Scientists identify diagnostic aid to determine risk of diabetic foot ulcer recurrence
Peer-Reviewed Publication
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Updates every hour. Last Updated: 17-Nov-2025 19:11 ET (18-Nov-2025 00:11 GMT/UTC)
A research team funded by the National Institutes of Health (NIH) has identified a diagnostic aid that has the potential to accurately predict the recurrence of diabetic foot ulcers that appear to be fully healed. By measuring the skin’s barrier function through a process known as trans-epidermal water loss, or TEWL, scientists were able to determine which wounds were more likely to reopen. TEWL measurements are a major factor in burn care, where deep layers of the skin are often damaged. The findings suggest that full restoration of skin barrier function should be incorporated into existing wound treatment standards to ensure complete wound closure and to better identify patients at risk of wound recurrence.
On 29 May 2025, the Polarstern research vessel set sail from Bremerhaven for the Arctic. The destination of the 95 expedition participants, led by the Alfred Wegener Institute, is the AWI Hausgarten, a long-term observatory situated between Svalbard and Greenland. There they will investigate how the ecosystems of the Arctic deep sea are reacting to changing environmental conditions as a result of rapid climate change. The month-long expedition, which is scheduled to finish in Tromsø, Norway, at the end of June, will focus on benthic and plankton communities in the open water and physical changes in the ocean.
Haptophytes—the unicellular photosynthetic marine algae—are one of the major contributors to marine biomass. Scientists at Okayama University, Japan, unveil the first high-resolution structure of the photosystem II–FCPII (photosynthetic supercomplex) in a marine haptophyte, Chrysotila roscoffensis. This discovery sheds light on the unique approach of sunlight capture and energy management by the complex, offering new insights into marine biology and potential advances in artificial photosynthesis technology.