[1] K EOM, H S PARK, D S YOON et al. Nanomechanical resonators and their applications in biological/chemical detection: nanomechanics principles. Physics Reports, 503, 115-163(2011).

[2] B XU, P ZHANG, J ZHU et al. Nanomechanical resonators: toward atomic scale. Acs Nano, 16, 15545-15585(2022).

[3] Y ZHANG, M LONČAR. Ultra-high quality factor optical resonators based on semiconductor nanowires. Optics Express, 16, 17400-17409(2008).

[4] A EICHLER, M DEL ÁLAMO RUIZ, J PLAZA et al. Strong coupling between mechanical modes in a nanotube resonator. Physical Review Letters, 109, 025503(2012).

[5] Y J CHANG, J M GRAY, A IMTIAZ et al. Micromachined resonators of high Q-factor based on atomic layer deposited alumina. Sensors and Actuators A: Physical, 154, 229-237(2009).

[6] D N MAKAROV. Optical-mechanical cooling of a charged resonator. Physical Review A, 99, 033850(2019).

[7] A HOPKINS, K JACOBS, S HABIB et al. Feedback cooling of a nanomechanical resonator. Physical Review B, 68, 235328(2003).

[8] J P ZHU, G X LI. Ground-state cooling of a nanomechanical resonator with a triple quantum dot via quantum interference. Physical Review A, 86, 053828(2012).

[9] Huajun CHEN, Xianwu MI. Phase modulation optomechanical dynamics induced by radiation-pressure in nonlinear optical cavity. Acta Photonica Sinica, 40, 1474-1483(2011).

[10] Jianyong YANG, Huajun CHEN. All-optical mass sensing based on ultra-strong couplingquantum dot-nanomechanical resonator system. Acta Physica Sinica, 68, 246302(2019).

[11] Q WANG, B ARASH. A review on applications of carbon nanotubes and graphenes as nano-resonator sensors. Computational Materials Science, 82, 350-360(2014).

[12] R RAJASEKAR, S ROBINSON. Nano-pressure and temperature sensor based on hexagonal photonic crystal ring resonator. Plasmonics, 14, 3-15(2019).

[13] Jianfei LIU, Zhigang HU, Yimeng GAO et al. Optical microcavity magnetic sensors (invited). Acta Photonica Sinica, 53, 0553108(2024).

[14] M PECHAL, P ARRANGOIZ ARRIOLA, A H SAFAVI NAEINI. Superconducting circuit quantum computing with nanomechanical resonators as storage. Quantum Science and Technology, 4, 015006(2018).

[15] Baohao XIE, Huajun CHEN, Yi SUN. Slow light effect caused by optomechanically inducedtransparency in multimode optomechanical system. Acta Physica Sinica, 72, 71-80(2023).

[16] P P YUPAPIN, N PORNSUWANCHAROEN. Proposed nonlinear microring resonator arrangement for stopping and storing light. IEEE Photonics Technology Letters, 21, 404-406(2009).

[17] A TAVERNARAKIS, A STAVRINADIS, A NOWAK et al. Optomechanics with a hybrid carbon nanotube resonator. Nature Communications, 9, 662(2018).

[18] H D MEKONNEN, T G TESFAHANNES, T Y DARGE et al. Quantum correlation in a nano-electro-optomechanical system enhanced by an optical parametric amplifier and Coulomb-type interaction. Scientific Reports, 13, 13800(2023).

[19] J S OCHS, M SEITNER, M I DYKMAN et al. Amplification and spectral evidence of squeezing in the response of a strongly driven nanoresonator to a probe field. Physical Review A, 103, 013506(2021).

[20] F ROUXINOL, Y HAO, F BRITO et al. Measurements of nanoresonator-qubit interactions in a hybrid quantum electromechanical system. Nanotechnology, 27, 364003(2016).

[21] A RAHAFROOZ, S POURKAMALI. High-frequency thermally actuated electromechanical resonators with piezoresistive readout. IEEE Transactions on Electron Devices, 58, 1205-1214(2011).

[22] S KUMAR, T ALAM, A HAQUE. Thermo-mechanical coupling and size effects in micro and nano resonators. Micro and Nano Systems Letters, 1, 1-9(2013).

[23] I STACHIV, L GAN. Hybrid shape memory alloy-based nanomechanical resonators for ultrathin film elastic properties determination and heavy mass spectrometry. Materials, 12, 3593(2019).

[24] SANTOS E GIL, C BAKER, D NGUYEN et al. High-frequency nano-optomechanical disk resonators in liquids. Nature Nanotechnology, 10, 810-816(2015).

[25] X WANG, A MIRANOWICZ, H R LI et al. Method for observing robust and tunable phonon blockade in a nanomechanical resonator coupled to a charge qubit. Physical Review A, 93, 063861(2016).

[26] A DEHGHANI, B MOJAVERI, M ARYAIE. Entanglement dynamics of a nano-mechanical resonator coupled to a central qubit. Quantum Information Processing, 21, 45(2022).

[27] P B LI, Y C LIU, S Y GAO et al. Hybrid Quantum Device Based on N V Centers in diamond nanomechanical resonators plus superconducting waveguide cavities. Physical Review Applied, 4, 044003(2015).

[28] E EISENACH, J BARRY, L PHAM et al. Broadband loop gap resonator for nitrogen vacancy centers in diamond. Review of Scientific Instruments, 89, 094705(2018).

[29] S WANG, T ZHAO, S YU et al. High-performance nano-sensing and slow-light applications based on tunable multiple Fano resonances and EIT-like effects in coupled plasmonic resonator system. IEEE Access, 8, 40599-40611(2020).

[30] C LAO, Y LIANG, X WANG et al. Dynamically tunable resonant strength in electromagnetically induced transparency (eit) analogue by hybrid metal-graphene metamaterials. Nanomaterials, 9, 171(2019).

[31] Yunhe LIU, Huajun J CHEN. Inverse Electromagnetically Induced Transparency in Multimode Cavity Optomechanical Systems. Acta Optica Sinica, 43, 274-281(2023).

[32] K ULLAH, H JING, F SAIF. Multiple electromechanically-induced-transparency windows and Fano resonances in hybrid nano-electro-optomechanics. Physical Review A, 97, 033812(2018).

[33] A LOVERA, B GALLINET, P NORDLANDER et al. Mechanisms of Fano resonances in coupled plasmonic systems. ACS Nano, 7, 4527-4536(2013).

[34] A E MIROSHNICHENKO, S FLACH, Y S KIVSHAR. Fano resonances in nanoscale structures. Reviews of Modern Physics, 82, 2257(2010).

[35] H J CHEN, B H XIE. Room temperature nonlinear optical mass sensing based on a hybrid nanoresonator system. Modern Physics Letters B, 37, 2350179(2023).

[36] C YU, J BOCHINSKI, T KORDICH et al. Driving the driven atom: Spectral signatures. Physical Review A, 56, R4381(1997).

[37] A BACHTOLD, J MOSER, M DYKMAN. Mesoscopic physics of nanomechanical systems. Reviews of Modern Physics, 94, 045005(2022).

[38] A HAJJAJ, N JABER, S ILYAS et al. Linear and nonlinear dynamics of micro and nano-resonators: Review of recent advances. International Journal of Non-Linear Mechanics, 119, 103328(2020).

[39] X Z YUAN, H S GOAN, C H LIN et al. Nanomechanical-resonator-assisted induced transparency in a Cooper-pair box system. New Journal of Physics, 10, 095016(2008).

[40] J J LI, K D ZHU. Nanoscale solid-state single photon router. Photonics and Nanostructures-Fundamentals and Applications, 10, 553-559(2012).

[41] J B LI, S LIANG, S XIAO et al. Four-wave mixing signal enhancement and optical bistability of a hybrid metal nanoparticle-quantum dot molecule in a nanomechanical resonator. Optics Express, 24, 2360-2369(2016).

[42] K ULLAH. Electro-optomechanical switch via tunable bistability and four-wave mixing. Chinese Physics B, 28, 114209(2019).

[43] H J CHEN. The fast-slow light transitions induced by Fano resonance in multiple nanomechanical resonators. Optics & Laser Technology, 161, 109242(2023).

[44] H J CHEN. Two-color electromagnetically induced transparency generated slow light in double-mechanical-mode coupling carbon nanotube resonators. iScience, 27, 109328(2024).

[45] C BECHER, A KIRAZ, P MICHLER et al. Nonclassical radiation from a single self-assembled InAs quantum dot. Physical Review B, 63, 121312(2001).

[46] A ZRENNER, E BEHAM, S STUFLER et al. Coherent properties of a two-level system based on a quantum-dot photodiode. Nature, 418, 612-614(2002).

[47] X XU, B SUN, P R BERMAN et al. Coherent optical spectroscopy of a strongly driven quantum dot. Science, 317, 929-932(2007).

[48] U KHAN, B AMIN, K ULLAH et al. Control of light in a quantized four level graphene atomic system via self and cross-Kerr nonlinearity. Physics Letters A, 383, 125998(2019).

[49] P P PROVENZANO, K W ELICEIRI, L YAN et al. Nonlinear optical imaging of cellular processes in breast cancer. Microscopy and Microanalysis, 14, 532-548(2008).

[50] RAE I WILSON, P ZOLLER, A IMAMOḠLU. Laser cooling of a nanomechanical resonator mode to its quantum ground state. Physical Review Letters, 92, 075507(2004).

[51] Q WANG, J Q ZHANG, P C MA et al. Precision measurement of the environmental temperature by tunable double optomechanically induced transparency with a squeezed field. Physical Review A, 91, 063827(2015).

[52] Huajun J CHEN. Nonlinear optical effect and nonlinear optical mass sensorbased on graphene optomechanical system. Acta Physica Sinica, 69, 187-194(2020).

[53] J Y YANG, H J CHEN. Room temperature nonlinear mass sensing based on a hybrid spin-nanoresonator system. Chinese Physics B, 29, 107801(2020).

[54] J J LI, K D ZHU. All-optical mass sensing with coupled mechanical resonator systems. Physics Reports, 525, 223-254(2013).

[55] H J CHEN. Controllable fast and slow light in the hybrid quantum dot-nanomechanical resonator system mediated by another nanomechanical resonator with Coulomb interaction. Journal of Applied Physics, 130, 204302(2021).

[56] X XU, B SUN, E D KIM et al. Single charged quantum dot in a strong optical field: absorption, gain, and the ac-Stark effect. Physical Review Letters, 101, 227401(2008).

[57] K FANG, M H MATHENY, X LUAN et al. Optical transduction and routing of microwave phonons in cavity-optomechanical circuits. Nature Photonics, 10, 489-496(2016).

[58] W HENSINGER, D W UTAMI, H S GOAN et al. Ion trap transducers for quantum electromechanical oscillators. Physical Review A—Atomic, 72, 041405(2005).