Geneva, Switzerland – Researchers from the University of Rochester in collaboration with CERN have made significant strides in measuring the electroweak mixing angle, providing valuable insights into the Standard Model of Particle Physics. This groundbreaking achievement sheds light on the fundamental forces of the universe, offering a deeper understanding of particle interactions and phenomena in physics and astronomy.
The University of Rochester team, led by Arie Bodek, the George E. Pake Professor of Physics, has been actively engaged in international collaborations at CERN, focusing on the CMS Collaboration within the European Organization for Nuclear Research. Through their work, they have contributed to unraveling universal mysteries and pushing the boundaries of scientific discovery.
The CMS Collaboration, a global community of particle physicists, aims to explore the fundamental laws that govern the universe. Alongside Bodek, researchers Regina Demina and Aran Garcia-Bellido, along with postdoctoral research associates and students, have played crucial roles in advancing our knowledge of particle physics and cosmology.
Building on their extensive experience at CERN, particularly within the CMS Collaboration, the University of Rochester researchers have achieved remarkable precision in measuring the electroweak mixing angle. By analyzing proton collisions at CERN, they have deepened our understanding of particle interactions and the underlying principles of the Standard Model.
CERN, known as the world’s largest particle physics laboratory, has been a hub of groundbreaking discoveries and innovative experiments. The Rochester team has a rich history of contributions at CERN, including key roles in the discovery of the Higgs boson in 2012, a pivotal moment in particle physics.
The research conducted at CERN’s Large Hadron Collider (LHC), a powerful particle accelerator, plays a crucial role in exploring the fundamental building blocks of matter and the forces that govern them. By colliding beams of particles at high energies, scientists can recreate conditions similar to those right after the Big Bang, offering insights into the behavior of particles under extreme conditions.
Through their recent measurements of the electroweak mixing angle, the CMS Collaboration has provided valuable data that aligns closely with predictions from the Standard Model of Particle Physics. This achievement, driven by innovative techniques and precision tests, marks a significant milestone in advancing our understanding of the fundamental nature of matter and energy.
The University of Rochester team’s dedication to pushing the boundaries of particle physics and cosmology highlights the importance of international collaborations in unraveling the mysteries of the universe. Their work at CERN exemplifies the spirit of scientific exploration and discovery, paving the way for further advancements in our understanding of the cosmos.