
Explore Koopmans functionals in Quantum ESPRESSO, focusing on practical applications and advanced techniques for electronic structure calculations.

Explore first-principles Hubbard parameter calculations in quantum materials, focusing on chromium oxide and practical applications in advanced quantum simulations.

Explore phonons and electron-phonon coupling using DFPT+U in Quantum ESPRESSO, focusing on advanced techniques for Hubbard and Koopmans functionals.

Explore DFT+U and DFT+U+V methodologies in Quantum ESPRESSO through hands-on exercises, enhancing understanding of Hubbard-corrected density functional theory.

Learn advanced techniques for accelerating Hubbard parameter calculations in Quantum ESPRESSO using machine learning, with a focus on linear response methods and transferability.

Explore polariton condensates in 2D Dirac materials, examining symmetry, topology, and phase transitions. Uncover rich physics arising from electron-photon coupling and Coulomb interactions.

Explore strong light-matter coupling in 2D semiconductors, focusing on chalcogenides and perovskites. Discover tailored light-dispersion in hybrid multilayers and potential applications in optoelectronics and photonics.

Explore coral skeleton formation, examining the balance between environmental influences and internal physiological regulation. Gain insights into coral reef builders and deep-sea inhabitants.

Explore the scientific foundations and clinical uses of placental and dermal tissue in wound care, gaining insights into innovative treatment approaches and their potential benefits.

Explore materials data science for reliability prediction, focusing on degradation mechanisms and stressors in complex systems like PV modules. Learn FAIRification and modeling techniques for lifetime forecasting.

Explore contact forces, spring mechanics, and material properties. Dive into normal force, ball-spring models, Young's modulus, and buoyancy concepts.

Explore the relationship between Young's modulus and interatomic spring constant, understanding material properties at the atomic level.

Explore copper's properties to determine its interatomic spring constant using Young's Modulus and wire characteristics.

Explore active nematics and mechanobiology with Julia M Yeomans, delving into cutting-edge research in active matter physics and its biological applications.

Explore IrTe2's unique layered structure, dimer formation, and striped ordering. Analyze energy dynamics, phonon shifts, and strain textures to understand its intriguing phase transitions.

Explore the history and impact of AI in protein structure prediction, focusing on AlphaFold 2's breakthrough and its implications for structural and cell biology research.

Explore cutting-edge gene editing using Spherical Nucleic Acids. Learn how these nanomaterials enhance drug delivery, overcome biological barriers, and revolutionize diagnostics and therapeutics in disease treatment.

Explore corrosion mechanisms and evaluation techniques with expert Mohammed Al-Jawhar. Gain insights into prevention strategies and assessment methods for effective material protection.

Explore confinement mechanisms in bilayer graphene nanostructures, comparing trivial and topological approaches for quantum dots and rings.

Explore self-driving laboratories revolutionizing scientific discovery through AI and automation. Learn about cutting-edge applications, key elements, and opportunities in chemistry, materials science, and biotechnology.

Explore genomic advances in silk research using high fidelity long-read sequencing. Uncover hidden variations in silk genes across insects and spiders, revolutionizing our understanding of this remarkable biomaterial.