Sustainable Mobility Center aims to transform how the world moves
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Updates every hour. Last Updated: 29-Oct-2026 01:16 ET (29-Oct-2026 05:16 GMT/UTC)
The Precourt Institute for Energy’s new Sustainable Mobility Center seeks to fundamentally rethink how people and goods move across land, sea, and air.
The inefficiency of current transportation systems underscores the urgent need for a coordinated, systems-level redesign rather than a simple fuel swap.
Research will be organized around five pillars: energy systems, infrastructure, economics and policy, safety, and interdisciplinary design.
For decades, ultrasound has been associated with diagnostics – a routine scan in a hospital room, a monitor displaying organs, tissues, or the first image of a baby. However, researchers are now looking at ultrasound from an entirely different perspective. New findings from scientists at Kaunas University of Technology (KTU) suggest that ultrasound waves might not only help doctors see inside the body, but low-frequency ultrasound directly influences blood flow – potentially opening new possibilities to support the treatment of cardiovascular diseases, Alzheimer’s disease, and diabetes, reducing the need for invasive procedures or medication in the future.
Neanderthal populations in southern Europe collected shellfish throughout the year, with a marked preference for the colder months, according to a new international study led by researchers from the Institute of Environmental Science and Technology at the Universitat Autònoma de Barcelona (ICTA-UAB), the IsoTOPIK Lab at the University of Burgos (UBU), and the Instituto Internacional de Investigaciones Prehistóricas de Cantabria at the University of Cantabria (UC).
Davis Joseph was awarded the 2025 Ciechanover International Biology Award at the Sustainability through Science and Technology Summit 2025 (FLOGEN SIPS 2025) in Cebu, Philippines, for a breakthrough cancer discovery proposing organ-agnostic treatment strategies. His work identifies three universal cancer types based on dysfunctions in p14ARF/p53, DINO lncRNA, and MDM2 activity, and introduces a universal apoptosis network flowsheet built from the analysis of 174 scientific publications. The discovery supports a unified therapeutic framework for treating cancers regardless of the organ in which they originate and is presented as an example of Sustainable Medicine under the FLOGEN Sustainability Framework.
Intensive agriculture poses a significant threat to global biodiversity. However, one aspect of biodiversity in farmland is little studied: algae. Most people have seen algae growing in streams, lakes or the sea. However, algae have also adapted to survive in dryer, harsher conditions on land. In fact, soil algae are thought to be responsible for about 6% of the vegetation production on Earth. This led a research team at the universities of Göttingen and Kassel to investigate the algae in the surface soils of farmland. Their pilot study revealed more than 100 different algae, likely to be made up of hundreds of individual species. Unlike most other microbes, these algae showed seasonal variation in their communities. These are the first steps towards understanding the factors that determine the diversity of these important microorganisms. The results were published in the Journal Frontiers in Microbiology.
Lunar craters in permanent shadow could be ideal locations for building the most stable optical lasers ever made. The ultrastable laser could provide a GPS-like signal enabling spacecraft to navigate the Moon’s surface and more. Jun Ye, a physicist with the National Institute of Standards and Technology (NIST) and JILA, a joint institute of NIST and the University of Colorado, Boulder, and his colleagues describe their proposal in a recent issue of the Proceedings of the National Academy of Sciences.
The Moon’s frigid polar regions, where permanently shadowed craters reside, have a low-vibration, high vacuum environment that’s highly suitable for ultrastable lasers. Such a laser could lock its frequencies onto signals from optical atomic clocks on satellites, providing the first atomic timekeeping signal on an extraterrestrial body. Networks of these lasers could make possible highly precise measurements of the distance between satellites and the lunar surface and could potentially even detect gravitational waves passing through.
These polar regions, which are designated as possible landing sites for future missions in NASA’s Artemis program, remain central to long-term lunar exploration because they contain water-ice and other resources needed to maintain a human presence.
NIMS developed TEGNet (Thermoelectric Generator Neural Network), a neural network for designing thermoelectric generators by utilizing artificial intelligence (AI). TEGNet can predict performance of a power generator, a process which used to take enormous computational time with traditional simulation techniques, with only about 1/10,000 of the time conventionally needed, while maintaining over 99% accuracy. This technology significantly accelerates optimization from material development to device design, and is expected to be applied to waste heat recovery and stand-alone power supply for IoT sensors, for example. This research result was published in Nature at 11:00 U.S. Eastern Standard Time, April 15, 2026 (0:00 Japan Standard Time, April 16, 2026).
WASHINGTON, D.C. — U.S. Naval Research Laboratory (NRL) Glowbug-2 instrument successfully launched on board the Department of War (DoW) Space Test Program – Houston 11 (STP-H11) payload at approximately 6:05 p.m. EDT on May 15, from Cape Canaveral Space Force Station, Fla.