Precise calculation of transition frequencies of hydrogen and deuterium based on a least-squares analysis
arXiv:physics/0604058 · doi:10.1103/PhysRevLett.95.163003
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.
arXiv comment4 pages, RevTeX
References in corpus (10)
- Theory of Light Hydrogenlike Atoms
- Calculation of the Electron Self Energy for Low Nuclear Charge
- Two-Loop Bethe Logarithms
- Logarithmic two-loop corrections to the Lamb shift in hydrogen
- Electron Self Energy for the K and L Shell at Low Nuclear Charge
- Radiative energy shifts induced by local potentials
- Electron Self Energy for Higher Excited S Levels
- Asymptotic properties of self-energy coefficients
- Perturbation Approach to the Self Energy of non-S Hydrogenic States
- Double-Logarithmic Two-Loop Self-Energy Corrections to the Lamb Shift
Cited by in corpus (22)
- CODATA Recommended Values of the Fundamental Physical Constants: 2010
- CODATA Recommended Values of the Fundamental Physical Constants: 2014
- Cavity Control of a Single-Electron Quantum Cyclotron:\\Measuring the Electron Magnetic Moment
- Lamb Shift in Muonic Hydrogen. I. Verification and Update of Theoretical Predictions
- Uncertainty Estimates for Theoretical Atomic and Molecular Data
- Probing new spin-independent interactions through precision spectroscopy in atoms with few electrons
- Optical frequency measurement of the 1S-3S two-photon transition in hydrogen
- Quantum field theory on toroidal topology: algebraic structure and applications
- Lamb Shift in Muonic Hydrogen. II. Analysis of the Discrepancy of Theory and Experiment
- Proton Radius, Darwin-Foldy Term and Radiative Corrections
- Accommodating three low-scale anomalies (g-2, Lamb shift, and Atomki) in the framed standard model
- Vacuum polarization for compactified in a magnetic flux background
- Spectroscopic tests for short-range modifications of Newtonian and post-Newtonian potentials
- Muonic bound systems, virtual particles and proton radius
- Atomic Physics Constraints on the X Boson
- Gravitational Effects in g Factor Measurements and High-Precision Spectroscopy: Limits of Einstein's Equivalence Principle
- Long-range interactions of hydrogen atoms in excited states. III. nS-1S interactions for n >= 3
- Proposal for the determination of nuclear masses by high-precision spectroscopy of Rydberg states
- Proton Radius: A Puzzle or a Solution!?
- Precision Rydberg State Spectroscopy with Slow Electrons and Proton Radius Puzzle
- [C I] and [C II] emission in the circumstellar envelope of IRC +10216 I. Observational data and NLTE modeling of the [C I] emission
- The Muon Experimental Anomalies Are Explained by a New Interaction Proportional to Charge