorf

Papers

Total Citations

273

H-Index

About

Christian Scholz is a leading researcher in the physics of active matter, with a particular focus on how self-propelled particles—from biological organisms to artificial robots—organize into collective motion and emergent patterns. His most influential work, "Rotating robots move collectively and self-organize" (210 citations), demonstrates how simple 3D-printed robots on a vibrating surface can spontaneously form swarms and complex structures, providing a versatile platform for studying emergent phenomena. Scholz has also made significant contributions to understanding non-equilibrium systems, including the discovery of "emergent memory" in active granular matter (36 citations), where tapping collisions create unexpected long-term correlations that challenge classical Brownian motion theory. His work on inertial active matter with Coulomb friction (20 citations) addresses a critical gap in the field by examining how real-world friction—distinct from simple viscous drag—governs the motion of bacteria, animals, and robots. Through these studies, Scholz bridges fundamental statistical physics with practical robotics design, offering insights into how activity and particle interactions can be engineered to produce desired collective behaviors.