Take a dive into the streamlined workflow of DIVE (Descriptive Interpretation of Visual Expression)! DIVE combines multiple AI agents to extract images from about 4,000 scientific publications to propose new materials – all within minutes.

Researchers have found duality can reveal hidden non-invertible symmetry protected topological phases, unlocking new quantum phases.

Scientists from the Research Center for Materials Nanoarchitectonics (MANA) developed a liquid-repellent particle coating that allows pico- and nanoliter liquid droplets to be handled like dry powder, enabling precise control of ultra-small liquid volumes in microfluidics applications.

How comprehensive is our healthcare system, and who is being left behind? In this study, The University of Tokyo researchers synthesized the patients’ real-world experiences with complex genetic disorders into a single case. The study reveals how compartmentalized care leads to treatment refusal and patient harm, while coordinated interdisciplinary teams can restore well-being. It highlights the urgent need for reforms in medical education, care continuity, and health policy to create more inclusive, patient-centered healthcare systems.

Two-dimensional topological materials are widely studied because they can be efficient and cost-effective catalysts. Their unique electronic properties give rise to robust topological surface states. However, this assumption is often made under the premise that their surfaces remain clean and unchanged during reactions, which is rarely the case. Using quantum computing, a research team has recreated a 2D material’s true working surface under reaction conditions. 

Researchers have developed a method to reduce uncertainties in observational measurements of cosmic birefringence, which might help explain the Universe’s symmetry.

A recent review article explores how software-based AI systems are changing the design process of solid electrolytes, enabling faster development of solid-state batteries. 

Precise control of local structure has long limited efforts to understand how dopants enhance lattice oxygen storage and release of ceria-based materials. Using a continuous-flow hydrothermal method, AIMR researchers synthesized ultrasmall Mn–CeO2 nanoparticles with tunable Mn environments, revealing distinct low- and high-temperature mechanisms and achieving a fourfold boost in low-temperature oxygen storage and release capacity.