Københavns Universitets Videoportal web@adm.ku.dk https://ku.23video.com da-dk Visualplatform http://blogs.law.harvard.edu/tech/rss Københavns Universitets Videoportal episodic no https://ku.23video.com/files/rv1.9/sitelogo.gif https://ku.23video.com http://video.ku.dk/photo/132569666/a-molecular-switch-syncs <p><p>A protein in the brown fat of mice sits at the intersection of three metabolic controls: the body's 24-hour clock, the temperature outside, and our diet. The discovery helps explain how the body can keep a daily rhythm of energy metabolism, and still respond the moment its energy needs change. The discovery by the Gerhart-Hines Group from the NNF Center for Basic Metabolic Research at the University of Copenhagen and their international collaborators was published in Science.</p></p><p><a href="http://video.ku.dk/photo/132569666/a-molecular-switch-syncs"><img src="http://video.ku.dk/64968558/132569666/02b040f8b23815f1cf86cd32e4f8dcbc/standard/download-24-thumbnail.jpg" width="600" height="338"/></a></p> http://video.ku.dk/photo/132569666 Fri, 02 Oct 2026 06:00:00 GMT A molecular switch syncs fat-burning to the body clock, our diet and the... A protein in the brown fat of mice sits at the intersection of three metabolic controls: the body's 24-hour clock, the temperature outside, and our diet. The discovery helps explain how the body can keep a daily rhythm of energy metabolism, and still respond the moment its energy needs change. The discovery by the Gerhart-Hines Group from the NNF Center for Basic Metabolic Research at the University of Copenhagen and their international collaborators was published in Science. A protein in the brown fat of mice sits at the intersection of three metabolic controls: the body's 24-hour clock, the temperature outside, and our diet. The discovery helps explain how the body can keep a daily rhythm of energy metabolism, and... Københavns Universitets Videoportal 03:05 <p><p>A protein in the brown fat of mice sits at the intersection of three metabolic controls: the body's 24-hour clock, the temperature outside, and our diet. The discovery helps explain how the body can keep a daily rhythm of energy metabolism, and still respond the moment its energy needs change. The discovery by the Gerhart-Hines Group from the NNF Center for Basic Metabolic Research at the University of Copenhagen and their international collaborators was published in Science.</p></p><p><a href="http://video.ku.dk/photo/132569666/a-molecular-switch-syncs"><img src="http://video.ku.dk/64968558/132569666/02b040f8b23815f1cf86cd32e4f8dcbc/standard/download-24-thumbnail.jpg" width="600" height="338"/></a></p> metabolism metabolismecenter http://video.ku.dk/photo/64295295/new-research-points-toward-better <p>Scientists at the University of Copenhagen has deepened our understanding of the brain's role in diabetes.&nbsp;<br><p>The latest findings, which were published in Nature Communications,&nbsp;build on research by Professor Michael Schwartz from the University of Washington. Several years ago, he discovered that injecting a single dose of the protein FGF1 targets the brain and cures diabetes in mice.</p><p><a href="https://cbmr.ku.dk/research/human-genomics-and-metagenomics-in-metabolism/pers-group/">Associate Professor Tune H. Pers</a> from the Novo Nordisk Foundation Center for Basic Metabolic Research teamed up with the Schwartz Lab to better understand how FGF1 affects the brains of mice.</p><p>They were able to find that particular neurons within the hypothalamus are changed in a sustained way and that this change is critical to induce long lasting diabetes remission. The research could pave the way for new diabetes treatments that are more effective and long lasting. It also challenges the prevailing wisdom and about the cause, and potential cure, for diabetes.<br><br>Read the full article in Nature Communications here:&nbsp;<a href="https://www.nature.com/articles/s41467-020-17720-5">Transcriptomic analysis links diverse hypothalamic cell types to fibroblast growth factor 1-induced sustained diabetes remission</a></p><br></p><p><a href="http://video.ku.dk/photo/64295295/new-research-points-toward-better"><img src="http://video.ku.dk/60650861/64295295/86640404e127e98efd4df7d45f9dee28/standard/download-13-thumbnail.jpg" width="600" height="338"/></a></p> http://video.ku.dk/photo/64295295 Tue, 08 Sep 2020 09:38:03 GMT New research points toward better and longer lasting diabetes treatments Scientists at the University of Copenhagen has deepened our understanding of the brain's role in diabetes.The latest findings, which were published in Nature Communications,build on research by Professor Michael Schwartz from the University of Washington. Several years ago, he discovered that injecting a single dose of the protein FGF1 targets the brain and cures diabetes in mice.Associate Professor Tune H. Pers from the Novo Nordisk Foundation Center for Basic Metabolic Research teamed up with the Schwartz Lab to better understand how FGF1 affects the brains of mice.They were able to find that particular neurons within the hypothalamus are changed in a sustained way and that this change is critical to induce long lasting diabetes remission. The research could pave the way for new diabetes treatments that are more effective and long lasting. It also challenges the prevailing wisdom and about the cause, and potential cure, for diabetes.Read the full article in Nature Communications here:Transcriptomic analysis links diverse hypothalamic cell types to fibroblast growth factor 1-induced sustained diabetes remission Scientists at the University of Copenhagen has deepened our understanding of the brain's role in diabetes.The latest findings, which were published in Nature Communications,build on research by Professor Michael Schwartz from the University of... Københavns Universitets Videoportal 02:27 <p>Scientists at the University of Copenhagen has deepened our understanding of the brain's role in diabetes.&nbsp;<br><p>The latest findings, which were published in Nature Communications,&nbsp;build on research by Professor Michael Schwartz from the University of Washington. Several years ago, he discovered that injecting a single dose of the protein FGF1 targets the brain and cures diabetes in mice.</p><p><a href="https://cbmr.ku.dk/research/human-genomics-and-metagenomics-in-metabolism/pers-group/">Associate Professor Tune H. Pers</a> from the Novo Nordisk Foundation Center for Basic Metabolic Research teamed up with the Schwartz Lab to better understand how FGF1 affects the brains of mice.</p><p>They were able to find that particular neurons within the hypothalamus are changed in a sustained way and that this change is critical to induce long lasting diabetes remission. The research could pave the way for new diabetes treatments that are more effective and long lasting. It also challenges the prevailing wisdom and about the cause, and potential cure, for diabetes.<br><br>Read the full article in Nature Communications here:&nbsp;<a href="https://www.nature.com/articles/s41467-020-17720-5">Transcriptomic analysis links diverse hypothalamic cell types to fibroblast growth factor 1-induced sustained diabetes remission</a></p><br></p><p><a href="http://video.ku.dk/photo/64295295/new-research-points-toward-better"><img src="http://video.ku.dk/60650861/64295295/86640404e127e98efd4df7d45f9dee28/standard/download-13-thumbnail.jpg" width="600" height="338"/></a></p> cbmr diabetes forskning metabolism metabolisme metabolismecenter sund