Research

  • Headshot of Professor Stephanie Bryant wearing glasses, and her lab in the background.
    Professor Stephanie Bryant is leading a $33.57 million federal grant to reverse osteoarthritis, and the New York Times is taking notice.
  • Stephanie Bryant, professor of chemical and biological engineering, stands beside a seated colleague in a laboratory, observing a computer screen displaying microscope images while using a microscope workstation with lab equipment and sample containers nearby.
    A Âé¶¹Ãâ·Ñ°æÏÂÔØBoulder-led team has developed a suite of new therapies aimed at reversing osteoarthritis in a single injection. With animal studies showing promise and funding from the Advanced Research Projects Agency for Health extended, the team could be ready for human trials by 2028. Professor Stephanie Bryant is the principal investigator of the project.
  • Kristi Anseth
    Distinguished Professor Kristi Anseth has received theÌýBiomaterials Global Impact Award, which recognizes distinguished research and development accomplishments in the field of biomaterials. Anseth is known for developing tissue substitutes that improve treatments for conditions like broken bones and heart valve disease.
  • An AI generated illustration of a liver. Adobe Stock photo
    Âé¶¹Ãâ·Ñ°æÏÂÔØBoulder 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. Professor Jason Burdick's lab at CU’s BioFrontiers Institute will lead the 3D printing component of the project.
  • Microscopy images comparing cell behavior in different hydrogels. Columns labeled “no cells,” “viscoelastic,” and “elastic” show green hydrogel shapes (circle, square, triangle). In viscoelastic hydrogels, purple mesenchymal stromal cells spread and deform the green matrix. In elastic hydrogels, the purple cells remain confined and clustered without spreading. Scale bar: 500 micrometers.
    A new light-controlled hydrogel developed at Âé¶¹Ãâ·Ñ°æÏÂÔØBoulder mimics the movement and flexibility of real tissue, giving scientists a more realistic way to study cells and disease. The work was recently published in the journal Matter and was directed by Distinguished Professor Kristi Anseth.
  • Assistant Professor Laurel Hind’s lab discovered how certain immune cells can suppress the body’s response to infection, using advanced human cell models.
  • perovskite solar cell
    Professor Michael D. McGehee and his team are advancing tandem solar cells—pairing silicon with a high-efficiency material called perovskite—that could significantly improve the economics of renewable energy. While the technology shows great promise, making perovskites durable enough for commercial use remains a key challenge. In October 2025, just as the research was gaining momentum, the Trump administration abruptly terminated the team’s federal grant.
  • Wyatt Shields
    Assistant Professor Wyatt Shields along with other researchers have developed a safer, targeted way to deliver an ovarian cancer drug using immune cell–carried particles, supported by $300,000 in Gates Institute funding to advance it toward clinical use.
  • Diptych with headshots of Cody Ritt and Antonio Del Rio Flores. Neutral background.
    Meet the department's newest faculty, Assistant Professors Cody Ritt and Antonio Del Rio Flores.
  • A microscopic image shows a curled particle transitioning to a straight shape.
    Âé¶¹Ãâ·Ñ°æÏÂÔØresearchers have created shape-shifting microparticles that change their shape in response to environmental factors for self-directed propulsion and navigation.
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