Archived Intelligence
Scientists have successfully mapped the surface proteins of brain cells in living flies, identifying a specific protein that might slow down ageing. This same mapping technique paves the way for a new era in genomic medicine, offering a clearer picture of how our own brains decline.
Scientists have used artificial intelligence to shrink a gene-editing tool into an ultra-compact package. By trimming away unnecessary parts of the protein, they created a miniature device that can precisely turn on specific genes. This could make it much easier to deliver gene therapies into human cells.
Scientists have found a new way to help computer models mimic how the brain processes long, complex signals. By breaking long messages into shorter chunks, these systems can recognise patterns that were previously too long to process.
Scientists have successfully synthesised a highly stable, two-dimensional superconducting material that controls how electricity flows without resistance. By forcing paired electrons into specific directional patterns, this material provides a robust platform for exploring novel quantum phenomena and building anisotropy-enabled devices.
Scientists have created a lightweight patch that actively delivers oxygen directly to wounds. Unlike older devices that only monitor health, this system provides continuous physical therapy. Early tests on animals suggest it could significantly speed up the healing of pressure ulcers.
Scientists have developed a new, bio-derived battery material that can be easily broken down and rebuilt without losing much performance. This sustainable power source could eventually help solve the growing e-waste crisis, providing a greener foundation for next-generation electronics and supercapacitors.
While biologists fight silent invaders like Chagas disease, materials scientists are tackling the invisible energy drain of modern technology. Researchers have developed a new type of low-power computer memory using twisted atomic layers, which may eventually power highly efficient spin logic devices.
Researchers have developed a hybrid quantum-classical machine learning tool to predict how complex protein segments interact inside cells. The study measured significant performance improvements over standard models, suggesting that quantum design could overcome current limits in biological computing.
Scientists analysed sediment cores to map the Yellowstone ecosystem over 15,000 years, revealing how geology restricted forest changes despite a warming climate. The paleoclimate modelling used to measure these ancient environmental markers offers a powerful framework for understanding how long-term stress shapes biological systems, connecting to the wider future of genomic medicine.
Scientists have discovered how tiny worms defend themselves against viruses by mutating a specific gene. This research shows that different worm species independently use the same trick to survive, teaching us how host-pathogen interactions evolve in nature.
Scientists have designed a new four-channel optical device to speed up data transmission by processing multiple light waves simultaneously. While computer simulations show high efficiency, the device still needs physical testing to prove its viability.
Chemists have developed a highly efficient, single-step method to manufacture complex plastics known as apolar-polar block copolymers. By deploying a dual-metal catalyst, they successfully merged two historically incompatible chemical reactions into one streamlined process.