FAU secures $1.3 million NIH grant for breakthrough in HIV self-test technology
Grant and Award Announcement
Updates every hour. Last Updated: 22-Jul-2025 11:11 ET (22-Jul-2025 15:11 GMT/UTC)
FAU researchers have been awarded a five-year NIH grant to address the urgent need for a reliable, rapid and affordable self-test for early HIV detection. Expected to cost less than $5, the novel micro-chip technology will detect HIV during the acute infection phase or viral rebound, deliver rapid results in about 40 minutes and remain stable without refrigeration. The handheld device will be battery-powered and operate fully automated, providing true “sample-in-answer-out” functionality that requires minimal user manipulation.
Self-healing coatings are advanced materials that can repair damage, such as scratches and cracks on their own. Researchers from Waseda University have developed an efficient method for preparing self-healing films consisting of alternating layers of highly cross-linked organosiloxane and linear polydimethylsiloxane (PDMS). Their film is more durable than conventional self-healing PDMS materials, offering superior hardness and greater thermal stability while self-healing at mild temperatures, paving the way for stronger, more reliable, and easier-maintained self-healing materials.
In a National Science Review perspective, the research progress and future challenges of nuclear optical clocks are presented. The Th-229 clock, with a small nucleus and separated quantum states, may outperform atomic clocks. After 50-year research, key breakthroughs have been made, and solving remaining issues will revolutionize timekeeping and fundamental physics.
Oceanic mesoscale eddies are fundamental components of ocean dynamic systems, typically spanning tens to hundreds of kilometers and persisting for weeks to several months. As key dynamic features governing ocean energy distribution, these eddies regulate oceanic energy budgets, heat redistribution and material transport processes. Recent technological advancements have substantially expanded our understanding of oceanic mesoscale eddies, which could help inform future research paths to better understand and predict the eddies, according to a team of researchers based in China.
The space station is a critical platform for large-scale scientific experiments and an outpost for deep-space exploration. Within it, complex conditions such as microgravity, radiation, containment, and oligotrophy create a unique environment where microbial communities coexist with humans, significantly influencing the ecosystem stability.
Recently, Science China Life Sciences published an article titled "An Early Microbial Landscape: Insights from the China Space Station Habitation Area Microbiome Program (CHAMP)." This study provides the first comprehensive analysis of the characteristics and temporal dynamics of microbial communities during the early operational phase of China space station. The results offer a scientific foundation for microbial management in future long-term manned missions, emphasizing the importance of microbial balance for both human health and mission success.