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Vol 15, 2026
Pages: 90 - 90
Abstract
Natural Sciences Editor: Darjana Sredić
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Received: 07.04.2026. >> Accepted: 07.04.2026. >> Published: 29.05.2026. Abstract Natural Sciences Editor: Darjana Sredić

COMPARATIVE STUDY OF NUMERICAL MODELS OF IONIZATION DYNAMICS IN LASER-INDUCED BREAKDOWN OF SOLIDS AND GASES

By
Jasna Stevanovic ,
Jasna Stevanovic
Contact Jasna Stevanovic

Faculty of Science, University of Kragujevac , Kragujevac , Serbia

Violeta Petrovic ,
Violeta Petrovic

Faculty of Science, University of Kragujevac , Kragujevac , Serbia

Hristina Delibašić Marković ,
Hristina Delibašić Marković

Faculty of Science, University of Kragujevac , Kragujevac , Serbia

Ivan Petrovic
Ivan Petrovic

Department in Kragujevac, Academy of Professional Studies Šumadija , Kragujevac , Serbia

Abstract

Laser-induced breakdown in solids and gases involves complex ionization dynamics that occur on ultrafast time scales. In this work, we present a comparative review of the specific features of laser-induced breakdown (LIB) in gases and solid materials. We also present appropriate numerical approaches that allow the calculation of ionization event rates at given moments in time and for specific laser intensities (high-intensity Nd:YAG laser pulses within the 200–1064 nm wavelength range), enabling the study of the temporal evolution of a key parameter—free electron density. The influence of different parameters, such as wavelength, as well as various underlying physical phenomena, is considered. This approach makes it possible to analyze how different parameters affect laser-induced breakdown and to use that insight to predict and fine-tune laser settings for specific applications.

Funding Statement

Acknowledgements. Authors would like to acknowledge the support received from the Science Fund of the Republic of Serbia, #GRANT 6821, Atoms and (bio)molecules-dynamics and collisional processes on short time scale - ATMOLCOL. Our appreciation also goes to the Serbian Ministry of Education, Science and Technological Development (Agreement No. 451-03-34/2026-03/ 200122).

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