• Title/Summary/Keyword: 에어로졸 제트 프린팅

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CFD Analytical Analysis of Jetting Characteristics in Aerosol Jet Printing Process Using Particle Tracking Technique (입자 추적 기법을 활용한 에어로졸 제트 프린팅 공정의 분사 특성에 대한 CFD 해석적 분석)

  • Sang-Min Chung;Seungwoon Park;Euikeun Choi;Soobin Oh;Chul-Hee Lee
    • Journal of Drive and Control
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    • v.21 no.1
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    • pp.8-15
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    • 2024
  • This thesis investigates the jetting characteristics of an aerosol jet printing (AJP) process as a function of design and operating conditions. The governing equations of the AJP system are derived for experimentation and analysis. To understand the characteristics of the AJP system, it analyzes the jetting characteristics as a function of the flow rate of the carrier gas and the sheath gas, and the variation of the linewidth with the nozzle exit size based on particle tracking. The thesis focuses on computational fluid dynamics (CFD), which is a computer simulation. The particle tracking results obtained by CFD were analyzed using MATLAB. CFD analytical models can be analyzed in environments with different conditions and consider more specific situations than mathematical computational models. The validity of the CFD analysis is shown by comparing the experimental results with the CFD analysis.

CFD Analytical Analysis of Jetting Characteristics in Aerosol Jet Printing Process Using Particle Tracking Technique (입자 추적 기법을 활용한 에어로졸 제트 프린팅 공정의 분사 특성에 대한 CFD 해석적 분석)

  • Sang-Min Chung;Seungwoon Park;Euikeun Choi;Soobin Oh;Chul-Hee Lee
    • Journal of Drive and Control
    • /
    • v.21 no.2
    • /
    • pp.8-14
    • /
    • 2024
  • This paper investigates the jetting characteristics of an aerosol jet printing (AJP) process as a function of design and operating conditions. The governing equations of the AJP system are derived for experimentation and analysis. To understand the characteristics of the AJP system, this thesis analyzes the jetting characteristics as a function of the flow rate of the carrier gas and the sheath gas, and the variation of the linewidth with the nozzle exit size based on particle tracking. This thesis focuses on computational fluid dynamics (CFD), which is a computer simulation. The particle tracking results obtained by CFD were analyzed using MATLAB. CFD analytical models can be analyzed in environments with different conditions and consider more specific situations than mathematical computational models. The validity of the CFD analysis is shown by comparing the experimental results with the CFD analysis.