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Research

Engineering Research at Dartmouth

Dartmouth engineering researchers work within an integrated community of experts in their fields, unencumbered by departmental divisions. Our faculty and students are versatile thinkers who can define a problem, place it within the broad social and economic contexts, and articulate a clear vision for a human-centered approach toward a solution.

Most research projects are collaborations that integrate one or more engineering disciplines with other sciences. Students working in these labs learn important lessons about the interconnectedness of the world and develop both depth and breadth that make them innovators and leaders in emerging technologies.

Research by Program Area

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Biological/Chemical

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Biomedical

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Electrical/Computer

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Energy

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Materials Science

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Mechanical/Operations/Systems

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Culture of Collaboration

Dartmouth Engineering is a close-knit community of scholars with a broad range of expertise. The culture of collaboration extends across the hall, across campus, and beyond. Many research projects engage colleagues from other institutions such as Dartmouth-Hitchcock, Geisel School of Medicine, Tuck School of Business, Guarini School of Graduate and Advanced Studies, and CRREL, as well as industry—and offer numerous research opportunities for undergraduates.

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Research Quick Takes

Navid Rashedi

Early Detection of Internal Bleeding

PhD student Navid Rashedi (pictured), Professor Ethan MurphyAlexandra Hamlin '16 Th'17 Th'19, research associate Victor Borza, and Professors Jonathan Elliott, Ryan Halter, and Vikrant Vaze are co-authors of: "Detection of occult hemorrhage using multivariate non-invasive technologies" published in Physiological Measurement. "This work investigated machine learning to combine multiple technologies—electrical impedance and near infrared spectroscopy—to better detect internal bleeds in a porcine study. Internal bleeds are often not detectable until it's too late. This approach appears to detect them earlier and more accurately," said Murphy. 

Liquid metal printing

Thin Film Transistors

PhD students Samuel Ong, Simon Agnew, and Md Saifur Rahman, and Professor Will Scheideler co-authored "Sub-nm kinetically controlled liquid metal printing of ternary antimony indium oxide transistors" published in Matter. "Our study shows how to harness the kinetics of liquid metal oxidation to control the thickness at the single-nm scale for synthesizing 2D transparent semiconducting films with finely tuned electrostatics for thin film transistors. These ultrathin metal oxides could enable flexible electronics capable of withstanding extreme bending stress and deformation," said Scheideler.

miniaturized low-power, high-voltage step-up ratio capacitive load driver

IEEE Predoctoral Achievement Award

PhD candidate Yanqiao Li, advised by Professor Jason Stauth, received the 2024–25 IEEE Solid State Circuits Society (SSCS) Predoctoral Achievement Award, their highest honor for PhD students, at the IEEE International Solid-State Circuits Conference (ISSCC) in San Francisco. The award recognizes Li's research on "miniaturized low-power, high-voltage step-up ratio capacitive load drivers" which enable microrobots to be fully autonomous and energy-efficient for medical, consumer, and industrial automation, as well as for haptics, printing, and ultrasound applications.

Schematic depicting topics of active research in fabrication, design, and applications of 3D printed electrodes.

Design & Fabrication for Energy & Sensing

Professor Will Scheideler is co-author of "Recent Advances in 3D Printed Electrodes – Bridging the Nano to Mesoscale" published in Advanced Science. The review covers applications in energy and sensing, including emerging fabrication methods. "We report on strategies for transforming polymers into 3D architected metals and ceramics, and how the use of machine learning and artificial intelligence is changing the design of 3D-printed materials," said Scheideler.