Carbon: Decoding the Language of Life
Summary
Hugging Face released Carbon, a family of open DNA foundation models that matches state-of-the-art performance of Evo2-7B while being 275x faster, using 6-mer tokenization, factorized loss, and curated genomic data.
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@lvwerra: We are releasing Carbon: a crazy fast DNA model Carbon is 275x faster than the next best model. So fast you can process…
HuggingFace releases Carbon, a DNA model that is 275x faster than the previous state-of-the-art (Evo2), enabling processing of the entire human genome on a single GPU in under two days. The model uses a unique tokenizer that splits sequences into 6-base chunks while maintaining single-base resolution, and comes with an interactive demo.
@EmmaScharfmann: A new foundation model that reads and generates DNA sequences was just released on the Hugging Face: https://huggingfac…
A new 1.1B-parameter DNA foundation model, MarinDNA v0.5 scaling ladder, was released on Hugging Face; it reads and generates DNA sequences and reportedly rivals Evo 2 40B on variant effect prediction.
@ClementDelangue: The future of biology shouldn’t stay behind black-box APIs. Especially when it touches personal health. Whether you’re …
Hugging Face releases Carbon, an open-source DNA base model that is 275x faster than comparable models, enabling local processing of whole genomes on a single GPU.
@adithya_s_k: Wake up ppl Huggingface just open sourced Genomic Foundational Models
Huggingface has open-sourced genomic foundational models, including Carbon, a DNA model that is 275x faster than the next best model and can process the entire human genome on a single GPU in under 2 days.
LDARNet: DNA Adaptive Representation Network with Learnable Tokenization for Genomic Modeling
LDARNet is a 120M-parameter hierarchical genomic foundation model that introduces learnable adaptive tokenization (inspired by H-Net's dynamic chunking) for masked language modeling on DNA sequences. It achieves state-of-the-art results on 5 histone modification tasks and outperforms models up to 20× larger on several genomic benchmarks, with learned token boundaries aligning with biological features like promoter motifs and splice junctions.