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Multiplexing of bias-controlled modulation modes on a monolithic III-nitride optoelectronic chip

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Abstract

III-nitride optoelectronic chips have tremendous potential for developing integrated computing and communication systems with low power consumption. The monolithic, top–down approaches are advantageous for simplifying the fabrication process and reducing the corresponding manufacturing cost. Herein, an ultraviolet optical interconnection system is investigated to discover the way of multiplexing between emission and absorption modulations on a monolithic optoelectronic chip. All on-chip components, the transmitter, monitor, waveguide, modulator, and receiver, share the same quantum well structure. As an example, two bias-controlled modulation modes are used to modulate video and audio signals in the experiment presented in this Letter. The results show that our on-chip optoelectronic system works efficiently in the near ultraviolet band, revealing the potential breadth of GaN optoelectronic integration.

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Supplementary Material (3)

NameDescription
Supplement 1       Supplement 1
Visualization 1       The transmitter was injected with a constant current of 10 mA by a DC power. The electroluminescence UV light propagates along the waveguide to both ends. The light spot at the left gap maintained a constant brightness, reflecting that the transmitte
Visualization 2       Analog video signals were transmitted in real time from a conventional commercial camera and loaded onto the transmitter via Bias-T with a constant DC current of 20 mA. The transmitter not only transmitted the video signal by emission modulation but

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