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Newell Moser (Fed)

As a research member of the Additive Manufacturing Fatigue and Fracture Project, my current research focuses on developing computational methods to predict fracture and fatigue for metal-based additive manufacturing. My PhD dissertation was on experimental characterization and computational modeling of a sheet metal forming process known as double-sided incremental forming. Through these experiences, I have gained a background in topics related to advanced manufacturing, experimental solid mechanics, X-ray diffraction, crystallography/metallography, object-orientated programming, finite element methods, computational mechanics, constitutive modeling (emphasis on elastic-plastic relations), and fracture/fatigue.

Publications

Precipitation hardening of laser powder bed fusion Ti-6Al-4V

Author(s)
Nicholas Derimow, Jake Benzing, Jacob Garcia, Zachary Levin, Ping Lu, Newell Moser, Chad Beamer, Frank DelRio, Nikolas Hrabe
The laser powder bed fusion (PBF-L) additive manufacturing (AM) community has dedicated significant efforts into process optimization and control for defect

Microstructure and mechanical properties of laser powder bed fusion Ti-6Al-4V after HIP treatments with varied temperatures and cooling rates

Author(s)
Nicholas Derimow, Jake Benzing, Howard Joress, Austin McDannald, Ping Lu, Frank DelRio, Newell Moser, Matthew Connolly, Alec Saville, Orion Kafka, Chad Beamer, Ryan Fishel, Chris Hadley, Nikolas Hrabe
This work investigated non-standard HIP cycles for PBF-L Ti-6Al-4V and characterized microstructure and tensile properties to compare between material that
Created December 8, 2019, Updated December 8, 2022