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David V. Plant

Researcher at McGill University

Publications -  658
Citations -  8685

David V. Plant is an academic researcher from McGill University. The author has contributed to research in topics: Modulation & Transmission (telecommunications). The author has an hindex of 41, co-authored 606 publications receiving 7476 citations. Previous affiliations of David V. Plant include PMC-Sierra & University of Colorado Boulder.

Papers
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Nonreciprocal waveguide Bragg gratings.

TL;DR: A systematic analytical and numerical analysis of a new class of Bragg gratings which exhibits a strong amplification at the resonance wavelength (even with zero net-gain level in the waveguide) while simultaneously providing higher wavelength selectivity than the equivalent index Bragg grating.
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Design, analysis, and transmission system performance of a 41 GHz silicon photonic modulator.

TL;DR: With the use of multi-level amplitude modulation formats and digital-signal-processing, the modulator is shown to operate below a hard-decision forward error-correction threshold of 3.8×10-3 at bitrates up to 112 Gbps over 2 km of single mode optical fiber using PAM-4, and over 5 km of optical fiber with PAM -8.
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Temporal differentiation of optical signals using a phase-shifted fiber Bragg grating.

TL;DR: The proposed device can calculate the first time derivative of the complex field of an arbitrary narrowband optical waveform with a very high accuracy and efficiency and demonstrate the high performance of this device by processing gigahertz-bandwidth phase and intensity optical temporal variations.
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Optimization of thermo-optic phase-shifter design and mitigation of thermal crosstalk on the SOI platform.

TL;DR: Doped-Si-based heaters are the most practical and efficient on standard SOI and the layout density of highly integrated dies is optimized, and internal and external thermal crosstalk for tunable Mach-Zehnder interferometers is experimentally characterized.
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Experimental study of 112 Gb/s short reach transmission employing PAM formats and SiP intensity modulator at 1.3 μm.

TL;DR: It is demonstrated that PAM order selection can be optimally chosen as a function of the desired throughput and the ability of the proposed transmitter to exhibit software-defined transmission for short reach applications by selecting Pam order, symbol rate and pulse shape is demonstrated.