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Research PaperResearchia:202605.07025

Release-free electro-optomechanical crystal modulator

Paul Burger

Abstract

Electro-optic modulation is central to classical optical communications and emerging quantum technologies. High-confinement optomechanical crystal modulators enable microwave-optical transduction through strong optomechanical interactions and offer a promising interface between superconducting qubits and optical fibers. However, their performance is limited by thermal noise from optical absorption. Release-free optomechanical crystals provide improved thermal anchoring but have not yet been inte...

Submitted: May 7, 2026Subjects: Quantum Physics; Quantum Computing

Description / Details

Electro-optic modulation is central to classical optical communications and emerging quantum technologies. High-confinement optomechanical crystal modulators enable microwave-optical transduction through strong optomechanical interactions and offer a promising interface between superconducting qubits and optical fibers. However, their performance is limited by thermal noise from optical absorption. Release-free optomechanical crystals provide improved thermal anchoring but have not yet been integrated into a microwave-optical transducer. Here, we demonstrate a release-free electro-optomechanical transducer combining strong optomechanical interactions in silicon with the efficient piezoelectricity of lithium niobate via micro-transfer printing. We observe electro- and optomechanical coupling rates compatible with quantum-level operation when co-integrated with a superconducting microwave circuit. This advance moves release-free electro-optomechanical devices toward practical microwave-optical interfaces.


Source: arXiv:2605.05190v1 - http://arxiv.org/abs/2605.05190v1 PDF: https://arxiv.org/pdf/2605.05190v1 Original Link: http://arxiv.org/abs/2605.05190v1

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Date:
May 7, 2026
Topic:
Quantum Computing
Area:
Quantum Physics
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