
Explore the intricacies of fractional quantum Hall effect in multicomponent systems, covering both established and emerging concepts in quantum physics.

Explore quantum metrology and metastability in input-output systems, focusing on parameter estimation, continuous measurements, and precision limits for open quantum dynamics.

Explore supersymmetry's mathematical origins and applications, from Atiyah-Singer formula to Jacobi-Poisson and Selberg trace formulas, in this advanced mathematics colloquium.

Explore supersymmetry's mathematical origins and applications, from Atiyah-Singer formula to Jacobi-Poisson and Selberg trace formulas, in this advanced mathematics colloquium.

Explore atomistic simulations using Amsterdam Modeling Suite. Learn about AMS driver, DFT engines, force fields, and PARAMS for novel molecular interactions. Gain insights through demos and practical applications.

Explore classical and quantum atomic modeling using MIT's toolkit. Perform molecular dynamics, Monte Carlo simulations, and quantum chemistry computations. Learn practical applications for various physics and chemistry courses.

Explore Density Functional Theory fundamentals and applications using Quantum Espresso on nanoHUB. Learn to compute electronic structures, densities of state, total energies, and bulk modulus for materials.

Explore condensed matter physics through simulations and research experiences using the MIT Atomic-Scale Modeling Toolkit. Learn about covalent bonding, bandstructure, phonons, and magnetic phase transitions.

Explore interactive modeling of materials using density functional theory with Quantum ESPRESSO in the MIT Atomic-Scale Modeling Toolkit. Learn to compute and analyze various material properties through hands-on examples.

Explore density functional theory, data visualization, and undergraduate research experiences using the MIT Atomic-Scale Modeling Toolkit for modern physics and condensed matter studies.

Explore quantum computing algorithms for calculating scattering matrix elements in chemical reactions, focusing on the Møller operator formulation and its application to hydrogen exchange.

Explore quantum energy teleportation and its experimental demonstration using nuclear magnetic resonance. Discover how entanglement enables energy extraction from vacuum fluctuations.

Explore metamaterials for efficient broadband light absorption and their applications in optical sensors, imaging, and quantum communication.

Explore quantum spin and magnetic skyrmions through neutron beam research, uncovering new pathways to rearrange topologically stable formations in disordered materials.

Explore nanomaterial properties, from structural color to quantum effects. Discover applications in medicine, adhesives, and computing. Learn about surface area, viscosity, and fabrication techniques in nanotechnology.

Explore electronic structure methods in chemistry using nanoHUB simulation tools. Learn to teach computational chemistry concepts and gain hands-on practice with Hartree-Fock and basis sets using ORCA.

Explore computational chemistry using NUITNS toolkit on nanoHUB. Learn to integrate simulations in undergraduate chemistry courses and analyze nanodiamonds through hands-on demonstrations and practical applications.

Explore quantum chemistry simulations using quantum computers, focusing on strongly correlated systems, digital-analog toolboxes, and extracting spectral properties for practical applications.

Explore cutting-edge developments in deployable quantum sensors and their potential applications in real-world scenarios.

Explore the intricacies of AdS/CFT correspondence in this advanced physics lecture, delving into the relationship between anti-de Sitter space and conformal field theory.

Explore advanced concepts in superstring theory, including quantum field theory applications and mathematical foundations, in this comprehensive lecture by Oliver Schlotterer.