Lectures related to Particle Physics Overview

Overview of Particle Physics and Rutherford Scattering

Covers the constituents of matter, fundamental forces, the Standard Model, natural units, and particle interaction experiments.

Gauge Theories And Modern Particle Physics

Covers gauge theories, modern particle physics, the standard model, and field content.

Fermion Masses: Higgs Mechanism and Yukawa Couplings

Covers the Higgs mechanism, fermion masses, Yukawa couplings, and properties of the Higgs boson, concluding with a discussion on dark matter beyond the Standard Model.

Baryon Asymmetry and Particle Physics

Explores nucleosynthesis, baryon asymmetry, CP violation, and the stability of the proton in particle physics.

Quantum Field Theory: Fundamentals and Applications

Introduces Quantum Field Theory, covering paths to QFT, fields, weak interactions, and the Standard Model of particle Physics.

Beyond the Standard Model: Effective Quantum Field Theory

Explores effective quantum field theory, the Standard Model's precision, and the search for new physics beyond it.

Particle Physics: Fundamentals and Interactions

Covers the basics of particle physics, including elementary particles, forces, the Standard Model, and rare phenomena at the LHC.

Probability and Statistics

Introduces key concepts in probability and statistics, covering event likelihood, data analysis, and particle detection.

Particle Physics Exploration at LHC: Rare Phenomena and New Detectors

Explores rare phenomena in particle physics using LHC detectors and discusses implications for dark matter and neutrino detection.

The Higgs Mechanism: Unveiling Mass Generation

Explores the Higgs mechanism, solving the issue of massless gauge bosons and predicting masses of gauge bosons.

Quantum Field Theory: Behind and Beyond the Standard Model

Delves into quantum field theory, emphasizing the Standard Model's boundaries and the principles governing particle physics.

Effective Field Theory: Testing Weak Interactions

Explores effective field theory for testing weak interactions and parity violation through forward-backward asymmetry.

Simulating the Early Universe: Techniques and Challenges

Covers numerical techniques for simulating the early universe, focusing on gauge invariance and fermions.

Particle Physics: Standard Model overview

Covers Particle Physics, elementary particles, fundamental forces, the Standard Model, and precision physics in late 20th-century physics.

Particle Detection and Detectors

Explores particle detection using scintillators, cloud chambers, and wire chambers for various applications.

Tests of the Standard Model

Covers benchmark tests of the Standard Model consistency, including measurements of Z line shape, Z, W, and WW production cross sections.

Quantum Field Theory: Introduction

Introduces Quantum Field Theory as the way to reconcile Quantum Mechanics with Relativity, emphasizing the need for a local field due to the impossibility of instantaneous interactions at a distance.

QED: Gauge Theories

Covers Quantum Electrodynamics (QED), instantons, Feynman rules, and gauge theories in modern particle physics.

Present Challenges in Accelerator Physics

Covers the current challenges in accelerator physics, main issues, research on applications, modeling, and conferences.

Dark Matter Candidates

Explores dark matter candidates like sterile neutrinos, axions, and WIMPs, discussing their properties and implications on the Universe.