Priti Balchandani, PhD
- ASSOCIATE PROFESSOR | Diagnostic, Molecular and Interventional Radiology
- ASSOCIATE PROFESSOR | Neuroscience
Research Topics:Biomechanics/Bioengineering, Brain, Brain Imaging, Epilepsy, Imaging, MRI, Magnetic Resonance Imaging, Mathematical Modeling of Biomedical Systems, Neuroscience
Priti Balchandani, PhD, is an Associate Professor of Radiology and Director of the High Field MRI Program at the Translational and Molecular Imaging Institute at Mount Sinai School of Medicine. Her research is focused on radio frequency (RF) pulse and pulse sequence design for ultrahigh field MRI scanners and translation of these techniques to visualize the central nervous system in unprecedented detail. Her work on overcoming some of the main limitations of operating at high magnetic fields has resulted in several innovative tools with wide applicability for human brain imaging and spectroscopy. These techniques are ultimately applied to improve diagnosis, treatment and monitoring of neurological diseases and disorders, such as epilepsy, brain tumors and psychiatric disorders. Dr. Balchandani received her BASc in computer engineering at the University of Waterloo in Canada and her PhD in electrical engineering at Stanford University.
Multi-Disciplinary Training AreasNeuroscience [NEU], Pharmacology and Therapeutics Discovery [PTD]
BASc, University of Waterloo
MS, Stanford University
PhD, Stanford University
NIH Pathway to Independence Award
Named Junior Fellow of International Society for Magnetic Resonance in Medicine (ISMRM)
Young Investigators’ Award Finalist at ISMRM
Novel MRI techniques to visualize the brain
Dr. Balchandani’s primary research goal is to develop anatomic, spectroscopic and functional magnetic resonance (MR) imaging tools to elucidate changes in brain structure, metabolism and function in the presence of disease. Her work is focused on the application of signal processing principles to the development of novel radio frequency (RF) pulses and pulse sequences that maximize the information imparted by MR images. She has developed several techniques to harness the power of high-field MR magnets by overcoming physical and hardware limitations in order to visualize the human brain in unprecedented structural and metabolic detail. In addition, she is interested in obtaining a direct window into neuronal activation and function by improving current functional imaging techniques and exploiting the MR signal of nuclei other than hydrogen. Together, these techniques have the potential to drastically improve diagnosis, treatment and monitoring of neurological diseases and disorders as well as advance our understanding of the brain in the normal state.