REINFORCEMENT LEARNING FOR COMPUTATIONAL BIOLOGY

Reinforcement learning for biological discovery.

We’re studying whether reinforcement learning can use feedback to navigate large biological search spaces and prioritize better-supported candidates for further evaluation.

Our first research focus: peptide–MHC binding
Conceptual translucent biomolecular sculpture
CONCEPTUAL BIOMOLECULAR FORM
01 / AN OPEN FIELD OF DISCOVERYSCROLL TO EXPLORE ↓

THE IDEA

Biology is full of possibilities. Finding the right ones is the challenge.

Biological design spaces hold more possibilities than can be measured directly. We want to explore them broadly in computation, learn from feedback, and make better-informed choices about what to evaluate next.

OUR RESEARCH LENS

A smarter way to explore.

We study how adaptive methods can connect a biological question, computational feedback, and careful evaluation.

01

Frame the question

Start with a biological question and define what the available evidence can and cannot tell us.

02

Explore possibilities

Search large candidate spaces in computation and update priorities as new feedback arrives.

03

Learn from feedback

Compare adaptive search with simpler methods while keeping predictions distinct from biological results.

More about our approach

BUILT ON CURIOSITY, GROUNDED IN EVIDENCE

Good questions need good evidence.

Computational ideas are a starting point for discovery. Careful comparisons, reproducible work, and honest limits are how we learn whether an approach is useful.

START A CONVERSATION

Let’s explore what’s possible.

Interested in the intersection of reinforcement learning and biology? We’d like to hear from you.

Get in touch