
Explores instabilities in neural autoregressive models for geophysical flows, discussing challenges and advancements in predicting complex atmospheric and oceanic dynamics using machine learning techniques.

Explore interacting neurons and short-term synaptic facilitation in this comprehensive lecture by experts from renowned French universities.

Explore topological approaches in neuroscience, uncovering insights into brain structure and function through mathematical analysis.

Explore techniques for inferring monosynaptic connections from neuronal spike train cross-correlograms, enhancing understanding of neural network structures.

Explore neural assemblies through a multiple time renewal equation, focusing on the elapsed time model and its implications for understanding brain dynamics.

Explore the complex dynamics of retinal waves, uncovering their non-linear behavior and implications for visual system development.

Explore projection techniques for analyzing complex neurobiological networks, focusing on applications in neuroscience research and computational modeling.

Explore multi-disciplinary approaches to understanding synaptic mechanisms, emphasizing their importance in neuroscience research and potential applications.

Explore metastable systems of spiking neurons and their time averages in this concise neuroscience lecture by Morgan André.

Explore recent findings on mean field theory applied to spiking neuron networks, presented by Romain Veltz from Inria Sophia Antipolis.

Explore spontaneous oscillations in excitatory neural networks through mean field analysis, uncovering insights into complex neuronal dynamics.

Explore neural dynamics and their role in cognitive emergence with MIT's Prof. Earl Miller. Gain insights into cutting-edge neuroscience research and its implications.

Explore cutting-edge brain imaging techniques for advancing neuroscience and AI research with Prof. Zhongming Liu from the University of Michigan.

Explore hippocampal memory, cognition, and sleep's influence in this comprehensive lecture by MIT's Matt Wilson, delving into neuroscience fundamentals.

Explore neuronal assembly sequences in computation, bridging AI, psychology, and neuroscience for insights into higher-level intelligence.

Explore a theory linking hippocampus and prefrontal cortex, examining spatial cognition as a latent sequence for insights into higher-level intelligence.

Explores how brain noise enables probabilistic computation and statistical learning, using the Assembly Model to demonstrate biologically plausible mechanisms for handling uncertainty and making predictions.

Explore the neural mechanisms underlying language acquisition, integrating insights from AI, psychology, and neuroscience to understand higher-level intelligence.

Explore AI applications in neutrino physics, focusing on collective oscillations, fast flavor conversions detection, and asymptotic prediction techniques.

Explore neural assemblies' role in emergent computation and learning, uncovering insights into brain function and artificial intelligence advancements.

Exploring neural mechanisms for visual perception, this talk proposes innovative approaches to building invariant and equivariant representations, bridging neuroscience and AI for improved machine vision and neurobiological understanding.