Scientists behind one of the most ambitious sequencing endeavours in biology have announced a plan to dramatically scale up how their results reach the world. The Tree of Life programme at the Wellcome Sanger Institute says it will increase the publication of its genome notes from roughly 30 per month to 200, a more than sixfold acceleration that is intended to keep the flow of published genomes in step with the output of the institute’s sequencing machines. The expansion will be enabled by a new specialised workflow developed by the open research publisher F1000 together with the Wellcome Sanger Institute for the Wellcome Open Research platform, and it promises to widen access to data that underpins advances in agriculture, conservation and medicine.
Genome notes are short, structured research articles that describe a newly sequenced genome. Rather than waiting years for a lengthy, analysis-heavy paper, researchers can publish a genome note as soon as a high-quality reference genome has been assembled and checked, recording where the sample was collected, how the genome was sequenced and assembled, and what the basic features of the genome are. Each completed genome produced by the Tree of Life programme is reported in this open research format, which allows the international scientific community to interpret, reference and reuse the data without barriers. In effect, the genome note is the formal, citable certificate of a genome’s existence and quality.
The Tree of Life programme sits at the heart of the Darwin Tree of Life project, which is led by the Wellcome Sanger Institute and aims to sequence the genome of every findable species in the UK and Ireland. That national effort is itself part of something far larger: the Earth BioGenome Project, often described as a moonshot for biology, which brings together research groups around the world with the goal of sequencing all life on Earth. The scale of the challenge is staggering. Biologists estimate that there are millions of eukaryotic species, and the Darwin Tree of Life alone targets approximately 30,000 findable UK and Irish species. Producing and publishing a reference genome for each of them requires not only sequencing capacity but also an equally scalable publishing pipeline.
That is where the new workflow comes in. The Wellcome Open Research platform, powered by F1000, launched its Tree of Life Gateway in May 2021 as a dedicated home for the programme’s outputs. More than 1,900 genome notes from researchers at universities, museums and horticultural organisations across the UK and Ireland are now included in the Gateway. Among the species already documented are the red squirrel, a conservation icon of British woodland; the Eurasian river otter, an apex predator whose genome can inform monitoring of aquatic ecosystems; and the deathwatch beetle, a wood-boring insect famous for the ticking sound it makes in old timber buildings. Each of these genomes is freely available, permanently archived and linked to a citable article.
To reach the target of 200 genome notes per month, F1000 and the Sanger Institute teams had to rethink every stage of the publication process. James Cleaver, Head of Publishing at F1000, explained that the highly structured nature of the Tree of Life genome notes created a unique opportunity to reimagine the entire publication workflow. According to Cleaver, the teams designed a streamlined process that combines the opportunities of new publishing technology with human expertise, and he emphasised that human oversight remains central to ensuring the integrity and reliability of published research. He added that F1000 is delighted to be helping to accelerate the impact of the genome notes and the Tree of Life programme’s genome sequencing efforts.
The first stage of the new workflow uses computer-aided review of each submission. This automated assessment records metrics on genome continuity, structural accuracy, base accuracy, functional completeness and chromosome status. These are precisely the measures that genome scientists care about most when judging whether a reference genome is fit for purpose: continuity reflects how completely the assembly spans chromosomes without breaks; structural and base accuracy indicate how faithfully the sequence represents the organism’s DNA; functional completeness captures how much of the expected gene content can be identified; and chromosome status describes whether the assembly has been organised into chromosome-scale sequences. Crucially, these metrics are embedded directly into the published articles, providing transparency for both reviewers and readers.
After online publication and the computer-aided review, the genome notes undergo Wellcome Open Research’s post-publication open peer review process, carried out by an invited expert reviewer or a peer reviewer panel. This model inverts the traditional sequence of events: rather than holding results behind anonymous pre-publication review, the platform publishes first and then subjects the work to open, named scrutiny that is visible to everyone. The combined approach, using automated benchmarking alongside independent human review, has been approved by indexers such as PubMed, meaning the genome notes remain discoverable through the databases that researchers rely on daily. The design shows how rigorous quality control and rapid dissemination can coexist when the underlying data are standardised and machine-checkable.
Professor Mark Blaxter, Head of the Tree of Life programme at the Wellcome Sanger Institute, said the reference genomes produced at the Sanger Institute are released to the global community to transform the way biological science is done, at pace. He noted that genome notes provide a rapidly published and citeable resource that credits the programme’s collector and taxonomist collaborators as well as its genome sequencing teams, and that genome note publication will now be able to better keep up with the institute’s sequencing machines. His point highlights an often overlooked aspect of large-scale genomics: behind every genome is a network of field ecologists, museum curators and taxonomic experts who identify, collect and vouch for each organism, and the genome note format formally records their contributions.
The practical consequences of publishing genomes at this rate could be far-reaching. In agriculture, reference genomes of crop relatives, pests and pollinators give breeders and plant health researchers the raw material to develop resilient varieties and targeted interventions. In conservation, high-quality genomes of threatened species such as the red squirrel can reveal genetic diversity, inbreeding and local adaptation, informing how populations are managed and restored. In medicine, genomes of parasites, disease vectors and laboratory organisms support research into infectious disease and drug development. Because every genome note is open access, these benefits are not confined to well-funded institutions; a researcher anywhere in the world can download the sequence, the assembly metrics and the associated metadata and begin working with them immediately.
The announcement also offers a glimpse of how scientific publishing may evolve to match the data-intensive character of modern biology. When thousands of essentially similar, highly structured outputs must flow through the system each year, the traditional article-by-article editorial model becomes a bottleneck. By pairing automated quality metrics with open post-publication peer review, the Tree of Life workflow treats publishing as a pipeline that can be engineered, measured and scaled, while preserving the human judgement that gives research its credibility. If the programme succeeds in publishing 200 genome notes a month, the roughly 30,000 findable species of the UK and Ireland will gain a complete, openly available genomic record, and the methods developed along the way are likely to shape how the wider Earth BioGenome Project reports the genomes of life on Earth for years to come.
Subject of Research: Large-scale publication of genome notes for the Darwin Tree of Life and Earth BioGenome Project sequencing efforts
Article Title: Tree of Life program targets publication of 200 genome notes per month, supporting advances in agriculture, conservation and medicine
Article References: Tree of Life program targets publication of 200 genome notes per month, supporting advances in agriculture, conservation and medicine. (n.d.). Original publication
Image Credits: AI Generated
DOI: Not provided
Keywords: Tree of Life programme, Wellcome Sanger Institute, genome notes, Darwin Tree of Life, Earth BioGenome Project, F1000, Wellcome Open Research, open peer review, genomics, conservation, agriculture, scientific publishing
Cite Scienmag News
Juliet Wilcox. (October 14, 2026). Genome Notes at Scale: Tree of Life Aims for 200 Publications a Month. Scienmag. https://scienmag.com/genome-notes-at-scale-tree-of-life-aims-for-200-publications-a-month/
Juliet Wilcox. "Genome Notes at Scale: Tree of Life Aims for 200 Publications a Month." Scienmag, 14 October 2026, https://scienmag.com/genome-notes-at-scale-tree-of-life-aims-for-200-publications-a-month/. Accessed 14 October 2026.
Juliet Wilcox. "Genome Notes at Scale: Tree of Life Aims for 200 Publications a Month." Scienmag. October 14, 2026. https://scienmag.com/genome-notes-at-scale-tree-of-life-aims-for-200-publications-a-month/

