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стратегическое планирование работы предприятия цели, Synthetic magnetic fields steer light on a chip for faster , On-Chip Magnetic Fields Boost Light-Based Communication Speed, Physicists magnetize a material with light - MIT News, Synthetic magnetic field directs photons | Tech Pulse | Jan , Terahertz Light Unlocks a New Era in Smarter - SciTechDaily, A Traffic Light for Light-On-a-Chip - Semiconductor Digest, On-chip synthetic magnetic field - Nature Photonics.
Just a moment...Please complete security verificationEnable JavaScript and cookies to continueThis request seems a bit unusual, so we need to confirm that you're human. Please press and hold the button until it turns completely green. Thank you for your cooperation!Press and HoldPress and hold the buttonIf you believe this is an error, please contact our .64.71.32.67 : a3afeb8a-eda2-4410-8b03-09b9f0bb, Electrons in a magnetic field can display striking behaviors, from the formation of discrete energy levels to the quantum Hall effect. These discoveries have shaped our understanding of quantum , Researchers in China have achieved a monumental feat: the creation of synthetic magnetic fields within silicon photonic crystals. This innovation promises to reshape how we manipulate light on a chip, opening doors to faster computing, secure dialog, and a deeper understanding of quantum phenomena..
MIT physicists created a long-lasting magnetic state in a material, using only light. The results provide a new way to control and switch antiferromagnetic materials, which are of interest for their potential to advance information processing and memory chip technology., The discovery could yield an entirely new class of devices that use light instead of electricity for applications ranging from accelerators and microscopes to speedier on-chip communications., In a recent study published in the journal Nature, researchers at the Max Planck Institute for the Structure and Dynamics of Matter and MIT used terahertz light to control and switch an antiferromagnet into a new magnetic state., In an article published in Nature Photonics, a collaboration between the labs of Professor Tobias J. Kippenberg at EPFL and Professor Sunil A. Bhave at Purdue University showcases such a magnetic-free, electrically driven optical isolator that enables light routing on a chip., From the perspective of applied science, the precise control of a synthetic magnetic field demonstrated by Hafezi et al. 10 offers an unprecedented platform for controlling light in a silicon, .