In collaboration with the National Institute of Technology (KOSEN), Oshima College, the National Institute for Materials Science (NIMS) succeeded in developing a new regenerator material composed solely of abundant elements, such as copper, iron, and aluminum, that can achieve cryogenic temperatures (approx. 4 K = −269°C or below) without using any rare-earth metals or liquid helium. By utilizing a special property called "frustration" found in some magnetic materials, where the spins cannot simultaneously satisfy each other's orientations in a triangular lattice, the team demonstrated a novel method that replaces the conventional rare-earth-dependent cryogenic cooling technology. The developed material holds promise for responding to the lack of liquid helium as well as for application to stable cooling in medical magnetic resonance imaging (MRI) and quantum computers, which is expected to see further growth in demand. This research result was published in UK scientific journal, Scientific Reports, on December 22, 2025.

MIT engineers designed a type of tissue model that more accurately mimics the architecture of the liver, including blood vessels and immune cells, and could help researchers develop drugs for liver disease.

A multidisciplinary team of University of Cincinnati Cancer Center researchers has received a $40,000 Ride Cincinnati grant to study the use of a delayed release preparation or wafer of an immunostimulatory molecule known as IL-15 to stimulate the central nervous system immune system after surgery to remove glioblastoma brain tumors.

Governments, industry representatives and international organizations representing over 70 countries at the International Submarine Cable Resilience Summit 2026 reaffirmed today the need to strengthen support for the subsea cables at the heart of global digital communications.