Precision lifetime measurements of a single trapped ion with ultrafast laser pulses
arXiv:quant-ph/0505111 · doi:10.1103/PhysRevA.73.023413
Abstract
We report precision measurements of the excited state lifetime of the and levels of a single trapped Cd ion. The ion is excited with picosecond laser pulses from a mode-locked laser and the distribution of arrival times of spontaneously emitted photons is recorded. The resulting lifetimes are 3.148 0.011 ns and 2.647 0.010 ns for and respectively. With a total uncertainty of under 0.4%, these are among the most precise measurements of any atomic state lifetimes to date.
arXiv comment4 pages with 3 figures
References in corpus (1)
Cited by in corpus (18)
- Quantum Teleportation Between Distant Matter Qubits
- Manipulation and Detection of a Trapped Yb+ Ion Hyperfine Qubit
- Quantum Interference of Photon Pairs from Two Trapped Atomic Ions
- Errors in trapped-ion quantum gates due to spontaneous photon scattering
- Detection of Elements at All Three r-process Peaks in the Metal-Poor Star HD 160617
- Precision measurement of the branching fractions of the 4P3/2 decay of Ca II
- Precision measurement of the lifetime of the 6p 2P_1/2 level of Yb+
- Detection of Neutral Phosphorus in the Near Ultraviolet Spectra of Late-Type Stars
- Broadband laser cooling of trapped atoms with ultrafast pulses
- Efficient Photoionization-Loading of Trapped Cadmium Ions with Ultrafast Pulses
- Polarizability assessments of ion-based optical clocks
- Ab initio relativistic many-body calculation of hyperfine splitting of ^{113}Cd^+
- Direct temperature determination of a sympathetically cooled large 113Cd+ ion crystal for a microwave clock
- Relativistic coupled-cluster theory analysis of energies, hyperfine structure constants, and dipole polarizabilities of Cd
- Detecting unambiguously non-Abelian geometric phases with trapped ions
- Quantum time dilation in a gravitational field
- Estimation of BBR shift due to Stark effect for the Microwave Cd Ion Clock
- Single barium ion spectroscopy: light shifts, hyperfine structure, and progress on an optical frequency standard and atomic parity violation