
Atom and molecule are the fundamental unit for all matters in universe. This course will enlighten the knowledge of atoms and molecules and build up the pre-requisite knowledge for all science and engineering fields.

In 46 episodes, Dr. Shini Somara will help you find your place in the world -- literally! -- with physics. This course is based on introductory college-level material and the 2016 AP Physics I and II curriculum.

Exploring the limitations of common approximations in modeling non-covalent interactions at the nanoscale, revealing complex scaling behaviors and the need for advanced quantum-mechanical methods.

Explore the fascinating phenomenon of black holes and their information-consuming nature with physicist Vijay Balasubramanian in this engaging lecture on theoretical physics.

The focus of the course is going to be the ideas behind quantum mechanics and its application to simple systems. The course is taught along the lines of development of quantum mechanics so that students get a good feeling about the subject.

Learn about Engineering chemistry starting with Introduction to Chemistry & Quantum Chemical Methods and explore Oppenheimer Approximation, etc. in this course.

Explore quantum-inspired algorithms and Azure Quantum optimization service for solving complex problems. Learn to implement QIO techniques, see practical demos, and understand the potential of this cutting-edge technology.

Explore advanced quantum mechanics concepts, from mathematical formalism to applications in quantum computing, NMR, and scattering theory. Gain insights into approximation methods and quantum dynamics.

Explore quantum algorithms for Hamiltonian simulation, their applications in chemistry and condensed matter systems, and their impact on solving linear systems and semidefinite programming.

Explore precision measurements and quantum metrology, covering theory, estimation, atomic and optical physics techniques, and applications using atoms, photons, and NV-centers.

Explore the origins and principles of quantum computing, from Einstein and Bohr's debates to its future applications, in this mind-bending journey through scientific history.

Explore nuclear and particle physics, from atomic nuclei to elementary particles. Learn about radioactive decay, particle accelerators, quantum electrodynamics, and the electroweak theory.

Explore position and momentum operators in quantum mechanics, delving into advanced mathematics and key concepts like the Heisenberg Uncertainty Principle and Wave-Particle Duality.

Comprehensive exploration of quantum mechanics principles, from foundational concepts to advanced topics, suitable for various physics exams and university-level study.

Explore quantum computing fundamentals, algorithms, and implementations. Learn about teleportation, cryptography, NMR, lasers, ion traps, and future developments in this cutting-edge field.

Explore conformational energy and molecular mechanics in organic chemistry, focusing on cyclohexane structures, conformational relationships, and energy estimation techniques.

Explore quantum mechanics fundamentals: double-slit experiment, wave-particle duality, photoelectric effect, and uncertainty principle. Gain insights into the revolutionary concepts that reshaped our understanding of physics.

Explore quantum mechanics in organic chemistry, from probability density to hybrid orbitals, and the challenges of describing multi-electron systems using one-electron models.

Explore wave functions, their relationship to kinetic energy and probability density, and how they apply to various potentials. Learn about the isotope effect on bond properties in organic chemistry.

Explore nucleophiles, leaving groups, and SN2 reactions in organic chemistry. Learn about bridgehead substitution, converting poor leaving groups, and applications in PET scanning and medical imaging.

Explore black hole physics and its role in reconciling quantum mechanics with general relativity. Delve into Stephen Hawking's contributions and the future of unified physics theories.