Magnetic strong coupling in a spin-photon system and transition to classical regime
arXiv:1004.3605 · doi:10.1103/PhysRevB.82.024413
Abstract
We study the energy level structure of the Tavis-Cumming model applied to an ensemble of independent magnetic spins coupled to a variable number of photons. Rabi splittings are calculated and their distribution is analyzed as a functin of photon number and spin system size . A sharp transition in the distribution of the Rabi frequency is found at . The width of the Rabi frequency spectrum diverges as at this point. For increased number of photons , the Rabi frequencies converge to a value proportional to . This behavior is interpreted as analogous to the classical spin resonance mechanism where the photon is treated as a classical field and one resonance peak is expected. We also present experimental data demonstrating cooperative, magnetic strong coupling between a spin system and photons, measured at room temperature. This points towards quantum computing implementation with magnetic spins, using cavity quantum-electrodynamics techniques.
Received 8 April 2010; revised manuscript received 17 June 2010; published 14 July 2010
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