
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.

Innovative theory on sand dune formation based on geometric principles, explaining bedform development through surface-to-volume ratios and bed shortening, with validated predictions of dune migration rates.

Explore cutting-edge physics research with Prof. David Marshall in this engaging virtual seminar, part of the APS Physics GPC series.

Explore the unique characteristics of black holes discovered by the Gaia mission in this insightful seminar, uncovering their significance in astrophysics.

Explore integrable vertex models, their applications to random growth and particle systems, and connections to random tilings and symmetric functions in this advanced mathematics lecture.

Explore discrete integrable systems with Sanjay Ramassamy, covering fundamental concepts and applications in geometry and statistical mechanics. Gain insights into this advanced mathematical field.

Explore integrable vertex models, their applications in random growth and particle systems, and connections to random tilings and symmetric functions in this advanced mathematics lecture.

Explore the future of astronomy with innovative telescope designs, from massive ground-based observatories to space-based instruments, revolutionizing our view of the universe.

Explore s-embeddings and discrete maximal Lorentz surfaces in this advanced mathematics talk, focusing on isothermic surfaces, mean curvature, and associated families in discrete geometry.

Explore dimer models on Riemann surfaces, height function convergence, and connections to compactified free fields. Gain insights into probabilistic methods and discrete complex analysis in statistical mechanics.

Explore local weak convergence in random constraint satisfaction problems with Princeton's Allan Sly, delving into advanced statistical mechanics concepts beyond two dimensions.

Explore advanced theoretical concepts in sciences through expert lectures by Wilhelmus van der Hoorn and Piyush Srivastava, offering insights into cutting-edge research and developments.

Explore Pfaffian relations in spin models, focusing on Ising models on planar graphs and their correlation functions. Discover insights into ferromagnetic spin models and graph simplifications.

Explores analytical techniques for proving localization in quantum systems, focusing on many-body dynamics, stability, and non-equilibrium physics in coherent quantum matter.

Explore anomalous diffusive fluctuations in low-dimensional quantum systems, examining mechanisms constraining many-body dynamics and their implications for novel quantum matter phases.

Explore relaxation dynamics in disordered quantum systems with on-site dephasing, focusing on imbalance in the XX model and its implications for many-body localization and quantum stability.

Explore the concept of time crystals, a novel phase of matter with periodic motion in their ground state, and their implications for quantum physics and potential applications.

Explores time evolution in quantum systems, focusing on information lattices and entropy growth in l-bit models. Discusses implications for many-body quantum dynamics and stability.

Explore localization and edge modes in open quantum systems, focusing on stability mechanisms and their implications for quantum matter behavior in non-equilibrium physics.

Explore quantum many-body systems under coherent time evolution, focusing on stability mechanisms, non-equilibrium physics, and novel phases of quantum matter. Insights for quantum device operation and control.

Explore emergent strong zero modes in quantum systems through local Floquet engineering. Discover mechanisms for constraining many-body dynamics and their implications for novel quantum matter phases.