The Neurophysiology node explores the mechanisms underlying brain function, motor control, and neuroplasticity to advance understanding and therapeutic approaches for improving physical and cognitive outcomes. Our work leverages advanced neurophysiological techniques and collaborations within the health sector to drive impactful research in the fields of brain stimulation, neuromodulation, exercise neuroplasticity, pain modulation, and motor control. We aim to contribute meaningful insights that enhance patient care and optimise rehabilitation outcomes. We are committed to bridging the gap between neurophysiological research and clinical applications, ensuring our work translates into tangible health benefits for the community.
We investigate how non-invasive brain stimulation techniques, like transcranial magnetic stimulation (TMS) and transcranial electrical stimulation (tES), modulate cortical activity to support recovery in pathological conditions. Our work aims to refine protocols that maximise therapeutic benefits and promote functional improvements.
This area examines the potential of neuromodulation techniques to adjust neural circuitry involved in movement, sensation, and cognition. We seek to inform treatments for chronic pain, motor disorders, and other neurological impairments by exploring pathways and responses to various neuromodulatory interventions.
Our team studies how exercise influences neuroplasticity, which is the brain's ability to form new neural connections. This research supports exercise-based interventions that enhance neurophysiological adaptations, benefiting different pathological conditions.
We explore the mechanisms underlying pain perception and modulation, focusing on interventions that reduce chronic pain. Using approaches like brain stimulation and cognitive training, we aim to develop targeted therapies that improve pain management and quality of life.
Understanding the cognitive and sensorimotor processes contributing to motor control and balance is essential to improving coordination and preventing falls. Our research investigates cognitive-sensorimotor integration and intervention techniques to support stability, especially in populations at risk for falls.
