A novel multi-shot target platform for laser-driven laboratory astrophysics experiments


A novel multi-shot target platform for laser-driven laboratory astrophysics experiments

Perez-Martin, P.; Prencipe, I.; Sobiella, M.; Donat, F.; Kang, N.; He, Z.; Liu, H.; Ren, L.; Xie, Z.; Xiong, J.; Zhang, Y.; Brack, F.-E.; Cervenak, M.; Gajdos, P.; Hronova, L.; Kaniz, K.; Kozlová, M.; Kroll, F.; Pan, X.; Schaumann, G.; Singh, S.; Smid, M.; Suzuki-Vidal, F.; Zhang, P.; Sun, J.; Zhu, J.; Krus, M.; Falk, K.

Anewapproach to target development for laboratory astrophysics experiments at high power laser facilities is presented. With the dawnofhighpowerlasers, laboratory astrophysics emerged as a field, bringing insight into physical processes in astrophysical objects, such as formation of stars. An important factor for success on these experiments is targetry. To date, targets have mainly relied on expensive and challenging microfabrication methods. The design presented incorporates replaceable machined parts which assemble into a structure that defines the experimental geometry. This can make targets cheaper and faster to manufacture, while maintaining robustness and reproducibility. The platform is intended for experiments on plasma flows, but it is flexible and may be adapted to the constraints of other experimental setups. Examples of targets used in experimental campaigns are shown, including a design for insertion in a high magnetic field coil. Experimental results are included demonstrating the performance of the targets.

Keywords: Target design; laboratory astrophysics; laser-plasma interaction; high magnetic fields; magnetized plasmas

Permalink: https://www.hzdr.de/publications/Publ-36565