Linearized electro-optic racetrack modulator based on double injection method in silicon

Roei Aviram Cohen; Ofer Amrani; Shlomo Ruschin

doi:10.1364/OE.23.002252

Linearized electro-optic racetrack modulator based on double injection method in silicon

Roei Aviram Cohen
, Ofer Amrani
, Shlomo Ruschin

School of Electrical Engineering

Research output: Contribution to journal › Article › peer-review

15 Scopus citations

Abstract

Racetrack-based modulator of increased linearity for optical links is presented and analyzed. The modulator is referred to as FLAME - Finer Linearity Amplitude Modulation Element. Linearity is improved via the introduction of a Double Injection approach. Large spurious-freedynamicrange (SFDR) of 132dB·Hz^4/5 can thus be theoretically obtained. The FLAME is studied for silicon platform and requires small footprint size (100 × 50μm²) and low operation voltage, 2.5V. This makes the FLAME an appealing candidate for large scale integration in RF photonics.

Original language	English
Pages (from-to)	2252-2261
Number of pages	10
Journal	Optics Express
Volume	23
Issue number	3
DOIs	https://doi.org/10.1364/OE.23.002252
State	Published - 9 Feb 2015

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abstract = "Racetrack-based modulator of increased linearity for optical links is presented and analyzed. The modulator is referred to as FLAME - Finer Linearity Amplitude Modulation Element. Linearity is improved via the introduction of a Double Injection approach. Large spurious-freedynamicrange (SFDR) of 132dB·Hz4/5 can thus be theoretically obtained. The FLAME is studied for silicon platform and requires small footprint size (100 × 50μm2) and low operation voltage, 2.5V. This makes the FLAME an appealing candidate for large scale integration in RF photonics.",

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N2 - Racetrack-based modulator of increased linearity for optical links is presented and analyzed. The modulator is referred to as FLAME - Finer Linearity Amplitude Modulation Element. Linearity is improved via the introduction of a Double Injection approach. Large spurious-freedynamicrange (SFDR) of 132dB·Hz4/5 can thus be theoretically obtained. The FLAME is studied for silicon platform and requires small footprint size (100 × 50μm2) and low operation voltage, 2.5V. This makes the FLAME an appealing candidate for large scale integration in RF photonics.

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Linearized electro-optic racetrack modulator based on double injection method in silicon

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