Response Dynamics of Alkali Metal-Noble Gas Hybrid Trispin System
arXiv:2105.11124 · doi:10.1103/PhysRevA.104.032827
Abstract
With numerical calculation of coupled Bloch equations, we have simulated the spin dynamics of nuclear magnetic resonance gyroscope based on alkali metal-noble gas hybrid trispin system. From the perspective of damping harmonic oscillator, a thorough analysis of the response dynamics is demonstrated. The simulation results shows a linear increasing response of gyroscope signal while the noblge gas nuclear spin magnetization and alkali atomic spin lifetime parameters are at the over damping condition. An upper limit of response is imposed on the NMR gyroscope signal due to the inherent dynamics of the hybrid trispin system. The results agrees with present available experimental results and provide useful guidings for future experiments.
arXiv comment5 pages, 3 figures
References in corpus (10)
- A Laboratory Search for a Long-Range T-odd, P-odd Interaction from Axion-Like Particles using Dual Species Nuclear Magnetic Resonance with Polarized Xe-129 and Xe-131 Gas
- He-Xe Comagnetometery using Rb Detection and Decoupling
- Collisional He and Xe frequency shifts in Rb--noble-gas mixtures
- Synchronous Spin-Exchange Optical Pumping
- Coherent coupling of alkali atoms by random collisions
- Dipolar and scalar He and Xe frequency shifts in mm-sized cells
- Dipolar and scalar He-Xe frequency shifts in stemless cells
- Precision calculation of scalar nuclear spin-spin coupling in a noble gas mixture
- Leading Pollicott-Ruelle Resonances for Chaotic Area-Preserving Maps
- Tri-spin dynamics in alkali metal-noble gas NMR gyroscope