AI model developed by Dresden research team simultaneously detects multiple genetic colorectal cancer markers in tissue samples
Peer-Reviewed Publication
Updates every hour. Last Updated: 20-Aug-2025 04:09 ET (20-Aug-2025 08:09 GMT/UTC)
An international, interdisciplinary research team led by Prof. Jakob N. Kather from the Else Kröner Fresenius Center (EKFZ) for Digital Health at TU Dresden analyzed seven independent patient cohorts from Europe and the USA using their newly developed AI model. The model detects genetic alterations and resulting tissue changes in colorectal cancer directly from tissue section images. This could enable faster and more cost-effective diagnostics in the future. For the development, validation, and data analysis of the model, experts in data and computer science, epidemiology, pathology, and oncology worked closely together. The study has been published in the journal “The Lancet Digital Health”.
“Why bother? At my age, breast cancer is the least of my worries,” says a patient in the opening vignette of “Helping Patients Make Health Care Decisions,” the latest publication from the Gerontological Society of America. This new guide equips health care providers with essential strategies to support informed, value-based decision-making with their older patients, recognizing the many factors that influence how individuals approach their health care.
The most common cancer-causing strain of human papillomavirus (HPV), HPV16, undermines the body’s defenses by reprogramming immune cells surrounding the tumor, according to new USC research. In mice, blocking this process boosted the ability of experimental treatments for HPV to eliminate cancer cells. HPV16 causes more than half of cervical cancer cases and roughly 90% of HPV-linked throat cancers. It can be neutralized with the preventive vaccine Gardasil-9, but only if vaccination occurs prior to HPV exposure. Researchers are now working to develop “therapeutic vaccines,” which can be taken after HPV exposure to trigger an immune response by T-cells against infected cells, but in clinical trials, these vaccines have limited effectiveness—and the new study helps explain why. The study focuses on the signaling protein Interleukin-23 or IL-23 in the immune system which has inflammatory properties. While IL-23 was previously implicated in cervical and throat cancers, its exact role was unclear. In a series of tests in mice and cell cultures, USC researchers found that two HPV proteins, E6 and E7, prompt nearby cells to release IL-23, which in turns prevents the body’s T-cells from attacking the tumor. In mice with HPV16 tumors, IL-23 neutralizing antibodies blocked IL-23 and increased the number of T-cells around the tumor that could recognize and kill cancer. When combined with the HPV therapeutic vaccine, this approach triggered a stronger immune response and led to longer survival than either treatment on its own.