#;Title of the lecture;Short synopsis;Date;Track-lecture;Lecturer;Tutor

1;Opening;The opening lecture consists of 2 parts: 1) Introduction to the course (A.Golutvin) 2) Overview of the current status of physics of fundamental constituents of matter. Basic physical facts and ideas behind the Standard Model (SM). (M.Patel). The tutorial is dedicated to particle processes simulations within GEANT4 framework;26/09 classroom B-3 (аудитория Б-3);Intro I-1;Andrey Golutvin, Mitesh Patel;Antonia di Crescenzo 2;Intoduction to quantum theory;Basics of special relativity and kinematics. Main facts from the group theory, the symmetry and its breaking. Foundations of quantum mechanics and quantum field theory;01/10 classroom B-3 (аудитория Б-3);I-2;Mitesh Patel;Katya Govorkova 3;Basic of particle physics;Quantum numbers. Feynman diagrams. Transition amplitudes. Main processes (scattering and decays). Phase space. Expressions for the cross sections and decay widths. Resonances and Breit-Wigner formula;10/10 classroom B-734 (аудитория Б-734);I-3;Alexander Malinin;Alexander Petrov 4;Introduction to detectors;An overview of the typical layout of modern particle-physics experiments, the different types of detectors employed in these experiments, the complementary information they provide about the particles created in a collision and how this information is combined to give us a complete "picture" of the collision. This forms the basis for more detailed discussions of the most important types of detectors in subsequent lectures. The tutorial is dedicated to the design of magnets for particle physics experiments and how they are employed to reconstruct the momenta of charged particles;17/10 classroom B-734 (аудитория Б-734);III-1;Olaf Steinkamp;Mikhail Gorshenkov, Pavel Dergachev 5;Basics of particle identification;A review of the main principles and techniques of particle identification used in High Energy Physics experiments;24/10 classroom B-3 (аудитория Б-3);II-1;Andrey Golutvin;Federico Reddi 6;Basics of particle interactions with matter;Introduction to the physics governing the interaction of particles and radiation with matter. The two major classes of relevant effects, electromagnetic interactions and hadronic interactions. The effects that radiation has on matter which lead to deterioration of detector components;31/10 classroom B-3 (аудитория Б-3);II-2;Richard Jacobsson;Yuri Guz 7;Introduction into data analysis techniques for HEP;Overview of data analysis challenges in experimental particle physics. Statistical approach to dataset analysis. Estimation of particle properties from statistical properties of a dataset. Parametric distributions and most common families. Estimation of Z-boson mass;14/11 classroom B-3 (аудитория Б-3);IV-1;Andrey Ustyuzhanin;Artem Maevsky 8;Introduction into Machine Learning;Dataset-driven models. Model overfitting. Model Selection. Figures of Merits. Linear Models. Regularization. Logistic Regression;21/11 classroom B-3 (аудитория Б-3);IV-2;Andrey Ustyuzhanin;Artem Maevsky 9;Nuclear Emulsions;Despite being the one of the oldest design, emulsion detector is still unsurpassed in terms of tracking accuracy, accompanying major discoveries in particle physics, from the pion to tau neutrinos. The impressive evolution of the readout technologies and the recent developments that have brought their tracking accuracy to the nanometric scale will be reviewed. We also revise the sensitivity of this detector to the particle energy loss and its application in hadron-therapy;28/11 classroom B-3 (аудитория Б-3);III-2;Giovanni De Lellis;Andrey Alexandrov 10;Standard Model and beyond;Physics of various sectors of the Standard Models. Symmetries of the SM and their violation. Problems and inconsistencies of the SM. Directions to search for the New Physics beyond the SM;05/12 classroom B-3 (аудитория Б-3);I-4;Vladimir Shevchenko;Alexander Petrov