Author
Listed:
- Denis A. Sannikov
(Territory of Innovation Center Skolkovo)
- Anton V. Baranikov
(Territory of Innovation Center Skolkovo)
- Anton D. Putintsev
(Territory of Innovation Center Skolkovo)
- Mikhail Misko
(Territory of Innovation Center Skolkovo)
- Anton V. Zasedatelev
(Territory of Innovation Center Skolkovo)
- Ullrich Scherf
(Bergische Universität Wuppertal)
- Pavlos G. Lagoudakis
(Territory of Innovation Center Skolkovo)
Abstract
Today, almost all information processing is performed using electronic logic circuits operating at several gigahertz frequency. All-optical logic holds the promise to allow for up to three orders of magnitude higher speed. Whereas essential all-optical transistor functionalities were demonstrated across a range of platforms, utilising them to implement a complete Boolean logic gate set and in particular negation, i.e. switching off an optical signal with another, weaker, optical signal, poses a major challenge. Here, we realize a cascadable NOT gate by introducing the concept of non-ground-state polariton amplification in organic semiconductor microcavities under non-resonant optical excitation. We unravel the importance of vibron-mediated stimulated scattering in room temperature operation of the inverter. Moreover, we extend the concept to a multi-input universal NOR logic gate, where in the presence of any of the input signals non-ground-state amplification supersedes spontaneous ground-state condensation, resulting in a NOR gate with ~1 ps switching time. The realisation of an ultrafast universal logic gate constitutes an essential step for more complex optical circuitry that could boost information processing applications.
Suggested Citation
Denis A. Sannikov & Anton V. Baranikov & Anton D. Putintsev & Mikhail Misko & Anton V. Zasedatelev & Ullrich Scherf & Pavlos G. Lagoudakis, 2024.
"Room temperature, cascadable, all-optical polariton universal gates,"
Nature Communications, Nature, vol. 15(1), pages 1-7, December.
Handle:
RePEc:nat:natcom:v:15:y:2024:i:1:d:10.1038_s41467-024-49690-3
DOI: 10.1038/s41467-024-49690-3
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