We work at the intersection of biology, engineering, and design, developing technologies that emulate human biology. Our products are enabling a new era of precision medicine and the development of applications for personalized health. Our Human Emulation System, which uses Organs-on-Chips technology, is being used by industry, government, and academia to understand how different diseases, medicines, chemicals and foods affect human health. The system offers researchers a new standard for predicting human response - with greater precision and control than today's cell culture or animal-based experimental methods. We are also leading a bold, new precision medicine initiative with our clinical partners. Named "Patient-on-a-Chip," the program is developing personalized chips with patients' own cells. This initiative will help transform the way each of us understands our own bodies and manages our own health. Research conducted using our Organ-Chips has been published in high-impact scientific journals, including Science. In addition, Organ-Chips have been acquired by the Museum of Modern Art (MoMA) in New York for their permanent collection, and have also been awarded Product Design of the Year 2015 by London's Design Museum. Our founding team pioneered the original Organs-on-Chips technology during their residency within the Wyss Institute for Biologically Inspired Engineering at Harvard University.

Strand was started by biological engineers working together at MIT. Building on the idea of creating smart therapies that are capable of making sophisticated decisions, they sought to apply the concept of the emerging field of mRNA therapeutics. This area was untapped by traditional synthetic biology, which led them to build their own mRNA “programming language,” creating the world's first platform for mRNA smart therapies. Strand's mRNA programming technology promises to make mRNA therapies safer and more effective by programming the location, timing, and intensity of therapeutic protein expression inside a patient's body using mRNA-encoded logic circuits. These circuits can implement cell-type specific expression by sensing and classifying the unique miRNA expression signatures of cells, as well as controlling the dosage of protein expression by responding to exogenously administered small molecules.