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Volume 40 Issue 2
Dec.  2015
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Temperature field analysis and experiment study about paint irradiated by moving laser based on FEM

  • Corresponding author: FENG Guoying, guoying-feng@scu.edu.cn
  • Received Date: 2015-01-25
    Accepted Date: 2015-03-07
  • In order to analyze the process of laser removal of paint on metal surface, the model was established by using finite element method (FEM). Temperature distribution on stainless steel surface with paint film irradiated by moving laser was simulated. The relative and comparative experiment was done. The results show that, temperature of paint film changes with the movement of laser source. Temperature distribution has a rendering tail like comet-shape. The peak temperature of paint film increases linearly with the increase of laser fluence and laser repetition rate, and decreases exponentially with the increase of scanning rate. The higher the laser fluence and repetition rate, the higher the paint removal efficiency. Cumulative effect of temperature can improve the efficiency of removing paint. The results can give references to select laser parameters in the process of laser paint removal.
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Temperature field analysis and experiment study about paint irradiated by moving laser based on FEM

    Corresponding author: FENG Guoying, guoying-feng@scu.edu.cn
  • 1. Institute of Laser & Micro/Nano Engineering, School of Electrical Engineering and Information, Sichuan University, Chengdu 610064, China

Abstract: In order to analyze the process of laser removal of paint on metal surface, the model was established by using finite element method (FEM). Temperature distribution on stainless steel surface with paint film irradiated by moving laser was simulated. The relative and comparative experiment was done. The results show that, temperature of paint film changes with the movement of laser source. Temperature distribution has a rendering tail like comet-shape. The peak temperature of paint film increases linearly with the increase of laser fluence and laser repetition rate, and decreases exponentially with the increase of scanning rate. The higher the laser fluence and repetition rate, the higher the paint removal efficiency. Cumulative effect of temperature can improve the efficiency of removing paint. The results can give references to select laser parameters in the process of laser paint removal.

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