2022 - Research.com Engineering and Technology in Switzerland Leader Award
2018 - Aneesur Rahman Prize for Computational Physics, American Physical Society
2006 - Fellow of American Physical Society (APS) Citation For his novel contributions to significant problems in computational physics including fracture, packings, percolation, granular flow, dunes and irreversible growth
1986 - Fellow of John Simon Guggenheim Memorial Foundation
His main research concerns Mechanics, Statistical physics, Classical mechanics, Granular material and Scaling. His Mechanics research includes elements of Barchan, Saltation and Dissipation. The various areas that Hans J. Herrmann examines in his Barchan study include Geometry and Wind direction.
His biological study spans a wide range of topics, including Monte Carlo method, Percolation threshold, Percolation and Cluster. His Classical mechanics course of study focuses on Molecular dynamics and Measure. His Scaling study incorporates themes from Transfer matrix and Lattice.
His scientific interests lie mostly in Mechanics, Statistical physics, Classical mechanics, Granular material and Condensed matter physics. His Mechanics research focuses on Saltation and how it relates to Turbulence. Hans J. Herrmann interconnects Fractal dimension, Percolation, Cluster, Monte Carlo method and Scaling in the investigation of issues within Statistical physics.
His Fractal dimension study frequently draws connections to adjacent fields such as Geometry. Many of his studies on Percolation apply to Percolation threshold as well. Hans J. Herrmann integrates Power law and Exponent in his research.
Hans J. Herrmann mainly focuses on Mechanics, Statistical physics, Fractal dimension, Scaling and Condensed matter physics. His Mechanics study integrates concerns from other disciplines, such as Granular material, Particle, Saltation and Porous medium. His study looks at the relationship between Saltation and topics such as Wind tunnel, which overlap with Turbulence.
His Statistical physics research is multidisciplinary, relying on both Function, Schramm–Loewner evolution, Hurst exponent and Brownian motion. His Fractal dimension study combines topics from a wide range of disciplines, such as Geometry and Percolation threshold. His Condensed matter physics research incorporates themes from Dirac equation, Electron, Percolation and Graphene.
Hans J. Herrmann mainly investigates Mechanics, Statistical physics, Discrete element method, Complex network and Topology. The study incorporates disciplines such as Rheology, Granular material, Saltation, Porous medium and Saturation in addition to Mechanics. His work carried out in the field of Statistical physics brings together such families of science as Fractal dimension, Simulation and External field.
Hans J. Herrmann works mostly in the field of Discrete element method, limiting it down to concerns involving Power law and, occasionally, Radial line, Conical surface, Vector field and Body orifice. His studies in Complex network integrate themes in fields like Telecommunications network, Distributed computing, Shortest path problem and Electric power. In his study, Probability distribution, Tree, Limit and Focus is strongly linked to Degree distribution, which falls under the umbrella field of Topology.
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Statistical Models for the Fracture of Disordered Media
Hans J. Herrmann;Stéphane Roux.
Mitigation of malicious attacks on networks
Christian M. Schneider;André A. Moreira;José S. Andrade;Shlomo Havlin.
Proceedings of the National Academy of Sciences of the United States of America (2011)
Apollonian networks: simultaneously scale-free, small world, euclidean, space filling, and with matching graphs.
José S. Andrade;Hans J. Herrmann;Roberto F. S. Andrade;Luciano R. da Silva.
Physical Review Letters (2005)
Fracture of disordered, elastic lattices in two dimensions.
Hans J. Herrmann;Alex Hansen;Stephane Roux.
Physical Review B (1989)
Modeling granular media on the computer
H. J. Herrmann;S. Luding.
Continuum Mechanics and Thermodynamics (1998)
Geometrical cluster growth models and kinetic gelation
Physics Reports (1986)
A random fuse model for breaking processes
L. de Arcangelis;S. Redner;H.J. Herrmann.
Journal De Physique Lettres (1985)
Convection cells in vibrating granular media
J. A. C. Gallas;H. J. Herrmann;S. Sokołowski.
Physical Review Letters (1992)
Backbone and elastic backbone of percolation clusters obtained by the new method of 'burning'
H J Herrmann;D C Hong;H E Stanley.
Journal of Physics A (1984)
Continuum saltation model for sand dunes.
Gerd Sauermann;Gerd Sauermann;Klaus Kroy;Hans J. Herrmann;Hans J. Herrmann.
Physical Review E (2001)
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