
Explore computational approaches to model and analyze biological systems, from network biology to dynamic modeling, with hands-on labs using MATLAB and other tools.

Explore GRouNdGAN for simulating single-cell RNA-seq data and learn about CausalGANs for gene regulatory network analysis and in-silico perturbation experiments.

Explore gene regulatory network rewiring patterns through innovative experimental methods and computational approaches for characterizing effects of perturbations at single-cell level.

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

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

Explore Boolean modeling for biological networks, focusing on cancer progression. Learn theoretical approaches to understand complex biological systems and their applications in cancer research.

Explore gene regulatory network structure and its impact on perturbation effects. Gain insights into simulating and modeling GRNs for improved understanding of gene expression regulation.

Explore gene regulatory networks and individual-specific disruptions, focusing on disease-associated genetic variants and their impact on transcription factor binding and gene expression.

Explore genomics and transcriptomics in heart disease, focusing on regulatory elements, SNPs, and gene networks to enhance understanding of cardiovascular pathogenesis and therapy.

Explore gene regulatory networks and their role in understanding sex differences in health and disease through genomics and systems biology approaches.

Explore statistical mechanics principles applied to gene-regulatory networks, examining their complex interactions and regulatory mechanisms through a physics-based analytical framework.

Explore gene regulatory network inference techniques using bulk and single-cell omic datasets. Learn about integrative approaches, predictive models, and applications in cellular reprogramming and single-cell genomics.