We are designing & deploying systemic frameworks to understand & rationally enhance health.

We endeavor to ‘reverse engineer’ human tissues, leveraging our multidisciplinary expertise and extensive collaboration. As biotechnologists, we develop tools for comprehensively analyzing human tissue samples; as biologists and translational scientists, we apply them across organs and diseases with partners around the world; as computer scientists and computational biologists, we analyze the resulting data to identify putative mechanisms for maintaining biological function under stress and aberrant behaviors associated with pathology, as well as the best ways to test our findings; and, as engineers, we methodically validate those features through perturbion, utilizing, refining, and creating new models and methods where necessary.

This helps us achieve an actionable understanding of the intra- and extracellular circuits that underpin tissue-level behaviors. Integrating insights across our studies, we seek to rationally devise preventions and cures to improve human health broadly.

Highlights

Hepatic adaptation to chronic metabolic stress primes tumorigenesis

Tzouanas et al., Cell, 2026

During chronic stress, cells must support both tissue function and their own survival. Hepatocytes perform metabolic, synthetic, and detoxification roles, but chronic nutrient imbalances can induce hepatocyte death and precipitate metabolic dysfunction-associated steatohepatitis (MASH, formerly NASH). Despite prior work identifying stress-induced drivers of hepatocyte death, chronic stress’ functional impact on surviving cells remains unclear. Through cross-species longitudinal single-cell multi-omics, we show that ongoing stress drives prognostic developmental and cancer-associated programs in non-transformed hepatocytes while reducing their mature functional identity. Creating integrative computational methods, we identify and then experimentally validate master […]