A Particle-Tracking-Velocimetry (PTV) Investigation of Liquid Injection in a DC Plasma Jet

The present article describes experimental results of liquid injection in a thermal plasma jet by particle-tracking velocimetry (PTV). This technique delivers an in-situ real-time analysis of the liquid breakup and measures the velocities and the trajectories of the particles. The observations were...

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Published inJournal of thermal spray technology Vol. 23; no. 3; pp. 340 - 353
Main Authors Damiani, David, Tarlet, Dominique, Meillot, Erick
Format Journal Article
LanguageEnglish
Published Boston Springer US 01.02.2014
Springer
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Abstract The present article describes experimental results of liquid injection in a thermal plasma jet by particle-tracking velocimetry (PTV). This technique delivers an in-situ real-time analysis of the liquid breakup and measures the velocities and the trajectories of the particles. The observations were done within the 10 mm surrounding the injection location where the plasma brightness is considerable. First, a validation of the proposed investigation method was carried out in a slower plasma jet. Subsequently, PTV measurements within faster plasma jets, resulting in a set of trajectories, were compared with trajectories achieved through optical diagnostics based on a simple shadow-graph technique proposed by Damiani et al. [Injection d’un liquide au sein d’un jet plasma thermique: optimisation de la trajectoire des particules, Proceedings of Congrès Francophone de Techniques Laser, CFTL 2010, Vandoeuvre lès nancy, France, 2010 (in French)]. These trajectories indicated that a higher plasma flow rate was required to spray all droplet sizes in the axis of the flow, thereby enabling an optimal spraying (then coating) application for producing nanostructured thin layers. This study showed that the liquid injection parameters are of main importance to obtain optimal injection and plasma parameters to achieve the required coating properties.
AbstractList The present article describes experimental results of liquid injection in a thermal plasma jet by particle-tracking velocimetry (PTV). This technique delivers an in-situ real-time analysis of the liquid breakup and measures the velocities and the trajectories of the particles. The observations were done within the 10 mm surrounding the injection location where the plasma brightness is considerable. First, a validation of the proposed investigation method was carried out in a slower plasma jet. Subsequently, PTV measurements within faster plasma jets, resulting in a set of trajectories, were compared with trajectories achieved through optical diagnostics based on a simple shadow-graph technique proposed by Damiani et al. [Injection d’un liquide au sein d’un jet plasma thermique: optimisation de la trajectoire des particules, Proceedings of Congrès Francophone de Techniques Laser, CFTL 2010, Vandoeuvre lès nancy, France, 2010 (in French)]. These trajectories indicated that a higher plasma flow rate was required to spray all droplet sizes in the axis of the flow, thereby enabling an optimal spraying (then coating) application for producing nanostructured thin layers. This study showed that the liquid injection parameters are of main importance to obtain optimal injection and plasma parameters to achieve the required coating properties.
Author Meillot, Erick
Tarlet, Dominique
Damiani, David
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  givenname: Dominique
  surname: Tarlet
  fullname: Tarlet, Dominique
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  givenname: Erick
  surname: Meillot
  fullname: Meillot, Erick
  organization: CEA/DAM, Le Ripault
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Issue 3
Keywords liquid injection
optical diagnostics
nanomaterials
plasma spraying
particle-tracking-velocimetry (PTV)
Plasma
Plasma jet
Hot spraying
Plasma spraying
Surface treatment
Language English
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Snippet The present article describes experimental results of liquid injection in a thermal plasma jet by particle-tracking velocimetry (PTV). This technique delivers...
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SubjectTerms Analytical Chemistry
Applied sciences
Characterization and Evaluation of Materials
Chemistry and Materials Science
Corrosion and Coatings
Exact sciences and technology
Machines
Manufacturing
Materials Science
Metals. Metallurgy
Peer Reviewed
Processes
Production techniques
Surface treatment
Surfaces and Interfaces
Thin Films
Tribology
Title A Particle-Tracking-Velocimetry (PTV) Investigation of Liquid Injection in a DC Plasma Jet
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