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jimmylabs

Research lab · Autonomous discovery

The scientific method,run autonomously.

jimmylabs’ research arm. We’re building an autonomous discovery system that runs the research loop like a scientist — read, hypothesize, test, learn, repeat — getting smarter each cycle, and self-hosted so sensitive data never leaves your walls.

Every cycle starts better-informed than the last.

Tell us about your research

This is where we do our own research — active work in progress, not a product you can buy yet. Every direction below is honest about how far it has actually gotten.

The bottleneck

Discovery moves only as fast as the hypothesize → test → learn loop turns. A human drives every step — so it turns slowly, and each cycle starts cold.

We compress the loop

Thousands of hypotheses tested in parallel, narrowed to the few that hold. Months of work in days.

We make it compound

Every finding feeds the next, so each cycle starts smarter than the last — never from scratch.

How it works

You set the question. The platform runs the rest itself — reading the field, fanning out hypotheses in bulk, pruning them against evidence, folding every result back into what it knows. Below, one turn of the cycle.

COMPOUNDS EACH CYCLEREADHYPOTHESIZETESTLEARNDISCOVER

The discovery loop

The design is simple: you set the goal, it runs the loop around the clock, and every validated discovery comes back with the evidence behind it. That’s what we’re building toward — and pressure-testing honestly at each step.

01.Read

Reads the literature — more than any lab could — mapping what is known and where the questions lie.

02.Hypothesize

Forms hypotheses worth testing — thousands at once, not the handful a human has time for.

03.Test

Every promising hypothesis is tested. Most are ruled out; the few that hold up earn their place.

04.Learn

Each result feeds back in. The next round builds on everything it has learned — compounding, not resetting.

Inside your walls

Built to be self-hosted. The whole platform runs in your environment — no outside services required, fully air-gappable.

Self-hosted by design

Everything runs on your infrastructure. Your data, hypotheses, and discoveries never leave it.

No outside dependencies

No mandatory third-party services or cloud calls. Runs completely air-gapped.

Built for sensitive work

For pharma labs and universities, where embargoed results and proprietary methods stay inside.

Discoveries

What the loop turns up — grounded, cited, and honest about its limits.

01

The AI-attack boundary in lattice cryptography

Machine learning already cracks simplified post-quantum encryption in easy cases. Nobody has mapped where “easy” ends. We are drawing the line.

Explore the discovery
02

When can you trust a surrogate?

Closed-loop materials discovery lives or dies on the surrogate model steering it — yet the literature keeps warning that surrogates fail silently off-distribution. Nobody has mapped the data budget where surrogate-guided search stops beating brute-force experimentation.

We are mapping that boundary with calibrated uncertainty, spending expensive experiments only where they sharpen it.

Open direction
03

Can an AI scientist grade its own homework?

The field’s own audits list the ways agentic discovery fools itself: cherry-picked benchmarks, data leakage, metric misuse, post-hoc selection. Nobody has measured how many machine “discoveries” survive honest re-examination.

We are benchmarking how many survive an honesty harness — pre-registration, false-discovery-rate control, and replication — built into the loop, not bolted on.

Open direction
04

Can a machine propose what next year’s science confirms?

Freeze the literature at year N, ask the system for hypotheses, then open year N+1 and score which ones the field went on to confirm. Markets have backtesting; hypothesis generation has almost none — and contamination makes naive attempts worthless.

We are building the contamination-controlled backtest: date-partitioned corpora, grounded proposals, and scoring against what was actually published next.

Open direction
05

The math holds. Does the implementation?

Post-quantum lattice schemes resist quantum attacks on paper — but real implementations leak through power and timing, and deep-learning side-channel analysis already pulls keys from hardened lattice code in the lab. How far AI can push that leakage is unmapped.

We are measuring the implementation margin: benchmarking AI-driven side-channel analysis against hardened lattice code — the boundary our own security practice stands behind.

Open direction

Curious whether it fits your research?

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Research lab · Autonomous discovery — jimmylabs