Innovation
С»ÆÊé Engineering strives for an intentional approach to incorporating AI in its research and teaching missions- Engineer and doctor take medical device from С»ÆÊé accelerator to commercializationÌý Jacob Segil and Dr. Omer Mei-Dan were enjoying a celebratory dinner in 2018 when the idea for their newest commercialization success struck.“
С»ÆÊé Boulder researchers and partners at MIT, Harvard and Columbia are working to recreate the human liver’s complex structure in the lab. With support from a $25 million ARPA-H grant, the team aims to develop 3D-printed, transplantable liver tissue made from human cells that the body won’t reject.
Evan Thomas, director of С»ÆÊé Boulder’s Mortenson Center in Global Engineering and Resilience, is pioneering climate-financed clean water programs that have brought safe drinking water to over 5 million people in Africa. Using carbon credits to fund long-term maintenance and real-time water quality monitoring, the center aims to reach 3 million more people by 2030.
The University of Colorado Boulder reached a historic milestone, launching 35 new companies based on university intellectual property during fiscal year 2024, more than any other U.S. campus that year. In addition to holding the No. 1 spot for that year, the achievement also places С»ÆÊé Boulder No. 2 for the most startups launched in a single year by a U.S. campus.
A С»ÆÊé Boulder research team co-led by Distinguished Professor Christopher Bowman has received up to $5.8 million from ARPA-H to develop new treatments that temporarily suspend the immune response after severe burns or tissue injuries, aiming to reduce pain, speed healing and prevent long-term damage. The approach could also benefit patients with limited access to immediate medical care.
Saad Bhamla, a pioneering scientist known for studying unusual biological systems and inventing ultra-low-cost medical devices, will join the Department of Chemical and Biological Engineering and the BioFrontiers Institute in August. His work blends biology, engineering and frugal science.
The process involves collecting failed or excess PLA prints, grinding them into small fragments and using a T-shirt press to flatten the fragments into durable flat sheets. These sheets serve as raw material for laser cutting projects.