
Explore the impact of the Higgs discovery on particle physics and future research directions with Dr. Tim Tait, covering topics like dark matter and ongoing questions in the field.

Exploring laser-powered plasma accelerators: Compact technology enabling electrons to reach high energies over short distances, with potential applications in particle physics and medical cancer therapy.

Nobel laureate Gérard Mourou explores extreme-light lasers as universal sources for high-energy radiation, particles, and extreme conditions, discussing their potential to address fundamental physics questions and advance laser-matter interactions.

Explore deep generative modeling applications in high-energy physics, cosmology, and fluid dynamics with insights from NERSC expert Karthik Kashinath.

Scientists from ALICE, ATLAS, CMS, and LHCb experiments reflect on a decade of discoveries at the Large Hadron Collider, discussing key findings and future research prospects in particle physics.

Explore gamma-ray bursts, the universe's most energetic events. Learn about their detection, origins, and the record-breaking 'Brightest Of All Time' burst from 2022.

Exploring Quark Gluon Plasma discoveries at RHIC, their implications, and future research directions in high-energy nuclear physics and astrophysics.

Explore positivity constraints on Effective Field Theories in particle physics, focusing on advanced concepts and their applications in understanding fundamental interactions.

Explore advanced concepts in Standard Model Effective Field Theory and Higgs Effective Field Theory with expert Timothy Cohen in this comprehensive lecture on particle physics.

Explore positivity constraints on Effective Field Theories in particle physics. Gain insights into systematic approaches for describing physics at different scales using relevant degrees of freedom.

Explores advanced topics in Heavy Quark Effective Theory and Soft-Collinear Effective Theory, focusing on applications in particle physics and quantum field theory for postdoctoral researchers and PhD students.

Explores advanced topics in Heavy Quark Effective Theory and Soft-Collinear Effective Theory, focusing on applications in particle physics and quantum field theory for postdoctoral researchers and PhD students.

Explores advanced topics in Heavy Quark Effective Theory and Soft-Collinear Effective Theory, providing insights for particle physics researchers on systematic approaches to describing physics at different scales.

Explores advanced concepts in Soft-Collinear Effective Theory, focusing on construction techniques and applications in particle physics. Suitable for postdoctoral researchers and advanced PhD students.

Explores advanced concepts in Soft-Collinear Effective Theory, focusing on construction techniques and applications in particle physics. Suitable for postdoctoral researchers and advanced PhD students.

Comprehensive introduction to Effective Field Theories, covering fundamental concepts, applications in particle physics, and systematic approaches for describing physics at different energy scales.

Explore cosmic anomalies with physicist Harry Cliff, from high-energy particles in Antarctica to unexplained stellar velocities, unraveling mysteries that challenge our understanding of the universe.

Explore neutrino beam production, focusing on accelerator experiments. Learn about beam characteristics, flux measurements, and their impact on neutrino physics research.

Exploring collective behavior in electron-ion collisions at the Electron-Ion Collider, focusing on probing hadron structure and understanding quark-gluon dynamics in nuclear matter.

Explore elastic and deep inelastic scattering in particle physics, crucial for understanding hadron structure and fundamental interactions at high energies.

Exploring small-x distributions of hadrons and ions using Sartre simulation, providing insights into particle behavior at high energies relevant for electron-ion collider experiments.