Explore how computer models predict ammonia volatilization from flooded soils and the innovative solutions to reduce nitrogen loss in agriculture.
Discover how thermodynamics is revolutionizing bioengineering by predicting the maximum yield of biofuels, drugs, and chemicals produced by living cells.
Discover how dithiophosphinic acids are transforming nuclear waste management through innovative chemical separation techniques.
Exploring the dramatic atmospheric transformations during Brazil's dry season, from biomass burning to biogenic emissions and their global climate implications.
Explore how simple kitchen chemistry using red cabbage can reveal the fascinating world of pH indicators and acid-base reactions in high school classrooms.
Discover how molecular modelling is transforming soil science, revealing the hidden molecular processes that control carbon storage, pollution filtration, and global climate regulation.
Explore how modern science is achieving what alchemists only dreamed of - transforming elements for medical treatments, environmental cleanup, and scientific discovery.
Exploring how proton-conducting ceramic La₁₋ₓSrₓScO₃₋α could revolutionize energy production and storage through advanced material science.
Explore how force modulation microscopy creates detailed viscoelasticity maps to distinguish materials at the nanoscale, from living cells to advanced polymers.
Exploring how double perovskite oxides are revolutionizing clean energy through efficient visible-light driven photocatalytic water splitting and CO2 reduction