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Optoelectrical nanomechanical resonators made from multilayered two-dimensional materials

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Optoelectrical nanomechanical resonators made from multilayered two-dimensional materials. / Esmenda, Joshoua Condicion; Callera Aguila, Myrron Albert; Wang, Jyh-Yang et al.
In: ACS Applied Nano Materials, Vol. 5, No. 7, 22.07.2022, p. 8875-8882.

Research output: Contribution to Journal/Magazine › Journal article › peer-review

Harvard

Esmenda, JC, Callera Aguila, MA, Wang, J-Y, Lee, T-H, Chen, Y-C, Yang, C-Y, Lin, K-H, Chang-Liao, K-S, Kafanov, S, Pashkin, Y & Chen, C-D 2022, 'Optoelectrical nanomechanical resonators made from multilayered two-dimensional materials', ACS Applied Nano Materials, vol. 5, no. 7, pp. 8875-8882. https://doi.org/10.1021/acsanm.2c00987

APA

Esmenda, J. C., Callera Aguila, M. A., Wang, J-Y., Lee, T-H., Chen, Y-C., Yang, C-Y., Lin, K-H., Chang-Liao, K-S., Kafanov, S., Pashkin, Y., & Chen, C-D. (2022). Optoelectrical nanomechanical resonators made from multilayered two-dimensional materials. ACS Applied Nano Materials, 5(7), 8875-8882. https://doi.org/10.1021/acsanm.2c00987

Vancouver

Esmenda JC, Callera Aguila MA, Wang J-Y, Lee T-H, Chen Y-C, Yang C-Y et al. Optoelectrical nanomechanical resonators made from multilayered two-dimensional materials. ACS Applied Nano Materials. 2022 Jul 22;5(7):8875-8882. Epub 2022 Jul 8. doi: 10.1021/acsanm.2c00987

Author

Esmenda, Joshoua Condicion ; Callera Aguila, Myrron Albert ; Wang, Jyh-Yang et al. / Optoelectrical nanomechanical resonators made from multilayered two-dimensional materials. In: ACS Applied Nano Materials. 2022 ; Vol. 5, No. 7. pp. 8875-8882.

Bibtex

@article{99ce3e38c3294eed8b5e9b5f07e4ff48,
title = "Optoelectrical nanomechanical resonators made from multilayered two-dimensional materials",
abstract = "Studies involving nanomechanical motion have evolved from the detection and understanding of its fundamental aspects to its promising practical utility as an integral component of hybrid systems. The nanomechanical resonators{\textquoteright} indispensable role as transducers between optical and microwave fields in hybrid systems, such as quantum communications interfaces, have elevated their importance in recent years. It is therefore crucial to determine which among the family of nanomechanical resonators is more suitable for this role. Most of the studies revolve around nanomechanical resonators of ultrathin structures because of their inherently large mechanical amplitude due to their very low mass. Here, we argue that the underutilized nanomechanical resonatorsmade from multilayered two-dimensional (2D) materials are the better fit for this role because of their comparable electrostatic tunability and potential for larger optomechanical responsivity. To show this, we first demonstrate the electrostatic tunability of mechanical modes of a multilayered nanomechanical resonator made from graphite. We also show that the optimal values of optomechanical responsivities are obtained for multilayered devices, particularly when the Fabry−Perot gap is close to half the detection wavelength. Finally, by using the multilayered model and comparing this device with the reported ones, we find that the electrostatic tunability of devices of intermediate thickness is not significantly lower than that of ultrathin ones. Together with the practicality in terms of fabrication ease and design predictability, we contend that multilayered 2D nanomechanical resonators are the optimal choice for the electromagnetic interface in integrated quantum systems.",
author = "Esmenda, {Joshoua Condicion} and {Callera Aguila}, {Myrron Albert} and Jyh-Yang Wang and Teik-Hui Lee and Yen-Chun Chen and Chi-Yuan Yang and Kung-Hsuan Lin and Kuei-Shu Chang-Liao and Sergey Kafanov and Yuri Pashkin and Chii-Dong Chen",
year = "2022",
month = jul,
day = "22",
doi = "10.1021/acsanm.2c00987",
language = "English",
volume = "5",
pages = "8875--8882",
journal = "ACS Applied Nano Materials",
issn = "2574-0970",
publisher = "American Chemical Society",
number = "7",

}

RIS

TY - JOUR

T1 - Optoelectrical nanomechanical resonators made from multilayered two-dimensional materials

AU - Esmenda, Joshoua Condicion

AU - Callera Aguila, Myrron Albert

AU - Wang, Jyh-Yang

AU - Lee, Teik-Hui

AU - Chen, Yen-Chun

AU - Yang, Chi-Yuan

AU - Lin, Kung-Hsuan

AU - Chang-Liao, Kuei-Shu

AU - Kafanov, Sergey

AU - Pashkin, Yuri

AU - Chen, Chii-Dong

PY - 2022/7/22

Y1 - 2022/7/22

N2 - Studies involving nanomechanical motion have evolved from the detection and understanding of its fundamental aspects to its promising practical utility as an integral component of hybrid systems. The nanomechanical resonators’ indispensable role as transducers between optical and microwave fields in hybrid systems, such as quantum communications interfaces, have elevated their importance in recent years. It is therefore crucial to determine which among the family of nanomechanical resonators is more suitable for this role. Most of the studies revolve around nanomechanical resonators of ultrathin structures because of their inherently large mechanical amplitude due to their very low mass. Here, we argue that the underutilized nanomechanical resonatorsmade from multilayered two-dimensional (2D) materials are the better fit for this role because of their comparable electrostatic tunability and potential for larger optomechanical responsivity. To show this, we first demonstrate the electrostatic tunability of mechanical modes of a multilayered nanomechanical resonator made from graphite. We also show that the optimal values of optomechanical responsivities are obtained for multilayered devices, particularly when the Fabry−Perot gap is close to half the detection wavelength. Finally, by using the multilayered model and comparing this device with the reported ones, we find that the electrostatic tunability of devices of intermediate thickness is not significantly lower than that of ultrathin ones. Together with the practicality in terms of fabrication ease and design predictability, we contend that multilayered 2D nanomechanical resonators are the optimal choice for the electromagnetic interface in integrated quantum systems.

AB - Studies involving nanomechanical motion have evolved from the detection and understanding of its fundamental aspects to its promising practical utility as an integral component of hybrid systems. The nanomechanical resonators’ indispensable role as transducers between optical and microwave fields in hybrid systems, such as quantum communications interfaces, have elevated their importance in recent years. It is therefore crucial to determine which among the family of nanomechanical resonators is more suitable for this role. Most of the studies revolve around nanomechanical resonators of ultrathin structures because of their inherently large mechanical amplitude due to their very low mass. Here, we argue that the underutilized nanomechanical resonatorsmade from multilayered two-dimensional (2D) materials are the better fit for this role because of their comparable electrostatic tunability and potential for larger optomechanical responsivity. To show this, we first demonstrate the electrostatic tunability of mechanical modes of a multilayered nanomechanical resonator made from graphite. We also show that the optimal values of optomechanical responsivities are obtained for multilayered devices, particularly when the Fabry−Perot gap is close to half the detection wavelength. Finally, by using the multilayered model and comparing this device with the reported ones, we find that the electrostatic tunability of devices of intermediate thickness is not significantly lower than that of ultrathin ones. Together with the practicality in terms of fabrication ease and design predictability, we contend that multilayered 2D nanomechanical resonators are the optimal choice for the electromagnetic interface in integrated quantum systems.

U2 - 10.1021/acsanm.2c00987

DO - 10.1021/acsanm.2c00987

M3 - Journal article

VL - 5

SP - 8875

EP - 8882

JO - ACS Applied Nano Materials

JF - ACS Applied Nano Materials

SN - 2574-0970

IS - 7

ER -