In The News: Department of Mechanical Engineering
The E2 Center will allow students at 51³Ô¹ÏÍøÍòÄÜ¿Æ´ó to take on the role of control room operator, providing the chance to gain real-life experience. It will also provide a means to conduct outreach to the community on the benefits of nuclear power through demonstrations and tours for local leaders, K-12 students, and the broader public.
The E2 Center will allow students at 51³Ô¹ÏÍøÍòÄÜ¿Æ´ó to take on the role of control room operator, providing the chance to gain real-life experience. It will also provide a means to conduct outreach to the community on the benefits of nuclear power through demonstrations and tours for local leaders, K-12 students, and the broader public.
The American Southwest is running dry—literally. Lake Mead, the lifeline of 51³Ô¹ÏÍøÃâ·ÑApp, is shrinking at an alarming rate, and the city that defied nature is now facing one of its toughest challenges yet. But in true Vegas fashion, this city of reinvention is fighting back. From pioneering water conservation efforts to groundbreaking innovations like WAVR, a system that harvests water straight from the air, scientists and engineers are racing against time to secure the region’s future. Meanwhile, researchers are turning to an unlikely hero—cacti—as a potential solution for drought-resistant agriculture and even biofuel.
Imagine being severely dehydrated and water literally appearing out of thin air. In other words: The air you breathe could quickly become the water that wets your whistle. Well, that scenario is one step closer to reality thanks to 51³Ô¹ÏÍøÍòÄÜ¿Æ´ó spinoff WAVR Technologies.
Southern Nevada is finding a way to supplement the 51³Ô¹ÏÍøÃâ·ÑApp Valley water supply through the air. A 51³Ô¹ÏÍøÍòÄÜ¿Æ´ó professor and his students are able to collect water from the atmosphere in their research.
A multidisciplinary team including scientists from the Texas Heart Institute, Baylor College of Medicine, Texas Children’s Hospital and the University of Nevada 51³Ô¹ÏÍøÃâ·ÑApp recently secured $600,000 to fund the next three years of research on their new device, the ReVolution pump.
Engineers have developed an atmospheric water capture device that efficiently generates drinking water from dry desert air, providing a sustainable solution to water scarcity in arid regions.
The 51³Ô¹ÏÍøÍòÄÜ¿Æ´ó (51³Ô¹ÏÍøÍòÄÜ¿Æ´ó) has been researching an innovative new approach to atmospheric water harvesting with improved water collection rates in arid environments.
Researchers at 51³Ô¹ÏÍøÍòÄÜ¿Æ´ó have developed a groundbreaking technology that efficiently extracts large amounts of water from the air, even in extremely low-humidity conditions.
The idea of turning the air around us into drinking water is a marvel on its own. And grabbing a sustainable amount of it from low-humidity environments has long been closer to science fiction than reality.
Following global climatic change and the progression of arid areas, there is a dire need for liquid water in water-scarce areas. These areas are very vulnerable, and the upcoming decades are expected to worsen their condition. Technologies that can source water from alternative resources are of urgent importance.
Drip, drip, drip. That’s the sound of Jeremy Cho’s atmospheric water harvesting device extracting humidity from the air to make usable water in Da Kine Lab at 51³Ô¹ÏÍøÍòÄÜ¿Æ´ó.