
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 wave-based characterization techniques including X-ray diffraction, photoelectron spectroscopy, FTIR, and UV-Vis spectroscopy. Gain insights into nanomaterial analysis and practical applications using simulation tools.

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 transmission electron microscopy fundamentals, including microscope components, image formation, sample preparation techniques, and applications in materials science and biology.

Explore transmission electron microscopy's principles, components, and applications in nanotechnology. Learn about electron sources, lenses, aberration correction, and cutting-edge imaging techniques for nanomaterial characterization.

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 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 nanoHUB tools for teaching chemistry, including DDSCAT, QC-Lab, and Nanosphere Optics Lab. Learn about applications in optics, spectroscopy, and molecular modeling from Prof. George Schatz.

Explore advanced techniques for simulating observable signatures of microstructure in black hole imaging, enhancing our understanding of these cosmic phenomena.

Explore emergent phenomena in 2D quantum materials, focusing on heterostructures and their unique electronic, magnetic, and topological properties. Learn about cutting-edge research and applications.

Explore emergent phenomena in 2D quantum materials, focusing on electronic, magnetic, and topological aspects in synthetic structures and heterostructures. Gain insights from experts in physics and materials science.

Explore nonlinear electrical transport in Moiré systems, revealing Fermi surface malleability and its implications for quantum materials and emergent phenomena in 2D structures.

Explore nanoscale materials and interfaces with Professor Mary Ryan, focusing on innovative operando approaches and synchrotron science applications in materials science.

Explore organometallic approaches to surface functionalization, gaining insights into integrated catalysis and fundamental knowledge in this field.

Explore cationic indium catalysis for creating functionalized copolymers from commodity monomers, presented by Prof. Parisa Mehrkhodavandi in this NSF Center webinar.

Explore stress, strain, and Young's modulus concepts for JAMB and WAEC physics exams. Learn mathematical formulas and problem-solving techniques with practical examples.

Explore resistance, resistivity, and conductivity concepts, calculations, and problem-solving techniques for JAMB and WAEC Physics exams.

Explore electromagnetism, electrostatics, and charge behavior in materials. Learn about charging methods and fundamental laws governing electrical phenomena.