Model mice treated with extracts and powders exhibit restored cognitive and motor functions. Efforts to develop a breakthrough dementia drug are gaining attention, yet traditional medicinal products may provide valuable insights for preventive care. A research group led by Specially Appointed Professor Takami Tomiyama of Osaka Metropolitan University’s Graduate School…
We were honored to have the brilliant Dr. David Sinclair PhD present a new perspective on his Information Theory of Aging during our longevity research hackathon at MIT Media Lab, from October 2024.
Follow Dr. David Sinclair and his groundbreaking work here:
• Harvard Lab: https://sinclair.hms.harvard.edu/peop…
• X (Twitter): https://twitter.com/davidasinclair.
• Instagram: / davidsinclairphd.
• Site: https://davidasinclair.com.
• Order his best-selling book Lifespan: https://lifespanbook.com.
More about our research hackathon here: https://lu.ma/minds.
Our collaborator Augmentation Lab: https://augmentationlab.org.
Special thanks to our generous sponsor David Protein: https://davidprotein.com.
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Upcoming moon missions will need to plan for how to respond to emergencies on the lunar surface.
This is “BIC Trainees’ Seminar — Oct 21, 2024″ by The Neuro on Vimeo, the home for high quality videos and the people who love them.
Business spending on generative AI surged 500% this year, from $2.3 billion in 2023 to $13.8 billion, according to data released by Menlo Ventures on Wednesday.
This could revolutionize insulin and protein-based drug treatments, enhancing ease and comfort.
MIT has developed an ingestible capsule inspired by squid propulsion, delivering drugs directly to the stomach without needles.
Caltech’s new optical devices, evolved by algorithms and crafted via precise 3D printing, offer advanced light-manipulation for applications like augmented reality and cameras.
Researchers at Caltech have developed a groundbreaking technology that “evolves” optical devices and fabricates them using a specialized 3D printer. These devices, composed of optical metamaterials, gain their unique properties from nanometer-scale structures. This innovation could enable cameras and sensors to detect and manipulate light in ways previously impossible at such small scales.
The research was conducted in the lab of Andrei Faraon, the William L. Valentine Professor of Applied Physics and Electrical Engineering and was published in the journal Nature Communications.
A new method enables researchers to analyze magnetic nanostructures with a high resolution. It was developed by researchers at Martin Luther University Halle-Wittenberg (MLU) and the Max Planck Institute of Microstructure Physics in Halle.
The new method achieves a resolution of around 70 nanometers, whereas normal light microscopes have a resolution of just 500 nanometers. This result is important for the development of new, energy-efficient storage technologies based on spin electronics. The team reports on its research in the current issue of the journal ACS Nano.
Normal optical microscopes are limited by the wavelength of light and details below around 500 nanometers cannot be resolved. The new method overcomes this limit by utilizing the anomalous Nernst effect (ANE) and a metallic nano-scale tip. ANE generates an electrical voltage in a magnetic metal that is perpendicular to the magnetization and a temperature gradient.
