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Explore physics and quantum-related research throug

Join us to explore the science and engineering behind the light sources that enable advanced semiconductor manufacturing. This lecture connects industrial innovation at ASML and CLS with fundamental physics, highlighting how precision engineering, high‑power lasers, and decades of development shape modern technology.

What really changes when you step outside academia? And what do you wish someone had told you before you made the leap? ASML employees will share candid stories about challenges, trade‑offs, and unexpected wins along the way. We’ll talk openly about professional shifts, visibility, mentorship, and the often-invisible skills that shape careers beyond publications and CVs. Designed as a conversation rather than a lecture, the session leaves plenty of space for questions, reflections, and real dialogue.

String theory offers a viable theory of quantum gravity, with spin 2 gravitons encoded in closed strings.  But the failure to find evidence for supersymmetry at the LHC has left string theory in an uncertain state.  A solution to the problem is in plain sight: revert to classic nonsupersymmetric, bosonic string theory, reenvisaged as a theory of all the forces, not just the strong force.  The classic theory correctly reproduces the Brauer-Weyl (1935) algebraic relation between fermions and bosons seen in the standard model, whereas supersymmetry does not.

This is the inaugural W. Carl Lineberger Seminar which is designed to advance graduate student-organized seminars within the Physical Chemistry Program of the Department of Chemistry at the University of Colorado Boulder. The seminars address current topics in physical chemistry, promote rigorous scholarly discussion, and foster collaboration among graduate students, faculty, and invited speakers. This seminar program is supported by private donations to the University of Colorado Foundation.

Abstract: In recent years, neutral atom tweezer arrays have emerged as a promising platform for quantum computing. Among various atomic species, alkaline-earth(-like) atoms—particularly ytterbium—offer unique advantages arising from their rich internal structure. In this talk, I will present progress from my PhD work, demonstrating how these features can be harnessed to build a useful quantum computer in the future.