Mathematical simulation of the motion law of differential mortar pump piston intended for construction mix
DOI:
https://doi.org/10.26906/znp.2019.52.1665Keywords:
differential mortar pump with electromagnetic action, mathematical modeling, construction mixAbstract
The paper is dedicated to the creation of a differential mortar pump with electromagnetic action for pumping finishing
material, which is not sensitive to electric energy gaps, and which is at the same time convenient, easy to use, reliable and
economical in operation. The paper presents the mathematical model of the working process dynamics of a differential
mortar pump with electromagnetic action, which will allow to study common patterns of pumping processes in the pump in
the whole, to solve general problems on their calculation and design, to set and solve problems of reliability control,
connected with high-frequency pressure oscillations, the problems of structural optimization and optimal design of all its
elements. The control system of a pumping unit with vector controlled asynchronous electric drive is proposed on the basis of
the concept of inverse dynamics problems in combination with the minimization of local functionality of instantaneous
energy magnitudes, which ensures high-quality pressure regulation under the conditions of parametric perturbations activity
and has acceptable energy indices.
References
Kirilenko, O.V., Segeda, M.S., Budkevich, O.F.,
Mazur, T.A. (2013). Mathematical modeling in electric
power engineering. Lviv: NU «Lviv Polytechnic».
Sandip, B. (2014). Mathematical modeling. London:
CRC Press.
Merchart, M. (2013). Mathematical modeling. New
York: Manufacturing Rev.
Kurchenko, O.O. (2016). Integral calculus of a function
of one variable. Kyiv: Taras Shevchenko Kyiv National University.
Molchenko, L.V. (2013). Flexible conductors rotation in
a magnetic field. Kiev: Kiev University of Civil Engineering
and Architecture.
Onushko, V.V., Shefer, O.V. (2015). Electric machines.
Poltava: PNTU.
Pobeznichenko, G. (2015). Economy and life cycle of
pumps: circulation pumps for heating and DHW. Aquaterm,
, 26.
Mandus, V.I. (2015). Hydraulic and aerodynamic
machines (pumps, fans, gas blowers, compressors). Lviv:
Magnolia.
Sribnyuk, S.M. (2016). Pumps and pumping
installations. Calculations, applications and tests. Kyiv:
Center for Educational Literature.
Ning, C. & Wang, Y. (2015). Performance analysis on
solid-liquid mixed flow in a centrifugal pump. London:
Manufacturing Rev.
Shevchenko, N.G., Fateeva, N.M. & Lazarenko, A.A.
(2016). Influence of pumping depth of the pump in the well
on the performance of the deep rod pumping unit. Collection
of Scientific Papers "Bulletin of NTU" KPI ": Hydraulic
Machines and Hydraulic Units, 20, 85-89.
http://archive.isp.kh.ua/View/57783/
Catherine, C. (2013). Differential Diagnosis for Physical
Therapists. Washington: Manufacturing Rev.
Lozova, L.V. (2016). Methodical guide for conducting
practical works in the discipline “Hydraulic Machines".
Kharkiv: CDPK.
Voloshina, A., Panchenko, A., Boltynskiy, O.,
Panchenko, I. & Titova, O. (2018). Justification of the Kinematic
Diagrams for the Distribution Sustem of a Planetary
Hydraulic Motor. Intern. Journal of Engineering & Technology,
(4.3), 6-11.