Journal of Neuroscience · 2004 · 135 citations · 62 references
MedicineNeurologyNeuroscienceImmunopathologyInflammationNeuroimmunologyNeuroinflammationNeuroprotectionSpinal Cord FunctionSpinal Cord InjurySpinal Cord PathologySpinal TraumaLocomotor ImpairmentNeuroprotective MechanismsRubrospinal PathwayRubrospinal TractSpinal Cord Injury NeuroprotectionSpinal Cord Injury PathologyT Cell-mediated NeuroprotectionTraumatic Spinal Cord Injury
Myelin-reactive T-cells are activated by traumatic spinal cord injury (SCI) in rodents and humans. Despite the historical association of these cells with experimental and clinical neuropathology, recent data suggest a neuroprotective role for myelin-reactive T-cells. Because of the biological and therapeutic implications of these findings, we attempted to reproduce the original neuroprotective vaccine protocols in a model of rat SCI. Specifically, MBP-reactive T-cell function was enhanced in SCI rats via passive or active immunization. Locomotor function was assessed using a standardized locomotor rating scale (Basso-Beattie-Bresnahan scale) and was correlated with myelin and axon sparing. The functional and anatomical integrity of the rubrospinal pathway also was analyzed using the inclined plane test and anatomical tract tracing. MBP-immunized rats exhibited varying degrees of functional impairment, exacerbated lesion pathology, greater rubrospinal neuron loss, increased intraspinal T-cell accumulation, and enhanced macrophage activation relative to SCI control groups. These data are consistent with the conventional view of myelin-reactive T-cells as pathological effector cells.
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