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(Reference retrieved automatically from Web of Science through information on FAPESP grant and its corresponding number as mentioned in the publication by the authors.)

Brillouin optomechanics in nanophotonic structures

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Author(s):
Wiederhecker, Gustavo S. [1, 2] ; Dainese, Paulo [2, 3, 4] ; Mayer Alegre, Thiago P. [1, 2]
Total Authors: 3
Affiliation:
[1] Univ Estadual Campinas, Gleb Wataghin Phys Inst, Appl Phys Dept, BR-13083859 Campinas, SP - Brazil
[2] Univ Estadual Campinas, Photon Res Ctr, BR-13083859 Campinas, SP - Brazil
[3] Univ Estadual Campinas, Gleb Wataghin Phys Inst, Quantum Elect Dept, BR-13083859 Campinas, SP - Brazil
[4] Corning Res & Dev Corp, One Sci Dr, Corning, NY 14830 - USA
Total Affiliations: 4
Document type: Journal article
Source: APL PHOTONICS; v. 4, n. 7 JUL 2019.
Web of Science Citations: 2
Abstract

The interaction between light and mesoscopic mechanical degrees of freedom has been investigated under various perspectives, from spectroscopy in condensed matter, optical tweezer particle trapping, and long-haul optical fiber communication system penalties to gravitational-wave detector noise. In the context of integrated photonics, two topics with dissimilar origins-cavity optomechanics and guided wave Brillouin scattering-are rooted in the manipulation and control of the energy exchange between trapped light and mechanical modes. In this tutorial, we explore the impact of optical and mechanical subwavelength confinement on the interaction among these waves, coined as Brillouin optomechanics. At this spatial scale, optical and mechanical fields are fully vectorial and the common intuition that more intense fields lead to stronger interaction may fail. Here, we provide a thorough discussion on how the two major physical effects responsible for the Brillouin interaction-photoelastic and moving-boundary effects-interplay to foster exciting possibilities in this field. In order to stimulate beginners into this growing research field, this tutorial is accompanied by all the discussed simulation material based on a widespread commercial finite-element solver. (C) 2019 Author(s). (AU)

FAPESP's process: 08/57857-2 - Photonics for optical communications
Grantee:Hugo Luis Fragnito
Support Opportunities: Research Projects - Thematic Grants
FAPESP's process: 12/17765-7 - Nanophotonics in Group IV and III-V semiconductors
Grantee:Gustavo Silva Wiederhecker
Support Opportunities: Research Grants - Young Investigators Grants
FAPESP's process: 18/15580-6 - Optomechanical cavities towards single photon strong coupling
Grantee:Thiago Pedro Mayer Alegre
Support Opportunities: Research Grants - Young Investigators Grants - Phase 2
FAPESP's process: 13/20180-3 - Light scattering processes in photonic microstructures
Grantee:Paulo Clóvis Dainese Júnior
Support Opportunities: Research Grants - Young Investigators Grants
FAPESP's process: 12/17610-3 - Optomechanics in photonic and phononic crystals
Grantee:Thiago Pedro Mayer Alegre
Support Opportunities: Research Grants - Young Investigators Grants
FAPESP's process: 18/15577-5 - Nonlinear nanophotonics circuits: building blocks for optical frequency synthesis, filtering and signal processing
Grantee:Gustavo Silva Wiederhecker
Support Opportunities: Research Grants - Young Investigators Grants - Phase 2