Skip to main content
Article

Parametric Optothermal Modulation of Carbon Nanooscillator Decorated with Mie Resonant Silicon Particle

Irina V. NadoyanPeter the Great St.Petersburg Polytechnic University Saint Petersburg 195251 RussiaNikita A. SolomonovPeter the Great St.Petersburg Polytechnic University Saint Petersburg 195251 RussiaKristina NovikovaPeter the Great St.Petersburg Polytechnic University Saint Petersburg 195251 RussiaA. V. PavlovPeter the Great St.Petersburg Polytechnic University Saint Petersburg 195251 RussiaV. A. SharovSaint Petersburg Academic University Saint Petersburg 194021 RussiaА М МожаровPeter the Great St.Petersburg Polytechnic University Saint Petersburg 195251 RussiaDmitry V. PermyakovITMO University Saint Petersburg 197101 RussiaVitalii A. ShkoldinITMO University Saint Petersburg 197101 RussiaD. A. KislovITMO University Saint Petersburg 197101 RussiaAlexander S. ShalinA. O. GolubokITMO University Saint Petersburg 197101 RussiaMihail PetrovITMO University Saint Petersburg 197101 RussiaIvan S. MukhinPeter the Great St.Petersburg Polytechnic University Saint Petersburg 195251 Russia
2024en
ABI

Abstract

Abstract Nanomechanical resonators provide a versatile platform for nanoscale mass sensing and force microscopy, as well as for enhancing light‐matter interaction offering unique functionality for optomechanical applications. In this way, discovering new approaches for coupling light with the mechanical degrees of freedom opens the strong desire paths for further developing of nanomechanical technology. Here, the parametric optothermal modulation of hybrid nanomechanical systems consisting of carbon nanowire with a silicon nanoparticle on its top, is reported. The mechanism of the modulation is based on the periodic optical heating of the nanowire and further modulation of the elasticity parameters. Utilizing the silicon nanoparticle provides additional functionality owing to optical absorption enhanced with Mie resonance and the unique feature of optical Raman thermometry enabling optical monitoring of local temperature. It is shown that the parametric mechanism of modulation allows for a significant increase of the optomechanical coupling strength.

Identifiers

Citations and references

Cited by 40 references