L'aventure des Quasicristaux - La Découverte et l'Évolution d'une Nouvelle Structure Cristalline
Plongez dans l'univers fascinant des quasicristaux, explorant leur découverte, leurs propriétés uniques et leur impact révolutionnaire sur la cristallographie et la physique de la matière.
Constructing Realistic Low-Energy Effective Models of Materials
Explore techniques for constructing realistic low-energy effective models of materials, enhancing understanding of condensed matter theory.
Revolução de Eletrônica: O Caminho da Lei de Ohm ao Domínio Nanoscópio
Explore a evolução da eletrônica, desde a lei de Ohm até a nanoescala, com foco na revolução tecnológica e seus impactos na física moderna.
Interdiffusion in Solids
Zgłęb zjawisko interdyfuzji w ciałach stałych, analizując procesy i mechanizmy transportu masy w materiałach.
How Semiconductors Work: A Detailed Look at Materials and Diodes
Explore the fascinating world of semiconductor materials and diodes, delving into their intricate workings and fundamental principles.
Direct and Indirect Bandgap Semiconductors
Explore direct and indirect bandgap semiconductors, understanding their fundamental differences and applications in electronic devices.
Introduction to Semiconductor Devices
Explore fundamental concepts and principles of semiconductor devices, gaining essential knowledge for electronic engineering applications.
Understanding Silicon for CMOS Transistor Design - Lecture 1.1
Explore silicon's material benefits and doping concentration labeling for CMOS transistor design.
Effective Mass in Semiconductors - Lecture 2.1
Explore the concept of effective mass in semiconductors and its significance in understanding electronic properties and behavior.
Disordered Systems and Related Spectra - Rothschild Lecture
Explore disordered systems and spectral theory, focusing on Schrodinger operators with random potential and large random matrices.
Band Structure Transformation of the Avoided Crossing Type in Impure Graphene
Explore the band structure transformations in impure graphene, focusing on avoided crossing phenomena and their implications for theoretical physics.
Mode-Resolved Phonon Scattering Spectroscopy - Theory and Experiments by Naveenath Krishanan
Explore phonon scattering spectroscopy, from theory to experiments. Discover non-equilibrium heat conduction, quasiballistic transport, and surface scattering in thin films. Gain insights into cutting-edge thermal conductivity research.
Metamaterials and Topological Mechanics - Lecture 1
Explore metamaterials and topological mechanics, focusing on engineered structures with unique properties like negative refraction and protected edge states. Learn about applications in optics and elasticity.
X-Ray Scattering - A Journey through Modern Physics
Explore x-ray diffraction to understand atomic structures in solids. Computational modeling demonstrates this key concept in modern physics, revolutionizing our understanding of materials.
Topological Gapped Phases in Twisted Bilayer Systems - Emil Prodan
Explore topological gapped phases in twisted bilayers through mass-spring systems, revealing Hofstadter-like spectra and novel quantized effects in non-commutative geometry.
Playing Lego with Layered Materials - Physics Matters Colloquium
Explore the fascinating world of 2D materials, from graphene to pillared structures. Learn about their production, electronic properties, and applications in gas storage, catalysis, and biomedicine.
Teaching and Learning with the MIT Atomic Scale Modeling Toolkit - Classical and Quantum Atomic Modeling
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.
Condensed Matter Physics Class and Research Experience with MIT Atomic-Scale Modeling Toolkit
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.
Interactive Modeling of Materials with DFT Using Quantum ESPRESSO - MIT Atomic Scale Toolkit
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.
Phonons in Moiré Materials
Explore phonon behavior in Moiré materials, examining their unique properties and implications for quantum physics in engineered 2D structures.
Reimagining Condensed Matter Physics in Two-Dimensional Materials
Explore groundbreaking research on two-dimensional materials and their impact on condensed matter physics with expert Erez Berg, uncovering new perspectives and potential applications in this cutting-edge field.