Exploring the effectiveness of health behavior interventions and their components for healthy adults
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Updates every hour. Last Updated: 1-May-2025 03:08 ET (1-May-2025 07:08 GMT/UTC)
Tokyo, Japan – Researchers from Tokyo Metropolitan University have discovered a new superconducting material. They combined iron, nickel, and zirconium, to create a new transition metal zirconide with different ratios of iron to nickel. While both iron zirconide and nickel zirconide are not superconducting, the newly prepared mixtures are, exhibiting a “dome-shaped” phase diagram typical of so-called “unconventional superconductors,” a promising avenue for developing high temperature superconducting materials which can be more widely deployed in society.
Hiromi Ozaki, known by her artist's name, Sputniko!, is a Japanese British artist combining art and technology to explore social issues. Her work integrates scientific concepts and emerging technologies to question perspectives and highlight important social and environmental issues.
OIST science writer Merle Naidoo recently interviewed Sputniko! for the OIST podcast.
Sputniko! frequently collaborates with scientists, as seen in her project titled “Red Silk of Fate” involving bioengineered silk that combines genetic engineering with cultural mythology. Inspired by Asian mythologies about a red silk line that connects two people who are destined to be together, she collaborated with Prof. Hideki Sezutsu from the University of Tokyo, who also serves as the Research Director at the National Agriculture and Food Research Organization (NARO), to create genetically engineered red silk that contains the “love hormone” oxytocin.
In this podcast episode, Sputniko! discusses the beginnings and challenges of her artistic journey, explaining how science and technology have become central themes in her work. She also shares the inspiration behind her latest exhibition, "Coral Colors," which was on display at the OIST Tunnel Gallery from November 29 to January 9.
A NIMS research team fabricated heat-resistant steel test specimens using laser powder bed fusion (LPBF)—a form of metal 3D printing—and subjected them to creep testing for up to 10,000 hours. The results demonstrated that LPBF significantly extended the creep lives of the specimens, achieving at least a 10-fold increase over heat-resistant steel produced through conventional heat-treatment processes.