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F. Bonaccorso, C. Bruno, L. Cantelli, D. Longo, G. Muscato, S. Rapisarda (2010)
A feedback control system for a rapid production process based on robotic welding deposition
B. Baufeld, O. Biest, S. Dillien (2010)
Texture and Crystal Orientation in Ti-6Al-4V Builds Fabricated by Shaped Metal DepositionMetallurgical and Materials Transactions A, 41
B. Baufeld, O. Biest, R. Gault (2009)
Microstructure of Ti-6Al-4V specimens produced by shaped metal depositionInternational Journal of Materials Research, 100
G. Muscato, G. Spampinato, L. Cantelli (2008)
A closed loop welding controller for a rapid manufacturing process2008 IEEE International Conference on Emerging Technologies and Factory Automation
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Shaped metal deposition of Ti: Microstructure and mechanical properties
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Microstructure and Mechanical Properties of Stainless Steel Component Manufactured by Shaped Metal DepositionIsij International, 49
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Evolution of Microstructure During Shaped Metal Deposition, 29
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Mechanical properties of Ti-6Al-4V specimens produced by shaped metal depositionScience and Technology of Advanced Materials, 10
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Computational modelling of shaped metal depositionInternational Journal for Numerical Methods in Engineering, 85
P. Andry, M. Bruyneel, F. D'Ambrosio, P. Pasquet
Mechatronic modelling of a flexible robot with SAMCEF
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Analytical solutions of the thermal field induced by moving double‐ellipsoidal and double‐elliptical heat sources in a semi‐infinite bodyInternational Journal for Numerical Methods in Biomedical Engineering, 27
F. Bonaccorso, C. Bruno, L. Cantelli, D. Longo, G. Muscato (2009)
A modular software interface for the control system of an arc welding robot2009 2nd Conference on Human System Interactions
V. Fachinotti, A. Cardona, Alejandro Cosimo, B. Baufeld, O. Biest (2010)
EVOLUTION OF TEMPERATURE DURING SHAPED METAL DEPOSITION: FINITE ELEMENT PREDICTIONS VS. OBSERVATIONS, 29
Purpose – The purpose of this paper is to provide an overview of shaped metal deposition (SMD). SMD is an additive manufacturing process which uses a robotic cell to create fully dense, near‐net shape, metallic parts directly from computer‐aided design files. Design/methodology/approach – Research into optimising the SMD process was carried out as part of the 6th Framework RAPOLAC project. This included developing both robotic and weld models, creating a weld controller, and using a design of experiments approach to optimise parameters based on the resultant component microstructure and material properties. Extensive metallurgical analysis and mechanical testing was carried out. Findings – A mechatronic model of the robot was produced and integrated with a novel controller to allow parts to be manufactured with little or no operator intervention. Computational models of the temperature field, microstructure, strain and stresses that occur during deposition were also developed. Variation in weld parameters was linked to part microstructure and mechanical properties. Research limitations/implications – This research focussed on a common titanium aerospace alloy (Ti‐6Al‐4V). Practical implications – The SMD process is applicable to a variety of parts in a range of industrial sectors. It is cost‐effective for low‐volume parts and prototypes, but it is envisaged that its main use will be to add material to previously forged or cast components and therefore SMD will allow companies to reduce both the size of forgings and material waste. SMD as a repair technique is also being investigated. Originality/value – The paper provides a summary of the latest advances in robotic manufacturing by SMD.
Industrial Robot: An International Journal – Emerald Publishing
Published: Oct 18, 2011
Keywords: Robotics; Advanced manufacturing technologies; Control systems; Additive manufacturing; Welding; Shaped metal deposition; Parts; Metals
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