Neural injury induces molecular and cellular responses that regulate regeneration and functional recovery. We study neuron–glia interactions and regenerative signaling pathways to identify mechanisms that promote neural repair and prevent chronic neuropathic pain.
We develop therapeutic strategies to enhance neural regeneration and restore function after nervous system injury. Our research focuses on pharmacological, protein-based, and gene-based interventions targeting key regenerative pathways.
We design bioengineered platforms and neuromodulation approaches to support neural repair and functional recovery. These technologies aim to restore neural circuit connectivity and enable translational therapies for nervous system injury.
Neural injury triggers complex molecular and cellular responses that determine functional recovery or persistent dysfunction. Our research investigates neuron–glia interactions, regenerative signaling pathways, and mechanisms of neuropathic pain in the injured nervous system. Understanding these mechanisms enables the identification of therapeutic targets that promote neural repair and restore functional connectivity.
We develop therapeutic strategies to enhance neural regeneration and functional recovery following spinal cord and peripheral nerve injury. Our work focuses on pharmacological, protein-based, and gene-based interventions that modulate regenerative signaling, synaptic plasticity, and neuronal survival. These approaches aim to translate fundamental discoveries into clinically relevant treatments.
We engineer biomaterial and neuromodulation-based platforms to promote structural and functional recovery after neural injury. These technologies include regenerative scaffolds, hydrogel systems, and neural interface approaches designed to support axonal regeneration and restore neural circuit function. Our goal is to develop clinically translatable solutions for nervous system repair.