bioRxivBioinformaticsPreprint
Evaluating the added value of sequence models in noncoding RNA assays: a baseline-aware framework
Rui GuoiD, Wenhui ShaniD, R.Z. LiuiD, Lei YangiD, Dongmei MuiD, Hong WangiD
Abstract
Sequence models are evaluated against non-coding RNA assay read-outs, but prediction alone does not show what their features add to an explicit baseline. We estimated model-added-last changes in AUROC for lncRNA labels and cross-validated Spearman correlation for miRNA repression, fixing members and chromosome folds across available sources. In cross-cell CRISPRi (n = 2961), AlphaGenome increased AUROC from 0.6426 to 0.7551; adding K562 accessibility changed these values to 0.7282 and 0.7534. Corrected-source Cas13 increments ranged from -0.0161 to +0.0130 (n = 871). Separate post-audit comparisons tested fixed sequence composition, broader regularization and TargetScan aggregate identity. With expanded regularization, composition improved four baselines but reduced Cas13 AUROC by 0.0365. RNA-FM's increment was -0.0014 for CRISPRi and +0.000044 for HEK293FT after composition adjustment; small signs changed with regularization. On the same 1227 HeLa members, replacing a seed-family aggregate with an identity-supported mature-miRNA aggregate increased baseline Spearman from 0.4140 to 0.4799. RNA-FM then added 0.0170, or 0.0014 after composition adjustment. These source-row aggregates lack experimental transcript/site alignment. The results support testing baseline content, identity and regularization before interpreting residual model increments. Negative or near-zero increments do not establish absent information or equivalence. Resampling summaries remain conditional descriptions or non-joint sensitivities; calibrated confirmation, justified practical-size thresholds and pretraining-overlap verification were unavailable.
- organism: human
- assay: long-read sequencing
- assay: CRISPR screen
- research focus: benchmarking
- research focus: differential expression
- research focus: gene regulatory network inference
- research focus: variant effect prediction
- approach: statistical model
- approach: benchmark study
- Citations
- 0
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- Interpretable RNA Foundation Model from Unannotated Data for Highly Accurate RNA Structure and Function Predictions
Jiayang Chen, Zhihang Hu, … Yu Li·bioRxiv·Aug 6, 2022
- RNAElectra: An ELECTRA-Style RNA Foundation Model for RNA Regulatory Inference
Ke Ding, Lixinyu Liu, … Jiayu Wen·bioRxiv·Mar 17, 2026
- RNAGenesis: A Generalist Foundation Model for Functional RNA Therapeutics
Zaixi Zhang, Ruofan Jin, … Le Cong·bioRxiv·Dec 30, 2024
- LIMBER: A Hybrid RNA Foundation Model for Predicting and Understanding RNA Structure and Function
Ziyao Wang, Yunrui Qiu, … Ang Li·bioRxiv·Nov 1, 2026
- A foundation language model to decipher diverse regulation of RNAs
Hanwen Zhou, Yue Hu, … Zefeng Wang·bioRxiv·Oct 12, 2024
- RNAmining: A machine learning stand-alone and web server tool for RNA coding potential prediction
Thaís A. R. Ramos, Nilbson Galindo, … Thais Gaudencio do Rego·F1000ResearchPeer-reviewed·Apr 26, 2021