An Electrohydraulic Pressure Compensation Control System for an Automotive Vane Pump Application
DOI:
https://doi.org/10.13052/ijfp1439-9776.2034Keywords:
Vane Pump, Electrohydraulic Pressure Compensation, Automotive Transmission Supply, PID Control, Nonlinear ControlAbstract
Pressure compensated vane pumps are an excellent solution for supplying hydraulic power with minimal waste in many automotive applications. An electrohydraulic pressure compensation control system for an automatic transmission supply that promises improved pressure response times over the baseline architecture is discussed. Suggested valve specifications are determined through calculations based on available data and refined via a validated simulation model of the proposed system. Two controller designs are formulated and compared: a basic PI control law and a cascaded model following controller including a nonlinear feedback linearization component. Simulations of the proposed system for a given duty cycle reveal that the nonlinear controller provides only minor improvements over a basic PI control law and is thus not an economical solution.
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References
B. Geist, W. Resh, K. Aluru, ‘Calibrating an Adaptive Pivoting Vane
Pump to Deliver a Stepped Pressure Profile’, SAE Technical Paper
-01-1729, 2013.
T. Arata, N. Novi, K. Ariga, A. Yamashita, G. Armenio, ‘Development
of a Two-Stage Variable Displacement Vane Oil Pump’, SAE Technical
Paper 2012-01-0408, 2012.
R. Jenkins, M. Ivantysynova, ‘An Empirically Derived Pressure Compensation
Control System for a Variable Displacement Vane Pump’,
Proceedings of the 2018 Bath/ASME Symposium on Fluid Power and
Motion Control, Bath, United Kingdom, 2018.
M. Rundo, ‘Piloted Displacement Controls for ICE Lubricating Vane
Pumps’, SAE International Journal of Fuels and Lubricants, Vol. 2,
No. 2, pp. 179–184, 2009.
Z. Sun, K. Hebbale, ‘Challenges and Opportunities in Automotive
Transmission Control’, Proceedings of the 2005 American Control
Conference, pp. 3284–3289, Portland, Oregon, 2005
J. Ivantysyn, M. Ivantysynova, ‘Hydrostatic Pumps and Motors’,
New Delhi: Academic Books International, 2001.
M. Rundo, G. Altare, ‘Lumped Parameter and Three-Dimensional Computational
Fluid Dynamics Simulation of a Variable Displacement Vane
Pump for Engine Lubrication’, Journal of Fluids Engineering, Vol. 140,
No. 6, pp. 061101-061101-9, 2018.
A. Giuffrida, R. Lanzafame, ‘Cam Shape and Theoretical Flow Rate in
Balanced Vane Pumps’, Mechanism and Machine Theory, Vol. 40, No.
, pp. 353–369, 2005.
M. Rundo, N. Nervegna, ‘Lubrication Pumps for Internal Combustion
Engines: A Review’, International Journal of Fluid Power, Vol. 16, No.
, pp. 59–74, 2015.
J. Grabbel, M. Ivantysynova, ‘An Investigation of Swash Plate Control
Concepts for Displacement Controlled Actuators’, International Journal
of Fluid Power, Vol. 6, No. 2, pp. 19–36, 2005.
C. Williamson, S. Lee, M. Ivantysynova, ‘Active Vibration Damping
for an Off-Road Vehicle with Displacement Controlled Actuators’,
International Journal of Fluid Power, Vol. 10, No. 3, pp. 5–16, 2009.
M. Bahr Khalil, V. Yurkevich, J. Svoboda, R. Bhat, ‘Implementation
of Single Feedback Control Loop for Constant Power Regulated Swash
Plate Axial Piston Pumps’, International Journal of Fluid Power, Vol. 3,
No. 3, pp. 27–36, 2002.
D. Thompson, G. Kremer, ‘Quantitative Feedback Design for a Variable-
Displacement Hydraulic Vane Pump’, Proceedings of the 1997 American
Control Conference, Albuquerque, New Mexico, 1997.
M. Köster, A. Fidlin, ‘Variable Displacement Vane Pump, Part II: Nonlinear
Volume Flow Control’, Nonlinear Dynamics, Vol. 90, No. 2,
pp. 1091–1103, 2017.
E. Busquets, M. Ivantysynova, ‘A Robust Multi-Input Multi-Output
Control Strategy for the Secondary Controlled Hydraulic Hybrid Swing
of a Compact Excavator with Variable Accumulator Pressure’, Proceedings
of the 2014 Bath/ASME Symposium on Fluid Power & Motion
Control, Bath, United Kingdom, 2014.
E. Busquets, M. Ivantysynova, ‘Adaptive Robust Motion Control of an
Excavator Hydraulic Hybrid Swing Drive’, SAE International Journal of
Commercial Vehicles, Vol. 8, No. 2, pp. 568–582, 2015.
R. Jenkins, M. Ivantysynova, ‘A Lumped Parameter Vane Pump Model
for System Stability Analysis’, International Journal of Hydromechatronics,
Vol. 1, No. 4, pp. 361–383, 2018.
A. Plummer, ‘Electrohydraulic servovalves – past, present, and future’,
Proceedings of the 10th IFK International Conference on Fluid Power,
Dresden, Germany, 2016.
A. Karmel, ‘Dynamic Modeling and Analysis of the Hydraulic System
of Automotive Automatic Transmissions’, American Control Conference,
Seattle, Washington, 1986.
G. Lucente, M. Montanari, C. Rossi, ‘Modelling of an Automated Manual
Transmission System’, Mechatronics, Vol. 17, No. 2–3, pp. 73–91,
K. Åström, T. Hägglund, ‘PID Control’, The Control Handbook: Control
System Fundamentals, 2nd edition, CRC Press, Edited by W. Levine,
K. Åström, T. Hägglund, ‘The Future of PID Control’, IFAC Proceedings
Volumes, Vol. 33, No. 4, pp. 19–30, 2000.
M. Liermann, ‘PID Tuning Rule for Pressure Control Applications’,
International Journal of Fluid Power, Vol. 14, No. 1, pp. 7–15, 2013.
R. Jenkins, M. Ivantysynova, ‘Investigation of Instability of a Pressure
Compensated Vane Pump’, Proceedings of the 9th FPNI Ph.D.
Symposium on Fluid Power, Florianópolis, Brazil, 2016.
The Control Systems Handbook: Control System Advanced Methods,
nd Edition, CRC Press, Edited by W. Levine, 2010.
Moog.com, ‘Direct Drive Servovalves D633/D634’, [online] Available
at: http://www.moog.com/literature/ICD/Moog-Valves-D633_D634-
Catalog-en.pdf [Accessed 5 Feb. 2019], 2009.