A new platform melding microfluidics and robotics allows more in-depth bioanalysis with fewer cells than ever before.
How microbial communities adjust to nutrient-poor soils at the genomic and proteomic level gives scientists insights into land use.
Analyses reveal how a microbe breaks down lignin, providing a better understanding useful to making biofuels.
A combined experimental and modeling approach contributes to understanding small proteins with potential use in industrial, therapeutic applications.
Measuring the physical properties of water at previously unexplored temperatures offers insights into one of the world’s essential liquids.
Precise positioning of oxygens could help engineer faster, more efficient energy-relevant chemical transformations.
Water molecules line up tiny particles to attach and form minerals; understanding how this happens impacts energy extraction and storage along with waste disposal.
Optimizing lithium-sulfur battery electrolytes for long life.
High-performance computing reveals the relationship between DNA and phosphorous uptake.
Global models may be underestimating net wetland methane emissions.
This research offers new information to understand the role of microorganisms in elemental cycling in the Arctic.
Multiple techniques to characterize an enzyme complex shed light on how bacteria create particles and contribute to global cycles.
