
Explore the transition between fractional and normal diffusion in kinetic models, examining mathematical principles and applications in complex systems.

Explore kinetic modeling of myxobacteria colonies, examining cell-cell interactions and emergent behaviors through Boltzmann-type equations, mathematical analysis, and numerical simulations.

Explore models of active matter systems, focusing on motility-induced phase separation in self-propelled particles and the resulting macroscopic PDEs.

Explore instabilities and geometry in growing epithelial tissues, focusing on key concepts and recent research findings in this fascinating field of biophysics.

Explore rheological models with delay and viscous friction in morphogenesis, analyzing stability and oscillations in embryonic tissues, particularly in Drosophila CNS development.

Explore mathematical modeling of tumor growth with convective effects, focusing on the incompressible limit and its connection to free-boundary problems.

Explore range dynamics of spatially structured populations, considering spatial propagation and evolutionary dynamics in heterogeneous environments.

Explore genetic composition in biparental populations using a Moran model. Analyze ancestral genome proportions and their convergence as population size increases.

Explore Hamilton-Jacobi equations in quantitative genetics, bridging stochastic individual-based models and phenotypic density analysis through asymptotic derivations and population dynamics.

Explore complex spatial topology's impact on evolutionary dynamics, examining mode and tempo in diverse environments.

Explore nonlocal reaction-diffusion equations modeling adaptation dynamics in multi-patch environments. Analyze persistence, extinction, and the impact of migration and host addition on fitness.

Explore a novel methodology combining major locus and quantitative background effects in migration-selection balance, revealing complex genetic architecture patterns and unexpected polymorphism loss.

Explore a neural mass model examining abnormal beta-rebound in schizophrenia, presented by experts from the University of Nottingham at Institut Henri Poincaré.

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

Explore Fokker-Planck equations in neuron networks, focusing on time periodic solutions and their implications for neural dynamics.

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

Explore noise-driven bifurcations in neural field systems, focusing on grid cell network modeling and their implications for spatial navigation.

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

Explore propagation of chaos and Poisson hypothesis in replica mean-field models, delving into advanced statistical physics concepts.

Explore metastable spiking networks in the replica-mean-field limit, focusing on advanced concepts in neural dynamics and statistical physics.

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