Guideline on sleep-disordered breathing in pregnancy released by CHEST
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Updates every hour. Last Updated: 31-Oct-2026 15:16 ET (31-Oct-2026 19:16 GMT/UTC)
New nutrient-rich protein powders to boost the health of active older people are being developed with the help of an artificial stomach at Aberystwyth University.
Technion researchers have identified a previously unknown mechanism that enables bacteria to develop antibiotic resistance far more rapidly than previously understood. The study, led by Dr. Idan Yelin and Prof. Roy Kishony of the Technion’s Faculty of Biology and published in Nature Microbiology, reveals how bacteria can quickly produce dozens of copies of genes that confer resistance.
Using AmpliFinder, a new computational tool, the researchers analyzed more than 10,000 laboratory-evolved bacterial samples and discovered that non-canonical gene amplifications are both common and highly efficient. Experiments in Escherichia coli and Acinetobacter baumannii showed that this mechanism enables bacteria to adapt to progressively higher concentrations of antibiotics. Disrupting the process could offer a new way to slow the emergence of resistance and improve the effectiveness of antibiotic treatments.
Hybrid nanomaterials are attracting growing attention for their ability to improve the functional performance of polymer-based systems, making them strong contenders for advanced applications in the electronics and biomedical fields. In this study, novel hybrid nanocomposites were developed based on a polyvinylpyrrolidone (PVP) K30 matrix blended with the conductive polymer polypyrrole (PPy) and reinforced with graphene oxide (GO) and indium tin oxide (ITO) nanoparticles. The nanocomposites were fabricated using a solution-casting technique, with improved dispersion achieved through mechanical stirring and ultrasonication. Field emission scanning electron microscope (FESEM) images revealed a smooth surface morphology and an homogeneous distribution of nanomaterials within the polymer matrix. Meanwhile, Fourier transform infrared spectroscopy (FTIR) indicated strong physical interactions between the composite components, with X-ray diffraction confirming the semicrystalline behavior of PVP, which was strongly impacted by the contribution of the nanomaterials. UV–Vis spectroscopy showed significantly enhanced optical behavior, with a notable reduction in the optical band gap from ∼3.43 to 1.63 eV, indicating improved electronic transition efficiency. Furthermore, the well-dried solid films exhibited superior antibacterial activity, with inhibition zones increasing by 53.8% against Staphylococcus aureus and 46.1% against Escherichia coli. These findings highlight the novelty and multifunctionality of the developed nanocomposites, demonstrating their strong potential for use in flexible optical-electronics devices, antibacterial coatings, tissue engineering, and sensor applications and addressing current societal needs in the health, environmental, and medical sectors.
Type 2 diabetes (T2D) develops through the long-term interplay of genetic predisposition, lifestyle, and environmental exposures. Residential greenness is increasingly studied as a measurable environmental exposure that may be related to diabetes risk. However, prospective evidence from Chinese populations remains limited, and whether genetic susceptibility modifies the greenness–T2D association, particularly in terms of absolute risk reduction, has remained unclear.