The Future’s Frontiers: Cornell Engineering Celebrates Seven Trailblazers in Groundbreaking Studies
2025 Research Excellence Awards
At the annual Engineering Faculty Reception and Meeting, the engineering community at Cornell University came together to honor the 2025 Research Excellence Award winners. These awards, which are designated for faculty members whose work exhibits ground-breaking scientific impact, international leadership, and a dedication to societal advancement, are the college’s highest honors.
From psychedelic neurobiology to cislunar space logistics, Cornell Engineering’s “bold research culture” is reflected in this year’s honorees. Lois Pollack, associate dean for research and graduate studies, said the awardees were chosen for their technical skills and university leadership and mentoring. Pollack said their groundbreaking research aims to translate discoveries into substantial influence.
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The Frontiers of Quantum
Mark Wilde’s groundbreaking theoretical work at the School of Electrical and Computer Engineering was recognized with the prizes. Developing algorithms that surpass traditional computational methods, Wilde is a key builder of quantum information theory. New directions in quantum machine learning have been made possible by his recent development of effective techniques for training quantum Boltzmann machines. Wilde’s work offers the theoretical foundation required for the advancement of future quantum technologies by redefining the boundaries of computation and communication.
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Examining the Fundamentals of Life and Materials
One of the people acknowledged for pushing the boundaries of experimental measurement is assistant professor Nate Cira of the Meinig School of Biomedical Engineering. Cira received recognition for his creation of cutting-edge microfluidic technologies. By altering thousands of tiny surroundings at once, these systems enable researchers to do high-throughput experiments. Understanding the interactions between bacteria and how genetic variations affect disease susceptibility is made possible by his work, which effectively speeds up discoveries that would not be attainable with conventional laboratory techniques.
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Julia Dshemuchadse has used computational modelling and machine learning in the field of materials science to discover how complex materials form at different length scales. Her research team has already uncovered over 20 previously undiscovered crystal structures, upending long-held beliefs in the area. Through particle-level precision tracking of solid-solid transitions, Dshemuchadse offers crucial information about martensitic transformations, in which atoms move collectively to build new structures. Inverse materials design is currently changing as a result of the application of her models to direct the synthesis of semiconductor clusters and metal-organic frameworks.
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Earth, Seas, and the Hunt for Faraway Worlds
The prizes also emphasized studies that probe far beyond our globe and deep within it. Esteban Gazel, distinguished geochemist and Charles N. Mellowes Professor of Engineering, was lauded. Gazel’s research uses volcanic rocks to follow molecules like carbon dioxide and water through the Earth’s mantle to better understand the global carbon cycle and eruption behavior. In order to bridge the gap between Earth sciences and planetary exploration, his research has been extended into the chemistry of rocky exoplanets and crucial mineral sustainability.
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In parallel, exoplanet direct imaging is being pioneered by Dmitry Savransky, an associate professor at the Sibley School of Mechanical and Aerospace Engineering. Creating the missions and cutting-edge instruments required to locate extrasolar worlds, like autonomous telescope alignment and wavefront control, is Savransky’s job. He oversees Starlift, an effort centered on cislunar space operations, and plays a significant role in NASA’s Habitable Worlds Observatory. Through his work, Cornell is becoming a leader in mission architecture and next-generation space engineering.
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Redefining Modern Robotics and the Brain
Alex Kwan’s research, which employs state-of-the-art multiphoton microscopy to examine how psychiatric medications alter the brain, further brought attention to the junction of engineering and health. Kwan’s studies on drugs like psilocybin and ketamine have shown how these substances promote quick and long-lasting brain plasticity. Kwan is contributing to the development of next-generation treatments that may provide therapeutic advantages for depression and other disorders without the hallucinatory symptoms commonly linked with psychedelics by mapping these alterations.
Robert Shepherd was acknowledged in the robotics community for his contributions to soft robotics. Shepherd, the head of the Organic Robotics Lab, creates solutions for practical issues by fusing dispersed sensing and flexible materials. Wearable technology that tracks human performance and robots made to navigate difficult, unpredictable surroundings are examples of his work. In addition to receiving several scholarly citations, Shepherd’s research has served as an inspiration for prosperous startups in the industrial and health industries.
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A Legacy of Influence
The engineering curriculum at Cornell is diverse and transformational, as exemplified by these seven researchers. They continue to push the limits of knowledge by fusing astronomy with mechanical design, physics with computer science, and engineering ingenuity with biological intuition. It was evident as Dean Lynden Archer and the college administration celebrated these accomplishments that the research’s influence will extend well beyond the Ithaca campus, impacting everything from the next generation of medical therapies to global climate policy.
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Analogy for Understanding Quantum Information Theory:
Consider the distinction between a conventional library and a magical one to comprehend the importance of Mark Wilde’s contributions to quantum theory. To locate a given sentence, you have to look through each book individually in a traditional library (classical computing). By using the special laws of physics in Wilde’s “quantum library,” the researcher can efficiently read every book at once, discovering the solution right once and revolutionising the way we process information.
