The dynamical Casimir effect is an intriguing phenomenon in which photons are generated from vacuum due to a non-adiabatic change in some boundary conditions. In particular, it connects the motion of an accelerated mechanical mirror to the generation of photons. While pioneering experiments demonstrating this effect exist, a conclusive measurement involving a mechanical generation is still missing. We show that a hybrid system consisting of a piezoelectric mechanical resonator coupled to a superconducting cavity may allow to electro-mechanically generate measurable photons from vacuum, intrinsically associated to the dynamical Casimir effect. Such an experiment may be achieved with current technology, based on film bulk acoustic resonators directly coupled to a superconducting cavity. Our results predict a measurable photon generation rate, which can be further increased through additional improvements such as using superconducting metamaterials.
 M. E. Peskin and D. V. Schroeder, An Introduction to Quantum Field Theory (ISBN: 978-0201503975, Westview Press, 1995).
 H. B. G. Casimir, On the attraction between two perfectly conducting plates, Proc. K. Ned. Akad. Wet. B 51, 793 (1948).
 S. K. Lamoreaux, Progress in Experimental Measurements of the Surface-Surface Casimir Force: Electrostatic Calibrations and Limitations to Accuracy, Casimir Physics, Lecture Notes in Physics, pp. 219-248, (Springer, Berlin, Heidelberg, 2011).
 E. Yablonovitch, Accelerating Reference Frame for Electromagnetic Waves in a Rapidly Growing Plasma: Unruh-Davies-Fulling-DeWitt Radiation and the Nonadiabatic Casimir Effect, Phys. Rev. Lett. 62, 1742 (1989).
 J.-Y. Ji, H.-H. Jung, J.-W. Park, and K.-S. Soh, Production of photons by the parametric resonance in the dynamical Casimir effect, Phys. Rev. A 56, 4440 (1997).
 M. Uhlmann, G. Plunien, R. Schützhold, and G. Soff, Resonant Cavity Photon Creation via the Dynamical Casimir Effect, Phys. Rev. Lett. 93, 193601 (2004).
 M. Crocce, D. A. R. Dalvit, F. C. Lombardo, and F. D. Mazzitelli, Model for resonant photon creation in a cavity with time-dependent conductivity, Phys. Rev. A 70, 033811 (2004).
 W.-J. Kim, J. H. Brownell, and R. Onofrio, Detectability of Dissipative Motion in Quantum Vacuum via Superradiance, Phys. Rev. Lett. 96, 200402 (2006).
 J. R. Johansson, G. Johansson, C. M. Wilson, and F. Nori, Dynamical Casimir Effect in a Superconducting Coplanar Waveguide, Phys. Rev. Lett. 103, 147003 (2009).
 J. R. Johansson, G. Johansson, C. M. Wilson, and F. Nori, Dynamical Casimir effect in superconducting microwave circuits, Phys. Rev. A 82, 052509 (2010).
 D. A. R. Dalvit, P. A. M. Neto, and F. D. Mazzitelli, Fluctuations, Dissipation and the Dynamical Casimir Effect, Casimir Physics, Lecture Notes in Physics, pp. 419-457 (Springer, Berlin, Heidelberg, 2011).
 P. D. Nation, J. R. Johansson, M. P. Blencowe, and F. Nori, Stimulating uncertainty: Amplifiying the quantum vacuum with superconducting circuits, Rev. Mod. Phys. 84, 1 (2012).
 C. M. Wilson, G. Johansson, A. Pourkabirian, M. Simoen, J. R. Johansson, T. Duty, F. Nori, and P. Delsing, Observation of the dynamical Casimir effect in a superconducting circuit, Nature 479, 376 (2011).
 P. Lähteenmäki, G. S. Paraoanu, J. Hassel, and P. J. Hakonen, Dynamical Casimir effect in a Josephson metamaterial, Proc. Natl. Acad. Sci. USA 110, 4234 (2013).
 J. R. Johansson, G. Johansson, C. M. Wilson, P. Delsing, and F. Nori, Nonclassical microwave radiation from the dynamical Casimir effect, Phys. Rev. A 87, 043804 (2013).
 S. Felicetti, M. Sanz, L. Lamata, G. Romero, G. Johansson, P. Delsing, and E. Solano, Dynamical Casimir Effect Entangles Artificial Atoms, Phys. Rev. Lett. 113, 093602 (2014).
 D. Z. Rossatto, S. Felicetti, H. Eneriz, E. Rico, M. Sanz, and E. Solano, Entangling polaritons via dynamical Casimir effect in circuit quantum electrodynamics, Phys. Rev. B 93, 094514 (2016).
 B. H. Schneider, A. Bengtsson, I. M. Svensson, T. Aref, G. Johansson, J. Bylander, P. Delsing, Observation of broadband entanglement in microwave radiation from the dynamical Casimir effect, arXiv:1802.05529 [quant-ph] (2018).
 M. Sandberg, F. Persson, I. C. Hoi, C. M. Wilson, P. Delsing, Exploring circuit quantum electrodynamics using a widely tunable superconducting resonator, Physica Scripta T137, 014018 (2009).
 J. D. Larson III, P. D. Bradley, S. Wartenberg, and R. C. Ruby, Modified Butterworth-Van Dyke circuit for FBAR resonators and automated measurement system, Proceedings of the IEEE Ultrasonics Symposium 1, 863 (2000).
 K. Nam, et al., Piezoelectric properties of aluminium nitride for thin film bulk acoustic wave resonator, J. Korean Phys. Soc. 47, S309 (2005).
 E. P. Menzel et al., Dual-Path State Reconstruction Scheme for Propagating Quantum Microwaves and Detector Noise Tomography, Phys. Rev. Lett. 105, 100401 (2010).
 N. A. Masluk, I. M. Pop, A. Kamal, Z. K. Minev, M. H. Devoret, Microwave characterization of Josephson junction arrays: implementing a low loss superinductance, Phys. Rev. Lett. 109, 137002 (2012).
 T. Weissl, B. Küng, E. Dumur, A. K. Feofanov, I. Matei, C. Naud, O. Buisson, F. W. J. Hekking, and W. Guichard, Kerr coefficients of plasma resonances in Josephson junction chains, Phys. Rev. B 92, 104508 (2015).
 H. Jin, S. R. Dong, J. K. Luo, and W. I. Milne, Generalised Butterworth-Van Dyke equivalent circuit for thin-film bulk acoustic resonator, Electronic Letters 47, 424 (2011).
 S. Lee, Design and Modeling of Ferroelectric BST FBARs for Switchable RF Bulk Acoustic Wave Filters (PhD Dissertation, University of Michigan, 2016).
 M.-A. Dubois and P. Muralt, Properties of aluminum nitride thin films for piezoelectric transducers and microwave filter applications, Appl. Phys. Lett. 74, 3032 (1999).
 E. Jansen, J. D. P. Machado, and Ya. M. Blanter, "Realization of a degenerate parametric oscillator in electromechanical systems", Physical Review B 99 4, 045401 (2019).
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