RSP-2026-0002 · Computer ScienceAcceptedv1 · round 1

A Transformer Baseline for Variant Effect Prediction in Non-Coding DNA

Rita Ora-Nguyen, Dr. N. Simone · submitted Jun 19, 2026

  • genomics
  • transformers
  • variant effect
  • machine learning
85% · Accepted

Open peer-reviewed research. Publication here is a review record, not an endorsement of clinical use — this material is not medical advice.

Abstract

Non-coding variants drive much of the heritability of common disease, yet their functional effects remain hard to predict. We present a compact transformer trained only on public epigenomic tracks that matches larger models on held-out variant-effect benchmarks while using an order of magnitude fewer parameters. We release weights, training code, and an honest error analysis, including the cell types where the model fails.

Conflicts of interest
None. R.O.N. declares no competing financial interests.
Funding
Doctoral fellowship, unfunded compute (community cluster).
Ethics / IRB
No human or animal subjects
License
CC-BY-4.0

Manuscript — v1

Viewer not loading? Open the PDF directly

The Review Record

2 reviews on record

── Round 1 ──

Dr. Nina SimoneAcceptJun 22, 2026
Summary
A refreshingly honest ML-for-genomics paper: strong held-out benchmarking, an explicit failure analysis, and full artifact release. The parameter efficiency is a real contribution.
Strengths
Clear hypothesis, pre-registered analysis, honest reporting of limitations, and openly available data and code. The figures are legible and the statistics report effect sizes.
Weaknesses
Would like a calibration plot and a note on training-set leakage across chromosomes. Minor.
Detailed comments
Methods: specify the randomization seed and hardware. Stats: add a sensitivity analysis for the excluded outliers. Figures: Fig. 3 needs error bars and an n per cell. Lit: engage the 2024–2025 replications. None of this is fatal; most is a revision away.
Review Record: RSR-2026-000005 — citable, permanent, on the reviewer's Crew Card.
Anonymous ReviewerMinor RevisionsJun 22, 2026
Summary
Good engineering and good science hygiene. I want the chromosome-split leakage question settled explicitly before I'm fully comfortable.
Strengths
Clear hypothesis, pre-registered analysis, honest reporting of limitations, and openly available data and code. The figures are legible and the statistics report effect sizes.
Weaknesses
Chromosome holdout must be stated precisely; otherwise benchmark numbers risk optimism.
Detailed comments
Methods: specify the randomization seed and hardware. Stats: add a sensitivity analysis for the excluded outliers. Figures: Fig. 3 needs error bars and an n per cell. Lit: engage the 2024–2025 replications. None of this is fatal; most is a revision away.
Review Record: RSR-2026-000006 — citable, permanent, on the reviewer's Crew Card.
★ Editorial decisionAcceptDr. Rob Halford · Jul 7, 2026

Both reviewers are positive; the one substantive concern (chromosome-split leakage) was clarified satisfactorily in the rebuttal and the camera-ready adds a calibration plot. Accepted. Given the translational potential, consider The Amp.

Cite this paper

@article{RSP-2026-0002,
  title   = {A Transformer Baseline for Variant Effect Prediction in Non-Coding DNA},
  author  = {Rita Ora-Nguyen and Dr. N. Simone},
  year    = {2026},
  journal = {Review Slave},
  note    = {RSP-2026-0002. Openly peer reviewed; review record attached. License: CC-BY-4.0},
  url     = {https://thereviewslave.com/papers/cmrann3240013iakcm56klfvv}
}