OmniGenBench: A Modular Platform for Reproducible Genomic Foundation Models Benchmarking
Heng Yang, Jack Cole, Yuan Li, Renzhi Chen, Geyong Min, Ke Li
TL;DR
OmniGenBench tackles the reproducibility crisis in Genomic Foundation Models by delivering a modular platform that unifies data, models, benchmarks, and interpretability. It consolidates 123+ datasets, 58 metrics, five benchmark suites, and 31 GFMs within four cohesive modules (data, model, benchmark, interpretability) and automates end-to-end evaluation via AutoBench. The framework enables one-command benchmarking across diverse genomic tasks, demonstrates SoTA and robust generalization for OmniGenome, and provides motif/attention-based interpretability analyses to ensure biologically meaningful insights. By offering a public leaderboard, standardized pipelines, and extensible APIs, OmniGenBench accelerates trustworthy discovery and collaborative innovation in genome-scale AI.
Abstract
The code of nature, embedded in DNA and RNA genomes since the origin of life, holds immense potential to impact both humans and ecosystems through genome modeling. Genomic Foundation Models (GFMs) have emerged as a transformative approach to decoding the genome. As GFMs scale up and reshape the landscape of AI-driven genomics, the field faces an urgent need for rigorous and reproducible evaluation. We present OmniGenBench, a modular benchmarking platform designed to unify the data, model, benchmarking, and interpretability layers across GFMs. OmniGenBench enables standardized, one-command evaluation of any GFM across five benchmark suites, with seamless integration of over 31 open-source models. Through automated pipelines and community-extensible features, the platform addresses critical reproducibility challenges, including data transparency, model interoperability, benchmark fragmentation, and black-box interpretability. OmniGenBench aims to serve as foundational infrastructure for reproducible genomic AI research, accelerating trustworthy discovery and collaborative innovation in the era of genome-scale modeling.
