New review unveils breakthroughs in soil nitrogen cycle research from microbial pathways to global sustainability
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Updates every hour. Last Updated: 1-Nov-2025 16:11 ET (1-Nov-2025 20:11 GMT/UTC)
In a groundbreaking study that combines innovative material science with environmental engineering, researchers are exploring how phosphorus-modified bamboo biochar can effectively immobilize Cd(II) ions in solution. The study, titled "Immobilization of Cd(II) by Phosphorus-Modified Bamboo Biochar from Solution: Mechanistic Study from Qualitative to Quantitative Analysis," is led by Prof. Guangcai Chen from the Research Institute of Subtropical Forestry at the Chinese Academy of Forestry in Hangzhou, China, and Prof. Zhengguo Song from the Department of Materials and Environmental Engineering at Shantou University in Shantou, China. This research offers a detailed examination of the adsorption mechanisms and soil amelioration potential of this novel biochar.
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Tiny solid particles – like pollutants, cloud droplets and medicine powders – form highly concentrated clusters in turbulent environments like smokestacks, clouds and pharmaceutical mixers. What causes these extreme clusters – which make it more difficult to predict everything from the spread of wildfire smoke to finding the right combination of ingredients for more effective drugs – has puzzled scientists. A new University at Buffalo study, published Sept. 19 in Proceedings of the National Academy of Sciences, suggests the answer lies within the electric forces between particles.
Could a local anesthetic that doesn’t impair motor function be within reach? The lab of Daniel Kohane at Boston Children's Hospital finds that PPX, a metabolite of many conventionally used local anesthetics, has a unique chemistry that makes it pain-specific, with lower toxicity than its parent drugs. Kohane envisions such uses as epidural anesthesia and — when given slow-release form — postoperative and chronic pain, avoiding the need for opioids.
A new paper by UMBC researchers, led by physicist Sebastian Deffner, demonstrates quantum computing’s potential to optimize urban train scheduling, using Baltimore’s Light RailLink as a model. Their study, published with collaborators from the Polish Academy of Sciences, leverages quantum “noise” to model unpredictable train delays. Tested on IonQ and D-Wave quantum devices, the approach solves small-scale scheduling but highlights the need for advanced hardware for larger networks. This interdisciplinary work could revolutionize logistics, finance, and drug discovery by tackling complex systems affected by randomness.