Oxide‐Based Optoelectronics

Integrated Si photonics has the potential to revolutionize the processing of information between different integrated chips, as well as within a single chip itself. By performing at least a part of the task with photons rather than electrons, new opportunities for broad‐band low‐power communication...

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Veröffentlicht in:physica status solidi (b) 2021-09, Vol.258 (9), p.n/a
Hauptverfasser: Demkov, Alexander A., Ortmann, J. Elliott, Reynaud, Marc, Hamze, Ali K., Ponath, Patrick, Li, Wente
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container_issue 9
container_start_page
container_title physica status solidi (b)
container_volume 258
creator Demkov, Alexander A.
Ortmann, J. Elliott
Reynaud, Marc
Hamze, Ali K.
Ponath, Patrick
Li, Wente
description Integrated Si photonics has the potential to revolutionize the processing of information between different integrated chips, as well as within a single chip itself. By performing at least a part of the task with photons rather than electrons, new opportunities for broad‐band low‐power communication and computing are created. Herein, the theoretical description of the linear electro‐optic (EO), or Pockels, effect and a newly elucidated design rule for materials evaluation is summarized. Possible applications of Si‐integrated optical elements based on perovskite oxides and their heterostructures are also discussed. In particular, the Pockels effect in BaTiO3 films grown on Si and intersubband transitions in Si‐integrated perovskite quantum wells (QWs) is described. This article discusses possible applications of Si‐integrated optical elements based on perovskite oxides and their heterostructures. After briefly introducing the integration of perovskite on Si and linear electro‐optic (EO) effect, the use of BaTiO3 in EO modulators and intersubband transitions in perovskite quantum wells is discussed. These materials offer advantages and opportunities for broad‐band low‐power communication and computing.
doi_str_mv 10.1002/pssb.202000497
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subjects electro-optic effect
epitaxial oxides
molecular beam epitaxy
optoelectronics
perovskites
quantum wells
silicon photonics
title Oxide‐Based Optoelectronics
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