Technology is getting smaller―which is good news.
The ability to fabricate materials with optical, electrical, and mechanical properties out of very small particles could have far-reaching applications. For example, micro-particles grafted with DNA can be used in medicine for better sensing, imaging, and treatment delivery. An improved understanding of how these materials behave could lead to fulfilling the promise of precision medicine, among other applications.
Lehigh University will soon be on the front lines of the quantum computing revolution.
With support from a recently awarded $2,128,658 research grant from the Defense Advanced Research Projects Agency (DARPA), an international group led by industrial and systems engineering (ISE) faculty members Tamás Terlaky, Luis Zuluaga, and Boris Defourny will work on optimization algorithms in quantum computing.
Until now, there’s never been a tool that could determine how long it will take a patient to heal from a tibial fracture.
A recent surge in hiring—11 new faculty members across four departments—will have a widespread impact on research and teaching at the Rossin College and support the interdisciplinary mission of Lehigh’s Institute for Data, Intelligent Systems, and Computation (I-DISC).
CEE Professor co-authors book, Life-Cycle of Structures Under Uncertainty: Emphasis on Fatigue-Sensitive Civil and Marine Structures. with LU alum Sunyong Kim.
Lehigh engineers are the first to utilize a single enzyme biomineralization process to create a catalyst that uses the energy of captured sunlight to split water molecules to produce hydrogen. The synthesis process is performed at room temperature and under ambient pressure, overcoming the sustainability and scalability challenges of previously reported methods.
There’s a new resident in the basement of Lehigh University’s Whitaker Lab that’s been attracting a lot of attention even before getting fully settled in.
