“In my lab, we are intrigued by the question of why we move the way we do. Understanding the mechanisms that underlie motor behavior and motor recovery after brain injury are of high interest in the lab.”
An overview of our exciting new research endeavors
Understanding the core behavioral components underlying dexterity
Characterizing finger individuation, temporal synchronization and force control of single and multi-finger movements
Exploring the (dis)similarity between flexor and extensor-based dexterous movements
Implementing univariate and multivariate fMRI representations of dexterity in different regions of the sensorimotor system
Elucidating the mechanism underlying neural control of dexterity in non-human primates
Neural control of
dexterity
Deciphering the mechanisms that determine extent of recovery following Stroke
Developing MRI-based techniques to examine the neural basis of recovery post stroke
Unravelling the underlying process of spontaneous biological recovery
Neurorehabilitation - developing a closed-loop neuromodulation system
Using big data computational algorithms to characterize and predict the extent of recovery
Formation of motor memories: adaptation, skill and habit
Developing behavioral (reaching/walking) imaging and recording (fMRI, DTI, EEG) experiments for understanding motor behavior (adaptation, skills and habit)
Developing non-invasive brain stimulation protocols for understanding the neurophysiological mechanisms that underlie motor learning
Understanding the role of cognitive processes (e.g. motivation) in motor behavior
Neuroplasticity following motor practice
Leveraging use-dependent plasticity as a simplified model for understanding neuroplasticity
Determining the role of use-dependent plasticity in voluntary behavior
Uncovering the neural basis of training-based neuroplasticity
Developing EMG and EEG-based prosthetic hand for amputees
Developing a complete bidirectional neural interface for a prosthesis: from motor neurons back to the somatosensory neurons