Standard

Excitation of hybrid modes in plasmonic nanoantennas coupled with GeSiSn/Si multiple quantum wells for the photoresponse enhancement in the short-wave infrared range. / Timofeev, Vyacheslav A.; Skvortsov, Ilya V.; Mashanov, Vladimir I. et al.

In: Applied Surface Science, Vol. 659, 159852, 06.2024.

Research output: Contribution to journalArticlepeer-review

Harvard

Timofeev, VA, Skvortsov, IV, Mashanov, VI, Gayduk, AE, Bloshkin, AA, Kirienko, VV, Utkin, DE, Nikiforov, AI, Kolyada, DV, Firsov, DD & Komkov, OS 2024, 'Excitation of hybrid modes in plasmonic nanoantennas coupled with GeSiSn/Si multiple quantum wells for the photoresponse enhancement in the short-wave infrared range', Applied Surface Science, vol. 659, 159852. https://doi.org/10.1016/j.apsusc.2024.159852

APA

Timofeev, V. A., Skvortsov, I. V., Mashanov, V. I., Gayduk, A. E., Bloshkin, A. A., Kirienko, V. V., Utkin, D. E., Nikiforov, A. I., Kolyada, D. V., Firsov, D. D., & Komkov, O. S. (2024). Excitation of hybrid modes in plasmonic nanoantennas coupled with GeSiSn/Si multiple quantum wells for the photoresponse enhancement in the short-wave infrared range. Applied Surface Science, 659, [159852]. https://doi.org/10.1016/j.apsusc.2024.159852

Vancouver

Timofeev VA, Skvortsov IV, Mashanov VI, Gayduk AE, Bloshkin AA, Kirienko VV et al. Excitation of hybrid modes in plasmonic nanoantennas coupled with GeSiSn/Si multiple quantum wells for the photoresponse enhancement in the short-wave infrared range. Applied Surface Science. 2024 Jun;659:159852. doi: 10.1016/j.apsusc.2024.159852

Author

Timofeev, Vyacheslav A. ; Skvortsov, Ilya V. ; Mashanov, Vladimir I. et al. / Excitation of hybrid modes in plasmonic nanoantennas coupled with GeSiSn/Si multiple quantum wells for the photoresponse enhancement in the short-wave infrared range. In: Applied Surface Science. 2024 ; Vol. 659.

BibTeX

@article{85dcee9a671b43d080b5c32a3022f825,
title = "Excitation of hybrid modes in plasmonic nanoantennas coupled with GeSiSn/Si multiple quantum wells for the photoresponse enhancement in the short-wave infrared range",
abstract = "Hybrid structures represented by a plasmonic nanoantenna array located on the surface of GeSiSn/Si multiple quantum wells (MQWs) grown on a silicon-on-insulator (SOI) substrate by molecular-beam epitaxy were developed for applications in the short-wave infrared range. Using numerical modeling methods, the electromagnetic characteristics of metasurfaces based on aluminum nanoantennas located on the surface of GeSiSn/Si nanoheterostructures were studied. It is shown that the spectral and spatial overlap of localized plasmons in nanoantennas and waveguide modes in the semiconductor film leads to the formation of hybrid modes with a Fano-type resonance profile. The possibility of significant photoluminescence (PL) enhancement of GeSiSn/Si MQWs through the use of hybrid plasmonic structures is demonstrated. The PL enhancement reached to 250 % at the wavelength of 1.9 μm, coinciding with the maximum of the reflectance spectrum for the hybrid structure. Based on the hybrid system, represented by the plasmonic nanoantenna array on the top part of GeSiSn/Si MQWs, p-i-n photodiodes were fabricated. The photocurrent enhancement was approximately 7 times at wavelengths of 1.73 µm and 1.8 µm. The excitation of separately localized plasmons and waveguide modes is demonstrated, and their hybridization is also studied.",
keywords = "Germanium-silicon-tin, Hybrid structure, Photodiode, Photoluminescence, Plasmonic nanoantenna",
author = "Timofeev, {Vyacheslav A.} and Skvortsov, {Ilya V.} and Mashanov, {Vladimir I.} and Gayduk, {Alexey E.} and Bloshkin, {Alexey A.} and Kirienko, {Viktor V.} and Utkin, {Dmitry E.} and Nikiforov, {Alexandr I.} and Kolyada, {Dmitry V.} and Firsov, {Dmitry D.} and Komkov, {Oleg S.}",
note = "This work was supported by the Russian Science Foundation (RSF), Grant No. 20-79-10092 . We thank the Shared Equipment Centers CKP “NANOSTRUCTURY” of the Rzhanov Institute of Semiconductor Physics SB RAS and CKP “VTAN” (ATRC) of the NSU Physics Department for the technical and instrumental support.",
year = "2024",
month = jun,
doi = "10.1016/j.apsusc.2024.159852",
language = "English",
volume = "659",
journal = "Applied Surface Science",
issn = "0169-4332",
publisher = "Elsevier",

}

RIS

TY - JOUR

T1 - Excitation of hybrid modes in plasmonic nanoantennas coupled with GeSiSn/Si multiple quantum wells for the photoresponse enhancement in the short-wave infrared range

AU - Timofeev, Vyacheslav A.

AU - Skvortsov, Ilya V.

AU - Mashanov, Vladimir I.

AU - Gayduk, Alexey E.

AU - Bloshkin, Alexey A.

AU - Kirienko, Viktor V.

AU - Utkin, Dmitry E.

AU - Nikiforov, Alexandr I.

AU - Kolyada, Dmitry V.

AU - Firsov, Dmitry D.

AU - Komkov, Oleg S.

N1 - This work was supported by the Russian Science Foundation (RSF), Grant No. 20-79-10092 . We thank the Shared Equipment Centers CKP “NANOSTRUCTURY” of the Rzhanov Institute of Semiconductor Physics SB RAS and CKP “VTAN” (ATRC) of the NSU Physics Department for the technical and instrumental support.

PY - 2024/6

Y1 - 2024/6

N2 - Hybrid structures represented by a plasmonic nanoantenna array located on the surface of GeSiSn/Si multiple quantum wells (MQWs) grown on a silicon-on-insulator (SOI) substrate by molecular-beam epitaxy were developed for applications in the short-wave infrared range. Using numerical modeling methods, the electromagnetic characteristics of metasurfaces based on aluminum nanoantennas located on the surface of GeSiSn/Si nanoheterostructures were studied. It is shown that the spectral and spatial overlap of localized plasmons in nanoantennas and waveguide modes in the semiconductor film leads to the formation of hybrid modes with a Fano-type resonance profile. The possibility of significant photoluminescence (PL) enhancement of GeSiSn/Si MQWs through the use of hybrid plasmonic structures is demonstrated. The PL enhancement reached to 250 % at the wavelength of 1.9 μm, coinciding with the maximum of the reflectance spectrum for the hybrid structure. Based on the hybrid system, represented by the plasmonic nanoantenna array on the top part of GeSiSn/Si MQWs, p-i-n photodiodes were fabricated. The photocurrent enhancement was approximately 7 times at wavelengths of 1.73 µm and 1.8 µm. The excitation of separately localized plasmons and waveguide modes is demonstrated, and their hybridization is also studied.

AB - Hybrid structures represented by a plasmonic nanoantenna array located on the surface of GeSiSn/Si multiple quantum wells (MQWs) grown on a silicon-on-insulator (SOI) substrate by molecular-beam epitaxy were developed for applications in the short-wave infrared range. Using numerical modeling methods, the electromagnetic characteristics of metasurfaces based on aluminum nanoantennas located on the surface of GeSiSn/Si nanoheterostructures were studied. It is shown that the spectral and spatial overlap of localized plasmons in nanoantennas and waveguide modes in the semiconductor film leads to the formation of hybrid modes with a Fano-type resonance profile. The possibility of significant photoluminescence (PL) enhancement of GeSiSn/Si MQWs through the use of hybrid plasmonic structures is demonstrated. The PL enhancement reached to 250 % at the wavelength of 1.9 μm, coinciding with the maximum of the reflectance spectrum for the hybrid structure. Based on the hybrid system, represented by the plasmonic nanoantenna array on the top part of GeSiSn/Si MQWs, p-i-n photodiodes were fabricated. The photocurrent enhancement was approximately 7 times at wavelengths of 1.73 µm and 1.8 µm. The excitation of separately localized plasmons and waveguide modes is demonstrated, and their hybridization is also studied.

KW - Germanium-silicon-tin

KW - Hybrid structure

KW - Photodiode

KW - Photoluminescence

KW - Plasmonic nanoantenna

UR - https://www.scopus.com/record/display.uri?eid=2-s2.0-85187557511&origin=inward&txGid=d3fc28830f3819c5844ac6217917c839

UR - https://www.mendeley.com/catalogue/8a234404-1e15-36d8-9c39-767cf307575e/

U2 - 10.1016/j.apsusc.2024.159852

DO - 10.1016/j.apsusc.2024.159852

M3 - Article

VL - 659

JO - Applied Surface Science

JF - Applied Surface Science

SN - 0169-4332

M1 - 159852

ER -

ID: 60863760