journal article·2020-04-28Open access

Manufacturing Processes of Integral Blade Rotors for Turbomachinery, Processes and New Approaches

Haizea González-Barrio, Amaia Calleja-Ochoa, A. Lamikiz, L. N. López de Lacalle

Applied Sciences· Volume 10· Issue 9

Abstract

Manufacturing techniques applied to turbomachinery components represent a challenge in the aeronautical sector. These components are commonly composed of high resistant super-alloys; in order to satisfy the extreme working conditions, they have to support during their useful life. Besides, in the particular case of Integrally Bladed Rotors (IBR), they usually present complex geometries that need to be roughed and finished by milling and grinding processes, respectively. Thermoresistant superalloys present many challenges in terms of machinability what leads to find new alternatives to conventional manufacturing processes. In order to face this issue, this work presents a review of the last advances for IBR manufacturing and repairing processes.
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Research context

OpenAlex topics: Additive Manufacturing Materials and Processes · High Entropy Alloys Studies · Metal Alloys Wear and Properties

SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.

Affiliations

Department of Mechanical Engineering, University of the Basque Country (UPV/EHU), Alameda de Urquijo s/n, 48013 Bilbao, Spain

Department of Mechanical Engineering, University of the Basque Country (UPV/EHU), Nieves Cano 12, 01006 Vitoria-Gasteiz, Spain

The Aeronautics Advanced Manufacturing Center, CFAA—University of the Basque Country (UPV/EHU), Parque Tecnológico de Zamudio 202, 48170 Bilbao, Spain

References (100+)

Show source-provided references
1. Asociación Española de Empresas Tecnológicas de Defensa, Aeronáutica y Espacio (tedae) (2020, February 01). Retos del Sector Aeronáutico en España, Guía Estratégica 2015–2025. Available online: https://www.tedae.org/uploads/files/1461082425_retos-del-sector-aeronautico-en-espana-guia-estrategica-2015-2025-pdf.pdf.
2. Bussmann, M., and Bayer, E. (2009, January 7–11). Blisk Production of the Future Technological and logistical aspects of future-oriented construction and manufacturing processes of integrally bladed rotors. Proceedings of the 19th International Symposium on Airbreathing Engines, Montreal, QC, Canada.
3. Optimised methodology for aircraft engine IBRs five-axis machining process
4. Klocke, F., Schmitt, R., Zeiss, M., Heidemanns, L., Kerkhoff, J., Heinen, D., and Klink, A. (2015, January 18–19). Technological and Economical Assessment of Alternative Process Chains for Blisk Manufacture. [ed.] Procedia CIRP. Proceedings of the 15th Machining Innovations Conference for Aerospace Industry, Hannover, Germany.10.1016/j.procir.2015.08.052 ↗
5. Turbomachinery component manufacture by application of electrochemical, electro-physical and photonic processes10.1016/j.cirp.2014.05.004 ↗
6. Rao, N. (2011). Materials for Gas Turbines-An Overview. Advances in Gas Turbine Technology, In Tech.10.5772/20730 ↗
7. Bußmann, M., Kraus, J., and Bayer, E. (2005, January 4–9). An Integrated Cost-Effective Approach to Blisk Manufacturing. Proceedings of the 17th Symposium on Air Breathing Engines, ISABE, Munich, Germany.
8. Bußmann, M., and Bayer, E. (2007, January 10–13). Market-Oriented Blisk Manufacturing-A Challenge for Production Engineering. Proceedings of the 1st European Air and Space Conference (CEAS 2007), Berlin, Germany.
9. A Review on Blisk Technology
10. Mateo, A. (2011). Blisk Fabrication by Linear Friction Welding, Advances in Gas Turbine Technology.
11. Snecma (2009). Method for Producing a One-Piece Bladed Disc by Abrasive Water-Jet Cutting. (Patent No. EP2257409B1).
12. Leyens, C., Hausmann, J., and Kumpfert, J. (2003). Continuous Fiber Reinforced Titanium Matrix Composites: Fabrication, Properties and Applications, WILEY-VCH Verlag GmbH & Co.10.1002/3527602119.ch12 ↗
13. Bhattacharjee, A., Saha, B., and Williams, J.C. (2017). Titanium Alloys: Part 2-Alloy Development, Properties and Applications. Aerospace Materials and Material Technologies, Springer.10.1007/978-981-10-2134-3_6 ↗
14. de Monicault, J.M., Guédou, J.G., and Soniak, F. (2008). Issues and Progresses in Manufacturing of Aero Titanium Parts. Safran Group, 24th ITA, The International Titanium Association (ITA). TITANIUM Conference Proceedings.
15. Technological and Economical Assessment of Alternative Process Chains for Turbocharger Impeller Manufacture10.1016/j.procir.2018.08.212 ↗
16. Chevrolet (2020, February 01). What is a Turbocharger and How does it Work?. Available online: https://www.eagleridgegm.com/what-is-a-turbocharger-and-how-does-it-work/.
17. ScottTech (2020, February 01). How does a Centrifugal Pump Work?. Available online: http://mahans.com/how-does-a-centrifugal-pump-work/.
18. Study of the white layer of a surface machined by die-sinking electro-discharge machining10.1016/S0007-8506(07)62299-9 ↗
19. Profiled Superabrasive Grinding Wheels for the Machining of a Nickel Based Superalloy
20. Klocke, F., Zeis, M., and Klink, A. (2012). Technological and Economical Capabilities of Manufacturing Titanium- and Nickel-Based Alloys via Electrochemical Machining (ECM), Non-Conventional Processes, Erlangen: Esaform, Trans Tech Publications Ltd.10.4028/www.scientific.net/KEM.504-506.1237 ↗
21. Technological and economical comparison of roughing strategies via milling, sinking-EDM, wire-EDM and ECM for titanium- and nickel-based blisks10.1016/j.cirpj.2013.02.008 ↗
22. A special CAD/CAM software for electrodischarge machining of shrouded turbine blisk10.1007/s11741-007-0113-2 ↗
23. Overview on Five-Axis Precision EDM Techniques10.1016/j.procir.2013.03.106 ↗
24. Optimum electrode path generation for EDM manufacturing of aerospace components10.1016/j.rcim.2015.04.003 ↗
25. Maximum free distance method for electrode feeding path planning in EDM machining of integral shrouded blisks10.1016/j.precisioneng.2017.10.006 ↗
26. New Developments in Electro-Chemical Machining10.1016/S0007-8506(07)63235-1 ↗
27. Review of Electrochemical and Electrodischarge Machining. The Seventeenth CIRP Conference on Electro Physical and Chemical Machining (ISEM)
28. Experimental research on electrochemical machining of titanium alloy Ti60 for a blisk10.1016/j.cja.2015.09.010 ↗
29. Improvement of trailing edge accuracy in blisk electrochemical machining by optimising the electric field with an extended cathode10.1016/j.jmatprotec.2015.12.025 ↗
30. Additive Manufacturing Technologies: 3D Printing, Rapid Prototyping, and Direct Digital Manufacturing10.1595/205651315X688406 ↗
31. Metal Fabrication by Additive Manufacturing Using Laser and Electron Beam Melting Technologies10.1016/S1005-0302(12)60016-4 ↗
32. Surface oxidation behavior of Ti–6Al–4V manufactured by Electron Beam Melting (EBM®)10.1016/j.jmapro.2014.08.005 ↗
33. Additive manufacturing of Ti6Al4V alloy: A review10.1016/j.matdes.2018.107552 ↗
34. Cooke, A.L., and Soons, J.A. (2010, January 17–19). Variability in the Geometric Accuracy of Additively Manufactured, Test Parts. Proceedings of the 21st Annual International Solid Freeform Fabrication Symposium, Austin, TX, USA.
35. The Boeing Company (2015). Three Dimensional Printing of Parts. (Patent No. 20150064299).
36. Sander, P. (2020, February 01). First 3D Printed Hydraulic Manifold Successfully Flies on Airbus A380 Aircraft. Retrieved 19 March 2019, from 3D Printing Media Network. Available online: https://www.3dprintingmedia.network/first-3d-printed-hydraulic-manifold-successfully-flies-airbus-a380-aircraft/.
37. Toyserkani, E.K.A. (2004). Laser Cladding, CRC Press.10.1201/9781420039177 ↗
38. Recent Progress in Turbine Blade and Compressor Blisk Regeneration10.1016/j.procir.2014.07.016 ↗
39. Zelinski, P. (2020, February 01). Highlighting Hybrid Manufacturing. Available online: https://www.additivemanufacturing.media/articles/highlighting-hybrid-manufacturing,.
40. Turbo engine components repair methodology by laser material deposition10.6036/8838 ↗
41. Brown & Sharpe Manufacturing Company (1935). Practical Treatise on Milling and Milling Machines, la Universidad de Wisconsin.
42. Roberts, K.D. (1994). Eli Terry and the Connecticut Shelf Clock, Ken Roberts Publishing.
43. Woodbury, R.S. (1972). History of the Milling Machine, MIT Press.
44. Noble, D.F. (1984). Forces of Production: A Social History of Industrial Automation, Knopf.
45. Sandvik Coromant (2019, April 23). Workpiece Materials. Available online: https://www.sandvik.coromant.com/es-es/knowledge/materials/pages/workpiece-materials.aspx.
46. GE International Inc. (2013). Spherical Cutter and Method for Machining a Curved Slot. (Patent No. EP2540424A2).
47. Emuge High Performance Tools (2019, March 20). Circle Segment Cutters (5-axis Milling Tooling). Available online: https://www.emuge.com/products/end-mills/circle-segment-cutters.
48. Highly accurate 5-axis flank CNC machining with conical tools10.1007/s00170-018-2033-7 ↗
49. Tool wear on nickel alloys with different coolant pressures: Comparison of Alloy 718 and Waspaloy10.1016/j.jmapro.2017.01.012 ↗
50. Detecting the key geometrical features and grades of carbide inserts for the turning of nickel-based alloys concerning surface integrity
51. Surface integrity and fatigue of non-conventional machined Alloy 71810.1016/j.jmapro.2019.09.041 ↗
52. Behavior of austenitic stainless steels at high speed turning using specific force coefficients10.1007/s00170-011-3846-9 ↗
53. Enhanced performance of nanostructured coatings for drilling by droplet elimination
54. Morishige, K., and Takeuchi, Y. (1997, January 25). 5-Axis Control Rough Cutting of an Impeller with Efficiency and Accuracy. Proceedings of the International Conference on Robotics and Automation, Albuquerque, NM, USA.
55. Process design for rough machining of Ti6Al4V integral components10.1016/j.promfg.2017.11.014 ↗
56. A comparative study on the cutting force coefficient identification between trochoidal and slot milling10.1016/j.promfg.2018.07.067 ↗
57. Modern Machining of Advanced Aerospace Alloys-Enabler for Quality and Performance10.1016/j.procir.2012.04.005 ↗
58. López de Lacalle, L.N., Lamikiz, A., Fernández de Larrinoa, J., and Azkona, I. (2011). Advanced Cutting Tools, Machining of Hard Materials, Springer.10.1007/978-1-84996-450-0_2 ↗
59. Analytical estimation of error in flank milling of ruled surfaces10.1016/j.cad.2008.02.007 ↗
60. Experimental study on the effect of finishing parameters on surface roughness in magneto-rheological abrasive flow finishing process10.1177/0954405414539488 ↗
61. Improvement of EDM performance in high-aspect ratio slot machining using multi-holed electrodes10.1016/j.precisioneng.2017.08.014 ↗
62. Petrilli, R. (2012). Super Abrasive Machining for PM, Metal-Powder.net, Elsevier Ltd.10.1016/S0026-0657(12)70179-0 ↗
63. CBN grinding performance improvement in aircraft engine components manufacture10.1016/j.procir.2013.06.177 ↗
64. Application of eco-friendly nanofluids during grinding of Inconel 718 through small quantity lubrication10.1016/j.jclepro.2016.09.212 ↗
65. Salmon, S.C. (1986). Creep-Feed Grinding. Handbook of Modern Grinding Technology, Chapman and Hall Advanced Industrial Technology Series, Springer.10.1007/978-1-4613-1965-8_12 ↗
66. United Technologies Corporation (2011). Method of Machining between Contoured Surfaces with Cup Shaped Tool. (Patent No. US2011/0189924 A1).
67. González, H., Calleja, A., Pereira, O., Ortega, N., López de Lacalle, L.N., and Barton, M. (2018). Super Abrasive Machining of Integral Rotary Components Using Grinding Flank Tools. Metals, 8.10.3390/met8010024 ↗
68. Electrochemical superabrasive machining of a nickel-based aeroengine alloy using mounted grinding points10.1016/j.cirp.2009.03.074 ↗
69. Wilk, W., and Tota, J. (2008, January 18–20). Modern technology of the turbine blades removal machining. Proceedings of the 8 International Conference Advanced Manufacturing Operations, Kranevo, Bulgaria.
70. Comparison of Flank Super Abrasive Machining vs. Flank Milling on Inconel® 718 Surfaces10.3390/ma11091638 ↗
71. Wu, C.Y. (2012, January 9). Arbitrary surface flank milling & flank SAM in the design and manufacturing of jet engine fan and compressor airfoils. Proceedings of the ASME Turbo Expo 2012, Copenhagen, Denmark.10.1115/GT2012-68051 ↗
72. United Technologies Corporation (2006). Flank Auperabrasive Machining. (Patent No. US7101263B2).
73. United Technologies Corporation (2006). Point Superabrasive Machining of Nickel Alloys. (Patent No. US7144307B2).
74. United Technologies Corporation (2006). Slot Machining Mantel. (Patent No. US7007382B2).
75. Pratt & Whitney Canada Corp (2007). Method of Machining Airfoils by Disc Tools. (Patent No. US7303461B1).
76. United Technologies Corporation (2010). Superabrasive Tool. (Patent No. US7789732B2).
77. United Technologies Corporation (2011). Machining Methods Using Superabrasive Tool. (Patent No. US7896728B2).
78. Fidia SpA, GE Avio SRL (2014). Finishing Process for Making Blade Slots in a Rotor Disc. (Patent No. EP2705926A1).
79. Algorithms for collision detection and avoidance for five-axis NC machining: A state of the art review10.1016/j.cad.2014.02.001 ↗
80. Removing tool marks of blade surfaces by smoothing five-axis point milling cutter paths10.1016/j.jmatprotec.2009.06.016 ↗
81. Tool Path Generation and Manufacturing Process for Blades of a Compressor Rotor
82. NC machining of free form surfaces10.1016/S0010-4485(87)80050-7 ↗
83. Iso-phote based tool-path generation for machining free- form surfaces10.1115/1.2833094 ↗
84. Efficient tool-path planning for machining free-form surfaces10.1115/1.2803642 ↗
85. Experimental comparison of iso scallop, iso planar and iso parametric algorithms in machining sculptured surfaces
86. C-space approach to tool-path generation for die and mould machining10.1016/S0010-4485(97)00012-2 ↗
87. Collision-free tool path generation using 2- dimensional C-space for 5-axis control machining10.1007/BF01179033 ↗
88. Optimizing tool orientations for 5-axis machining by configuration-space search method10.1016/S0010-4485(02)00077-5 ↗
89. Rolling-ball method and contour marching approach to identifying critical regions for complex surface machining10.1016/S0166-3615(99)00042-1 ↗
90. A novel five-axis rough machining method for efficient manufacturing of centrifugal impeller with free-form blades10.1007/s00170-013-4913-1 ↗
91. Efficient rough-cut plan for machining an impeller with a 5-axis NC machine10.1080/09511920802010761 ↗
92. Five-axis rough machining for impellers10.1007/s11465-009-0010-4 ↗
93. Optimization of 5-axis high-speed machining using a surface based approach10.1016/j.cad.2008.08.006 ↗
94. Senatore, J., Monies, F., and Ruio, W. (2012). 5-Axis Flank Milling of Sculptured Surfaces. Machining of Complex Sculptured Surfaces, Springer.10.1007/978-1-4471-2356-9_2 ↗
95. Flank Millable Surfaces Generated via Polynomial Composition
96. Optimize tool paths of flank milling with generic cutters based on approximation using the tool envelope surface10.1016/j.cad.2009.06.013 ↗
97. Arbitrary Surface Flank Milling of Fan, Compressor, and Impeller Blades10.1115/1.2814127 ↗
98. Towards efficient 5-axis flank CNC machining of free-form surfaces via fitting envelopes of surfaces of revolution10.1016/j.cad.2016.04.004 ↗
99. On initialization of milling paths for 5-axis flank CNC machining of free-form surfaces with general milling tools10.1016/j.cagd.2019.04.012 ↗
100. Milling of gamma titanium–aluminum alloys10.1007/s00170-011-3812-6 ↗