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Mark S. Alber

Notre Dame Chair in Applied Mathematics

Concurrent Professor of Physics

Director of the Center for the Study of Biocomplexity

M.S., Moscow Institute of Technology, 1983
Ph.D., University of Pennsylvania, 1990

 

Email: Mark.S.Alber.1@nd.edu
Office: 136 Hayes-Healy Hall
Phone: (574) 631-8371
Fax: (574) 631-6579

For additional information see Mark S. Alber's Personal Page.

See also The Condensed Matter and Biophysics Group


Research Interests

My mathematical research interests are in dynamical systems treatment of nonlinear partial differential equations with applications to biology and nonlinear optics,

I am participating in an interdisciplinary Biocomplexity program at Notre Dame which is supported by NSF. Biocomplexity is the study of the unique complex structures and behaviors that arise from the interaction of biological entities (molecules, cells, or organisms). While physical and chemical processes give rise to a great variety of spatial and temporal structures, the complexity of even the simplest biological phenomena is infinitely richer.

Our Biocomplexity group studies multicellular aggregates, such as embryonic and mature tissues, which often share the properties of "excitable media" and "soft matter," familiar to modern condensed matter physics and dynamical systems theory. Changes in tissue shape and form during development and repair-skeletal formation, gastrulation, segmentation, are well suited to analysis by physical and mathematical concepts, particularly in conjunction with modern knowledge of cells' adhesive forces and the molecular composition and rheology of cytoplasm and extracellular matrix.

Selected Publications

  • Alber, M., B. Kazmierczak, H.G.E. Hentschel, S.A. Newman, Existence of Solutions to a New Model of Biological Pattern Formation, Journal of Mathematical Analysis and Applications 308 1, 175-194, 2005.
  • Alber M., Glimm T., Hentschel H.G.E. and Kazmierczak B., Stability of n-Dimensional Patterns in a Generalized Turing System: Implications for Biological Pattern Formation, Nonlinearity 18, 125-138, 2005.
  • Chaturvedi, R., Huang, C. , Kazmierczak, B., Schneider, T., Izaguirre, J. A., Glimm, T., Hentschel, H.G.E., Glazier, J. A., Newman, S. A. and Alber, M., On Multiscale Approaches to 3-Dimensional Modeling of Morphogenesis,  J. R. Soc. Interface 2, 237-253, 2005.
  • Sozinova, O., Y. Jiang, D. Kaiser, and M. Alber, A Three-Dimensional Model of Myxobacterial Aggregation by Contact-mediated Interactions, Proc. Natl. Acad. Sci. USA 102 No.32, 11308-11312, 2005.
  • Sozinova, O., Y. Jiang, D. Kaiser, and M. Alber, A Three-Dimensional Model of Fruiting Body Formation, Proc. Natl. Acad. Sci. USA 103 No.46, 17255-17259, 2006.
Please direct questions and comments to: Mark.S.Alber.1@nd.edu

 

Department of Mathematics
255 Hurley Hall, Notre Dame, IN 46556-4618
Phone: 574-631-7245 • FAX: 574-631-6579
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Last modified: Wednesday, November 22, 2006