Publication Date
2008-01-01
Availability
Open access
Degree Type
Thesis
Degree Name
Master of Science (MS)
Department
Psychology (Arts and Sciences)
Date of Defense
2008-02-01
First Committee Member
Dr. Edward J. Green - Committee Chair
Second Committee Member
Dr. Helen M. Bramlett - Committee Member
Third Committee Member
Dr. Philip M. McCabe - Committee Member
Abstract
Three-dimensional kinematic analysis was used to precisely quantify alterations in gait and compensatory behaviors in rat performance on beamwalk and treadmill tasks following moderate traumatic brain injury. Measures included limb height, joint angles, adduction, flexion, and swing/stance phase duration. Injury-associated changes on the treadmill included postural and hip angle change, and increases in hip height and adduction. The beamwalk presented as a more sensitive measure when coupled with kinematic analysis, as differences between injury groups were evident on measures including knee, ankle, elbow, and mid hip height. Animal response was diverse, possibly reflecting individual compensatory strategies which varied among injured animals. Kinematic analysis was ultimately shown to be a useful tool in characterizing and dissociating initial impairment, compensation, and recovery.
Keywords
Quantitative Analysis; Gait Analysis; Endpoint Measures; Individual Differences
Recommended Citation
Myerson, Connie Elka, "Evaluation of Sensorimotor Deficits and
Compensatory Mechanisms Following Traumatic
Brain Injury Using Three-Dimensional
Kinematic Analysis in Rodent Models" (2008). Open Access Theses. 99.
http://scholarlyrepository.miami.edu/oa_theses/99