Design and Implementation of an Electric Actuated Valve for Precise Fluid Control
Design and Implementation of an Electric Actuated Valve for Precise Fluid Control
Fluid control is one of the essential automation application area in industry. In order to fluidcontrol effectively and precisely, valves which are crucial components, need a controlled rotatingmotion which leads to implement electric motors, electronic controller and gear systemsaltogether. In this study, an electric motor actuated valve system is designed and prototyped. Thedesign phases are including switch mode power supply (SMPS) design, motor controller circuitdesign, mechanical implementation and controller design. The designed valve system ismanufactured and tested using multi-disciplinary fashion. The application problems are solvedby using the proper control techniques and strategies. The precise position control of butterflydisc is also achieved. According to the related industrial standard and application requirements,the experimental results show the effectiveness of the design approach.
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- Bishop, H. R., The Mechatronics Handbook 2 nd ed. , CRC Press, New York, (2002).
- Kim, Y.H. and Lee, J.H., “Optimum design of ALA-SynRM for direct drive valve actuator”, IEEE
Transactions on Magnetics, 53(4): 820-804, (2017).
- Xu, L. et al., “Research on fault analysis and fault-tolerant control of valve electric actuator system
based on SRM”, V. International Symposium on Computational Intelligence and Design, Hangzhou,
389-393, (2012).
- Bing, D. and JunMin, P., “Research and development of control system in digital valve electric
actuator”, IEEE International Electronics Conference, Denver, 193-197, (2001).
- Egbunaand, C.C. and Basson, A.H., “Electric actuator selection design aid for low cost automation”,
International Conference on Engineering Design, California, 43-54, (2009).
- Chen, T.M. and Chen, C.L., “Analysis and design of asymmetrical half bridge flyback converter”, IEE
Proceedings - Electric Power Applications, 149(6): 433-440, (2002).
- Wong, K., “Energy efficient peak current state-machine control with a peak power mode”, IEEE
Transactions on Power Electronics, 24(2): 489–498, (2009).
- Tosun, G. et al., “The design and development of multi-output flyback converter design and
implementation”, IX. International Conference on Electrical and Electronics Engineering, Bursa,
1102-1108, (2015).
- Wang, C.M., Su, C.H. and Yang, C.H., “ZVS-PWM flyback converter with a simple auxiliary circuit”,
IEE Proceedings - Electric Power Applications, 153(1): 116-122, (2006).
- ISO 5210:2017, “Industrial valves-multi-turn valve actuator attachments”, International Organization
for Standardization, Geneva, (2017).
- Paine, N., Oh, S. and Sentis, L., “Design and control considerations for high-performance series elastic
actuators”, IEEE/ASME Transactions on Mechatronics, 19(3): 1080-1091, (2014).
- Vakili-Tahami, F. et al., “Analysis of the hydrodynamic torque effects on large size butterfly valves
and comparing results with AWWA C504 standard recommendations”, Journal of Mechanical Science
and Technology, 26(9): 2799-2806, (2012).
- Hidalgo, M.C. and Garcia, C., “Friction compensation in control valves: nonlinear control and usual
approaches”, Control Engineering Practice, 58: 42-53, (2017).
- Ogawa, K. and Kimura, T., “Hydrodynamic characteristics of a butterfly valve-prediction of torque
characteristics”, ISA Transactions, 34(4): 327-333, (1995).
- Eom, K., “Performance of butterfly valves as a flow controller”, Journal of Fluids Engineering, 110(1):
16-19, (1988).
- Mohan, N., Electric Drive: An Integrative Approach 1 st ed. , MNPERE Press, Minneapolis, USA,
(2003).
- Tosun, G. et al., “Design of a position controlled electric actuator used in fluid control valves”, IEEE
Power Electronics and Motion Control Conference, Varna, 551-556, (2016).
- ANSI/ISA-75.02.01-2008, “Control valve capacity test procedure”, The International Society of
Automation, North Carolina, (2009).