Spatially and temporally separated amplification and subsequent coherent addition of femtosecond pulses is a promising performance-scaling approach for ultrafast laser systems. Herein we demonstrate for the first time the application of this multidimensional scheme in a scalable architecture. Applying actively controlled divided-pulse amplification producing up to four pulse replicas that are amplified in two ytterbium-doped step-index fibers (6 µmcore), pulse energies far beyond the damage threshold of the single fiber have been achieved. In this proof-of-principle experiment, high system efficiencies are demonstrated at both high pulse energies (i.e., in case of strong saturation) and high accumulated nonlinear phases
An ultrafast fiber-chirped-pulse amplification system using a combination of spatial and temporal co...
Applications addressed by femtosecond (fs) laser sources are requiring increasing pulse energies and...
Abstract: We demonstrate an approach to avoid nonlinear effects in amplification. The initial pulse ...
Ytterbium-doped solid-state lasers are versatile tools for the generation of intense ultrashort puls...
The coherent combination of ultra short laser pulses is a promising approach for scaling the average...
A promising way to get around intrinsic physical limitations in laser designs it is the technique of...
Ytterbium-doped solid-state lasers are versatile tools for the generation of intense ultrashort puls...
International audienceWe review recent progress in coherent combining of femtosecond pulses amplifie...
The performance of fiber laser systems has drastically increased over recent decades, which has open...
Divided-pulse amplification is a promising method for the energy scaling of femtosecond laser amplif...
We demonstrate for the first time both spatial and temporal multiplexing in a scalable amplification...
The approach of coherent combination of ultrashort laser pulses will reviewed. Concept, achievements...
The presentation will review the recent achievements and potential of spatially and temporally separ...
We present a universal method for energy-scaling of fiber chirped-pulse-amplification systems using ...
The achievements and the potential of coherent pulse addition as a performance scaling approach of u...
An ultrafast fiber-chirped-pulse amplification system using a combination of spatial and temporal co...
Applications addressed by femtosecond (fs) laser sources are requiring increasing pulse energies and...
Abstract: We demonstrate an approach to avoid nonlinear effects in amplification. The initial pulse ...
Ytterbium-doped solid-state lasers are versatile tools for the generation of intense ultrashort puls...
The coherent combination of ultra short laser pulses is a promising approach for scaling the average...
A promising way to get around intrinsic physical limitations in laser designs it is the technique of...
Ytterbium-doped solid-state lasers are versatile tools for the generation of intense ultrashort puls...
International audienceWe review recent progress in coherent combining of femtosecond pulses amplifie...
The performance of fiber laser systems has drastically increased over recent decades, which has open...
Divided-pulse amplification is a promising method for the energy scaling of femtosecond laser amplif...
We demonstrate for the first time both spatial and temporal multiplexing in a scalable amplification...
The approach of coherent combination of ultrashort laser pulses will reviewed. Concept, achievements...
The presentation will review the recent achievements and potential of spatially and temporally separ...
We present a universal method for energy-scaling of fiber chirped-pulse-amplification systems using ...
The achievements and the potential of coherent pulse addition as a performance scaling approach of u...
An ultrafast fiber-chirped-pulse amplification system using a combination of spatial and temporal co...
Applications addressed by femtosecond (fs) laser sources are requiring increasing pulse energies and...
Abstract: We demonstrate an approach to avoid nonlinear effects in amplification. The initial pulse ...