Скачать или смотреть CERN 2025: Discoveries Beyond the Standard Model

CERN experiments, Higgs boson, dark matter, and the Large Hadron Collider push the frontiers of particle physics in 2025. Discover how high-luminosity upgrades, quark–gluon plasma studies, and plans for the Future Circular Collider are expanding our understanding of the universe. How do we actually test the deepest ideas in physics? This video takes you inside CERN’s research methods — from colliding protons at the Large Hadron Collider to designing the next-generation 100 km Future Circular Collider. Instead of focusing only on spectacular images, the lecture explains how different experiments are engineered to probe the Higgs field, dark matter, quark–gluon plasma, and the matter–antimatter imbalance of the universe. You will see how detectors like ATLAS, CMS, LHCb, ALICE, and MoEDAL each play a specific role in testing the Standard Model and searching for new physics, why the High-Luminosity LHC upgrade is essential, and how precision measurements (not just “discoveries”) reshape our view of cosmic stability and fundamental forces.

In this video you will learn:
What CERN is, how the LHC works, and why colliding protons at nearly light speed reveals subatomic structure
How the High-Luminosity LHC boosts luminosity to study extremely rare events and subtle effects in particle interactions
How physicists measure the Higgs boson’s self-coupling and what it tells us about whether our universe is stable or metastable
How the MoEDAL experiment searches for dark matter candidates and exotic particles using passive nuclear track detectors
How LHCb studies matter–antimatter asymmetry via CP violation in B-meson decays, and why tiny asymmetries may explain why anything exists at all
How ALICE recreates quark–gluon plasma, the ultra-hot state of matter after the Big Bang, and what this reveals about the strong force
How ATLAS and CMS look for physics beyond the Standard Model, from supersymmetry to extra dimensions, and what current null results imply
How CERN tests Quantum Chromodynamics by precisely measuring the strong coupling constant and confirming asymptotic freedom
How neutrino oscillation experiments refine our understanding of tiny neutrino masses and flavor mixing
What exotic hadrons and pentaquarks are, why their discovery matters for non-perturbative QCD, and how LHCb studies them
What the proposed 100 km Future Circular Collider (FCC) would do beyond the LHC, and how it is staged (e⁺e⁻ then pp)
Why fundamental research at CERN leads to real-world technologies like the World Wide Web, medical imaging, and proton therapy

Timestamps:
00:00 — What is CERN and why do we smash protons?
00:32 — High-Luminosity LHC: pushing luminosity 10× higher
01:35 — Precision Higgs studies and universe stability
03:06 — MoEDAL and experimental searches for dark matter and exotics
04:41 — LHCb and the mystery of matter–antimatter asymmetry
06:01 — ALICE and recreating quark–gluon plasma
07:16 — Searching beyond the Standard Model (SUSY, extra dimensions)
08:16 — Precision QCD tests and the strong coupling constant
09:16 — Neutrino physics and flavor oscillations
10:51 — Exotic hadrons and pentaquark spectroscopy
12:01 — Future Circular Collider vision and energy reach
13:51 — Why CERN’s basic research transforms technology and society

#CERN #ParticlePhysics #LHC #HiggsBoson #DarkMatter #QuarkGluonPlasma #Neutrinos #Pentaquarks #FutureCircularCollider