http://web.ift.uib.no/~antonych/invG.html
http://www.ipgp.jussieu.fr/~tarantola/
http://sepwww.stanford.edu/sep/berryman/main.html
http://www.me.ua.edu/inverse/2icipe.html
Apps to Image Estimation: http://sepwww.stanford.edu/sep/prof/gee/toc_html/
What is an Inverse Problem?
To make these inferences quantitative one must answer three fundamental questions. How accurately are the data known? I.e., what does it mean to ``fit'' the data. How accurately can we model the response of the system? In other words, have we included all the physics in the model that contribute significantly to the data. Finally, what is known about the system independent of the data? This is called a priori information and is essential since for any sufficiently fine parameterization of a system there will be unreasonable models that fit the data too. Prior information is the means by which we reject or down-weight unreasonable models.
This course focuses on the theoretical and practical aspects of inverse problems. We will use a broad range of examples to illustrate the basic ideas of how one makes inferences about physical systems from real data. Specific applications may be selected from the students' areas of interest. The mathematical tools that we will use will be primarily those of probability and statistics and linear algebra.*************************************************************************************
SCILAB - http://mesoscopic.mines.edu/~jscales/gp605/scilab/ Sphere: Related Content
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