O. Muskens

activity

20232025

most citedUltracompact programmable silicon photonics using layers of low-loss phase-change material Sb

_{2}

_{3}

of increasing thickness

1 citations · 1 across the 3 of their papers we have counts for

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physics.optics2025

Multi-port programmable silicon photonics using low-loss phase change material Sb $_{2}$ Se $_{3}$

Thomas W. Radford, Idris A Ajia, Latif Rozaqi +7

Reconfigurable photonic devices are rapidly emerging as a cornerstone of next generation optical technologies, with wide ranging applications in quantum simulation, neuromorphic co…

physics.optics2024★ 1 cited

Ultracompact programmable silicon photonics using layers of low-loss phase-change material Sb $_{2}$ Se $_{3}$ of increasing thickness

Sophie Blundell, Thomas Radford, Idris A. Ajia +6

High-performance programmable silicon photonic circuits are considered to be a critical part of next generation architectures for optical processing, photonic quantum circuits and…

physics.optics2023

Optical switching beyond a million cycles of low-loss phase change material Sb $_{2}$ Se $_{3}$

Daniel Lawson, Sophie Blundell, Martin Ebert +2

The development of the next generation of optical phase change technologies for integrated photonic and free-space platforms relies on the availability of materials that can be swi…

Multi-port programmable silicon photonics using low-loss phase change material Sb2​Se3​

Ultracompact programmable silicon photonics using layers of low-loss phase-change material Sb2​Se3​ of increasing thickness

Optical switching beyond a million cycles of low-loss phase change material Sb2​Se3​

Multi-port programmable silicon photonics using low-loss phase change material Sb $_{2}$ Se $_{3}$

Ultracompact programmable silicon photonics using layers of low-loss phase-change material Sb $_{2}$ Se $_{3}$ of increasing thickness

Optical switching beyond a million cycles of low-loss phase change material Sb $_{2}$ Se $_{3}$