Sony AI's Hakken Predicted 1.5M Aging Hypotheses and Two Held Up in Lab

Sony AI built a system that reads the biomedical literature and predicts unpublished gene interactions, with two confirmed in wet-lab experiments.

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Sony AI's Hakken Predicted 1.5M Aging Hypotheses and Two Held Up in LabPRO
  • Sony AI's Hakken predicts undocumented scientific relationships by combining temporal knowledge graphs with an LLM.
  • Generated 1.5 million aging-related hypotheses; 2 of 3 wet-lab tested were confirmed as novel gene interactions.
  • Confirmed TP53-BAMBI and RAF1-TNF relationships have direct implications for drug discovery and repurposing.
  • THiGERLLM sets a new benchmark for time-aware multi-label relation prediction with 51.16% macro F1.
  • PHELInE explanation module traces multi-hop literature paths to justify each prediction for scientists.
  • Open-source version available at github.com/SonyResearch/HakkenOSS; trained on 16 H100s in days.

Sony AI has built a system that proposes scientific facts nobody has published yet, then explains its reasoning well enough for a biologist to take it into the lab. The system, called Hakken (Japanese for "discovery"), generated 1.5 million candidate hypotheses about aging-related genes. Three were sent to a contract lab for wet-lab validation. Two came back confirmed as previously undocumented biological interactions.

Drowning in papers

Biomedical research produces over one million papers per year, a rate that keeps climbing. Existing AI tools mostly help researchers navigate what already exists: summarizing, retrieving, connecting dots already implicit in the literature. Hakken predicts relationships not yet documented anywhere, then hands the scientist a paper trail explaining why.

How it actually works

Hakken has two main components. The prediction model, THiGERLLM, takes a pair of entities (say, two genes) and predicts what kinds of relationships likely hold between them. The explanation module, PHELInE, then traces paths through the existing literature to justify each prediction.

THiGERLLM combines two views of the same problem:

  • A temporal graph branch: The literature is converted into knowledge graphs that grow year by year, letting the model reason about how ideas evolve rather than treating knowledge as static. A graph neural network learns how evidence accumulates around each entity pair over time, and a hierarchical transformer compresses that history into a compact embedding.

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