Uploaded August 2024 | Updated September 2026, 1 week ago
In the past decade, additive manufacturing technology has rapidly evolved, transforming the way engineers approach part building. As these methods pose intricate physical and economic challenges, the forefront of researchers' focus is on optimizing these processes. Employing computational fluid dynamics (CFD) to analyze how flow behavior influences the formation of defects like porosity, dross, and residual stresses has proven to be a useful tool in developing new laser-based AM techniques. How will the temperature field change when alloys are mixed? What is the fastest way we can print without defects? In this introductory webinar led by CFD Engineer Garrett Clyma, you will learn how researchers and engineers are leveraging FLOW-3D AM to answer these questions in metal laser powder bed fusion (LPBF) and directed energy deposition (DED). Learn more about FLOW-3D AM by visiting flow3d.com/products/flow3d-am/.
In the past decade, additive manufacturing technology has rapidly evolved, transforming the way engineers approach part building. As these methods pose intricate physical and economic challenges, the forefront of researchers' focus is on optimizing these processes. Employing computational fluid dynamics (CFD) to analyze how flow behavior influences the formation of defects like porosity, dross, and residual stresses has proven to be a useful tool in developing new laser-based AM techniques. How will the temperature field change when alloys are mixed? What is the fastest way we can print without defects? In this introductory webinar led by CFD Engineer Garrett Clyma, you will learn how researchers and engineers are leveraging FLOW-3D AM to answer these questions in metal laser powder bed fusion (LPBF) and directed energy deposition (DED). Learn more about FLOW-3D AM by visiting flow3d.com/products/flow3d-am/.
