Analogical generation · prediction · active learning

Molecules your library already argues for, with the precedent behind each one.

Rules are mined from your own compounds, including combinations your library implies but has not tested. They build candidates from molecules you choose, and every predicted value is carried across from measured cases. What you run returns as precedent for the next pass.

The shape of an analogy
A::B

Two things, or two changes — the transfer is the same move.

An analogy is a transfer: what your library has already resolved, carried onto a question it has not. The rules are mined as analogies, the molecules built by applying them, the predictions carried across.

LIBRARY RULES GENERATE PREDICT EXPERIMENT EACH TURN more precedent

Stage one · rules

The rules come out of your own library — including ones nobody has tried yet.

Each one arrives with the evidence behind it. Every rule is mined algorithmically from your own data, never carried in from a generic set.

A B A PAIR IN YOUR LIBRARY A → B THE RULE
  1. Demonstrated. A change your compounds have already made, with the evidence behind it and how consistently it held.
  2. Implied. A change your data supports but nobody has made — related options your compounds have each used, never against each other.

Stage two · generation

Those rules then build new candidates from molecules you choose.

Every candidate carries the analogy that produced it.

C SEED D CANDIDATE A → B THE RULE
What travels with a candidate

The rule behind it, the molecule it started from, the evidence for both, and whether the edit was checked by chemistry or carried by precedent alone.

Why it matters to the loop

A chemist can disagree with a candidate for a reason, and name it. The loop only compounds if each turn can be audited, so the reasoning travels with the molecule.

Stage three · prediction

Each candidate is scored against the measured compounds its rule came from.

Ranking needs numbers, and ours are carried from precedent: what a measured case already tells you, applied to the change in question.

That is also what makes the hard cases tractable. A smooth model interpolates across an activity cliff and flattens it; carrying a measured change across transfers the jump from a case that already crossed it.

measured truth smooth model activity cliff counterfactual leap structure →

Stage four · acquisition and return

You run the candidates worth testing, and their results become the next round of precedent.

They are ranked for acquisition, not only for score: which experiments buy the most for the next turn.

The library is read again, over data it did not have before. New rules appear, and implied changes become demonstrated, carrying a number for the first time.

Real output

Three kinase targets, run end to end.

A change found in each library, shown as two compounds that were made and measured. Then the molecules built from that same change, each carrying a value from precedent and the model’s own prediction.

See real output

Every experiment deepens a library of analogies nobody else holds, and that is what makes the next pass better.

Neopoly Ltd  ·  2026
Request a demo