Our scientific mission is to advance ultrafast laser technology, explore new areas of coherent light generation, and apply our uniquely tailored ultrafast sources to better understand chemical, biological, and physical processes.
In this paper we study average-power scaling of multi-cycle terahertz sources using periodically poled lithium niobate wafer stacks driven by high-repetition-rate ytterbium lasers. The study identifies beam focusing from nonlinear and thermal lensing effects as a key limitation and presents mitigation strategies for future power scaling.
Terahertz technology has been severely limited by low-power sources. Our perspective article highlights how high-power ytterbium lasers are driving ultrafast THz sources toward watt-level average power. This laser technology promises to revolutionize THz applications by greatly improving measurement speed, signal quality, and dynamic range.
We are happy to introduce our newest scientists, M.Sc. Torben Fiehler and M.Sc. Mazen Jad Allah.