Optimal population transfer using the adiabatic rapid passage in the presence of drive-induced dissipation
arXiv:2301.10182 · doi:10.1103/PhysRevA.107.063708
Abstract
Adiabatic rapid passage (ARP) is extensively used to achieve efficient transfer or inversion of populations in quantum systems. Landau and Zener accurately estimated the transfer probability of ARP for a closed system and showed that this probability improved with higher drive amplitude. Recently, we have found that in open quantum systems, applying a strong drive can give rise to significant drive-induced dissipation (DID). Here, we investigate the effect of DID on the performance of ARP that is implemented using a linearly chirped pulse on a two-level system. From the Landau-Zener formula, the population transfer was known to be enhanced with increasing drive amplitude. However, here we show that beyond a threshold value of the drive amplitude, the transfer probability is reduced because of the detrimental effect of DID. We show that the competition between the two processes results in an optimal behavior of the population transfer. We also propose a phenomenological model that helps explain such nonmonotonic behavior of the transfer. Using this model, we estimate the optimum time at which the maximum population transfer occurs. We extend the analysis for rectangular as well as Gaussian pulse profiles and conclude that a Gaussian pulse outperforms a rectangular pulse.
arXiv comment22 pages, 5 captioned figures
References in corpus (9)
- Gauging a quantum heat bath with dissipative Landau-Zener transitions
- Landau Zener transitions in a dissipative environment: Numerically exact results
- Finite-time Landau-Zener processes and counter-diabatic driving in open systems: beyond Born, Markov and Rotating-wave approximations
- Landau-Zener transitions in an open multilevel quantum system
- Temperature can enhance coherent oscillations at a Landau-Zener transition
- Encircling exceptional points as a non-Hermitian extension of rapid adiabatic passage
- Optimal Clock Speed of Single-Qubit Operations on Open Quantum Systems
- Emergence of the Born rule in strongly-driven dissipative systems
- Effects of dipolar coupling on an entanglement storage device