Cardiopulmonary Rehabilitation |
The
Cardiopulmonary Laboratory is directed by Dr.
Danny Martin and focuses on examining methods to rehabilitate
the respiratory muscles of patients experiencing difficulty weaning
from mechanical ventilation. Mechanical ventilation is a lifesaving
technique used in acute care Medicine, but a significant percentage
of patients receiving mechanical ventilation experience difficulty
breathing when they start breathing without ventilator support once
their acute illness has resolved. Evidence points to deconditioning
of the respiratory muscle during the period of ventilation support
as a major contributor to ventilator dependence. Dr Martin’s
has developed a rehabilitation approach to treating this problem.
He and his graduate students are conducting a NIH funded trial to
determine if a comprehensive inspiratory muscle strength and endurance
training program can effectively wean ventilator dependent patients.
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The
mission of the Locomotor
Training and Recovery Research Program (LTRRP) is to maximize
the recovery of locomotion in individuals with central nervous
system injury or disease, targeting stroke and spinal cord injury,
and to enhance their quality of life. Dr.
Andrea Behrman and Dr. Steve
Kautz provide the leadership for the locomotor research
initiative combining expertise in adult neurorehabilitation,
motor control, biomechanics, and engineering. Our aim, through
research, is to apply an understanding of the neurobiological
control of walking and experience-dependent plasticity to develop
and test therapeutic training interventions that promote the
recovery of walking for home and community ambulation. To that
end, we pursue questions that will ultimately provide clinicians
with the knowledge and tools to provide the “best practice”
for the recovery of walking. Furthermore, we are interested
in understanding the mechanisms that impair locomotion after
CNS insult relative to the requirements for locomotion. Two
ongoing studies will investigate recovery of walking in adults
and children
with spinal cord injury (SCI). We are also developing new
tools for measurement that begin in the research lab, but that
will be translated into clinical practice. Advances in technology
and our biomechanical understanding of movement have enhanced
our capacity to analyze movement, posture, balance, and walking
and to understand fundamental principles related to motor control
deficits and their implications for locomotor recovery.
Locomotor Training
Intervention Laboratory website |
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The
consequences of skeletal muscle atrophy are far reaching and
include decrease of motor control and overall fitness, development
of functional limitations and impairment, long term disability
and an increased risk for developing of a number of chronic
diseases. As such, the maintenance and recovery of muscle function
and the subsequent improvements in functional abilities and
overall health presents an important challenge to the field
of Rehabilitation Science. Under the direction of Dr.
Krista Vandenborne and Dr. Glenn Walter the Muscle
Physiology Laboratory at the University of Florida employs
a multidisciplinary, integrated research approach to studying
muscle degeneration/regeneration from a pathophysiological level
to that of functional impairment. Our research involves studies
aimed at 1) developing novel, noninvasive techniques for the
evaluation of skeletal muscle, 2) investigating the ability
to enhance muscle function using modalities ranging from gene
transfer to exercise training and pharmacological treatment
(hormonal supplement), and 3) examining the physiological process(es)
essential to the repair of skeletal muscle and return of functional
ability. As such, projects in this laboratory include human
and animal studies with clinical and basic science approaches
to investigate neuromuscular adaptations to both increased and
decreased use. Projects are funded by grants from the National
Institutes of Health, the Muscular
Dystrophy Association and the Paralyzed
Veterans of America. |
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Musculoskeletal
Disorders |
The
mission of the Research Program in Musculoskeletal Disorders
(RPMD) is to train individuals with clinical backgrounds to
become effective rehabilitation researchers. Several faculty
members have broad areas of expertise that are centered by their
common interest in effective management of musculoskeletal disorders.
Their primary goal is to directly influence clinical practice
through their research findings. The RPMD emphasizes a collective
and collaborative approach to rehabilitation research and focuses
on two main emphasis areas: Pain Rehabilitation and
Biomechanics and Movement Analysis. The primary faculty
leading the RPMD are Drs. Mark
Bishop, Terese Chmielewski
and Steven George. The RPMD
program is highly committed to translate and disseminate their
findings to rehabilitation scientists and practitioners, and
to successfully compete for extramural funding. The RPMD is
supported by grants from the National
Institutes of Health, the Florida
Biomedical Research Program, a University of Florida Funding
opportunity grant, and the Department
of Defense. Dr. George is also the PI of the Department
of Defense sponsored POLM
trial, which is investigating the effect of education and
exercise in preventing low back pain for soldiers.
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Respiratory
Neurophysiology and Neurobiology |
Dr.
David Fuller's research program is aimed at understanding
how neuroplasticity in the brain and spinal cord influences
the control of breathing. The overall hypothesis driving the
work in Dr. Fuller’s laboratory is that appropriate induction
of neuroplasticity has the potential to improve respiratory
muscle control in cases of injury or disease, thereby reducing
dependence on mechanical ventilators and improving the quality
of life for certain patients. Dr. Fuller's laboratory uses behavioral,
neurophysiological, immunohistochemical, biochemical, and molecular
methods to explore the relationship between neural plasticity
and breathing. Current projects focus on 1) mechanisms of spinal
plasticity induced by rehabilitative training following cervical
spinal cord injury; 2) mechanisms underlying spontaneous respiratory
motor recovery following cervical spinal cord injury, and 3)
using gene delivery to respiratory motoneurons as a tool for
improving breathing in certain disease states
The laboratory is currently funded by grants from the National
Institutes of Health, the Christopher
Reeve Paralysis Foundation, and the American
Paraplegia Society. |
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Functional Motor Control |
Brain
damage from stroke, brain injury, tumors, cerebral palsy, Parkinson's
Disease and other progressive degenerative diseases often leads
to losses of movement control. The mission of this laboratory is
to explore the functional movement losses caused by brain damage
and develop innovative treatment interventions to improve function.
Under the direction of Dr. Kathye Light,
the Functional Motor Control lab is conducting The
Stroke I.M.P.A.C.T. Study, addressing assessment
and treatment of individuals with hemiparesis. I.M.P.A.C.T.
(which stands for Improving Motor Function Applying Constraint
Therapy) is exploring CIMT (Constraint-Induced Movement Therapy)
for outcomes in improving upper-extremity function. Our primary
questions concern methods of delivery and the benefits of booster
sessions.
Dr. Kathye Light is the Principal Investigator on the 5-year
NIH RO1 Multisite Grant which includes the University of South Carolina
and Colorado State University. Dr. Light recently served as the
Florida site PI for the EXCITE trial and also the Florida Biomedical
Research Fund grant, both grants addressing CIMT.
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