
Explore advancements in agent-based modeling for cancer research, examining current progress and future directions in simulating cancer hallmarks and their interactions.

Explore MGMT dynamics in glioblastoma through mathematical modeling, examining methylation status and phenotypic selection in cell death resistance.

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

Explore causal model identifiability, structure learning, and applications to Perturb-seq data. Delve into interventions, latent variables, and causal disentanglement for advancing AI in drug discovery.

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

Explore image-based mathematical modeling for predictive oncology. Gain insights into cutting-edge techniques for cancer prognosis and treatment planning with Dr. Tom Yankeelov.

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

Explore evolutionary game theory and allometric scaling to model nonlinear relationships between variables, overcoming limitations of linear regression for complex systems analysis.

Explore probabilistic programming for continuous-time systems using ProPPA, an extension of Bio-PEPA. Learn parameter inference methods and applications in biology, ecology, and urban transport.

Explore how supercomputing and biology integration revolutionizes disease research, breaking linear thinking to uncover complex pathways and innovative treatments.

Neurosurgeon Mark Kotter explores breakthroughs in cell therapy, discussing genetic reprogramming, its potential to revolutionize medicine, and the collaborative effort needed across scientific disciplines to unlock cellular "operating systems."

Explore cancer metastasis through systems biology, focusing on EMT/MET processes, hybrid cell states, and their clinical implications. Gain insights into cellular plasticity and tumor progression mechanisms.

Explore stochastic chemical reaction networks, their examples, definitions, and the deficiency zero theorem in this comprehensive lecture on statistical physics of complex systems.

Exploring key scientific questions in biological physics for the next decade, including organism problem-solving, information processing, and emergence of macroscopic functions in living systems.

Explore super-resolution fluorescence microscopy techniques like STORM and MERFISH, enabling nanoscale imaging of cellular structures and RNA quantification for groundbreaking biological discoveries.

Exploring how arousal dynamics can reconstruct and model diverse brain measurements, integrating neuronal, metabolic, and behavioral data into a unified framework for understanding brain-wide physiology.

Explores models of neuronal connectivity in respiratory brainstem, focusing on synchronized bursting activity and network architecture insights using multi-state bootstrap percolation.

Explore the potential of connectome analysis in neuroscience with Gwyneth Card, discussing its applications, limitations, and future directions in understanding brain function and behavior.

Explore biological network dynamics and design, focusing on specific case studies. Gain insights into complex systems and their applications in theoretical approaches to cancer research.

Explore systems analysis of temozolomide response in glioblastoma, uncovering insights into cancer treatment through advanced modeling and data interpretation techniques.