Spinal interneurons constitute the physiological core of spinal circuitry, integrating excitatory and inhibitory inputs to generate the rhythmic patterns that drive locomotor, postural, and autonomic control. Their developmental logic, molecular diversity, and adaptive plasticity make them central determinants of functional recovery after spinal cord injury (SCI). Yet most regenerative strategies continue to emphasize cellular replacement rather than the restoration of the physiological integrit
Rebuilding spinal circuit function after spinal cord injury through a patient-specific interneuron precision model
Eve C. Tsai

