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This arXiv preprint tests whether LLM-generated edits and repeated reflective feedback improve protein-fitness prediction under a realistic label budget. The headline comparison finds no detectable advantage over random edits, so the paper's main claim is restrained: LLM model editing helps in exploratory ablations, but the value of recursive reflection is unproven. For readers building agentic lab-in-the-loop systems, the useful takeaway is that gains from individual components need separate testing, not an assumption that the full loop works.
Source coveringarXiv

Does reflective LLM feedback survive a wet-lab-scale label budget?

arXiv2 min read

arXiv:2611.01908v1 Announce Type: new Abstract: Can reflective language-model feedback improve a biological predictor when each cycle buys only one plate of labels? We separate three possible sources of benefit: proposing model edits, choosing measurements, and revising decisions through repeated feedback. We replay $36$ ProteinGym assays, starting with $96$ labels and acquiring $96$ per round for six rounds, with a sealed test set and a shared edit schema. The pre-specified comparison of full LLM control against random edits detects no advantage in test rank correlation ($\Delta z=-0.008$, $95\%$ CI $[-0.034,+0.018]$); equivalence is also unestablished. Exploratory ablations nevertheless identify useful model editing. With random acquisition fixed, LLM edits improve Fisher-transformed test Spearman by $0.043$ over no edits; with acquisition fixed to upper confidence bound, they improve normalized top-variant recovery by $0.023$. LLM acquisition alone does not detectably outperform fixed adaptive rules, and repeated feedback does not detectably outperform one initial recommendation under full control. Thus, the observed gains support constrained specialist editing, while the incremental value of recursive reflection remains unestablished at this label budget.

Title:Does reflective LLM feedback survive a wet-lab-scale label budget?

Abstract:Can reflective language-model feedback improve a biological predictor when each cycle buys only one plate of labels? We separate three possible sources of benefit: proposing model edits, choosing measurements, and revising decisions through repeated feedback. We replay $36$ ProteinGym assays, starting with $96$ labels and acquiring $96$ per round for six rounds, with a sealed test set and a shared edit schema. The pre-specified comparison of full LLM control against random edits detects no advantage in test rank correlation ($\Delta z=-0.008$, $95\%$ CI $[-0.034,+0.018]$); equivalence is also unestablished. Exploratory ablations nevertheless identify useful model editing. With random acquisition fixed, LLM edits improve Fisher-transformed test Spearman by $0.043$ over no edits; with acquisition fixed to upper confidence bound, they improve normalized top-variant recovery by $0.023$. LLM acquisition alone does not detectably outperform fixed adaptive rules, and repeated feedback does not detectably outperform one initial recommendation under full control. Thus, the observed gains support constrained specialist editing, while the incremental value of recursive reflection remains unestablished at this label budget.

Accepted at the NeurIPS 2026 Agentic AI for Biological Discovery Workshop. OpenReview: this https URL

Artificial Intelligence (cs.AI)

arXiv:2611.01908 [cs.AI]

(or arXiv:2611.01908v1 [cs.AI] for this version)

https://doi.org/10.48550/arXiv.2611.01908 Focus to learn more arXiv-issued DOI via DataCite (pending registration)

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Full text under the publisher's open licence · 286 words