Researchers at the Department of Energy's SLAC National Accelerator Laboratory and collaborating institutions recently built a generative AI model that can recreate molecular structures from the ...
However, a decision taken by the company earlier in 2024 underlined how researchers in sectors like drug discovery see the importance of the tool by triggering the creation of multiple workalikes ...
Tech Xplore on MSN
Sound waves could be used to remotely reprogram material stiffness, from implants to robotic muscles
A team of researchers co-led by the University of California San Diego, University of Michigan, and the French National ...
Scientists are exploring a new type of optical atomic clock based on ytterbium-173 ions that could help define the future standard for measuring time.
Interesting Engineering on MSN
Scientists use sound to control material behavior, could help devices adjust stiffness
Researchers have uncovered a way to control material behavior using sound. In a study ...
Carbon forms the graphite in pencils, the diamonds in jewelry and the molecules that make up every living thing. But under extreme conditions—like the heat and pressure of intense explosions—carbon ...
Over a century ago, Ernest Rutherford discovered the proton by splitting the atom in a laboratory in Manchester. Today, researchers based in Manchester have discovered a new particle that Rutherford ...
Tom has been covering technology since 2019, having worked as part of the phones team at TechRadar and then as an editor at ...
Researchers use supercomputers and artificial intelligence to predict how carbon transforms under extreme heat and pressure, paving the way for revolutionary materials.
Carbon is everywhere. It forms the graphite in pencils, the diamonds in jewelry and the molecules that make up every living thing. Under extreme conditions -- like the heat and pressure of intense ...
Morning Overview on MSN
Customized carbon nanoribbons could simplify molecular electronics
Researchers have developed a series of techniques to build carbon nanoribbons atom by atom, engineering their electronic properties from the ground up rather than carving them from bulk material.
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