SEMINARIUM FIZYKI WIELKICH ENERGII

SEMINARIUM FIZYKI WIELKICH ENERGII

Dnia 25 kwietnia (piątek) o godzinie 11:30, w sali B2.38 odbędzie się seminarium, na którym zostanie wygłoszony referat pt.:

„Vector Boson Fusion at the Muon Collider: electroweak factorisation and PDFs”

Referuje: Krzysztof Mękała (University of Warsaw/DESY)

As the European Strategy for Particle Physics undergoes its latest update, the scientific community is shaping the direction of the field for the decades to come. Central to this process is the decision on CERN’s next major collider initiative. Among the proposed options is a high-energy muon collider, aiming to probe the TeV scale, which would significantly enhance our understanding of the Standard Model, with a particular focus on electroweak interactions at previously unexplored energies. A key area of interest lies in vector-boson fusion, which is expected to dominate the high-energy landscape of many fundamental processes.

In my talk, I will outline the primary physics objectives of the Muon Collider project, with an emphasis on the role of vector-boson fusion. I will introduce the concepts of the collinear approximation and electroweak factorisation, and discuss the motivation behind revisiting this framework in the context of a future collider facility. Finally, I will present the emerging idea of electroweak Parton Distribution Functions and review their relevance in this setting.

Serdecznie zapraszamy

dr hab. Katarzyna Grzelak

prof. dr hab. Aleksander Filip Żarnecki

SEMINARIUM FIZYKI WIELKICH ENERGII

SEMINARIUM FIZYKI WIELKICH ENERGII

Dnia 11 kwietnia (piątek) o godzinie 11:30, w sali B2.38 odbędzie się seminarium, na którym zostanie wygłoszony referat pt.:

„AMBER: An experimental approach to the Emergence of Hadron Mass”

Referuje: Catarina Quintans (CERN)

AMBER is a new fixed-target experiment at CERN that focuses on Hadron Physics. Hadrons are the building blocks of all visible matter. As far as we presently know it, their constituent quarks and gluons interact according to the Quantum Chromodynamics theory. But how exactly the observed properties of hadrons — mass, spin, momentum and space distributions —  emerge as we see them at the various probing scales, is a matter of intense study and debate. The already approved AMBER scientific programme makes use of the unique M2 beamline at CERN, providing both charge muon and hadron beams of high intensity in a wide range of momenta, from 50 up to 280 GeV/c. A highly modular spectrometer of wide angular and momentum coverage, allows to address the different physics topics, from hadron structure to spectroscopy. AMBER started its first phase of measurements in 2023, and is presently preparing a scientific proposal for a second phase.

Serdecznie zapraszamy

dr hab. Katarzyna Grzelak

prof. dr hab. Aleksander Filip Żarnecki