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With the devastating hurricanes that swept the southeastern United States at the end of 2024, new and better ways to get critical supplies to disaster zones and rural areas are essential. U.S. National Science Foundation Graduate Research Fellow Garrett Asper is devoting his research during his fellowship to advancing flight control systems for electric or hybrid vertical takeoff and landing vehicles (eVTOLs), which can move people and cargo “more quickly, quietly and cost-effectively than traditional helicopters or ground transportation” according to this article from Virginia Tech.

EVTOLs, which combine the vertical takeoff of helicopters with the ability to transition to horizontal flight like airplanes, are being called “the future of flight.” However, the controls during transitioning from horizontal to vertical flight still need improvement before they can be deployed during disasters. Asper’s research focuses on developing and flight-testing new control algorithms to ensure the safety, speed and efficacy of eVTOL transport. He aims to make the tools he’s creating open source, allowing other researchers to use them to test their work. By doing so, he hopes to advance the entire field and bring us closer to the day when critical supplies and aid can be quickly airlifted to disaster zones.

An aerospace engineering doctoral candidate at Virginia Tech, Asper is a researcher in the Nonlinear Systems Laboratory and the NSF-funded Uncrewed Systems Laboratory. He

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The U.S. National Science Foundation Regional Innovation Engines (NSF Engines) program announced the 29 semifinalists advancing to the next stage of the second competition – spanning critical technologies and applications ranging from energy grid security to maximizing the yield of critical minerals mining to advanced optical sensors. The semifinalist teams, many of whom have been building their regional coalitions for a year or longer, are led by universities, nonprofits, private industry and other organizations from across the United States. View a map of the NSF Engines semifinalists.

Credit: U.S. National Science Foundation

A map showing the locations of the U.S. National Science Foundation Regional Innovation Engines (NSF Engines) program’s 29 finalists for 2025. Explore the map semifinalists in more detail.

“This outstanding cohort of semifinalists clearly demonstrates that America’s technology competitiveness will depend as much on expanding our ability to unlock innovation capacity in every part of our country — from the rural plains and western ranges to cities with rich industrial and manufacturing legacies — as it will on advancing the technologies themselves,” said Erwin Gianchandani, NSF assistant director for Technology, Innovation and Partnerships (NSF TIP). “Each team was selected because it brought strong public and private partners to the table and outlined a promising vision for research, innovation and workforce development in

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U.S. National Science Foundation-funded researchers have stabilized a composite material in a superconducting state at ambient or normal, everyday pressure. Their technique, called the “pressure-quench protocol,” offers a new approach for exploring and developing superconducting materials. Superconducting materials have the potential to enable highly efficient electronic devices and minimal energy loss in power grids.

Superconducting materials typically exhibit zero electrical resistance only at very low temperatures or very high pressures, depending on the material. Researchers at the University of Houston overcame these limitations by using their pressure-quench technique to stabilize a composite of bismuth, antimony and tellurium in a superconducting state under ambient pressure. This study, published in Proceedings of the National Academy of Sciences, also included contributions from researchers at the University at Buffalo and the University of Illinois Chicago.

Credit: Liangzi Deng and Ching-Wu Chu

A multi-purpose measurement device used in the pressure-quenching experiments can reach a temperature of 1.2 degrees Kelvin (-457 degrees Fahrenheit).

The new protocol also opens up a new way to explore material phases that usually exist only under extreme pressure. “It should help our search for superconductors with higher transition temperatures,” says Paul Ching-Wu Chu, a study author and professor of physics at the University of Houston.

“The technique used in this study not only demonstrates potential

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A new chemical process funded by the U.S. National Science Foundation has produced methanol — a type of alcohol essential for manufacturing many common products and a potential fuel source — more efficiently than ever before. The method generates methanol from carbon dioxide nearly 66% more efficiently than the next best approach.

The process uses a dual combination of nickel- and cobalt-based compounds as a catalyst on nanotubes, where multiple chemical reactions and electricity convert carbon dioxide to methanol. More of the C02 is transformed into methanol and with comparatively less electricity consumption, making the overall process more efficient. The findings are published in Nature Nanotechnology by a team of scientists spanning Yale University, Oregon State University and The Ohio State University.

“Methanol is a flexible chemical feedstock that is used for hundreds of common products including plastics, chemicals and solvents,” says Alvin Chang, an OSU doctoral student and coauthor on the study. By improving methanol production, scientists could make it faster, cheaper and with less waste.

Methanol is being explored as a low-cost fuel for generating electricity, powering ships, supplementing gasoline for automobiles and more. In addition to using C02 from the atmosphere, the process could enable methanol production from plentiful agricultural and municipal waste.

Having steady access to such a versatile and renewable resource could transform many aspects of daily life, including the transportation

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