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DOE OSTI · 1668670

Report on plasma jet printer for sensor fabrication with process parameters optimized by simulation input

McMurtrey, Michael D.·Mondal, Kunal·Fujimoto, Kiyo T.·Bass, Joseph Louis·Biaggne, Austin
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Abstract

The In-Pile Instrumentation program conducts research to develop instrumentation that provides information regarding test conditions, as well as fuel and materials properties during irradiation. Such instruments must be miniaturized, robust to the nuclear reactor environment, and provide real-time data aligned with user needs. Towards this end, additive manufacturing techniques such as aerosol jet printing and Plasma Jet Printing, have demonstrated significant potential for the development of advanced in-pile instrumentation. Process control during the manufacturing process is critical in order to consistently create reliable sensors. This report details experimental and computational work aimed towards improved process control for robust sensor production using printing techniques.

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36 MATERIALS SCIENCE46 INSTRUMENTATION RELATED TO NUCLEAR SCIENCE AND TECHNOLOGYin-pile instrumentationplasma jet printingprinted sensors

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McMurtrey, Michael D., Mondal, Kunal, Fujimoto, Kiyo T., Bass, Joseph Louis, Biaggne, Austin. 2019-09-26. Report on plasma jet printer for sensor fabrication with process parameters optimized by simulation input. https://doi.org/10.2172/1668670

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