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Meeting TMS Specialty Congress 2024
Symposium Symposium on Digital & Robotic Forming 2024
Presentation Title Deep Drawing and Spin Forming: A Comparison Study
Author(s) Melissa M. Thrun, Allie Glover, Matthew Zappulla, Kayla Molnar, Paul Gibbs
On-Site Speaker (Planned) Melissa M. Thrun
Abstract Scope Incremental forming techniques rely on strain paths that may be radically different than traditional methods. Importantly, the final properties of the metal are rarely independent from the strain history associated with the processing method: understanding differences between representative strain histories is key to advancing incremental forming techniques. This work seeks to relate the geometry, microstructure, and properties of mild steel cylinders to the strain history resulting from two forming methods: spin forming and deep drawing. Experimental results indicate distinct microstructures arising from the two methods: spin forming produces microstructures with elongated, dislocated grains with edge-to-edge variation, while drawing produces dislocated grains with variation from center to edge. Corresponding changes in the local hardness and mechanical properties were measured. These data are expected to facilitate a discussion of material property variation which may be rationalized through consideration of the local strain gradients arising from each method.
Proceedings Inclusion? Definite: Other

OTHER PAPERS PLANNED FOR THIS SYMPOSIUM

A Paradigm Change in Metal Forming: From Formability to Usability
Adaption of Double-cone Forming Geometry to Reduce the Experimental Expenditures Necessary to Create Forming Process Maps
Application of Scientific Machine Learning for Robotic Forming
Architectural Applications and Workflows for Robotic Incremental Forming
Constitutive Law Selection for Finite Element Modeling of Incremental Rotary Forming
Control System Development for a Lab-scale Forging Manipulator for Deformation Model Validation Experiments
Control System Problem Formulation of Robotic Forming, With Robotic Plate Forming as a Case Study
Deep Drawing and Spin Forming: A Comparison Study
Development of a Low-cost Open-source Wire Arc Additive Manufacturing (WAAM) Machine
Differences in Material Behavior and Limitations during Metal Spinning of 304 SS and 6061 Al
Digital Incremental Forming System
Enabling Manufacturing of Next-gen Aerostructures Through Digital & Robotic Forming
Evolution of Advanced Manufacturing Technologies in the Data Analytics and Computational Modeling Era
Generating Digital Shadows of Workpiece Temperature During Thermomechanical Processes
In-space Manufacturing of Large Reticulated Structures via Deformation Processing
Incremental Robotic Forging: An Initial Cyber-physical System
Influence of Feedrate on Microstructure and Hardness of Conventionally Spin-formed 6061-O Plate
Integrated English Wheeling System
Metallurgy of Incremental Forming Processes: A Spin Forming Review
Metamorphic Manufacturing (MM): Some Related Efforts Since the 2019 TMS Accelerator Study Report on MM
Metamorphic Manufacturing: a Tutorial Review
Microstructural Evolution and Corrosion Resistance of 316 Stainless Steel by Double-sided Incremental Sheet Forming
Modifying AM Microstructure and Process Defects by Post-process Forging
Predictive Modeling of Material Deformation Using English Wheel Under Varying Loading Conditions
Refinement of Microstructure and Mechanical Properties of Robotic Wire Arc Additively Manufactured (WAAM) AISI 316LSi Using Forging.
Starting a Digital & Robotic Forming Company – Why, How, and the Role of Different Stakeholders
Technology Training Transfer for Advanced Manufacturing Technologies
Toward Achieving Autonomy in Incremental Forming
Toward Autonomous Research and Co-development of Alloys and Their Manufacturing
Utilizing Strain Rate Jump Testing to Predict Flow Formability of Al Alloys Sensitive to Portevin-Le Chatelier Instabilities

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