Archived Intelligence
Since 1981, the precise structure of 'Schmid gold' has eluded scientists due to its inherent instability. By utilising fluorine chemistry, researchers have finally stabilised and mapped an Au75 cluster, revealing a complex shell-by-shell configuration.
A comprehensive survey of current AI architectures details the mechanisms behind today's chatbots. By understanding these underlying structures—like long-context modelling and efficient scaling—visionaries can see a roadmap for how these tools might eventually be adapted to decode complex systems beyond text.
Researchers have developed a hierarchical shell structure that stabilises soft ionic lattices in solid-state emitters. The study reports that this multi-layer coating allows the materials to achieve near-perfect quantum yields while surviving thousands of hours of harsh environmental testing.
A new review of 2024-2025 progress indicates that while Perovskite Solar Cells have achieved record-breaking efficiencies in the lab, a significant performance gap remains when scaling to commercial modules. The industry is pivoting toward green solvents, vacuum flash evaporation, and machine learning to solve persistent stability issues.
A new protocol named QuickPhage enables the precise editing of viral genomes in under 24 hours, utilizing CRISPR-Cas9 and short DNA patches. While currently focused on Bacillus subtilis, this rapid methodology offers a blueprint for modernising the synthetic biology toolbox and mastering bacterial systems.
A massive multi-ancestry study utilises Whole Genome Sequencing to identify novel variants associated with lung function, improving upon the resolution of prior methods. The analysis highlights the gene HMCN1 as a potential driver of tissue remodelling, validated through CRISPR experiments in cell lines.
The ProRIDE trial in rural Tanzania successfully recruited 2,000 infants with remarkable retention by prioritising a simple, home-based protocol. It highlights how international collaboration and community-focused design can overcome the logistical hurdles of research in developing regions.
Researchers have developed ultra-thin bismuth sulfide nanowires that significantly enhance the stability and efficiency of lithium-carbon dioxide batteries. By leveraging light assistance and a novel catalyst structure, this technology offers a promising path toward dual-function energy storage and carbon capture.