Magneto-optical trapping combines the friction force of laser cooling with a “restoring” force depending on the atomic position. In order to realize the position dependent force, a magnetic
Atom lithography and optical dipole traps are based on the so-called dipole force. The laser induces an oscillating electric dipole in the atom which interacts with the electric field of the laser
Quantum technology applications require special or even customized lasers with always constantly evolving demands according to the newest developments and changing scientific research topics: The
Ion Laser Cooling and Trapping with Diode Lasers
Ion traps Ionization of neutral atoms Laser cooling of trapped ions Coherent manipulation of ions
Since their first demonstration in the
Different types of Ion traps
Ion traps are powerful instruments to confine charged particles. The Paul trap, named after its inventor Wolfgang Paul, is a 3d trap that uses oscillating electric
More detailed information about Rydberg atoms, their transitions and complete laser solutions for these Rydberg atoms can be found in our Rydberg flyer.View all products
Quantum Dots & Microcavities
Observing quantum effects in relatively large structures Widely tunable mode-hop-free lasers for studying resonance frequencies Application as single photon
Lasers for Spectroscopy
Molecular and atomic spectroscopy Gas monitoring Trace gas analysis
Direct tunable laser absorption spectroscopy (TDLAS) is a widely used method to analyze
Optical Pumping & EIT
Optical pumping Electromagnetically induced transparency Photon storage & slow light TOPTICA’s added value
Using of Optical pumping
Optical pumping is widely