{"id":10381,"date":"2026-11-11T20:40:28","date_gmt":"2026-11-11T20:40:28","guid":{"rendered":"https:\/\/silvybrand.com\/?p=10381"},"modified":"2026-11-11T20:40:28","modified_gmt":"2026-11-11T20:40:28","slug":"google-deepmind-alphagenome-2-genetic-ai-model","status":"publish","type":"post","link":"https:\/\/silvybrand.com\/?p=10381","title":{"rendered":"Google\u2019s AlphaGenome 2 zooms in on the cellular roots of disease"},"content":{"rendered":"


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Researchers at Google DeepMind have unveiled a new AI model designed to unravel how changes in our DNA affect different cells, giving scientists a more detailed view of a notoriously difficult problem that could hold important clues to the causes of disease \u2014 and point the way to new treatments.<\/p>\n<\/div>\n

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AlphaGenome 2 is the successor to DeepMind\u2019s genome-predicting AI model AlphaGenome, which was released last year<\/a>. While nearly every cell in the human body carries the same DNA, different types of cells \u2014 from heart muscle cells and skin cells to immune cells fighting an infection \u2014 switch different genes on and off, and those patterns can change depending on what a cell is doing. As a result, the same genetic variant can have very different effects depending on the type and state of the cell.<\/p>\n<\/div>\n

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The new model is designed to capture those differences, predicting the effects of genetic variants on individual cell types and states. Google said in a blog post<\/a> published Wednesday that it offers a much finer-grained view than broader models like AlphaGenome, potentially revealing disease-relevant effects in specific cells that might otherwise go unnoticed.<\/p>\n<\/div>\n

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AlphaGenome 2 was trained on more than 100 million individual cell profiles across 68 tissues to give it that more detailed view. DeepMind says the model effectively turns static cell atlases \u2014 huge data repositories that map and catalog<\/a> individual cells in detail \u2014 \u201cinto a predictive engine for human genetics.\u201d According to the company, AlphaGenome 2 identifies nearly twice as many variants that can change gene expression in cells than its previous state-of-the-art model.<\/p>\n<\/div>\n

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Notably, the researchers found that AlphaGenome 2 could also make predictions about new types of cells and biological states without needing to be retrained. It could also identify gaps in experimental data, potentially helping scientists decide what to investigate next in the lab.<\/p>\n<\/div>\n

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For Adam Gayoso, a research scientist at Google DeepMind involved in the project, the big breakthrough is \u201ctying human genetics to cell biology.\u201d AlphaGenome 2 gives researchers a way to drill down on genetic variants identified in large populations, to see what effects they may be having on a cellular level, and potentially connect those effects to disease, he told The Verge<\/em>.<\/p>\n<\/div>\n

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Google DeepMind\u2019s genomics lead \u017diga Avsec told The Verge<\/em> that this specificity is important if you have a goal like figuring out how to treat a particular disease. \u201cWhen you develop drugs, you\u2019re targeting specific proteins and specific cell types,\u201d he explained, which makes having this kind of granularity vital.<\/p>\n<\/div>\n

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Building a model like AlphaGenome 2 has only recently become possible thanks to new technologies that can capture individual cells and their states at high resolution and create the vast datasets needed to train it, Avsec said. DeepMind is now working to improve its genetics models by generating more data, including for cell states that aren\u2019t represented well today. Avsec said future versions could also potentially be trained on data \u201cacross multiple species,\u201d giving the models a broader view of biology. Longer term, he said models like AlphaGenome 2 could feed into efforts to create \u201cvirtual cells<\/a>,\u201d digital simulations designed to mimic biological systems.<\/p>\n<\/div>\n

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Although Avsec said he views AlphaGenome 2 as a successor to AlphaGenome, it isn\u2019t replacing it any time soon. He said its more detailed predictions come at a computational cost and are \u201cmore expensive\u201d to produce than those of its predecessor, he said. Those demands would have made it impractical to use AlphaGenome 2 to produce the genome-wide Atlas<\/a> covering \u201cevery possible DNA letter change in the human genome\u201d that DeepMind released in September.<\/p>\n<\/div>\n

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Google says it is making AlphaGenome 2 available for non-commercial research via the AlphaGenome API from today, with a limited \u201cprivate preview\u201d for commercial research.<\/p>\n<\/div>\n

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The model is the latest in a growing array of efforts by Google and rival AI labs to use the technology to tackle major problems in science and medicine. Pushmeet Kohli, who heads DeepMind\u2019s AI for science research, has hinted<\/a> that more impressive scientific results are on the way, and the organization is expected to open an automated materials science lab in the UK soon. Anthropic, meanwhile, has been experimenting<\/a> with drug design<\/a> and given Claude a wet lab<\/a>, while OpenAI has been mowing down<\/a> an impressive<\/a> amount<\/a> of longstanding<\/a> problems<\/a> in mathematics<\/a> and related fields<\/a>.<\/p>\n<\/div>\n

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