Connecting tissue physical changes to what developing cells become
Peer-Reviewed Publication
Updates every hour. Last Updated: 23-Jun-2026 22:15 ET (24-Jun-2026 02:15 GMT/UTC)
Biological tissues can behave like fluids or solids, depending on mechanical properties like tissue rigidity. EMBL researchers and their collaborators have shown that the rigidity of embryonic tissues is directly regulated by factors like cell-cell adhesion – how tightly neighbouring cells connect to each other. They also show that tissue rigidity plays a critical role in tissue organisation, regulating how cells process biochemical information, ultimately determining their future identities in a maturing embryo. These new biophysical findings have important implications for what we know about embryonic development, as well as other processes involving tissue-level transitions, such as cancer metastasis.
After surgery for colon cancer, many patients face the question of whether follow-up chemotherapy is necessary to prevent a possible relapse. The decision is particularly difficult in so-called Stage II, the intermediate-risk group: Although around one in five untreated patients suffers a relapse, adjuvant chemotherapy places a significant and, in some cases, unnecessary burden on many patients. A large clinical study led by Dresden University Hospital (UKD) now provides important insights for a robust basis for decision-making. These findings were presented for the first time at this year’s annual meeting of the American Society of Clinical Oncology (ASCO) and published simultaneously in the Annals of Oncology.
A recent review provides an overview of the purinergic receptor P2Y2 and its involvement in cancer-related processes. The article discusses how extracellular nucleotide signaling may influence tumor cell behavior and the tumor microenvironment, and evaluates the potential of P2Y2 as a biomarker and therapeutic target.