
Explores innovative approaches combining physical principles and machine learning for stochastic modeling and ensemble prediction in weather and climate systems, addressing challenges in multi-scale processes and future projections.

Explores data-driven subgrid-scale modeling in climate science, focusing on stability, extrapolation, and interpretation. Discusses advancements in theoretical understanding and the potential of machine learning to address complex climate processes.

Explores universal aspects of non-equilibrium many-body physics, focusing on novel phases and universality classes beyond equilibrium paradigms. Bridges statistical, AMO, condensed matter, and high-energy physics.

Explores nonreciprocity in many-body physics, focusing on traveling and oscillatory states. Discusses universal aspects of non-equilibrium systems across various fields of physics.

Explores recent advances in integrable models, focusing on quantization as affine Gaudin models. Covers topics from mathematical physics, condensed matter, and string theory, offering insights for researchers across various backgrounds.

Explore turbulence and mixing in ocean dynamics, unraveling the complexities of diffusion processes and their impact on climate-scale phenomena. Gain insights into fluid dynamics and its role in shaping our planet's systems.

Explore turbulence in geophysical fluid dynamics, focusing on atmospheric and oceanic processes. Gain insights into complex fluid behaviors and their impact on climate systems.

Efficient ML algorithm predicts ground state properties of quantum systems using geometric locality, requiring minimal data and scaling favorably for large systems.

Explore ML-based theories for glassy dynamics and plasticity, focusing on bottom-up learning approaches in soft matter physics and their applications in designing functional materials.

Explore fundamental concepts of self-learning materials, focusing on bottom-up learning approaches in soft matter physics and their applications in designing mechanical and flow networks.

Explore interannual climate variability and its connection to large-scale ocean circulation. Gain insights into the complex interactions between oceans and climate systems, enhancing understanding of global climate patterns.

Explores convection and turbulence in polar ice-shelf melting, discussing fluid dynamics of oceans and their impact on climate processes. Aimed at students, no prior background required.

Explore climate feedback mechanisms and sensitivity, examining their variable nature and impact on climate modeling and predictions in this insightful lecture by Angshuman Modak.

Evaluation of climate models' accuracy in wind speed simulation, focusing on regional and global scales. Insights into model performance and implications for climate predictions.

Explore high-latitude climate variability and its impact on large-scale ocean circulation, examining the intricate relationship between oceanic processes and global climate systems.

Explore ocean climate modeling fundamentals, including fluid dynamics, turbulence, and convection. Learn about their impact on climate processes and monsoon dynamics.

Explore climate systems, energy balance, and climate models in this comprehensive lecture on climate change, offering insights into atmospheric and oceanic processes.

Explores convection and turbulence in ocean circulation, focusing on their impact and modeling techniques. Discusses fluid dynamics and its influence on climate processes.

Explore external factors influencing the Indian Summer Monsoon, including climate dynamics, atmospheric processes, and potential impacts on regional weather patterns and precipitation.

Explore simple models of monsoon variability, examining key factors influencing seasonal weather patterns and their impact on climate dynamics in this insightful lecture.

Explore deep ocean convection and overturning circulation, their impact on large-scale ocean dynamics, and their crucial role in regulating global climate patterns.