Agentic engineering under a real research bar

Open benchmarks for agents that design, simulate, and defend engineering claims

A score is not a discovery

An agent can rank thousands of candidate designs. That is not enough to make a scientific result. The harder task is deciding what survives when the model, the mechanism, and the evidence are challenged.

I am building open benchmarks that put agents inside that harder loop. Each benchmark begins with an unresolved engineering problem and a physical oracle. The agent has to state a mechanism before spending compute, choose experiments under a finite budget, retain failed hypotheses, and deliver a replication script. A critic can still refuse the claim.

Animated finite-element simulation of a rocking-mast metamaterial coiling under compression

A rocking-mast candidate coils as its top ring descends and rotates. This is an actual simulation from the benchmark record.

5.9× is not the answer

The current numerical leader reaches 5.9 times the Bessa baseline. It is deliberately not recorded as the benchmark answer: it reshapes a known cross-section family instead of supplying the new mechanism the problem asks for. The benchmark keeps that distinction explicit: a large simulated number is progress, not yet a discovery.

A hard problem, with a hard oracle

The first benchmark asks for a printable rocking-mast metamaterial that coils under axial compression rather than crushing. The target is not merely a higher buckling load. A design must coil through 80% compression, remain below a 2% local-strain ceiling, be physically credible as a printed object, and clear twice the Bessa baseline through a genuinely new mechanism.

That makes it a useful test of agentic research. A system cannot get credit by optimizing inside a known family, by finding a numerical artefact, or by skipping the expensive check that could disqualify its own headline result.

Evidence, including the failures

These benchmarks cover supercompressible materials, bioreactor design, and fluid–structure interaction. The oracles range from Abaqus jobs on SLURM to two-phase DNS and Julia solvers. A run leaves a record of its hypothesis, simulation ledger, critic verdict, and replication script. The metamaterial study already preserves sixteen runs and roughly forty-nine ideas, including promising results later rejected by a stronger mechanical check.

The point is not to make an agent look busy. It is to make a scientific claim auditable: another group should be able to replay the evidence, inspect why an idea was retired, and decide whether the stated mechanism earned the result.