Sari la conținut

Română · beta. Traducerea a fost făcută automat și este încă în curs de revizuire. Citește pagina în engleză

perspectiva aiqbenchCalcul cuantic

analiza aiqbench

This research proposes a quantum nanostructure to solve the nonlinearity bottleneck in optical neural networks, potentially reducing power requirements by seven orders of magnitude. While currently theoretical, the work suggests that diamond-based quantum photonics could soon enable significantly more energy-efficient AI hardware for large-scale models.
Sursă care acoperăThe Quantum Insider
Ce este aceastaLectura unui model asupra articolului și a acoperirii conexe, scrisă pentru aiqbench. Nu sunt cuvintele publicației.

Tiny Quantum Nanostructures Could Make AI Less of an Energy Hog

The Quantum Insider5 min de cititArticolul și perspectiva sunt în engleză.

Insider Brief PRESS RELEASE — Engineers at the University of Wisconsin-Madison have designed a new type of quantum nanostructure that could enable optical neural networks. This emerging technology has the potential to make artificial intelligence systems, like large language models and image generation, faster and significantly more energy efficient. The research, led by electrical and […]

University of Wisconsin-Madison researchers designed a theoretical quantum-emitter nanostructure that could supply the nonlinear operations needed for energy-efficient optical neural networks. Simulations indicated the approach could reduce the power needed for optical nonlinearity by seven orders of magnitude compared with conventional optical materials. The work remains computational, but the researchers said advances in diamond-based quantum photonics could make experimental implementation feasible with current technology. PhD student Qingyi Zhou used computational simulations to find a new way to bypass the nonlinearity bottleneck in optical neural networks.…

Extras afișat conform termenilor RSS ai publicației · 85 cuvinte · textul integral și figurile sunt pe site-ul publicației

Subiecte conexe