
This course introduces students to handling electromagnetic theory using vector calculus. This enables students to handle problems that are more complicated than they are used to from their school days.

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 oscillations, waves, and quantum mechanics through comprehensive lectures covering harmonic motion, electromagnetic waves, interference, diffraction, and fundamental quantum concepts.

Explore electron cyclotron emission in plasmas, focusing on O and X mode accessibility. Gain insights into advanced plasma diagnostics techniques for fusion research and applications.

Explore Faraday rotation and reflectometry techniques for plasma diagnostics, enhancing understanding of refractive index measurements in advanced physics applications.

Explore Faraday rotation and reflectometry techniques for plasma diagnostics, focusing on refractive index measurements and their applications in advanced plasma research.

Explore coherent scattering in plasma diagnostics, focusing on collective Thomson scattering techniques and their applications in advanced plasma analysis.

Explore Thomson scattering fundamentals in plasma diagnostics, focusing on wave interactions with charged particles and their applications in plasma analysis.

Explore electromagnetic waves, light reflection, and concave/convex mirrors in this comprehensive physics unit for Grade 10 students.

Aprofunde-se na física ondulatória, explorando conceitos essenciais para vestibulares e aprimorando sua compreensão dos fenômenos ondulatórios.

Explore electromagnetic wave propagation, antenna types, and wireless communication concepts. Learn about signal strength, system losses, and antenna characteristics for effective wireless network design.

Explore RF wireless fundamentals, issues, types, and spectrum communications. Learn about challenges and methods in this comprehensive overview.

Explore fundamental concepts of antenna design, including electromagnetic waves, impedance matching, polarization, and gain. Ideal for beginners in radio frequency engineering.

Explore cutting-edge Reconfigurable Intelligent Surfaces for wireless communications. Learn about modeling, analysis, and optimization techniques, as well as their interplay with holographic surface-based transceivers.

Explore cutting-edge meta-devices: design, fabrication, and applications in imaging, sensing, communications, and quantum technology. Discover their potential in robotics, autonomous driving, AR/VR, and medical care.

Explore EM-wave simulation in ECR space plasma thrusters using MFEM. Learn about Maxwell equations, cold-plasma approximation, and finite element discretization for space propulsion applications.

Explore wave localization in complex media, introducing the landscape concept for predicting eigenfunctions, decay patterns, and eigenvalues. Discover new insights on Schrödinger operators and quantum observables.

Explore nonlinear wave dynamics and their manifestation in Josephson junctions, examining fundamental physics principles and advanced theoretical concepts.

Explore advanced concepts in optics, from electromagnetic waves to quantum physics, through lectures, demonstrations, and simulations. Gain insights into optical phenomena in nature and technology.

Explore light as electromagnetic waves, optical phenomena, and underlying concepts through math, experiments, and simulations. Covers geometrical optics, least action principle, and introduces quantum physics.

Nobel laureate Kip Thorne explores gravitational waves, from their detection by LIGO to their potential for unveiling cosmic mysteries like black holes and the birth of the universe.