Freezing fire: UT San Antonio scientists discover breakthrough for green energy
Peer-Reviewed Publication
Updates every hour. Last Updated: 21-Oct-2026 15:17 ET (21-Oct-2026 19:17 GMT/UTC)
As the global push for cleaner energy intensifies, solid oxide fuel cells have emerged as a promising option. They turn hydrogen or other renewable fuels directly into electricity and heat without combustion, eliminating virtually all pollution and boosting efficiency to over 60%. But a major downside has kept them out of everyday commercial use: they require extremely high temperatures to operate.
A team of researchers at UT San Antonio and partnering institutions have found a way around that barrier. Instead of relying on perfectly ordered materials, they applied a thermal shock technique to create tiny clusters of disordered atoms that move oxygen ions much more easily at lower temperatures. The result could help make fuel cells cheaper, more durable and easier to use outside the lab.
In a paper published in SCIENCE CHINA Earth Sciences, researchers assessed the parameterization of orographic gravity wave drag (OGWD) in 3-km-resolution WRF simulations for precipitation forecast over the highly complex-terrain Southwest China. Their results reveal that OGWD parameterization, previously considered negligible in kilometer-scale models, can greatly improve the predicted rainfall intensity and location by modulating the low-level winds and moisture transport. These findings lay an important scientific foundation for operational precipitation forecasting in regions of complex terrain.
When temperatures spike, emergency physicians expect to see more cases of dehydration and heat stroke. But a new Northwestern University study suggests that extreme heat also is linked to a much wider range of health problems seen in emergency departments and urgent care clinics, including skin conditions, multiple sclerosis and even injuries from traffic accidents.
The findings could help emergency departments and health care systems better prepare for heat waves, which are becoming more prevalent with climate change.
Researchers used combinatorial solid-phase peptide synthesis and infrared thermography to screen 300 tripeptide sequences for interactions with CO2. Two tripeptides, His(Boc)-Phe-Asn and Phe-Ala-Glu(OtBu), showed reproducible thermal responses after CO2 exposure. The signals were reproduced on glass, functionalised cellulose, and Rink-amide resin, indicating that thermographic screening can help identify peptide candidates for further development as bioinspired CO2-binding materials.
Researchers found that wildfire smoke and rain, through relatively infrequent, can deliver disproportionally large amounts of nitrogen, phosphorus and potassium to ecosystems. Analyzing satellite smoke observations and national network rainfall data from 250 sites across 16 climate regions in 2014, 2020 and 2022, the study found a striking increase in smoke-rain days in 2022 compared with 2014, with regional hotspots shifted from year to year. The findings show wildfire emissions can be an important source of material deposited into ecosystems, but not necessarily in a way that benefits growth or productivity.
A major two-year trial by RMIT University, Westernport Water and Australia’s national science agency CSIRO measured the impact of floating platforms of native plants on greenhouse gas emissions from a wastewater lagoon in Phillip Island, southeast Australia.
The results published in the Journal of Environmental Management reveal dramatic results, with CO₂ emissions dropping by up to 36%, methane by up to 66% and nitrogen by 18% in the lagoon with a floating wetland installed, compared to the control lagoon with no wetland platform.