#17 · ML / AI methods
Interpretable models expose folding, concept, and rewiring structure in biology
The dominant thread is making learned models of biological systems structurally interpretable. A sparse autoencoder analysis of ESMFold's folding trunk separates the roles of single and pair representations and traces concept features to fold quality. CUTTIE clusters neural network units into a tree and localizes predictive concepts through top-down conditional independence tests with family-wise error control. Co$^2$ODE learns sparse neural or symbolic ODEs with a conditional mask and VAE closure to capture context-dependent rewiring in biochemical networks. What is new is attention to mechanism-level structure, whether internal features of a protein language model, units of a general neural network, or the parameters of a biochemical ODE. The three items address distinct problems and methods, so the shared element is interpretability tied to biological mechanism rather than a common technique.
Preprints
Structure, Not Sequence: Tracking and Validating Folding Mechanisms in ESMFold's Trunk with Sparse Autoencoders
Interprets ESMFold's folding trunk with sparse autoencoders, showing single vs pair representations divide labor and tracing concept features to fold quality…
Localizing predictive concepts encoded in neural representations via hierarchical testing
CUTTIE clusters neural network units into a tree and tests clusters top-down with conditional independence tests, controlling family-wise error to localize…
Co$^2$ODE: Conditionally Coarse-Grained Model Discovery for Rewiring in Biochemical Networks
Co$^2$ODE learns sparse neural or symbolic ODEs with a conditional mask and VAE closure for context-dependent rewiring in biochemical networks, applied to…
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