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Dynamics of UV short pulse laser-induced plasmas from a ceramic material “titanium carbide”: a hydrodynamical out of equilibrium investigation

  • A. Ait Oumeziane (a1) (a2) (a3) (a4) and J-D. Parisse (a2) (a5)

Abstract

The present work is motivated by the numerous applications of short lasers–ceramics interaction. It aims at applying a newly developed model to investigate the dynamic of laser-induced plasmas from a ceramic material into a helium gas under atmospheric pressure. To have a better understanding of the link between the material properties, the plume characteristics and its interaction with the laser beam, a thorough examination of the entire ablation processes is conducted. Comparison with the behavior of laser-induced plumes under the same conditions from a pure material is shown to have a key role in shedding the light on what monitors the plume expansion in the background environment. Plume temperatures, velocities, ionization rates as well as elemental composition have been presented and compared under carefully chosen relevant conditions. This study is of interest for laser matter applications depending on the induced plasmas dynamics and composition.

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Corresponding author

Author for correspondence: A. Ait Oumeziane, Department of Mechanical Engineering and Energetics, Aix-Marseille University, Marseille, 13013, France. E-mail: amina.aitoumeziane@outlook.fr

References

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Ait Oumeziane, AK and Parisse, J-D (2018) Toward a comprehensive UV laser ablation modeling of multicomponent materials-A non-equilibrium investigation on titanium carbide. Physics of Plasmas 25, 053511.
Ait Oumeziane, AK, Liani, B and Parisse, J-D (2014) Laser induced plasma on copper target, a non-equilibrium model. Physics of Plasmas 21, 023507.
Ait Oumeziane, AK, Liani, B and Parisse, J-D (2016 a) Laser-induced plasma on a titanium target, a non-equilibrium model. Plasma Chemistry Plasma Processing 36, 711730.
Ait Oumeziane, AK, Liani, B and Parisse, J-D (2016 b) Non-equilibrium modeling of UV laser induced plasma on a copper target in the presence of Cu2+. Physics of Plasmas 23(3), 033502.
Boris, JP, Landsberg, AM, Oran, ES and Garner, JH (1993) LCPFCT a flux corrected transport algorithm for solving generalized continuity equations. NRL Memorundom Report 93, 7192.
Clarke, P, Dyer, PE, Key, PH and Snelling, HV (1999) Plasma ignition thresholds in UV laser ablation plumes. Applied Physcis A 69(Suppl.), S117S120.
D'Alessio, L, Salvi, AM, Teghil, R, Marotta, V, Santagata, A, Brunetti, B, Ferro, D and De Maria, G (1998) Silicon supported TiC films produced by pulsed laser ablation. Applied Surface Science 134, 5362.
Dellasega, D, Russo, V, Pezzoli, A, Conti, C, Lecis, N, Besozzi, E, Beghi, M, Bottani, CE and Passoni, M (2017) Boron films produced by high energy pulsed laser deposition. Materials and Design 134, 3543.
Eason, R (2007) Pulsed Laser Deposition of Thin Films: Applications-Led Growth of Functional Materials. Hoboken, New Jersey: John Wiley.
Harilal, SS, O'Shay, B, Tao, Y and Tillack, MS (2006) Ambient gas effects on the dynamics of laser-produced tin plume. Journal of Applied Physcis 99, 083303.
Koral, C, Dell'Aglio, M, Gaudiuso, R, Alrifai, R, Torellic, M and De Giacomo, A (2018) Nanoparticle-enhanced laser induced breakdown spectroscopy for the noninvasive analysis of transparent samples and gemstones. Talanta 182, 253258.
Kumar, A, Chan, HL and Kapat, JS (1998) Deposition and characterization of titanium carbide coatings using laser ablation method. Applied Surface Science 127–129, 549552.
Lee, JH (1985) Basic governing equations for the flight regime of aeroassisted orbital transfer vehicles. Progress in Astronautics and Aeronautics Thermal Design of Aeroassisted Orbital Transfer Vehicles 96, 353.
Mazhukin, VI, Nossov, VV, Nickiforov, MG and Sumorov, I (2003) Optical breakdown on aluminum vapor induced by ultraviolet laser radiation. Journal of Applied Physics 93, 5666.
Mendes, M and Vilar, R (2003) Influence of the processing parameters on the formation and deposition of particles in UV pulsed laser ablation of Al2O3–TiC ceramics. Applied Surface Science 217, 149162.
Oliveira, V and Vilar, R (2007) Finite element simulation of pulsed laser ablation of titanium carbide. Applied Surface Science 253, 78107814.
Oliveira, V, Somes, F and Vilar, R (2005) Column-growth mechanisms during KrF laser micromachining of Al2 O3-TiC ceramics. Applied Physics A 81, 11571162.
Oran, E-S and Boris, JP (1987) Numerical Simulation of Reactive Flow. New York: Elsevier.
Parisse, J-D, Sentis, M and Zeitoun, DE (2011) Modeling and numerical simulation of laser matter interaction and ablation with 193 nanometer laser for nanosecond pulse. International Journal of Numerical Methods for Heat and Fluid Flow 21, 7394.
Ravindra, HP (2005) Thermal modeling of laser drilling and cutting of engineering materials, M.S. thesis. Graduate College of the Oklahoma State University.
Rosen, DI, Mitteldorf, J, Kothandaraman, G, Pirri, AN and Pugh, ER (1982) Coupling of pulsed 0.35 micrometer laser radiation to aluminum alloys. Journal of Applied Physics 53, 3190.
Scharf, T and Krebst, HU (2002) Influence of inert gas pressure on deposition rate during pulsed laser deposition. Applied Physics A 75, 551554.
Siozos, P, Philippidis, A and Anglos, D (2017) Portable laser-induced breakdown spectroscopy/diffuse reflectance hybrid spectrometer for analysis of inorganic pigments. Spectrochimica Acta Part B 137, 93100.
Stafe, M, Marcu, A and Puscas, N (2014) Pulsed Laser Ablation of Solids: Basics, Theory and Applications. Springer Series in Surface Sciences. Volume 53 Heidelberg, Berlin: Springer-Verlag.
Strozzi, DJ, Bailey, DS, Michel, P, Divol, L, Sepke, SM, Kerbel, GD, Thomas, CA, Ralph, JE, Moody, JD and Schneider, MB (2017) Interplay of Laser-Plasma Interactions and Inertial Fusion Hydrodynamics PRL 118, 025002.
Sturm, K, Fahler, S and Krebs, H-U (2000) Pulsed laser deposition of metals in low pressure inert gas. Applied Surface Science 154, 462466.
Teghil, R, D'Alessio, L, Zaccagnino, M, Ferro, D, Marotta, V and De Maria, G (2001) TiC and TaC deposition by pulsed laser ablation: a comparative approach. Applied Surface Science 173, 233241.
Teghil, R, D'Alessio, L, De Bonis, A, Galasso, A, Villani, P and Santagata, A (2006) Femtosecond pulsed laser ablation and deposition of titanium carbide. Thin Solid Films 515, 14111418.
Thomann, AL, Boulmer-Leborgne, C and Dubreuil, B (1997) A contribution to the understanding of the plasma ignition mechanism above a metal target under UV laser irradiation. Plasma Sources Science and Technology 6, 298306.
Van Driel, H (1986) Kinetics of high density plasmas generated in Si by 1.06 and 0.53 micrometer picosecond laser pulses. Physical Review B 35, 8166.
Vasantgadkar, NA, Bhandarkar, UV and Joshi, SS (2010) A finite element model to predict the ablation depth in pulsed laser ablation. Thin Solid Films 519, 14211430.
Williams, WS (1999) Electrical properties of hard materials. International Journal of Refractory Metals & Hard Materials. 17, 2126.
Yu, H., Li, H., Wang, Y., Cui, L., Liu, S and Yang, J (2018) Brief review on pulse laser propulsion. Optics and Laser Technology 100, 5774.
Zel'dovitch, YB and Raizer, YP (1966) Physics of Shock Waves and High Temperature Hydrodynamics Phenomena. New York: Academic Press.

Keywords

Dynamics of UV short pulse laser-induced plasmas from a ceramic material “titanium carbide”: a hydrodynamical out of equilibrium investigation

  • A. Ait Oumeziane (a1) (a2) (a3) (a4) and J-D. Parisse (a2) (a5)

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