Researchers have developed a family of carbonyl rich carbon spheres with surface wrinkle structure for the efficient electrosynthesis of hydrogen peroxide. This unique wrinkled design significantly expands the accessible active area and utilizes carbonyl moieties to deliver exceptional H₂O₂ selectivity (>97.5%). The study provides a valuable surface modulation strategy for designing advanced heteroatom-doped carbon electrocatalysts.

A joint research group consisting of Hikaru Ichida, a doctoral student in the Division of Nano Life Science, Graduate School of Frontier Science Initiative, Kanazawa University; Kosuke Mizuno, currently a Postdoctoral Researcher at the Institute for Protein Research, The University of Osaka; Professor Noriyuki Kodera and Associate Professor Holger Flechsig of the Nano Life Science Institute (WPI-NanoLSI), Kanazawa University; and Associate Professor Satoshi Toda of the Institute for Protein Research, The University of Osaka, has succeeded in visualizing the structural dynamics underlying how the serum protein Afamin stabilizes and transports Wnt3a, a lipid-modified signaling molecule. The study also showed that stable binding between these two molecules depends on both a hydrophobic pocket that accommodates Wnt3a and the structural integrity of Afamin. Wnt proteins are essential molecules that help the body develop properly and maintain healthy tissues. However, because they do not dissolve well in water and are highly hydrophobic, they tend to be unstable in the body. This study has revealed part of the mechanism by which Wnt3a is stably transported with the help of another protein. These findings are expected to deepen our understanding of biological processes involving Wnt3a and may contribute in the future to the development of ex vivo tissue engineering technologies and regenerative medicine.

Shielding materials are essential in key modern industrial settings-such as spacecraft, nuclear power plants, semiconductor equipment, and advanced medical devices-to protect both equipment and personnel from electromagnetic waves and radiation. In particular, as space exploration gains momentum-such as with the successful launch of Artemis 2 on the 2nd-the importance of next-generation shielding technology capable of withstanding extreme environments is growing. However, electromagnetic waves and neutron radiation, which can cause malfunctions in key components like semiconductors, have different characteristics and must be blocked using distinct materials. This has historically led to issues such as increased weight and structural complexity. These limitations pose an even greater burden in the space industry. To address this challenge, a research team led by Dr. Joo Yong-ho at the Extreme Environment Shielding Materials Research Center of the Korea Institute of Science and Technology (KIST; President Oh Sang-rok) has proposed a new solution.

Researchers have solved a mystery in fluid dynamics regarding high-speed particle collisions on wet surfaces. They discovered that at high speeds, cavitation (the sudden formation of vapor cavities) changes the liquid shape from a "bridge" to a "dome", releasing the liquid pull-back force. This causes particles to bounce back stronger than they would at lower speeds. Such a vital discovery would drastically improve the safety, design, and durability of ultra-fast motors in the aerospace and automotive industries.