Results found: 3

Number of results on page

Search results

Search:
in the keywords: laser plasma

Sort By:

Limit search:

High Power Laser Laboratory at the Institute of Plasma Physics and Laser Microfusion: equipment and preliminary research

100%

Zaraś-Szydłowska A., Badziak J., Rosiński M., Makowski J., Parys P., Piotrowski M., Ryć L., Wołowski J.

issue 2

245-248

The purpose of this paper is to present the newly-opened High Power Laser Laboratory (HPLL) at the Institute of Plasma Physics and Laser Microfusion (IPPLM). This article describes the laser, the main laboratory accessories and the diagnostic instruments. We also present preliminary results of the first experiment on ion and X-ray generation from laser-produced plasma that has been already performed at the HPLL.

Surface Modification of Solids by Extreme Ultraviolet and Plasma Treatment

100%

Bartnik A., Fiedorowicz H., Skrzeczanowski W., Czwartos J., Wachulak P., Jarocki R., Kostecki J.

Acta Physica Polonica A

2018

vol. 133

issue 2

267-270

In this paper, results of surface modification, using a laser-produced plasma source of extreme ultraviolet, and the extreme ultraviolet induced low temperature plasmas, are presented. It was shown that irradiation of different materials by intense extreme ultraviolet pulses results in strong changes of the surface morphology. Examples of micro- and nanostructures obtained this way are presented. It was also demonstrated that a dual action of the radiation pulses and low temperature plasmas allows to modify a molecular structure of exposed materials.

Numerical simulations of generation of high-energy ion beams driven by a petawatt femtosecond laser

100%

Domański J., Badziak J., Jabłoński S.

issue 2

229-232

This contribution presents results of a Particle-in-Cell simulation of ion beam acceleration via the interaction of a petawatt 25 fs laser pulse of high intensity (up to ~1021 W/cm2) with thin hydrocarbon (CH) and erbium hydride (ErH3) targets of equal areal mass density (of 0.6 g/m2). A special attention is paid to the effect that the laser pulse polarization and the material composition of the target have on the maximum ion energies and the number of high energy (>10 MeV) protons. It is shown that both the mean and the maximum ion energies are higher for the linear polarization than for the circular one. A comparison of the maximum proton energies and the total number of protons generated from the CH and ErH3 targets using a linearly polarized beam is presented. For the ErH3 targets the maximum proton energies are higher and they reach 50 MeV for the laser pulse intensity of 1021 W/cm2. The number of protons with energies higher than 10 MeV is an order of magnitude higher for the ErH3 targets than that for the CH targets.

Refine search results

2 Nukleonika

1 Acta Physica Polonica A

1 2018

2 2015

2 Badziak J.

1 Bartnik A.

1 Czwartos J.

1 Domański J.

1 Fiedorowicz H.

1 Jabłoński S.

1 Jarocki R.

1 Kostecki J.

1 Makowski J.

1 Parys P.

1 Piotrowski M.

1 Rosiński M.

1 Ryć L.

1 Skrzeczanowski W.

1 Wachulak P.

1 Wołowski J.

1 Zaraś-Szydłowska A.

Search results

High Power Laser Laboratory at the Institute of Plasma Physics and Laser Microfusion: equipment and preliminary research

Surface Modification of Solids by Extreme Ultraviolet and Plasma Treatment

Numerical simulations of generation of high-energy ion beams driven by a petawatt femtosecond laser