AlphaFold and the protein folding revolution
How deep learning solved a 50-year-old grand challenge in biology.
Read article →AI is changing biology by turning messy, high-dimensional data into models that can predict, compress, and generate hypotheses—from molecules to cells to brains. This hub tracks what works, what's uncertain, and what the evidence actually supports.
Models that predict molecular structures, cellular states, and clinical outcomes.
Learning efficient representations of complex biological systems.
AI systems that design proteins, suggest experiments, and form hypotheses.
Each format serves a different purpose in navigating this complex intersection.
What a model was trained on, what it predicts, and its known failure modes.
Structure, biases, access constraints, and reuse tips for key datasets.
What changed since last year, and what still fails in real-world deployment.
Does the result hold across labs, datasets, and real-world conditions?
How deep learning solved a 50-year-old grand challenge in biology.
Read article →Documenting training data, intended use, and known limitations.
Read article →Understanding preprocessing, integration, and cell type annotation.
Read article →Where generative models succeed, struggle, and what comes next.
Read article →AI in biology moves fast. We label what is well-supported by evidence versus what is promising but unproven. We document training data, evaluation benchmarks, and known failure modes. We distinguish hype from what's actually deployed.
If you're interested in AI and biology, you may also find our Quantum ↔ Cosmic hub compelling—a deep dive into the physics of reality across scales.
Visit Quantum ↔ Cosmic