Register below for a lecture by Richard Rhodes, historian and Pulitzer Prize-winning author of “The Making of the Atomic Bomb.” Light dinner will be provided. Yale community members of all disciplines and levels of expertise are encouraged to attend.
Co-sponsors: Physics Department, History Department.
Partners: Wright Laboratory, Political Science Department.
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Abstract
Built by the US government to house the Hanford nuclear site workers who manufactured weapons-grade plutonium for the Manhattan Project, Richland, Washington is proud of its heritage as a nuclear company town and proud of the atomic bomb it helped create. RICHLAND offers a prismatic, placemaking portrait of a community staking its identity and future on its nuclear origin story, presenting a timely examination of the habits of thought that normalize the extraordinary violence of the past.
On average, during Run 2 of the Large Hadron Collider (LHC), 30-50 simultaneous vertices yielding charged and neutral showers, otherwise known as pileup, were recorded per event. This number is expected to only increase at the High Luminosity LHC with predicted values as high as 200. As such, pileup presents a salient problem that, if not checked, hinders the search for new physics as well as Standard Model precision measurements such as jet energy, jet substructure, missing momentum, and lepton isolation.
Choosing your desired career path is a significant decision. Yet many students make these decisions every day without being well informed about alternative paths outside of academia. I was once one of those students too! In this seminar, I’ll talk through my journey in academia, starting my own biotech company, and the principles I use to decide major career decisions. My hope is that this talk helps you find resonance in your future careers as well, wherever they may be.
Host: Fernando Flor
Scientists confirmed the existence of the Quark-Gluon Plasma (QGP) in heavy ion collisions in the early 2000s. One of the earliest theorized signatures for QGP is the enhancement of particles containing strange quarks. In the last decade, results from proton-heavy ion collisions have generated significant discussion about the initial conditions needed to generate a QGP.
For over two decades, researchers at the Relativistic Heavy Ion Collider (RHIC) have mapped the phase diagram of QCD matter. Signatures of a quark-gluon plasma (QGP) phase created in high-energy Au+Au collisions have been observed, and the evolution of these QGP signatures tracked with varying collision energy. Yet one of the large unanswered questions of the RHIC experimental program is whether there is a critical point in the QCD phase diagram, as many models predict there should be.
Join us for a moderated panel followed by small group discussions on the topic of autonomy and artificial intelligence in warfare. The panel will feature Ian Abraham (Assistant Professor of Mechanical Engineering & Materials Science at Yale and leader of the Intelligent Autonomy Lab) and Michael Butera (Policy Advisor in the Bureau of Political-Military Affairs at the U.S. Department of State).
Join us for this introduction to the many ways OCS can support your career and professional development! We will discuss useful strategies and review important resources that can help you jump-start your career planning. You will also learn how to build a strong and diverse professional network - it’s never too early or too late to start! By connecting with alums and other professionals, you can gain important insights into career paths, advice about organizations and roles, and even valuable leads by tapping into the “hidden” job market.
Host: Fernando Flor
Axion is a well-motivated hypothetical particle originally proposed to solve the Strong CP problem in quantum chromodynamics (QCD), and sufficiently light axion may also be a dark matter candidate. The Haloscope At Yale Sensitive To Axion CDM (HAYSTAC) experiment is actively searching for axion cold dark matter using a resonant microwave cavity and quantum squeezed state receiver (SSR). With axion mass and coupling strength unknown, a crucial metric is the scanning rate across its parameter space. Advancements in SSR have led to a doubling of this scanning rate.
Many New Physics searches and QCD precision measurements at particle colliders involve the study of jet substructure for final state hadrons. Recently it has been understood that measuring correlation functions of energy flow operators inside a jet can be a very powerful tool for phenomenology, which naturally stems from first principles of quantum field theory. In this talk I will present a bridge between the vast theoretical progress made to understand the energy correlators from the field theory perspective and their practical implementation into the real world of hadron colliders.
