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TASI Public Lecture - Wednesday, June 3 “The Promise of Quantum Computing” - University of Colorado Boulder

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⚡ Quantum Brief
Lawrence Berkeley National Laboratory’s Christian Bauer will deliver a public lecture on quantum computing’s potential on June 3, 2026, at the University of Colorado Boulder, exploring its foundational quantum mechanics principles. The talk will demystify quantum computation by explaining how it leverages superposition and entanglement to solve problems intractable for classical systems, emphasizing its radical departure from traditional methods. Bauer will highlight Grover’s algorithm as a key example, demonstrating quantum speedups in unstructured search tasks, showcasing concrete advantages over classical approaches. A primary focus will be quantum simulation’s transformative role in high-energy physics, including tackling hadronization and dark matter—problems beyond classical computing’s reach. Current progress and major challenges in realizing quantum computing’s full potential, particularly for physics applications, will be critically assessed during the lecture.
TASI Public Lecture - Wednesday, June 3 “The Promise of Quantum Computing” - University of Colorado Boulder

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The Theoretical Advanced Study Institute in Particle Physics (TASI) presents a Public Lecture, “The Promise of Quantum Computing”Wednesday, June 3, 20267:30 p.m.DUAN G1B30Presented by: Christian Bauer, Lawrence Berkeley National LaboratoryAbstract: Quantum computers offer a fundamentally different approach to computation, one that harnesses the principles of quantum mechanics to tackle problems that are difficult or even impossible to address with classical techniques. In this talk, I will explain what makes a quantum computer quantum, starting from the basic rules of quantum mechanics that underlie its operation. I will then discuss how algorithms can exploit these rules to achieve significant speedups over the best-known classical algorithms, illustrating this with a concrete example: Grover's algorithm for unstructured search. Finally, I will argue that probably the most important potential application of quantum computers is the direct simulation of quantum mechanical systems. This is particularly true for high-energy physics, where understanding phenomena such as hadronization and the nature of dark matter requires solving problems some aspects of which lie far beyond the reach of classical computation. I will also discuss where we currently stand in realizing this potential, and what the key open challenges are.Mailing Address:Department of Physics390 UCBUniversity of ColoradoBoulder, CO 80309-0390Delivery Address:Department of PhysicsDuane Physics E1B322000 Colorado AveBoulder, CO 80309-0390Phone: (303) 492-6952Fax: (303) 492-3352Email: physics@colorado.eduDirections and ParkingAbout us University of Colorado Boulder© Regents of the University of ColoradoPrivacy • Legal & Trademarks • Campus MapUniversity of Colorado Boulder© Regents of the University of Colorado

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Source: Google News – Quantum Computing