Hernán Alejandro Makse

Professor of Physics
Levich Institute and
Physics Department
City College of New York
Steinman Hall, T1M-12
140th Street and Convent Avenue
New York, NY 10031-9198
(212) 650-6847, (212) 650-6835 (fax)
Hernan

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This is the lab of Hernán Makse at the Levich Institute and Department of Physics of City College of New York in New York City. We focus on the study of jammed matter, spanning from colloidal suspensions, dense emulsions to granular materials and glasses in search of unifying theoretical frameworks. We explore this variety of out of equilibrium systems in terms of their behavior as they experience structural arrest or jamming. The group focuses on the theoretical and computational approaches in parallel with the experiments, creating a productive research environment. We are also interested in the theoretical understanding of complexity. We are working towards the development of new arquitectural laws for complex networks, from biological systems, to the Internet, the web, to social networks.

Most of what we do is somehow related to "emergent properties", i.e., "properties not contained in the simple laws of physics, although they are a consequence of them".

For the latest research, see a feature article in the Journal of Student Research, and the presentations on granular matter, colloidal glasses and emulsions, jamming transition, effective temperature in granular matter, Edwards statistical mechanics of jammed matter, random close packing (RCP), polydisperse and non-spherical packings, nonlinear elasticity of granular matter, fractal complex networks and renormalization group, and urban economics and cities. To download data and computer codes for: (a) Molecular Dynamics (DEM) of granular matter, (b) fractal analysis of complex networks, (c) Clustering Analysis of cities, (d) experimental data on colloids and glasses, (e) generating sequences with long-range correlations, (f) calculating all minima and transition states of the energy landscape in small clusters of LJ and Hertz particles, (g) hard sphere packings from RLP to FCC, and (h) fMRI brain data visit SOFTWARE AND DATA.

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