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Research Article | Open Access

Experimental rigs for testing components of advanced industrial applications

Department of Civil and Industrial Engineering, University of Pisa, Largo Lucio Lazzarino, Pisa 56126, Italy
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Abstract

This paper presents experimental rigs of the Research Centre for the Mechanics of Turbomachinery of the Department of Civil and Industrial Engineering of the University of Pisa. Most of them were designed and constructed to allow investigations of real machine components and to furnish more realistic results than basic tribological test rigs.

Tilting pad journal bearings, as well as gears and complete gearboxes for advanced industrial applications, can be tested using the rigs described in the paper. A novel test rig with a power rating of approximately 1 MW allows investigations of the static and dynamic characteristics of high-performance tilting pad journal bearings for turbomachinery. A twin disc machine and closed loop gear test rig are used to investigate the different kinds of wear mechanisms occurring in gears. Functional and durability tests on planetary gearboxes for new turbo-fan engines could be performed using another novel large test rig. A circulating power configuration was adopted for most of the rigs so that only the power needed to cover the friction losses has to be supplied, while the circulating power can be more than 20 times higher. All the test rigs include very complex load applications and lubrication plants, as well as dedicated control and data acquisition systems.

The rigs and related plants were designed and constructed through strong and fruitful collaborations between the university and some large and small–medium companies. Despite some limitations in the publication of the results as a result of the industrial sensitivity of the data, the synergy among these different actors was stimulating and fundamental for the realization of new advanced industrial applications.

References

[1]
Martins R C, Fernandes C M C G, Seabra J H O. Evaluation of bearing, gears and gearboxes performance with different wind turbine gear oils. Friction 3(4):275–286(2015)
[2]
Li X M, Olofsson U. FZG Gear Efficiency and pin-on-disc frictional study of sintered and wrought steel gear materials. Tribol Lett 60:9(2015)
[3]
Björling M, Miettinen J, Marklund P, Lehtovaara A, Larsson R. The correlation between gear contact friction and ball on disc friction measurements. Tribol Int 83:114–119(2015)
[4]
Fernandes C M C G, Blazquez L, Sanesteban J, Martins R C, Seabra J H O. Energy efficiency tests in a full scale wind turbine gearbox. Tribol Int 101:375–382(2016)
[5]
Ciulli E. Tribology research trends in Italy. Proc Inst Mech Eng Part J J Eng Tribol 223(8):1091–1113(2009)
[6]
Sander D E, Allmaier H, Priebsch H H, Reich F M, Witt M, Füllenbach T, Skiadas A, Brouwer L, Schwarze H. Impact of high pressure and shear thinning on journal bearing friction. Tribol Int 81:29–37(2015)
[7]
Sander D E, Allmaier H, Priebsch H H, Witt M, Skiadas A. Simulation of journal bearing friction in severe mixed lubrication–Validation and effect of surface smoothing due to running-in. Tribol Int 96:173–183(2016)
[8]
Sander D E, Allmaier H, Priebsch H H, Reich F M, Witt M, Skiadas A, Knaus O. Edge loading and running-in wear in dynamically loaded journal bearings. Tribol Int 92:395–403(2015)
[9]
Cristea A F, Bouyer J, Fillon M, Pascovici M D. Pressure and temperature field measurements of a lightly loaded circumferential groove journal bearing. Tribol Trans 54(5):806–823(2011)
[10]
Litwin W, Dymarski C. Experimental research on water- lubricated marine stern tube bearings in conditions of improper lubrication and cooling causing rapid bush wear. Tribol Int 95:449–455(2016)
[11]
Yamada H, Taura H, Kaneko S. Static characteristics of journal bearings with square dimples. J Tribol 139:051703(2017)
[12]
Giraudeau C, Bouyer J, Fillon M, Hélène M, Beaurain J. Experimental study of the influence of scratches on the performance of a two-lobe journal bearing. Tribol Trans 60(5):942–955(2017)
[13]
Dimond T, Younan A, Allaire P. A review of tilting pad bearing theory. Int J Rot Mach 2011:908469(2011)
[14]
Chasalevris A, Dohnal F. Vibration quenching in a large scale rotor-bearing system using journal bearings with variable geometry. J Sound Vib 333(7):2087–2099(2014)
[15]
Chasalevris A, Dohnal F. A journal bearing with variable geometry for the suppression of vibrations in rotating shafts: simulation, design, construction and experiment. Mech Syst Signal Process 52–53:506–528(2015)
[16]
Varela A C, Nielsen B B, Santos I F. Steady state characteristics of a tilting pad journal bearing with controllable lubrication: comparison between theoretical and experimental results. Tribol Int 58:85–97(2013)
[17]
Salazar J G, Santos I F. Active tilting-pad journal bearings supporting flexible rotors: Part I – The hybrid lubrication. Tribol Int 107:94–105(2017)
[18]
Salazar J G, Santos I F. Active tilting-pad journal bearings supporting flexible rotors: Part II – The model-based feedback- controlled lubrication. Tribol Int 107:106–115(2017)
[19]
Dimond T W, Sheth P N, Allaire P E, He M. Identification methods and test results for tilting pad and fixed geometry journal bearing dynamic coefficients – A review. Shock Vib 16(1):13–43(2009)
[20]
Childs D, Hale K. A test apparatus and facility to identify the rotordynamic coefficients of high-speed hydrostatic bearings. J Tribol 116(2):337–343(1994)
[21]
Ha H C, Yang S H. Excitation frequency effects on the stiffness and damping coefficients of a five-pad tilting pad journal bearing. J Tribol 121(3):517–522(1999)
[22]
Wygant K D, Flack R D, Barrett L E. Measured performance of tilting-pad journal bearings over a range of preloads – Part I: Static operating conditions. Tribol Trans 47(4):576–584(2004)
[23]
Wygant K D, Flack R D, Barrett L E. Measured performance of tilting-pad journal bearings over a range of preloads – Part. II: Dynamic operating conditions. Tribol Trans 47(4):585–593(2004)
[24]
Ikeda K, Hirano T, Yamashita T, Mikami M, Sakakida H. An experimental study of static and dynamic characteristics of a 580 mm (22.8 in.) Diameter direct lubrication tilting pad journal bearing. J Tribol 128(1):146–154(2006)
[25]
Bang K B, Kim J H, Cho Y J. Comparison of power loss and pad temperature for leading edge groove tilting pad journal bearings and conventional tilting pad journal bearings. Tribol Int 43(8):1287–1293(2010)
[26]
Delgado A, Vannini G, Ertas B, Drexel M, Naldi L. Identification and prediction of force coefficients in a five-pad and four-pad tilting pad bearing for load-on-pad and load-between-pad configurations. J Eng Gas Turbines Power 133(9):092503(2011)
[27]
Shen J X, Xiong X, Li G P, Wang X J, Hua Z K, Nie Z. Experimental analysis of dynamic oil film pressure of tilting-pad journal bearings. Tribol Lett 63(3):36(2016)
[28]
Dang P V, Chatterton S, Pennacchi P, Vania A. Effect of the load direction on non-nominal five-pad tilting-pad journal bearings. Tribol Int 98:197–211(2016)
[29]
Ciulli E, Forte P, Maestrale F, Nuti M. Design of a test rig for the dynamic characterization of large size pad bearings. In Proceedings of the 44th Convegno Nazionale AIAS, Messina, Italy, 2015: 343–352. (In Italian)
[30]
Forte P, Ciulli E, Saba D. A novel test rig for the dynamic characterization of large size tilting pad journal bearings. J Phys Conf Ser 744(1):012159(2016)
[31]
Delgado A, Librashi M, Vannini G. Dynamic characterization of tilting pad journal bearings from component and system level testing. In Proceedings of ASME Turbo Expo 2012: Turbine Technical Conference and Exposition, Copenhagen, Denmark, 2012: 1007-1016.
[32]
Hoehn B R, Oster P, Tobie T, Michaelis K. Test methods for gear lubricants. Goriva i Maziva 47(2):129–152(2008)
[33]
ISO 14635–1 Gear–FZG test procedures─Part 1: FZG test method A/8,3/90 for relative scuffing load-carrying capacity of oils. ISO, 2000.
[34]
Sosa M, Sellgren U, Björklund S, Olofsson U. In situ running- in analysis of ground gears. Wear 352–353:122–129(2016)
[35]
Brandão J A, Cerqueira P, Seabra J H O, Castro M J D. Measurement of mean wear coefficient during gear tests under various operating conditions. Tribol Int 102:61–69(2016)
[36]
Sjöberg S, Sosa M, Andersson M, Olofsson U. Analysis of efficiency of spur ground gears and the influence of running-in. Tribol Int 93:172–181(2016)
[37]
Schultheiss H, Tobie T, Stahl K. The effect of selected grease components on the wear behavior of grease-lubricated gears. J Tribol 138(1):011602(2016)
[38]
Mallipeddi D, Norell M, Sosa M, Nyborg L. Influence of running-in on surface characteristics of efficiency tested ground gears. Tribol Int 115:45–58(2017)
[39]
Neurouth A, Changenet C, Ville F, Octrue M, Tinguy E. Experimental investigations to use splash lubrication for high-speed gears. J Tribol 139(6):061104(2017)
[40]
Fernandes C M C G, Marques P M T, Martins R C, Seabra J H O. Gearbox power loss. Part III: Application to a parallel axis and a planetary gearbox. Tribol Int 88:317–326(2015)
[41]
Marques P M T, Camacho R, Martins R C, Seabra J H O. Efficiency of a planetary multiplier gearbox: Influence of operating conditions and gear oil formulation. Tribol Int 92:272–280(2015)
[42]
Clarke A, Weeks I J J, Evans H P, Snidle R W. An investigation into mixed lubrication conditions using electrical contact resistance techniques. Tribol Int 93:709–716(2016)
[43]
Savolainen M, Lehtovaara A. An experimental approach for investigating scuffing initiation due to overload cycles with a twin-disc test device. Tribol Int 109:311–318(2017)
[44]
Wei J, Zhang A Q, Gao P. A study of spur gear pitting under EHL conditions: Theoretical analysis and experiments. Tribol Int 94:146–154(2016)
[45]
Repola P, Manconi S, Amorena M, Ciulli E, Facchini M. Design of a twin disc test machine. In Proceedings of the 5th World Tribology Congress WTC 2013, Torino, Italy, 2013.
[46]
Ciulli E, Fazzolari F, Piccigallo B. Experimental study on circular eccentric cam–follower pairs. Proc Inst Mech Eng Part J J Eng Tribol 228(10):1088–1098(2014)
[47]
Bassani R, Ciulli E, Manfredi E, Manconi S, Polacco A, Pugliese G. Experimental study on wear and fracture in aeronautical gear transmissions. In Proceedings of the 8th Biennial Conference on Engineering Systems Design and Analysis, Turin, Italy, 2006: 979-986.
[48]
Bassani R, Ciulli E, Manfredi E, Manconi S, Polacco A, Pugliese G. Investigation on surface damage of ground and superfinished gears under different conditions. In Proceedings of the 16th International Colloquium Tribology, Esslingen, Germany, 2008.
[49]
Ciulli E, Guerrieri Paleotti F S, Bartilotta I, Manconi S, Facchini M. An experimental investigation on scuffing in spur gears. In Proceedings of ECOTRIB 2011─3rd European Conference on Tribology, Vienna, Austria, 2011: 695-700.
[50]
Bartilotta I, Ciulli E, Manconi S, Toson E. An experimental investigation on aerospace quality gears operating in loss of lubrication condition. In Proceedings of the ASME 2012 11th Biennial Conference on Engineering Systems Design and Analysis - ESDA2012, Nantes, France, 2012.
[51]
Mazzitelli I, Guerrieri Paleotti F S, Forte P, Ciulli E, Amorena M, Polacco A. Bulk temperature measurements on gears for scuffing monitoring. In Proceedings of the 7th International Conference on Condition Monitoring and Machinery Failure Prevention Technologies, CM 2010 and MFPT 2010, Stratford-upon-Avon, England, 2010.
[52]
Barsanti M, Beghini M, Ciulli E, Monelli B D, Manconi S, Catarsi R, Demenego A. Design and realisation of a test rig for aeronautical power trasmissions. In Proceedings of the 45th Convegno Nazionale AIAS, Trieste, Italy, 2016. (In Italian)
Friction
Pages 59-73
Cite this article:
CIULLI E. Experimental rigs for testing components of advanced industrial applications. Friction, 2019, 7(1): 59-73. https://doi.org/10.1007/s40544-017-0197-z

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Received: 08 May 2017
Revised: 07 August 2017
Accepted: 02 November 2017
Published: 06 April 2018
© The author(s) 2017

This article is published with open access at Springerlink.com

Open Access: The articles published in this journal are distributed under the terms of the Creative Commons Attribution 4.0 International License (http:// creativecommons.org/licenses/by/4.0/), which permits unrestricted use, distribution, and reproduction in any medium, provided you give appropriate credit to the original author(s) and the source, provide a link to the Creative Commons license, and indicate if changes were made.

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