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Future AI chips could be built on glass

The idea is to use glass as the substrate, or layer, on which multiple silicon chips are connected. This form of “packaging” is an increasingly popular way to build computing hardware, because it lets engineers combine specialized chips designed for specific functions into a single system. But it presents challenges, including the fact that hardworking chips can run so hot they physically warp the substrate they’re built on. This can lead to misaligned components and may reduce how efficiently the chips can be cooled, leading to damage or premature failure.

“As AI workloads surge and package sizes expand, the industry is confronting very real mechanical constraints that impact the trajectory of high-performance computing,” says Deepak Kulkarni, a senior fellow at the chip design company Advanced Micro Devices (AMD). “One of the most fundamental is warpage.”

That’s where glass comes in. It can handle the added heat better than existing substrates, and it will let engineers keep shrinking chip packages—which will make them faster and more energy efficient. It “unlocks the ability to keep scaling package footprints without hitting a mechanical wall,” says Kulkarni.

Space Plants Could Be Future Pharmacies for Astronauts

Scientists have successfully tested a non-destructive method to harvest life-saving medicines from plants under simulated space conditions, enabling on-demand drug production for long-duration missions. [ https://www.labroots.com/trending/space/30644/space-plants-f…tronauts-2](https://www.labroots.com/trending/space/30644/space-plants-f…tronauts-2)


How can plants help produce pharmaceuticals for future astronauts? This is what a recent study published in npj Science of Plants hopes to address as a team of scientists from the University of California San Diego (UCSD) investigated using plants to produce drugs for astronauts to treat a variety of ailments. This study has the potential to help scientists, mission planners, and astronauts develop new methods for addressing medical concerns on long-term space missions.

For the study, the researchers examined how cowpea mosaic virus (CPMV) could be produced under space-like conditions, including a vacuum environment, microgravity, using a centrifuge, the latter of which is commonly used in space for science experiments. CPMV is a plant virus-based compound that has been found to treat cancer while also possessing immunotherapy characteristics. The primary motivation behind the study was to address how to provide medical treatments to astronauts on long-term space missions without relying on Earth supplies. In the end, the researchers found that CPMV could successfully be extracted without harming the plants.

The study notes, “The combination of process-level and host-level optimization facilitates sustainable CPMV production under the constrained conditions of long-duration space missions while also offering practical advantages for terrestrial biomanufacturing.”

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An exciting set of opportunities for those interested in longtermism and the study of society’s flow of change through history.


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