
Explore empiricism, natural theology, and evolutionary concepts in ancient Indian scientific thought, gaining insights into historical perspectives on science.

Explore mathematical models of acute myeloid leukemia's clonal dynamics to understand tumor heterogeneity using a model-based approach.

Explore mathematical models for personalized medicine, focusing on glioblastoma and immunotherapy. Learn how these tools aid in optimizing individual cancer treatments and predicting tumor evolution.

Explore mathematical models for metastasis development, including spontaneous spread, tumor interactions, and therapy effects. Gain insights into predictive tools for personalized oncology.

Explore a deterministic model of single-cell migration using fluid dynamics and molecular interactions. Analyze static and motile behaviors through mathematical and numerical approaches.

Explore mathematical modeling of microtubule-targeted agents in cancer cell migration. Gain insights into anti-migratory effects and potential therapeutic applications through fluid-based simulations.

Explore homogenization in time-reversed spine processes for branching processes approximating PDEs at stationarity, with focus on biological applications.

Explore front initiation mechanisms in continuous neural fields, examining mathematical models and their applications in neuroscience and cognitive science.

Explore graph rules and topological insights for inhibitory network dynamics, uncovering mathematical principles behind neural networks.

Explore marked point process modeling and estimation techniques for analyzing neural data, focusing on advanced statistical approaches in neuroscience research.

Explore mathematical models of electroporation, focusing on medical data validation. Learn to evaluate treatments using numerical simulations and data assimilation strategies.

Explore a mathematical model of immune cell-tumor interactions using PDEs, examining growth control, equilibrium states, and potential applications in immunotherapy design.

Explore the reduction of a 2D continuum model for cell motility to an active curve dynamics, focusing on lamellipodium mechanics and actin network behavior.

Explore how varying turning rates in kinetic transport equations model cell movement in heterogeneous environments, leading to persistent migration and enhanced diffusion.

Explore firefly synchronization as a model for complex network dynamics, from simple systems to mobile oscillators in this insightful presentation.

Explore deterministic mathematical modeling in quantitative ecology with Roberto Kraenkel. Gain insights into advanced ecological concepts and analytical techniques.

Explore deterministic mathematical modeling in ecology with Roberto Kraenkel. Learn advanced techniques for quantitative analysis of ecological systems.

Explore statistical models for linking ecological data to theory in this advanced quantitative ecology lecture by Paula Lemos Costa from the University of Chicago.

Explore deterministic mathematical modeling in quantitative ecology with Roberto Kraenkel. Learn advanced techniques for analyzing ecological systems and predicting outcomes.

Explore statistical models linking data to theory, focusing on geometric models, differential equations, and Gaussian processes. Learn to integrate theory with real-world ecological data.

Explore statistical models linking data to theory in quantitative ecology. Learn from expert Diogo Melo about advanced techniques for analyzing ecological data and developing robust theoretical frameworks.