
Explore how cohomology classes in single-cell sequencing data can model transient biological processes, using persistent cohomology and differential forms to infer gene expression dynamics.

Explore mathematical models of epigenetic landscapes in cancer and aging, focusing on erosion processes and their implications for disease progression and cellular behavior.

Explore mathematical modeling of glioma regrowth post-resection, focusing on microtube-driven mechanisms and their impact on tumor recurrence and treatment strategies.

Explore Bayesian inference techniques for analyzing dependent population dynamics in coalescent models, focusing on applications in genomics and evolutionary biology.

Explore data-driven modeling techniques for collective cell motility with Prof. Ruth Baker. Gain insights into interdisciplinary approaches in animal ecology and cell biology.

Explore computational topology's role in decoding complex biological systems. Learn how algorithms interpret data from molecular biology, genetics, and medicine, offering unique insights into disease progression and protein structures.

Analyze tumor cell shape heterogeneity using Riemannian elastic metrics for advanced statistical insights in cancer research.

Explore how mathematical modeling aids in combating mosquito-borne diseases and informs effective intervention strategies for global health impact.

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

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

Explore bias-variance theory in protein genotype-to-phenotype mapping, focusing on global inference and local prediction techniques.

Explore the intersection of mathematics and biology, from molecular structures to ecological impact, in this thought-provoking lecture on life's fundamental nature.

Explore virtual cell growth patterns through Lenia, a continuous model presented by Dr. Bert Chan in this Mathematical Oncology seminar.

Explore mathematical approaches to stem cell research, comparing mechanistic modeling with single cell data analysis techniques.

Explore the complexity of atopic dermatitis through an in silico model, uncovering new oscillating behaviors and multistability patterns to enhance understanding and potential treatment strategies.

Explore groundbreaking DNA data storage technology and its potential to revolutionize long-term data archival through the innovative Rosetta Stone initiative for future-proof data preservation and retrieval.

Explore how high-throughput DNA sequencing and pharmacogenomics drive personalized medicine, focusing on the development of ePGA-WB for optimized drug therapy in Western Balkan populations.

Delve into advanced DNA modeling techniques, exploring coarse graining and multiscale approaches for understanding complex molecular structures and interactions at different computational levels.

Explore advanced computational techniques for DNA modeling, focusing on coarse-graining methods and multiscale approaches to understand DNA structure and dynamics at different resolutions.

Dive into the fundamental principles of DNA conformational mechanics, exploring structural dynamics and molecular interactions through theoretical physics perspectives and computational approaches.

Explore the human brain's complexity through big science, team science, and open science approaches, focusing on neocortex understanding and innovative research methods.