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- Suppression strategy for metal droplet overlapping fusion defects . . .
In this study, based on experiments and theoretical modeling of molten droplet impact dynamics, a strategy to suppress droplet overlapping fusion defects under coaxial shielding gas was proposed for the first time
- Uniform Aluminum Droplet Deposition Manufacturing and Its . . . - Springer
This chapter focuses on the rules of deposition of uniform aluminum droplets and their influencing factors, laying a foundation for the application of uniform aluminum droplet-based 3D printing technology
- Uniform aluminum droplet deposition manufacturing in an open . . .
Coaxial shielding gas, Surface oxidation, deposition dynamics, Aluminum droplet, Metal micro-droplet deposition manufacturing
- Suppression strategy for metal droplet overlapping fusion defects . . .
In this study, based on experiments and theoretical modeling of molten droplet impact dynamics, a strategy to suppress droplet overlapping fusion defects under coaxial shielding gas was
- Embedded printing trace planning for aluminum droplets depositing on . . .
The whole printing system was placed in a glove box where an environment with shielding gas (e g , argon gas) is created to prevent the molten metal from oxidation, and the oxygen content in the glove box is usually less than 1 PPM (parts per million) during the printing process
- Publications | Yi Zhou Website
Uniform aluminum droplet deposition manufacturing in an open environment: oxidation suppression and stable printing under coaxial shielding gas Ready to submit to International Journal of Machine Tools and Manufacture, 000
- Metal Droplet Deposition: From Foundation to Engineering Manufacturing . . .
An in-depth understanding of the fundamental issues of metal droplet deposition is particularly crucial for developing droplet deposition-based engineering manufacturing technologies
- Microstructure Evolution and Interface Bonding of Uniform Aluminum . . .
Abstract The deposition process of aluminum droplets involves complex behaviors such as fluid flow, unsteady heat transfer, and solidification Such behaviors determine the microstructure of printed parts, affecting their final mechanical properties
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