
Comprehensive exploration of fundamental physics concepts, from motion and forces to thermodynamics and electromagnetism, providing a solid foundation in classical physics principles.

In this course we will explore and explain many of the (often) counter-intuitive but fundamental principles of the Special Theory.

Explore the intriguing intersection of quantum mechanics and classical physics, delving into how quantum principles shape our understanding of everyday phenomena and macroscopic objects.

Explore quantum tunneling, a counterintuitive phenomenon where particles pass through seemingly impenetrable barriers. Learn its derivation and applications in nuclear fusion, semiconductors, and radioactive decay.

Tackle challenging classical physics problems, from motorcycle stunts to pendulum velocity, enhancing your problem-solving skills and deepening your understanding of fundamental concepts.

Explore the intersection of topology and physics with Clay Cordova and Edward Witten, covering quantum mechanics, fermions, and topological quantum computing in this engaging discussion.

Discover the fundamental principles of electromagnetism through Maxwell's four equations, exploring their mathematical foundations and real-world applications in modern physics.

Odkryj ujednolicone podejście do klasycznych i kwantowych opisów pułapki Penninga, prezentowane przez wybitnego fizyka teoretycznego z okazji jego 90. urodzin.

Brian Greene explores Ehrenfest's Theorem, revealing how classical physics emerges from quantum mechanics through mathematical derivation, bridging two fundamental descriptions of reality.

Explore the complex world of turbulent flows, their ubiquitous presence in nature, and their impact on small particles. Discover why turbulence remains an unsolved problem in physics and its significance in various natural processes.

Explore the math of superposition and quantum states, focusing on polarized light and its relation to classical electromagnetic waves. Gain insights into quantum mechanics fundamentals.

Explore turbulence as a critical unsolved problem in classical and climate physics with Professor Tapio Schneider, delving into its impact on our understanding of climate variability.

Explore the cosmos with Sean Carroll as he delves into classical physics, from ancient Greek thinkers to Einstein, unveiling revolutionary ideas that shaped our understanding of the Universe.

Explore the origins of quantum mechanics through Planck's revolutionary solution to the ultraviolet catastrophe, challenging classical physics and introducing the concept of energy quanta.

Explore the Rayleigh-Jeans Law, its foundations in classical physics, and how its failure led to the development of quantum mechanics, revolutionizing our understanding of radiation.

Explore classical physics' view of light as electromagnetic waves, covering Maxwell's equations, wave properties, and phenomena like diffraction, interference, and polarization.

Explore the Ehrenfest Theorem, bridging quantum and classical physics. Understand how Schrödinger's equation relates to Newton's laws and the transition from microscopic to macroscopic behavior.

Explore theoretical structures in classical scattering amplitudes and observables with Radu Roiban's in-depth lecture on advanced physics concepts.

Explore techniques to debug elusive software issues that change or disappear during observation, inspired by physics principles. Learn strategies to create "anti-heisenbugs" for effective problem-solving.

Explore equivariant machine learning and its connection to classical physics, focusing on graph neural networks, spectral methods, and symmetry in optimization problems.

Unifying backend and frontend development perspectives to create a holistic approach to software engineering, bridging the gap between traditional computation and user interaction.