The Minerals, Metals & Materials Society (TMS) recently honored Materials Science & Engineering Assistant Professor Ravit Silverstein, Ph.D., with a prestigious early career award. Silverstein joined the University of Florida last year.
Silverstein was among three early career researchers across the country to receive the Early Career Leaders Professional Development Award from the society’s Structural Materials Division, honoring their dedication and supporting their professional development.
“This award is an honor as well as a great opportunity for Dr. Silverstein to begin her career of service to the Structural Materials Division and the TMS community,” noted MSE Department Chair Michael Tonks, Ph.D. “I received this award in 2014, and it started me down a path of service to TMS that has laid a foundation of service in my career.”
Silverstein accepted the award during the society’s annual meeting in San Diego this month.
“I am truly honored to receive the 2026 SMD Early Career Leaders Development Award,” Silverstein reflected. “Through the TMS Foundation, I have gained meaningful experiences that have helped me connect with academic and industry leaders who have been pivotal to my career growth. TMS has greatly shaped my professional journey, and I look forward to giving back to our remarkable community,” she added.
Prior to joining UF, she spent three years as a research scientist in the Materials Department at the University of California, Santa Barbara (UCSB), during which she managed the Microscopy and Microanalysis suite. Silverstein earned her doctorate in Materials Engineering from Ben-Gurion University, during which she held a concurrent appointment as a research associate in the Applied Physics Division at Soreq Nuclear Research Center. Following that, she completed two prestigious international postdoctoral fellowships in the Materials Department at UCSB focusing on interstitial effects in refractory alloys, processing of refractories and the science of processing of ceramic matrix composites.
Her current research focuses on designing and processing stronger and tougher materials operating in extreme environments by using small atoms — called interstitials — to tune their performance. These atoms help activate shape memory effects, allowing the material to change its structure in response to temperature or stress and enhance its performance.
To understand how these materials behave at the smallest scales (sub-angstrom), she uses scanning transmission electron microscopy (STEM) equipped with specialized detectors, such as an X-ray detector for measuring chemistry and a high-speed diffraction camera to capture multi-dimensional diffraction datasets known as 4D-STEM.
In this approach, she said, the material is scanned pixel by pixel to generate a 2D diffraction map from each pixel that reveals how atoms are arranged at the sub-nanoscale, along with the corresponding crystal structure, orientation and internal strain. She often collects these multimodal measurements during in situ experiments — while the material is heated or mechanically loaded — providing real-time feedback on its thermodynamic stability and performance, enabling prediction of the underlying deformation mechanisms.