Dual-function molecule could unlock smarter treatments for kidney disease
Peer-Reviewed Publication
Updates every hour. Last Updated: 24-Dec-2025 14:11 ET (24-Dec-2025 19:11 GMT/UTC)
Researchers at Chiba University have identified a key molecule, CCL5, that plays a dual role in chronic kidney disease (CKD). While it protects specific kidney cells, it simultaneously worsens overall damage by promoting harmful inflammation. By developing treatments that precisely target the damaging effects of CCL5 without blocking its protective functions, scientists believe they could create smarter therapies to slow CKD progression and reduce the need for dialysis.
A novel study on the natural coordination of tooth development in time and space, led by Dr. Han-Sung Jung at the Yonsei University College of Dentistry, Korea, has discovered that “lingual” cells on the side of the tongue form the tooth, whereas those toward the cheek, called “buccal cells,” form the bones and gums, guided by signaling molecules like WNT and BMP. These insights could shape future modalities for tooth regeneration, replacement, and repair.
Nursing education plays a crucial role in shaping compassionate healthcare professionals, yet many universities in Japan rely heavily on standardized curricula, leaving little room for distinctive approaches. In a recent study, scientists examined Catholic universities’ nursing faculties to identify their unique characteristics. They found four core values—love for all people, wholeness in relation to God, resilience through suffering, and professional responsibility—demonstrating how Catholic social doctrine enriches nursing education.
Farts are causing a stink in the research world, but in a positive way. Melbourne scientists have revealed how hydrogen is made and used in the human gut. Though infamous for making farts ignite, hydrogen also has a positive role supporting gut health.
A test deployed in many fertility clinics to assess the viability of embryos for use in IVF is likely to overestimate the number of embryos with abnormalities, suggests a study published today. Using a new technique for imaging embryos in real time, a team led by scientists at the Loke Centre for Trophoblast Research, University of Cambridge showed that abnormalities can arise at a later stage of embryo development than previously thought. This means that the tests used in some clinics may be finding errors in cells that will go on to develop into the placenta – and abnormalities in placental cells are less likely to affect the health of the fetus.