Integration of reverse engineering and rapid technologies for rapid investment casting of gas turbine blades
Integration of reverse engineering and rapid technologies for rapid investment casting of gas turbine blades
The aim of this research work is to offer a unique procedure of integrated Reverse Engineering (RE) and Additive Manufacturing (AM) technologies through implementation of a comprehensive experimental study to present an extensive comparison between applicable rapid technologies for blade rapid investment casting. Different direct and indirect AM techniques were used to produce sacrificial investment casting patterns. In addition, an aluminium mould of a blade for wax injection was fabricated using Computer Numerical Control (CNC) machining to compare conventional investment casting with the proposed rapid investment casting process. Dimensional inspection of cast blades showed that the MultiJet Modelling (MJM) method has the most economic justification and compatibility with blade rapid investment casting and it can be considered as an alternative to conventional wax precision CNC machining. On the other hand, sacrificial patterns produced by the Perfactory system showed lower applicability for investment casting due to pattern flexibility and difficulties in burn-out step. As for examined rapid tooling technologies, silicone rubber moulding was not a stable technique for small batch fabrication of blade wax patterns. In contrast, the results proved that epoxy resin tooling could make possible new cost-effective approaches for low volume production of gas turbine blades.
225-239
Vaezi, Mohammad
828e14c1-3236-4153-8f69-3837233f48ed
Safaeian, Davood
38e08e3e-3f9b-437d-8615-1e2a10b15012
Shakeri, Mohsen
723e1926-8848-42f7-be1b-c92efbe382d4
16 November 2011
Vaezi, Mohammad
828e14c1-3236-4153-8f69-3837233f48ed
Safaeian, Davood
38e08e3e-3f9b-437d-8615-1e2a10b15012
Shakeri, Mohsen
723e1926-8848-42f7-be1b-c92efbe382d4
Vaezi, Mohammad, Safaeian, Davood and Shakeri, Mohsen
(2011)
Integration of reverse engineering and rapid technologies for rapid investment casting of gas turbine blades.
Virtual and Physical Prototyping, 6 (4), .
(doi:10.1080/17452759.2011.631173).
Abstract
The aim of this research work is to offer a unique procedure of integrated Reverse Engineering (RE) and Additive Manufacturing (AM) technologies through implementation of a comprehensive experimental study to present an extensive comparison between applicable rapid technologies for blade rapid investment casting. Different direct and indirect AM techniques were used to produce sacrificial investment casting patterns. In addition, an aluminium mould of a blade for wax injection was fabricated using Computer Numerical Control (CNC) machining to compare conventional investment casting with the proposed rapid investment casting process. Dimensional inspection of cast blades showed that the MultiJet Modelling (MJM) method has the most economic justification and compatibility with blade rapid investment casting and it can be considered as an alternative to conventional wax precision CNC machining. On the other hand, sacrificial patterns produced by the Perfactory system showed lower applicability for investment casting due to pattern flexibility and difficulties in burn-out step. As for examined rapid tooling technologies, silicone rubber moulding was not a stable technique for small batch fabrication of blade wax patterns. In contrast, the results proved that epoxy resin tooling could make possible new cost-effective approaches for low volume production of gas turbine blades.
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Published date: 16 November 2011
Organisations:
Engineering Science Unit
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Local EPrints ID: 348239
URI: http://eprints.soton.ac.uk/id/eprint/348239
ISSN: 1745-2759
PURE UUID: 9bb4f940-994c-4b4f-b2bf-4a9f150c5426
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Date deposited: 11 Feb 2013 10:19
Last modified: 14 Mar 2024 12:56
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Author:
Mohammad Vaezi
Author:
Davood Safaeian
Author:
Mohsen Shakeri
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