../directory
../calendar
../employment
../links
../contact
../who%20we%20are
../areas%20research
../faculty%20+%20research
../students%20+%20postdocs
../events
../news%20+%20pubs
home
  ../blank  
Douglas Anderson
Douglas Anderson's research program is focused on understanding the mechanisms responsible for tissue damage following spinal cord injury (SCI) and then testing appropriate therapeutic interventions including pharmacological agents, neural tissue transplantation, gene delivery, and directed rehabilitative strategies to reduce the effects of acute SCI.
anderson Professor of Neuroscience
Chairman, Neuroscience Department
Investigator, McKnight Brain Institute


Training
Postdoc - National Research Council Research Associate, U.S. Air Force School of Aerospace Medicine, Brooks Air Force Base, Texas
Ph.D. Physiology, Michigan State University, East Lansing, Michigan
M.Sc. Biology, University of Houston, Houston, Texas
B.S. Zoology, University of Texas, Austin, Texas
Contact
phone: 352.392.6641
office: MBI L1-100H
lab: MBI L2-135
email:anderson@mbi.ufl.edu

Repair of the injured spinal cord (SCI) has been the subject of my research program for 30 years. Initially, we focused on identifying the pathophysiological events involved in the secondary injury process and developing acute pharmacotherapy for SCI. These studies contributed to the use of methylprednisolone (MP) for the treatment of acute SCI in humans. We are continuing studies of the acute injury by evaluating changes in gene expression induced by acute SCI in a well-established rat model. These genes play protective and damaging roles in the acute injury site. The ultimate goal of these studies is to develop therapeutic regimens such as gene therapy to upregulate those genes which have been determined to be beneficial following SCI. A second focus in my laboratory is aimed toward the development of strategies to repair the chronically injured spinal cord. Our recent neural tissue transplant studies were the basis for a clinical pilot study to test the feasibility and safety of neural tissue transplants in patients with progressive syringomyelia, a severe, chronic complication of SCI.

Recent Publications
Cellular localization and enzymatic activity of cathepsin B after spinal cord injury in the rat . Ellis RC, O’Steen WA, Hayes RL , Nick HS, Wang KKW, Anderson DK. Exp. Neurology 193(1):19-28, 2005.
Recommended guidelines for studies of human subjects with spinal cord injury.
Anderson DK, Beattie M, Blesch A, Bresnahan J, Bunge M, Dietrich D, Dietz V, Dobkin B, Fawcett J, Fehlings M, Fischer I, Grossman R, Guest J, Hagg T, Hall ED, Houle J, Kleitman N, McDonald J, Murray M, Privat A, Reier P, Steeves J, Steward O, Tetzlaff W, Tuszynski MH, Waxman SG, Whittemore S, Wolpaw J, Young W, Zheng B. Spinal Cord, 12 April 2005.
Intact aggrecan and chondroitin sulfate-depleted aggrecan core glycoprotein inhibit axon growth in the adult rat spinal cord. Lemons ML, Sandy JD, Anderson DK, Howland DR. Exp Neurol. 184/2:981-990, 2003.

../mbi