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Parallel Bio

Immunotherapies are the most effective drugs we’ve ever developed, whether it’s a new cancer therapy that rapidly kills tumors or a vaccine that prevents us from getting sick in the first place. Therefore, immunotherapies will be the future of medicine as they continue to be developed and deployed. However, there are significant challenges in discovering new immunotherapies. Using animal models and other models that don’t fully model the human immune system, an inability to model humans at the population level, and the lack of tools to bring these together with computational approaches are stopping us from realizing the full potential of the next generation of medicine. 
Organoids are small, 3D mini models of human organs that are the world’s most accurate models of disease, and have recently emerged as a powerful technology for drug discovery. Incredible advances in bioengineering and machine learning have also been recently developed that allow us to grow organoids at a huge scale and be able to analyze the hundreds of cells and thousands of molecules that comprise the immune system in a way that humans simply cannot. Our platform combines our best-in-class human immune organoids with scale and computational methods to generate unprecedented insights into human health and disease. Not only can we rapidly discover new drugs that we know will work in patients from the start, but we will know how well a drug performs across an entire population - something not currently possible with existing technology. This knowledge will allow us to engineer therapies that will work in as many people as possible, ensuring a safe and effective cure for everyone. 

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Illustration of multiple three-dimensional patient-derived organoids suspended against a dark blue background, representing tumor models used in precision oncology research.
By combining organoid biology with precision automation, researchers developed a miniaturized organoid screening platform that could help speed personalized cancer treatment testing.
Illustration of multiple three-dimensional patient-derived organoids suspended against a dark blue background, representing tumor models used in precision oncology research.
By combining organoid biology with precision automation, researchers developed a miniaturized organoid screening platform that could help speed personalized cancer treatment testing.
3D illustration of a membrane protein embedded within a lipid nanodisc, representing a native-like environment used for membrane protein stabilization and characterization.
Mass photometry supports membrane protein characterization by providing rapid insights into sample composition, purity, and molecular assembly.
Drug Discovery News December 2025 Issue
Latest IssueVolume 21 • Issue 4 • December 2025

December 2025

December 2025 Issue

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