Nature Communications · 2015 · 103 citations · 35 references
EngineeringElectrical EngineeringPhysicsOptoelectronicsPhotonicsQuantum ComputingIntegrated PhotonicsOptical Communication SystemsPhotonic Integrated CircuitsPhotonic MaterialsQuantum ControlSilicon PhotonicsCrosstalkIntegrated Photonic DevicesSilicon NanophotonicsSilicon Photonics For CommunicationsSilicon Photonics IntegrationSilicon WaveguidesSubwavelength Periodic StructuresWaveguide Coupling
The ability to control light propagation in photonic integrated circuits is at the foundation of modern light-based communication. However, the inherent crosstalk in densely packed waveguides and the lack of robust control of the coupling are a major roadblock toward ultra-high density photonic integrated circuits. As a result, the diffraction limit is often considered as the lower bound for ultra-dense silicon photonics circuits. Here we experimentally demonstrate an active control of the coupling between two closely packed waveguides via the interaction with a decoupled waveguide. This control scheme is analogous to the adiabatic elimination, a well-known procedure in atomic physics. This approach offers an attractive solution for ultra-dense integrated nanophotonics for light-based communications and integrated quantum computing.
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Graham T. Reed, Goran Z. Mashanovich, Frédéric Y. Gardes et al. · Nature Photonics · 2010 · 2.4K citations
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Qianfan Xu, Bradley S. Schmidt, Sameer Pradhan et al. · Nature · 2005 · 2.4K citations
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Natural Sciences, Physics, Optics +16