Study of Stack Improving and Printing Defect Compensation for a Material Jetting Based Additive Manufacturing System
碩士 === 國立臺灣科技大學 === 自動化及控制研究所 === 106 === Inkjet technology is commonly used in material jetting and binder jetting technology. The use of piezoelectric print head has advantages of high precision, high printing frequency and high material compatibility. However, during the printing process, there a...
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ndltd-TW-106NTUS51460312019-05-16T00:59:41Z http://ndltd.ncl.edu.tw/handle/g42u6j Study of Stack Improving and Printing Defect Compensation for a Material Jetting Based Additive Manufacturing System 材料噴印式積層製造技術之疊層優化及噴印缺陷補償研究 Yi-Kai Huang 黃翊凱 碩士 國立臺灣科技大學 自動化及控制研究所 106 Inkjet technology is commonly used in material jetting and binder jetting technology. The use of piezoelectric print head has advantages of high precision, high printing frequency and high material compatibility. However, during the printing process, there are some drawbacks such as clogged or partially blocked nozzles, which will result in printing defects. The main purpose of this study is to improve the stacking of ink droplets, accelerate the printing speed, and compensate for defects based on material jetting technology. The first step is to determine the optimal roller speed for this study. Then, this study creates a back-and-forth printing mode and compares the surface quality, printing size, and surface roughness with the standard printing mode. Finally, offset printing method is used to fill in defects on a printed layer. According to the experiment results, a minimum surface roughness is obtained by using a roller speed of 695 rpm in this system. While the back-and-forth printing mode can save about 38% of the printing time compared with the standard printing mode. However, the dimensional accuracy in the Y direction is poor, and the surface roughness is also larger than the standard printing mode. The compensation printing method can effectively fill the defects on the printed layer, but it takes time to use laser displacement sensor to scan the position of clogged nozzles before printing process offline and compensatory printing. The user can choose to whether use the back-and-forth printing mode or compensation method or not according to the usage situation or the product requirement. Ming-Jong Tsai 蔡明忠 2018 學位論文 ; thesis 53 zh-TW |
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碩士 === 國立臺灣科技大學 === 自動化及控制研究所 === 106 === Inkjet technology is commonly used in material jetting and binder jetting technology. The use of piezoelectric print head has advantages of high precision, high printing frequency and high material compatibility. However, during the printing process, there are some drawbacks such as clogged or partially blocked nozzles, which will result in printing defects.
The main purpose of this study is to improve the stacking of ink droplets, accelerate the printing speed, and compensate for defects based on material jetting technology. The first step is to determine the optimal roller speed for this study. Then, this study creates a back-and-forth printing mode and compares the surface quality, printing size, and surface roughness with the standard printing mode. Finally, offset printing method is used to fill in defects on a printed layer.
According to the experiment results, a minimum surface roughness is obtained by using a roller speed of 695 rpm in this system. While the back-and-forth printing mode can save about 38% of the printing time compared with the standard printing mode. However, the dimensional accuracy in the Y direction is poor, and the surface roughness is also larger than the standard printing mode. The compensation printing method can effectively fill the defects on the printed layer, but it takes time to use laser displacement sensor to scan the position of clogged nozzles before printing process offline and compensatory printing. The user can choose to whether use the back-and-forth printing mode or compensation method or not according to the usage situation or the product requirement.
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author2 |
Ming-Jong Tsai |
author_facet |
Ming-Jong Tsai Yi-Kai Huang 黃翊凱 |
author |
Yi-Kai Huang 黃翊凱 |
spellingShingle |
Yi-Kai Huang 黃翊凱 Study of Stack Improving and Printing Defect Compensation for a Material Jetting Based Additive Manufacturing System |
author_sort |
Yi-Kai Huang |
title |
Study of Stack Improving and Printing Defect Compensation for a Material Jetting Based Additive Manufacturing System |
title_short |
Study of Stack Improving and Printing Defect Compensation for a Material Jetting Based Additive Manufacturing System |
title_full |
Study of Stack Improving and Printing Defect Compensation for a Material Jetting Based Additive Manufacturing System |
title_fullStr |
Study of Stack Improving and Printing Defect Compensation for a Material Jetting Based Additive Manufacturing System |
title_full_unstemmed |
Study of Stack Improving and Printing Defect Compensation for a Material Jetting Based Additive Manufacturing System |
title_sort |
study of stack improving and printing defect compensation for a material jetting based additive manufacturing system |
publishDate |
2018 |
url |
http://ndltd.ncl.edu.tw/handle/g42u6j |
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