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Reliable Processes of Simulating Liner Roughness and Its Lubrication Properties
ISSN: 0148-7191, e-ISSN: 2688-3627
Published April 02, 2019 by SAE International in United States
This content contains downloadable datasetsAnnotation ability available
Topology of liner finish is critical to the performance of internal combustion engines. Proper liner finish simulation processes lead to efficient engine design and research. Fourier methods have been well studied to numerically generate liner topology. However, three major issues wait to be addressed to make the generation processes feasible and reliable. First, in order to simulate real plateau honed liners, approaches should be developed to calculate accurate liner geometric parameters. These parameters are served as the input of the generation algorithm. Material ratio curve, the common geometry calculation method, should be modified so that accurate root mean square of plateau height distribution could be obtained. Second, the set of geometric parameters used in generating liner finish (ISO 13565-2) is different from the set of parameters used in manufacturing industry (ISO 13565-3). Quantitative relations between these two sets should be studied. Third, numerically generated liners should be run in deterministic lubrication, dry contact, and engine cycle models. Their outcome behavior should be compared with experimental data. In this article, efforts were made to fill all these three gaps. Reliable liner topology generation processes have been achieved.
CitationWang, R., Gu, C., and Tian, T., "Reliable Processes of Simulating Liner Roughness and Its Lubrication Properties," SAE Technical Paper 2019-01-0178, 2019, https://doi.org/10.4271/2019-01-0178.
Data Sets - Support Documents
|[Unnamed Dataset 1]|
- Reizer, R. and Pawlus, P., “Modelling of Plateau Honed Cylinder Surface Topography,” Proceedings of the Institution of Mechanical Engineers, Part B: Journal of engineering Manufacture 226(9):1564-1578, 2012.
- Liao, K., Chen, H., and Tian, T., “The Study of Friction between Piston Ring and Different Cylinder Liners Using Floating Liner Engine-Part 1,” SAE Technical Paper 2012-01-1334, 2012, doi:10.4271/2012-01-1334.
- Chen, H., “Modeling of Liner Finish Effects on Oil Control Ring Lubrication in Internal Combustion Engines Based on Deterministic Method,” Master’s thesis, Massachusetts Institute of Technology, 2008.
- Chen, H., Liao, K., and Tian, T., “A Numerical and Experimental Study of Twin-Land Oil Control Ring Friction in Internal Combustion Engines Part 2,” SAE Technical Paper 2012-01-1321, 2012, doi:10.4271/2012-01-1321.
- Sabri, L., Mezghani, S., El Mansori, M., and Zahouani, H., “Multiscale Study of Finish-Honing Process in Mass Production of Cylinder Liner,” Wear 271(3-4):509-513, 2011.
- Ramamoorthy, B. et al., “An Accurate and Robust Method for the Honing Angle Evaluation of Cylinder Liner Surface Using Machine Vision,” The International Journal of Advanced Manufacturing Technology 55(5-8):611-621, 2011.
- Pawlus, P., “Simulation of Stratified Surface Topographies,” Wear 264(5-6):457-463, 2008.
- Wu, J.-J., “Simulation of Rough Surfaces with Fft,” Tribology International 33(1):47-58, 2000.
- Bakolas, V., “Numerical Generation of Arbitrarily Oriented Non-Gaussian Three-Dimensional Rough Surfaces,” Wear 254(5-6):546-554, 2003.
- Wang, R., “Numerically Generating Topology of the Liner Finish in Internal Combustion Engines,” Master’s thesis, Massachusetts Institute of Technology, 2015.
- Tian, T. and Wong, V.W., “Modeling the Lubrication, Dynamics, and Effects of Piston Dynamic Tilt of Twin-Land Oil Control Rings in Internal Combustion Engines,” Journal of Engineering for Gas Turbines and Power 122(1):119-129, 2000.
- Liu, Y., Kim, D., Westerfield, Z., Meng, Z., and Tian, T., “A Comprehensive Study of the Effects of Honing Patterns on Twin-Land Oil Control Rings Friction Using both a Numerical Model and a Floating Liner Engine,” in Proceedings of the Institution of Mechanical Engineers, Part J: Journal of Engineering Tribology, 1350650118774395, 2018.
- Westerfield, Z., T.T., Liu, Y., and Kim, D., “A Study of the Friction of Oil Control Rings Using the Floating Liner Engine,” SAE International Journal of Engines 9(3):1807-1824, 2016.
- Jordan, H.-J., Wegner, M., and Tiziani, H., “Highly Accurate Non-Contact Characterization of Engineering Surfaces Using Confocal Microscopy,” Measurement Science and Technology 9(7):1142, 1998.
- Lange, D.A., Jennings, H.M., and Shah, S.P., “Analysis of Surface Roughness Using Confocal Microscopy,” Journal of Materials Science 28(14):3879-3884, 1993.
- Hamilton, D.K. and Wilson, T., “Three-Dimensional Surface Measurement Using the Confocal Scanning Microscope,” Applied Physics B 27(4):211-213, 1982.
- ISO 13565-3, “Geometrical Product Specifications (gps) Surface Texture: Profile Method; Surfaces Having Stratified Functional Properties Part 3: Height Characterization Using the Material Probability Curve, 1996.
- ISO 13565-2, “Geometrical Product Specifications (gps) Surface Texture: Profile Method; Surfaces Having Stratified Functional Properties Part 2: Height Characterization Using the Linear Material Ratio Curve, 1996.
- Kumar, R., Kumar, S., Prakash, B., and Sethuramiah, A., “Assessment of Engine Liner Wear from Bearing Area Curves,” Wear 239(2):282-286, 2000.
- Malburg, M.C., Raja, J., and Whitehouse, D.J., “Characterization of Surface Texture Generated by Plateau Honing Process,” CIRP Annals-Manufacturing Technology 42(1):637-639, 1993.
- Mainsah, E., Greenwood, J.A., and Chetwynd, D.G., Metrology and Properties of Engineering Surfaces (Springer Science & Business Media, 2013).
- Anderberg, C., Pawlus, P., Rosen, B.-G., and Thomas, T.R., “Alternative Descriptions of Roughness for Cylinder Liner Production,” Journal of Materials Processing Technology 209(4):1936-1942, 2009.
- Pawlus, P., Reizer, R., and Lenart, A., “Comparison of Parameters Describing Stratified Surface Topography,” Journal of Physics: Conference Series 483:012021, 2014.