Researchers develop innovative tool for rapid pathogen detection
Peer-Reviewed Publication
Updates every hour. Last Updated: 7-May-2025 20:09 ET (8-May-2025 00:09 GMT/UTC)
A groundbreaking primer design tool from the Zhang Liye Laboratory automates the search across entire genomes for pathogen detection, significantly enhancing the speed and accuracy of infectious disease diagnosis
The amount of nitrogen fertilizer needed to maximize the profitability of corn production in the Midwest has been increasing by about 1.2% per year for the past three decades, a trend driven by higher yields and wetter springs, according to new Iowa State University study.
In a recent development in power system research, a study published in Engineering has provided new insights into the power response of networks. As power electronic equipment becomes more integrated in power systems, the traditional understanding and analysis methods face challenges. The research focuses on the power response when networks are excited by voltage with time-varying amplitude and frequency. By using innovative mathematical calculations and simulations, the researchers uncovered multi-timescale characteristics of network power, which could offer useful guidance for engineers in understanding and analyzing power system dynamics.
Hydrogen has the potential to power internal combustion engines, including on-road and off-road vehicles and equipment, and large marine engines. Despite its promise to reduce climate change emissions such as carbon dioxide and harmful pollutants, hydrogen has largely remained underutilized in the United States.
Officials at the University of Michigan and University of California, Riverside, along with several industry partners, are working to change that with the launch of the Hydrogen Engine Alliance of North America, or H2EA-NA. The alliance will promote hydrogen as a viable alternative fuel that can complement internal combustion engine, or ICE, vehicles while supporting the transition to electric and other zero emission technologies.In a recent development, a team of scientists from the Korea Institute of Science and Technology (KIST) and other institutions has come up with an innovative way to deal with plastic waste. Their study develops a photocatalytic method to degrade plastic waste, depositing polystyrene (PS) onto a durable tungsten oxide (WO3) photoanode. Under light, PS undergoes oxidation, producing carbon dioxide at the anode and hydrogen gas at the cathode, offering an eco-friendly, cost-effective approach for waste treatment and fuel production.