An $11 million multi-institutional grant from the NIH BRAIN Initiative will enable Berndt Lab engineer new red calcium and neuromodulator sensors, giving scientists much more powerful tools to study brain function and neurological disease. Read More
ISCRM faculty member Kelly Stevens is the senior author of a study, published in Science Advances, that unveils 3D reconstructions of human liver tissue offering unprecedented detail at the cellular level. Read More
ISCRM researchers have shown that an AI-designed signaling protein (known as a ligand) can be used to mature ameloblasts capable of secreting more mineralized enamel, representing another important step forward for regenerative dentistry. Read More
The Freedman Lab used a single pool of stem cells to generate multiple cell types crucial for kidney function and showed it may be more effective to kickstart this process in vivo instead of engineering tissue outside the body for transplantation. Read More
In late January, nearly 60 researchers from ISCRM and the Molecular Engineering and Sciences Institute gathered to foster collaborations aimed at accelerating disease research through improved modeling technologies. Read More
The use of computational protein engineering technology to engineer transient, membrane-less organelles inside living cells is the subject of a new study led by the DeForest Research Group in collaboration with the Baker Lab. Read More
In a paper published in Science, a multidisciplinary ISCRM research team of biologists, engineers, and physicians shows that fibroblasts, often thought of as helpers, may weaken the heart by causing a harmful cycle of stiffening and scarring. Read More
The DeForest Research Group unveils a new tool, known as PhoCoil, that protects injected cells as they travel to their destination and gives scientists greater control over them once they arrive. Read More
Smita Yadav and Nobuhiko (Nobu) Hamazaki have received prestigious awards from the John H. Tietze Foundation Trust that will help fuel promising research underway in their labs. Read More
The device known as STOMP, developed by researchers from the Sniadecki and Theberge Labs, is small enough to fit on a human fingertip and is compatible with existing tissue engineering technology. Read More