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Meeting 2026 TMS Annual Meeting & Exhibition
Symposium Solid-State Processing and Manufacturing for Nuclear Applications: Integrating Insights and Innovations
Presentation Title Plasma Arc Additive Manufacturing for Superalloys and Beyond
Author(s) Christopher Warren, Reece Fiebich
On-Site Speaker (Planned) Christopher Warren
Abstract Scope Plasma Arc Manufacturing (PAM) is an advanced manufacturing technology that uses a plasma arc as a heat source to melt and deposit material, typically in the form of metal wire (but not limited to), to build up parts layer by layer. This process is particularly useful for manufacturing large, complex metal parts and components in industries like aerospace, automotive, and defense. This has broader applications with refractory alloys and can serve the nuclear energy community as well. PAM can produce virtually porosity free parts due to its volumetric heat source. The overall high material quality is achieved by precisely controlling the material composition and thermal history of each part at every location. PAM technology can cut lead times by 50%-90% depending on the requirements compared to casting that same part. In addition, multiple wires can be fed for faster printing of a single alloy, the production of multi-metal graded structures, or even the creation of high entropy alloys. Moreover, there is effectively no upper size limitation to PAM. A larger enclosure can print a bigger part and multiple heads could print it faster. Coronal Technologies is currently offering part manufacturing services for items up to 1 cubic meter in size. PAM is an order of magnitude faster than LBPF while the wire input material is typically 1/5 the unit weight price of LBPF powder. These 2 major factors definitively demonstrate how PAM can increase capacity, speed, and throughput for the DoD and DoE for various applications.
Proceedings Inclusion? Planned:

OTHER PAPERS PLANNED FOR THIS SYMPOSIUM

An Evaluation of Friction Stir Welding to Join 316H Stainless Steel Without Sensitization
Consolidation and Sintering of Immiscible Elements: U-Y
Dependence of Radiation Induced Segregation of Cr on Sink Dimensionality in Fe-Cr Alloys
Enabling Bulk Deposition of High Melting Temperature Materials via Additive Friction Stir Deposition
Fabrication of Bulk Nanoporous W by Powder Metallurgy and Thermal Dealloying
Friction Stir for Nuclear Fusion: Adapting FSW for Thick Section Dissimilar Copper Joints With Varying Base Material Properties
Investigation of Cold Spray Ni-Coatings for Stainless Steel Canisters in Dry Cask Storage Systems
Iron Aluminide Formation via Cold Spray and Spot Friction Processing for Tritium Permeation Barrier Applications
Machine Learning Driven Optimization of 3D-Printed Advanced Materials for Radiation Shielding
Optimizing Production Route for ODS Hastelloy N Produced via Hot Isostatic Pressing for Structural Applications in Molten Salt Reactors
Plasma Arc Additive Manufacturing for Superalloys and Beyond
Process Optimization for Hydride Fuel Fabrication
Scalable Solid-State Manufacturing Pathways for the ARC Fusion Power Plant
Solid State Consolidation of IN800H
Successful Cladding Tube Production for Next Gen Fission Reactors Using Friction Extrusion and Pilgering

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