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.

What if that traffic associated with the daily commute could be put towards computing? It may sound like a stretch, but that is what researchers from Tohoku University have recently proposed, developing a new artificial intelligence framework that harnesses road traffic as a computing resource. The framework would lessen AI’s reliance on power-hungry hardware, making it more sustainable.

Researchers at Nano Life Science Institute (WPI-NanoLSI) and the Cancer Research Institute at Kanazawa University led have uncovered how targeted lung cancer drugs alter the shape and behavior of a key cancer-driving protein—revealing a hidden mechanism that helps explain why some treatments stop working over time.

We've all been there…

You know you need to make that complaint phone call, but you cannot bring yourself to dial. Or there is a project your demanding boss assigned, and even though you know you should start, you just…can't. You’re stuck at the starting line, caught in that all-too-familiar sense of motivational paralysis.

Why is it so hard to just get started?

Now, scientists at Kyoto University's Institute for the Advanced Study of Human Biology (WPI-ASHBi) have discovered what's happening in the brain during these frustrating moments. The research team conducted research on macaque monkeys and identified a specific brain circuit that acts like a "motivation brake": a neural pathway connecting two brain regions (the ventral striatum and ventral pallidum) that kicks in when we are confronted with tasks that come with negative consequences. When the scientists temporarily disabled this circuit, the motivational brake released: tasks that were once avoided suddenly became approachable. This discovery may help explain why, for some people (such as those living with depression), starting even simple tasks can feel impossibly hard. By identifying the brain "switch" behind this motivational paralysis, researchers may be one step closer to developing new treatments that help people overcome this invisible barrier.

The research is led by Dr. Ken-ichi Amemori, Dr. Jungmin Oh, and Dr. Satoko Amemori, with Dr. Masahiko Takada (Professor, Center for Human Behavior Evolution Research; currently Professor Emeritus), Dr. Ken-ichi Inoue (Assistant Professor; currently Associate Professor at Nagoya City University), and Dr. Kei Kimura (Assistant Professor, Tohoku University). The findings of this study will be published online in Current Biology at 11:00 a.m. on January 9, 2026 (EST; January 10, 1:00 a.m. JST).

Researchers at the Nano Life Science Institute (WPI-NanoLSI), Kanazawa University, in collaboration with Osaka University and the National Institutes for Quantum Science and Technology, have uncovered a previously unknown mechanism behind the activation of the Met receptor—a key player in tissue regeneration and cancer progression. Their findings reveal that HGF binding to the membrane-distal domain of Met promotes dimerization at the membrane-proximal domain, which subsequently triggers receptor activation.

Scientists at the Nano Life Science Institute (WPI-NanoLSI), Kanazawa University, have captured real-time images showing how a key brain enzyme organizes itself to help memory formation. Their study, published in Nature Communications, reveals that the enzyme CaMKII forms mixed α/β subunit structures whose interactions stabilize learning-related signals in neurons.

Hydrogen peroxide is essential for daily life, but most of it is still made through energy-intensive industrial processes. Researchers have now developed a new computational framework to identify catalysts that can produce hydrogen peroxide directly from water and electricity, offering a cleaner alternative.