Wright Lab will host 1-hour Environmental Health and Safety (EHS) Shop Orientations all on Zoom. The EHS shop orientation is offered each semester and is required to be taken once by anyone who would like to gain access and make use of the research and teaching shops at Wright Lab.
For more information on the shop facilities at Wright Lab see: https://wlab.yale.edu/facilities
Register here: https://forms.gle/pGj8bpuFD5UcWAQX8
We invite all members of our community to gather together weekly on Mondays via Zoom to check in with each other and hear what is going on around our community.
We invite all members of our community to gather together weekly on Mondays via Zoom to check in with each other and hear what is going on around our community.
We invite all members of our community to gather together weekly on Mondays via Zoom to check in with each other and hear what is going on around our community.
The study of jet modification is a critical tool for understanding the properties of the hot, dense medium created in ultra-relativistic heavy ion collisions known as the Quark-Gluon Plasma. Jets are collimated sprays of energetic particles that result from the fragmentation of hard-scattered partons. However, in heavy-ion collisions, the partons that create these jets traverse the QGP medium, losing energy either by interaction with the internal color field, or by collisions with the other constituents of the medium.
The Cryogenic Underground Observatory for Rare Events (CUORE) is the first bolometric experiment searching for 0νββ decay that has been able to reach the one-tonne mass scale. The detector, located at the LNGS in Italy, consists of an array of 988 TeO2 crystals arranged in a compact cylindrical structure of 19 towers. CUORE began its first physics data run in 2017 at a base temperature of about 10 mK and in April 2021 released its 3rd result of the search for 0νββ, corresponding to a tonne-year of TeO2 exposure.
The intense flux of neutrinos produced at the Spallation Neutron Source (SNS) make it an ideal location to pursue studies of low energy neutrino-nucleus interactions. The COHERENT experiment has deployed a suite of detectors to the SNS to measure coherent elastic neutrino-nucleus scattering (CEvNS), a standard model process predicted more than forty years ago but only recently observed. CEvNS plays an important role in the evolution of a supernova, is a background for WIMP searches, and has potential applications for monitoring reactor neutrinos.
The intense flux of neutrinos produced at the Spallation Neutron Source (SNS) make it an ideal location to pursue studies of low energy neutrino-nucleus interactions. The COHERENT experiment has deployed a suite of detectors to the SNS to measure coherent elastic neutrino-nucleus scattering (CEvNS), a standard model process predicted more than forty years ago but only recently observed. CEvNS plays an important role in the evolution of a supernova, is a background for WIMP searches, and has potential applications for monitoring reactor neutrinos.
UltraLight Dark Matter (ULDM) is an axion-like dark matter candidate with an extremely small particle mass. The dynamics of ULDM are governed by the Schrodinger-Poisson system of coupled differential equations for which the ground state solution is a spherically symmetric soliton. While a purely solitonic profile is incompatible with observational constraints on dark matter halos, mergers of ULDM solitons create halos with solitonic central cores, but with NFW-like behaviour at large radii.
The Fermilab muon g-2 experiment just released its first measurement of the positive muon magnetic moment anomaly, a_mu = (g_mu-2)/2 to an accuracy of 0.46 ppm. The anomaly a_mu is of interest since it can be predicted with impressive precision and its value is sensitive, via quantum corrections, to the interactions of the muon with the other particles of the Standard Model. Comparison of measurement results and theoretical predictions tests the completeness of the Standard Model, and a significant discrepancy would indicate the need for new physics.
