Explores the physics of genetic and cellular systems, focusing on fragility, negative feedback loops, and sensory motor networks in the C. elegans brain.
Delves into synthetic biology, assembling molecular components for biological functions in living cells, including gene expression control and engineered receptor signaling.
Explores computer simulations in cell biology, focusing on Molecular Dynamics and Monte Carlo, to gain insights into complex biological systems and their limitations.
Explores the application of control theory to manage protein aggregation processes, focusing on amyloid fibers and their implications in various diseases.
Covers techniques for mapping protein-protein interactions, including affinity purification, proximity labeling, and co-fractionation, emphasizing their applications in neuroscience.
Delves into synthetic biology, de novo protein design, and feedback control in biological circuits, emphasizing the importance of understanding system behavior.