
Explora las formas diferenciales, sus propiedades algebraicas, integración y aplicaciones en cálculo vectorial y ecuaciones de Maxwell.

In this course, Professor Susskind takes a close look at the special theory of relativity and also at classical field theory.

Explore electromagnetic waves, their energy, and connection to relativity. Understand Maxwell's equations' consistency with special relativity and how magnetism can be deduced from relativistic principles.

Explore Einstein's Special Theory of Relativity, covering key concepts like Lorentz transformations, time dilation, length contraction, and relativistic mechanics, with applications in electromagnetism and particle physics.

Explora las ecuaciones de Maxwell a través de formas diferenciales y observa a un profesor de matemáticas enfrentarse a un desafío de la Olimpiada de Física.

Explore the profound connection between physics and mathematics, tracing its history from Newton to Einstein and examining its potential for unifying our understanding of the universe's fundamental laws.

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

Explore electromagnetic fields as differential 2-forms and their Lorentz transformations in this advanced theoretical physics lecture on electrodynamics and relativity.

Explore the foundations of electromagnetic energy through Maxwell's Equations, understanding voltage, current, and magnetism. Discover practical applications in nuclear fusion, solar energy, and everyday electrical devices.

Explore RF circuits with an analog engineer, covering Maxwell's equations, high-frequency techniques, and practical applications in cellular, WiFi, and Bluetooth communications.

Explore cutting-edge finite element research through student presentations on topics like µFEA, entropy stabilization, Maxwell's equations, and thermo-mechanical solves using MFEM.

Explore advanced overlapping Schwarz methods for Maxwell eigensolvers, including improved condition number bounds and a novel two-level preconditioned Helmholtz subspace iterative method for edge element approximations.

Exploring variable speed of light in general relativity and its implications for electrodynamics, challenging conventional understanding of Maxwell's equations and fundamental constants.

Explore Einstein's theory of relativity, spacetime diagrams, and the revolutionary concepts that challenged Newton's laws, expanding your understanding of the universe's four-dimensional nature.

Explore the physics behind light's ultimate speed limit, from historical experiments to modern proofs, and understand why it remains constant for all observers regardless of motion.

Explore topology's role in statistical physics, from Maxwell's equations to magnetic monopoles. Learn about topological quantum numbers and path integral formulation in this advanced lecture.

Explore radiation from relativistic particles, covering Maxwell's equations, synchrotron radiation, and applications to astrophysical phenomena like pulsars and supernova remnants.

Explore entanglement entropy in string theory, focusing on UV divergences, black hole entropy, and worldsheet perspectives. Delve into gauge transformations, diffeomorphisms, and path integrals.

Explore how light's speed changes in different media while individual photons maintain constant velocity. Uncover the fascinating interplay of electromagnetic waves and quantum mechanics in this illuminating physics lesson.

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

Explore Einstein's Special Relativity through spacetime diagrams, understanding Lorentz transformation, time dilation, and the constant speed of light in an accessible way.