Matthias Riedmann

Potassium ground-state scattering parameters and Born-Oppenheimer potentials from molecular spectroscopy

We present precision measurements with MHz uncertainty of the energy gap between asymptotic and well bound levels in the electronic ground state

Long-distance remote comparison of ultrastable optical frequencies with 10 −15 instability in fractions of a second

X\text{ }{^{1}\ensuremath{\Sigma}}_{\text{g}}^{+}

Observation of sub-Doppler temperatures in bosonic magnesium

of the

Telecommunication fiber link for the remote characterization of a magnesium optical frequency standard

{^{39}\text{K}}_{2}

Towards a magnesium optical lattice clock

molecule. The molecules are prepared in a highly collimated particle beam and are interrogated in a

A continuously loaded dipole trap for magnesium

\ensuremath{\Lambda}

Characterization of an optical Mg frequency standard via a dark telecommunication fiber

-type excitation scheme of optical transitions to long range levels close to the asymptote of the ground state, using the electronically excited state

Absolute frequency measurement of the magnesium intercombination transition S 0 1 → P 1 3

{A\text{ }^{1}\ensuremath{\Sigma}}_{\text{u}}^{+}

Remote frequency measurement of the 1S0 → 3P1 transition in laser-cooled 24Mg

as the intermediate one. The transition frequencies are measured either by comparison with

Beating the density limit by continuously loading a dipole trap from millikelvin-hot magnesium atoms

{\text{I}}_{2}