Model for resonant photon creation in a cavity with time dependent conductivity
Martin Crocce, Diego A. R. Dalvit, Fernando C. Lombardo, Francisco D. Mazzitelli
Abstract
In an electromagnetic cavity, photons can be created from the vacuum state by changing the cavity's properties with time. Using a simple model based on a massless scalar field, we analyze resonant photon creation induced by the time-dependent conductivity of a thin semiconductor film contained in the cavity. This time dependence may be achieved by irradiating periodically the film with short laser pulses. This setup offers several experimental advantages over the case of moving mirrors.
Create a lesson
Related papers
Towards the Geometry of Quantum Optical Measurements: Kraus Trajectories in the Instrumental Weyl-Heisenberg Group Manifold
Tzula B. Propp, Chris S. Jackson
Bell's go theorem: regaining local causality with a new notion of realism
Lorenzo Catani, Nesta van der Schaaf, Rui Soares Barbosa
Quantum state texture of maximal-resource Fourier states under Hawking radiation
Shengyan Ma, Yiding Wang, Xiaofen Huang et al.
Magic-Free Certification of Logical Error Rates in Universal Fault-Tolerant Circuits
Gebrat Porta-San Miguel, Shahram Panahiyan, Dieter Jaksch
QBFF: Deep Quantum Bottleneck for Automatic Speaker Verification Anti-Spoofing
Anton Firc, Nouhaila Innan, Vojtěch Staněk et al.
Entanglement and parametric resonance in coupled oscillator systems
Roxane Thériault, George Zahariade