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Abstract: 2019 marked the 75th anniversary of the publication of Erwin Schrodinger's "What is Life?'', a short book hailed by Roger Penrose as "among the most influential scientific writings of the 20th century'’.
Due to unforeseen events, the Physics Colloquium for October 12, 2022 has been cancelled.
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Coffee, tea and cookies will be available in G1B31 (across from G1B20) from 3:30 - 3:50 p.m.
Physics Colloquia are held Wednesdays at 4:00 p.m. in the JILA Auditorium.
Abstract: Quantum measurements are the principal means by which we gain access to and characterize the quantum world. At present the kinds of measurements that are routinely performed in the laboratory are rudimentary and a small subset of the measurements allowed by quantum theory. This talk will describe the past present and future of quantum measurements.
Abstract: Can a PhD at CU Physics prepare you to start a company? Can a Post-Doc at NIST be the ticket to entrepreneurship? While the subject of research at these institutions may not be directly applicable to industrial problems—in my case, Bose-Einstein Condensation and quantum computing— the skill sets and tools you develop are on the critical path in preparing you to succeed in high-tech industry and even in starting a company.
Abstract: Self-organized complex structures in nature, from hierarchical biopolymers to viral capsids and organisms, offer efficiency, adaptability, robustness, and multifunctionality. How are these structures assembled? Can we understand the fundamental principles behind their formation, and assemble similar structures in the lab using simple inorganic building blocks? What’s the purpose of these complex structures in nature, and can we utilize similar mechanisms to program new functions in metamaterials?
Abstract: Planetary magnetic fields are ubiquitous in the Solar System. These fields are generated by the motion of an electrically conducting fluid within the interiors of the planets. For the Earth, turbulence in the liquid iron outer core has sustained the geomagnetic field for at least 4 billion years. Similar turbulent fluid systems are present in most planets, as well as stars. These flows are thought to be strongly influenced by system rotation (i.e.
Abstract: Quantum control of mechanical motion has been achieved in a surprising range of platforms in the past decades. These mechanical quantum systems have both piqued the curiosity of physicists, and enabled new approaches to difficult tasks in manipulating quantum information. Trapped particles offer one opportunity to study isolated quantum motion. Laser-cooled ions routinely demonstrate intriguing phonon control, and recent experiments have now brought trapped dielectric nanoparticles to their quantum ground state.
Abstract: I will discuss a bourgeoning field of "fractons" — a class of models where quasi-particles are strictly immobile or display restricted mobility. Focussing on just a corner of this fast-growing subject, a will explain how one class of such theories — symmetric tensor gauge theories surprisingly emerge from seemingly mundane elasticity of a two-dimensional quantum crystal. The disclination and dislocation crystal defects respectively map onto charges and dipoles of the fracton gauge theory.
JILA colloquia are recorded and will be available on the JILA YouTube playlist:
https://www.youtube.com/playlist?list=PLupSU3PE5is1Te1Ua94NMh3NLA55DCNCO