Microsoft Research has introduced Quine, a research system designed to navigate the complexity of biological systems by acting as a biological world model. Unlike models focused on single datasets, Quine is built to represent the state of biological systems, predict responses to interventions, and reason about consequences across multiple steps into the future.
Product LaunchesMicrosoft ResearchQuine
Microsoft Research Introduces Quine, an AI Research System Designed for Biological Complexity
The system integrates a multimodal world model that learns shared representations across diverse biological scales and modalities, including sequence, structure, function, cellular state, and imaging data. This design allows the model to use evidence from one modality to inform predictions in another, capturing complex biological relationships that specialized single-domain models might miss. Quine connects this model to a harness of scientific tools, literature, and researchers to support an iterative scientific process.
In a practical application involving pancreatic ductal adenocarcinoma (PDAC), researchers used Quine to predict and prioritize compounds capable of shifting tumor cells between therapeutically relevant states. The process narrowed a massive search space to a handful of promising candidates for wet-lab validation in just one weekend. The experiments not only confirmed the model's hypotheses regarding cell-state transitions but also generated new insights, such as identifying a third phenotype in the pancreatic cancer cell-state landscape.
To facilitate broader scientific use, Microsoft Research is launching the Quine Fellows program, which provides scientists at the frontier of biology and medicine direct access to the system. The company stated that it is taking a phased approach to development, prioritizing safety and responsible stewardship as the technology matures. Future expansion may include integration with products like Microsoft Discovery.
Sources
- Introducing Quine: An AI research system designed for the complexity of biology (Microsoft Research, 2026-09-29)