Tofu is the winner. Cambridge scientist creates new holistic scoring system to measure the impact of food
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Updates every hour. Last Updated: 20-Oct-2026 11:16 ET (20-Oct-2026 15:16 GMT/UTC)
As artificial intelligence becomes capable of producing sophisticated art in seconds, a new paper challenges us to rethink what makes human creativity valuable. The paper argues that while AI can bypass years of artistic training, it cannot replace the transformative experiences that give creativity its deeper meaning. The research suggests that the future of art may lie less in producing impressive works and more in using technology to inspire exploration, meaningful experiences, and new ways of seeing the world.
The International Society for Stem Cell Research (ISSCR) today opens its international symposium celebrating the 20th anniversary of induced pluripotent stem (iPS) cell technology, bringing together scientists, clinicians, and innovators from around the world to reflect on two decades of transformative discoveries and explore the future of stem cell research and regenerative medicine.
The three-day symposium, held Oct. 20–22 in Kyoto, Japan, is organized in partnership with the Center for iPS Cell Research and Application (CiRA) and co-sponsored by the Japanese Society for Regenerative Medicine (JSRM).
The extraordinary response to the symposium underscores the strength and momentum of stem cell science worldwide. Registration reached capacity twice, even after the ISSCR expanded the meeting to a larger venue to accommodate growing demand. This remarkable level of interest reflects both the profound impact of iPSC technology over the past two decades and the expanding opportunities ahead, from fundamental discoveries in human biology to advances in disease modeling, drug discovery, clinical translation, and the development of stem cell-based therapies.
Waste that would otherwise end up in landfill could help low-carbon cement production by reducing the industry’s reliance on fossil fuels, according to Australian researchers.
Researchers in China developed AgriMamba, a text-guided multimodal framework for plant disease severity grading in complex field environments. The framework combines disease images with pathological descriptions of lesion color, shape, edge characteristics, and spatial distribution. It follows a coarse-to-fine process that localizes the target leaf, segments lesion regions, and quantifies disease severity using lesion-to-leaf area ratios. Experimental and visualization results showed that AgriMamba achieved competitive performance compared with several representative deep learning methods. The model also progressively focused on target leaves and lesions despite background interference, leaf occlusion, and small or scattered disease regions. These findings provide a new technical approach for automated plant disease assessment in complex field environments.
Inspired by the remarkable ability of sea cucumbers to change the stiffness of their bodies, University of Waterloo researchers have developed a gel that could one day help repair damaged tendons and other soft tissues without leaving permanent material behind.