Precise calculation of transition frequencies of hydrogen and deuterium based on a least-squares analysis
U. D. Jentschura, S. Kotochigova, E. -O. Le Bigot, P. J. Mohr, B. N. Taylor
Abstract
We combine a limited number of accurately measured transition frequencies in hydrogen and deuterium, recent quantum electrodynamics (QED) calculations, and, as an essential additional ingredient, a generalized least-squares analysis, to obtain precise and optimal predictions for hydrogen and deuterium transition frequencies. Some of the predicted transition frequencies have relative uncertainties more than an order of magnitude smaller than that of the g-factor of the electron, which was previously the most accurate prediction of QED.
Create a lesson
Related papers
Dual-Space Analysis of Vortex Configurations and Rotational Energy in a 2D Optical Lattice
Avra Banerjee
Universal Threshold Memory in Bound-State Recapture
Sajad Azizi
Coherent heat-bath configuration interaction with many-body perturbation theory for multivalent atoms
Shi-Cheng Yu, Zhen-Xiang Zhong, Cheng-Bin Li
85Rb electromagnetically induced transparency and absorption on two collinear 5S1/2→5P1/2→5D3/2→ 25F5/2 three-photon cascade schemes
Shuaijie Li, Alisher Duspayev, Georg Raithel
Nuclear Charge Radii from Precision Bound-Electron g-Factor Measurements
Bastian Sikora
Finesse evolution in a bichromatic cavity under blue and red resonant illumination in vacuum
M. S. Caracas Nuñez, A. Kadakkavattathu, G. Gatta et al.