
Explore couplings of Brownian motions on SU2 and C, delving into advanced mathematical concepts and their applications in stochastic processes.

Explore current fluctuations in noninteracting run-and-tumble particles, focusing on flux distribution through origin and anomalous large-deviation form in active particles.

Explore Brownian motion on two-landmark configurations, examining long-term existence and geometric implications in this advanced mathematical analysis.

Explore entropy production fluctuations in active matter systems, their connection to collective behavior, and methods to control dissipation and phase transitions.

Explore universal exponential tails in diffusing particle packets, extending large deviation theory for continuous time random walks and uncovering general behaviors in transport phenomena.

Explore Engineered Swift Equilibration (ESE) applications in physics, including particle compression, first passage time optimization, and atomic force microscopy enhancements.

Explore phase transitions in Brownian spin models, examining continuous transitions in Potts models and BKT transitions in clock models. Analyze numerical simulations and discuss extensions to active particles.

Explore Brownian motion near interfaces using experimental, theoretical, and numerical methods. Analyze microparticle trajectories, probability densities, and non-Gaussian behavior to infer nanoscale properties.

Explore the dynamics of active particles at high densities in this advanced physics lecture by Thomas Voigtmann from the ESI's thematic programme.

Explore the groundbreaking reverse Minkowski theorem and its applications in complexity theory, cryptography, and algorithms, building on fundamental concepts in geometry of numbers.