Philipp Maass

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University Professor

University of Osnabrück

Germany

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About

Philipp Maass is a University Professor at Universität Osnabrück in Germany. His research primarily focuses on the dynamics of particle systems, specifically exploring topics such as single-file motion, Brownian dynamics, and collective behavior in complex environments. Recent publications include investigations into solitary cluster waves, phase locking in microparticle dynamics, and the effects of overcrowding on colloidal solitons.

Recent Grants

Grant: Close

Heisenberg Fellowship

Open Date: 1999-05-01

Close Date: 2001-09-01

Grant: Close

Postdoctoral Fellowship

Open Date: 1993-10-01

Close Date: 1995-09-01

Articles (16)

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2025

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2021

Collaborators (2)

Philipp Rahe

University of Osnabrück

GERMANY

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Artem Ryabov

Univerzita Karlova Matematicko-fyzikální fakulta

CZECH REPUBLIC

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Philipp Maass

Research Interests

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About

Recent Grants

Articles (16)

Correlations of density and current fluctuations in single-file motion of hard spheres and in driven lattice gas with nearest-neighbor interaction

Fast Brownian cluster dynamics

Phase Locking and Fractional Shapiro Steps in Collective Dynamics of Microparticles

Solitary cluster waves in periodic potentials: Formation, propagation, and soliton-mediated particle transport

Weak Pinning and Long-Range Anticorrelated Motion of Phase Boundaries in Driven Diffusive Systems

Single-file transport of binary hard-sphere mixtures through periodic potentials

Scaling laws for single-file diffusion of adhesive particles

Overcrowding induces fast colloidal solitons in a slowly rotating potential landscape

Brownian dynamics simulations of hard rods in external fields and with contact interactions

Collective excitations in jammed states: ultrafast defect propagation and finite-size scaling

Solitons in Overdamped Brownian Dynamics

On the Possibility of Exploring Tip-Molecule Interactions with STM Experiments

(Invited) Second-Layer Growth Kinetics As a Decisive Factor for Non-Equilibrium Thin-Film Morphologies

Hydrodynamic interactions hinder transport of flow-driven colloidal particles

Hydrodynamic Interactions Can Induce Jamming in Flow-Driven Systems

Driven transport of soft Brownian particles through pore-like structures: Effective size method

Collaborators (2)

Philipp Rahe

Artem Ryabov

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