The purpose of the program is to bring
together scientists from established fields in the pattern formation of
physical, chemical, and biological systems, so as to provide an
environment that promotes the exchange of ideas, techniques and modeling
approaches across traditional boundaries. The envisioned outcome is the
establishment of new research directions in the investigation of complex
spatio-temporal dynamics in condensed matter physics, biology, and
medicine. The program will be guided by the following questions:
- Can we understand many-component, complex, spatio-temporal phenomena in
spatially extended nonlinear systems? When studied in detail, is it indeed
true that complex systems can be the result of simple dynamics? How are
complexity hierarchies generated dynamically?
- What are well-characterized examples where pattern formation
accomplishes biological function?
- What features and dynamical principles carry over from traditional
pattern formation to biological systems?
- What mathematical, numerical techniques and experimental approaches are
most suitable to study the characterization and dynamics of spatially
extended systems?
- How can we treat the discreteness and intrinsic noise of pattern
forming systems? What continuum approaches should we use and how powerful
are they?
- Where are there examples from human disease where the pathological
process may be related to the physics of abnormal pattern formation? Might
pattern control lead to novel therapies?
The program will have three main sections, focusing on the key themes of
spatially extended systems, excitable media and interfacial pattern
formation. Common to all themes will be the goal of blending pattern
formation physics and established techniques in traditional physical media
with our evolving knowledge of pattern development in biological systems
and its application to medicine.
Please visit the preliminary program page |