~ ABSTRACT ~
Some Future Directions of White Noise Analysis
Takeyuki Hida, Nagoya University and Meijo University, Japan
We will discuss the following future
directions of white noise analysis.
(1) Feynman's path integral. Following the idea of Dirac and
Feynman we can form a quantum mechanical propagator starting
from the Lagrangian, where generalized white noise functionals
will play the key role. We will discuss its relations with the
Chern-Simons action integrals in the abelian case.
(2) Infinite dimensional differential calculus. Because of the
natural introduction of the class of generalized white noise
functionals, we may discuss essentially infinite dimensional
analysis. Note that it looks like a continuously many
dimensional calculus, but separability is always behind.
Stochastic integral is discussed in this general framework,
where the integrands are not necessarily non-anticipating.
(3) If time permits, we will choose interesting subgroups of the
infinite dimensional rotation group and discover their
probabilistic meanings. A good example is a subgroup isomorphic
to the conformal group. We may also discuss the duality between
white noise (which is Gaussian) and Poisson noise.
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Analysis of Least Absolute Deviation
Zhiliang Ying, Columbia University, USA
In this talk, I will describe a least
absolute deviation-based method for testing linear hypothesis.
Like ANOVA, this method is coordinate-free, and admits singular
design matrices. A simple approximation using stochastic
perturbation is developed to obtain cut-off values for the
resulting tests. Theoretical justification, computer
implementation and simulation will be presented. Focus will be
given to the special cases of one- and multi-way layouts.
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What is Mathematical Biology and How Useful is it?
Avner Friedman, Director, Mathematical Biosciences Institute
Ohio State University
Biological processes are very complex, and mathematical models of such processes are at best just a crude approximation. Nevertheless one can gain some useful knowledge from the models. In this talk, I shall give examples of biological and biomedical problems that have been addressed by mathematical models. The examples will be from areas as diverse as wound healing, hemodialysis, tuberculosis, and cancer.
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