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fluctuations. Next, controlled time-dependent signals and benchmark optical information-processing operations will be used to compare performance at different distances from the phase transition. Experiments
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structures, such as metasurface optics, optical nanoantennas and resonators to control scattering, emission, amplification and detection of light. Our work has applications in the domains of nanophotonic light
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investigate questions such as: Which designs support controlled switching? What laser pulse powers and durations are required? How many distinct optical states can be achieved, and how reproducibly? Depending
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principles such as spatiotemporal symmetries and quantum mechanics. We explore how suitable system design and control over light-matter interactions can engage the conventional limits to nanophotonic and
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that randomly fluctuate between 0 and 1 with a controllable probability. Rather than avoiding randomness, this approach uses noise as a computational resource. Probabilistic computing is actively investigated in