Scientists create 4D ultrasound
December 29, 2025
What if we could watch blood move through an entire organ in real time?
What if we could watch blood move through an entire organ in real time?
One of the most challenging moments in cancer treatment comes when a therapy stops working. In many metastatic cancers, drugs that are initially effective lose their potency over time, as malignant cells acquire mutations that enable them to survive and spread.
Now, a research team from University Hospitals, Case Western Reserve University, and the Louis Stokes Cleveland VA Medical Center has challenged this long-held dogma in the field. They tested whether brains already badly afflicted with advanced AD could recover.
A new method could enable users to design portable medical devices, like a splint, that can be rapidly converted from flat panels to a 3D object without any tools.
A multicenter study led by UC Davis Health has tested a new treatment designed to improve care for people with a rare liver disease called primary sclerosing cholangitis. Researchers learned that an anti-inflammatory and anti-fibrotic monoclonal antibody known as nebokitug was safe and showed potential efficacy in patients with PSC.
A new study in the lab of Jason Stein, Ph.D., modeled brain development in a dish to identify cells and genes that influence infant brain growth, a trait associated with autism.
Scientists at Duke-NUS Medical School have developed two powerful computational tools that could transform how researchers study the “conversations” between cells inside the body. The tools, called sCCIgen and QuadST, help scientists understand both where cells are located in tissues and how they communicate through genetic activity and chemical signals.
Cancer is one of the leading causes of death in the U.S., second only to heart disease. But a new cancer treatment method from CU Boulder researchers uses sound waves to soften tumors and could be a potent tool against the disease.
Craif Inc. in Nagoya, Japan, working with Nagoya University’s Institute of Innovation for Future Society, has developed a urine-based biological aging clock. In validation of the method, predicted ages came within 4.4 years of chronological age on average.
A University of Kentucky Markey Cancer Center study reveals how prostate cancer cells adapt their metabolism to thrive in bone tissue, offering a potential new treatment target for patients with advanced disease.