mathematical level: calculus and differential equations
Fractals and Chaos have attracted wide attention and
excitement in mathematics
and the physical sciences. These ideas are now
being used to achieve a better
understanding of DNA, proteins, ion channels,
nerve cells, muscle cells, blood
vessels, the heart, the lungs, and the
brain. This course will explain the
properties of Fractals and Chaos and
illustrate them with biomedical
applications.
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Instructor:
Dr. Larry S. Liebovitch
Professor
Center for Complex Systems and
Brain Sciences
Center for Molecular Biology and Biotechnology
Department
of Psychology
Department of Biomedical Science
561.297.2239
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Florida Atlantic University
Fleming Hall, Room 317, Boca Raton
Tuesday,
Thursday: 11:00 AM - 12:20 PM
TEXTBOOKS: required Fractal Physiology by J. B. Bassingthwaighte, L. S. Liebovitch, B. J. West Oxford University Press, 1994 Fractals by Jens Feder Plenum Press, 1988 Chaotic and Fractal Dynamics by Francis C. Moon John Wiley & Sons 1992 (or the 1987 first edition called Chaotic Vibrations) recommended Chaos: Making a New Science by James Gleick Viking Press 1987 Fractals and Chaos: Simplified for the Life Sciences by L. S. Liebovitch Oxford University Press, 1998 READING ASSIGNMENTS FOR THE LECTURES BLW = pages in Bassingthwaighte, Liebovitch, and West F = pages in Feder M87 = pages in Moon (1987 first edition) M92 = pages in Moon (1992 second edition) G = pages in Gleick LECTURES PART I - FRACTALS 1. Introduction and Overview of fractals (BLW:v-viii,3-7, G:81-118) 2. Dimension (BLW:11-44, F:11-18, M87:205-218, M92:325-338) 3. Self-similarity and scaling (BLW:11-21, F:26-30,184-188) 4. Biological examples of self-similarity and scaling (BLW:45-62,214-225, F:229-243) 5. Statistical properties (BLW:33-42) 6. Biological examples of statistical properties (BLW: 210-214,225-228,236-262) 7. Rescaled range analysis and random walks (BLW:63-107, F:149-162,163-183) 8. Cell membranes and ion transport (BLW: 177-184,202-203) 9. Using fractals to determine the physical properties of ion channel proteins (BLW: 184-209) PART II - CHAOS 10. Overview of chaos (BLW: 136-146, G:1-80) 11. Phase space and bifurcations (G:119-153, M87:1-36,191-204,218-22, M92:1-46,127-132,338-341) 12. Logistic and Lorenz (M87:56-65,166-172, M92:32-35,68-82,115-142) 13. Biological examples of bifurcations and chaos (BLW: 300-305,317-320, M87:84-119, M92:147-211,212-214) 14. Experimental measures of chaos (BLW: 147-173, M87:37-56,127-153,222-242, M92:47-68,221-262,350-364) 15. Biological examples of chaos (BLW: 305-317,320-327)
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