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Abstract
Low-noise light sources are important for on-chip interconnects, sensors, and quantum technology. We show that, using novel cavity designs featuring deep sub-wavelength confinement, it is possible to strongly reduce quantum fluctuations over a large bandwidth. The results could enable integrated sources with extremely low amplitude noise.
Highlights
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We extend a recently developed stochastic approach [9] to the case of squeezed-light generation in lasers and LEDs, and use it to analyze the physics of squeezing, as well as establishing the limits to the squeezing that can be achieved
In contrast to recent theoretical work [9,10,11,12], we here take into account the quantum statistics of the cavity out-coupling process, which is essential in order to describe intensity noise squeezing
Summary
General rights Copyright and moral rights for the publications made accessible in the public portal are retained by the authors and/or other copyright owners and it is a condition of accessing publications that users recognise and abide by the legal requirements associated with these rights. In contrast to recent theoretical work [9,10,11,12], we here take into account the quantum statistics of the cavity out-coupling process, which is essential in order to describe intensity noise squeezing.
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