Computational genomics
A large part of the work already happens inside software. The difficult boundary is between executing an analysis and knowing whether it answers the biological question.
SCIENCE UNDER AUTOMATION
Browse scientific disciplines and their research demands.
A large part of the work already happens inside software. The difficult boundary is between executing an analysis and knowing whether it answers the biological question.
Removing the laboratory does not make the whole field easy to automate. Choosing a tractable question and finding a useful new description remain distinct from solving a specified problem.
An agent can reason about a protocol while an experiment still depends on instruments, specimens and troubleshooting. Automation becomes more plausible where those physical steps are standardized and connected.
Collecting observations can require access to a changing landscape. Models may accelerate analysis while sampling, local context and the time needed to observe change remain limiting.
82/84 top-1 domains have correct folds
12–24 hours of medium-range skill advantage
Up to 70% faster for length-5 sorting
1.0 mean score in the official export
36/57 targets synthesized in 17 days
Experimental validation of a nominated compound
301 new exoplanets validated from Kepler archive candidates
Six demonstrated task types, including synthesis planning and experimental optimization
524 million synaptic clefts automatically detected and associated
Applied to data from 11,241 catalogued earthquakes
Evaluated on 25 cancer subtyping and pathomics tasks
6.4 vs 5.0 cancers detected per 1,000 screened
Computing turns specifications into software and tests ideas through executable experiments. Problem selection and verification determine how far those workflows can run unaided.
Experiments require working instruments, calibrated measurements and a physical interpretation that survives systematic checks.
Chemistry couples molecular proposals to synthesis, measurement and interpretation. A configured robotic loop can cover much of one experiment.
Biology asks how living systems work across molecules, cells and organisms. An automated assay is one part of establishing a mechanism.
Clinical work connects diagnosis to treatment, follow-up and responses to complications in real patients.
Population health connects observations and forecasts to interventions whose effects must be measured in people.
Earth science combines remote observations, physical samples, models and tests of processes that unfold in space and time.
Engineering must turn requirements into an artifact that performs under physical constraints, including failure conditions.