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Synthetic phonons enable nonreciprocal coupling to arbitrary resonator networks
Christopher W. Peterson
, Seunghwi Kim
,
Jennifer T. Bernhard
,
Gaurav Bahl
Electrical and Computer Engineering
Information Trust Institute
Coordinated Science Lab
Mechanical Science and Engineering
Physics
Technology Entrepreneur Center
Micro and Nanotechnology Lab
Research output
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peer-review
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Keyphrases
Phonons
100%
Resonant Network
100%
Nonreciprocal Coupling
100%
Reciprocal Effects
80%
Frequency Response
40%
Customizable
40%
Resonator
20%
Waveguide
20%
High-order
20%
Optical Methods
20%
Lorentzian
20%
Resonant Mode
20%
Physical Systems
20%
Reconfigurable
20%
Fundamental Challenges
20%
Guided Modes
20%
Transfer Function
20%
Magneto-optics
20%
Electromagnetically Induced Acoustic Emission
20%
Wave Phenomena
20%
Microstrip Circuits
20%
Gyration
20%
Nonreciprocal Wave Propagation
20%
Electromagnetic Optics
20%
Nonreciprocal Devices
20%
Non-reciprocal Filter
20%
Spatiotemporal Modulation
20%
Waveguide Network
20%
Physics
Resonator
100%
Phonon
100%
Waveguide
66%
Optics
33%
Wave Propagation
33%
Magneto-Optics
33%
Transfer Function
33%
Wave Phenomena
33%
Light Scattering
33%