Mahsa Shoaran

Title: Mahsa Shoaran: Innovator in Neurophysiological Measurement

Introduction

Mahsa Shoaran is a prominent inventor based in Lausanne, Switzerland. She has made significant contributions to the field of neurophysiology, particularly in the measurement and restoration of brain network activity. With a total of 2 patents, her work is paving the way for advancements in understanding brain connectivity and function.

Latest Patents

Mahsa's latest patents include innovative systems and methods for energy-efficient measurement of neurophysiological oscillations. This system is designed to measure synchrony between different regions of the brain or within a single region. It incorporates a signal conditioning module that processes oscillating signals and a phase extraction module that determines the phase of these signals. The system can calculate synchrony metrics based on the determined phase, providing valuable insights into brain activity.

Another notable patent is focused on the restoration of brain network activity. This method involves controlling connectivity between various brain regions by measuring connectivity levels and delivering stimulation pulses to target regions when necessary. This approach has the potential to enhance therapeutic interventions for brain disorders.

Career Highlights

Mahsa has worked with esteemed institutions such as the Regents of the University of Minnesota and École Polytechnique Fédérale de Lausanne (EPFL). Her experience in these organizations has contributed to her expertise in neurophysiological research and innovation.

Collaborations

Throughout her career, Mahsa has collaborated with notable colleagues, including Alik Widge and Uisub Shin. These partnerships have fostered a collaborative environment that enhances the development of her innovative ideas.

Conclusion

Mahsa Shoaran is a trailblazer in the field of neurophysiology, with her patents reflecting her commitment to advancing our understanding of brain connectivity. Her work is instrumental in developing new methods for measuring and restoring brain activity, which could have profound implications for neuroscience and medicine.