RESEARCH OF DEPENDENCE OF BELT CONVEYER DRIVE POWER ON ITS DESIGN PARAMETERS
DOI:
https://doi.org/10.15802/stp2016/61024Keywords:
conveyer, belt, drive, power, efficiency, loadAbstract
Purpose. A drive is one of the basic elements of belt conveyers. To determine the drive power it is necessary to conduct calculations by standard methodologies expounded in modern technical literature. Such calculations demand a fair amount of time. The basic design parameters of a belt conveyer include type of load, design efficiency, geometrical dimensions and path configuration, operation conditions. The article aims to build the parametric dependence of belt conveyer drive power on its design parameters, that takes into account standard dimensions and parameters of belts, idlers and pulleys. Methodology. The work examines a belt conveyer with two areas: sloping and horizontal. Using the methodology for pulling calculation by means of belt conveyer encirclement, there are built parametric dependences of pull forces in the characteristic conveyer path points on the type of load, design efficiency, geometrical dimensions and path configuration, operation conditions. Findings. For the belt conveyers of the considered type there are built parametric dependences of drive power on type of load, design efficiency, geometrical dimensions and path configuration, operation conditions, taking into account the belt standard dimensions and corresponding assumptions in relation to idler and pulley types. Originality.This is the first developed parametric dependence of two-area (sloping and horizontal) belt conveyer drive power on type of load, design efficiency, geometrical dimensions and path configuration, operation conditions that takes into account standard dimensions and parameters of belts, idlers and pulleys. Practical value. Use of the built drive power dependences on design parameters for the belt conveyers with sloping and horizontal areas gives an opportunity of relatively rapid determination of drive power approximate value at the design stage. Also it allows quality selection of its basic elements at specific design characteristics and requirements. The offered dependences can be used for determination of general character of drive power dependence on the project efficiency.
References
Aleksandrov M.P. Podemno-transportnyye mashiny [Lifting and transport machines]. Moscow, Vysshaya shkola Publ., 2000. 522 p.
Bohomaz V.M. Analiz vplyvu proektnykh kharakterystyk elevatoru na parametry yoho pryvodu [Influence analyses of designed characteristics of the elevator to the parameters of its drive]. Nauka ta prohres transportu – Science and Transport Progress, 2015, no. 3 (57), pp. 162-175. doi: 10.15802/stp2015/46076.
Bohomaz V.M., Hlavatskyi K.Ts., Mazur O.A. Doslidzhennia vplyvu proektnoi produktyvnosti elevatoru na potuzhnist yoho pryvodu [Research of influencing of project discriptions of elevator on parameters of its drive]. Nauka ta prohres transportu – Science and Transport Progress, 2015, no. 2 (56), pp. 189-206. doi: 10.15802/stp2015/42178.
Zenkov R.L., Ivashkov I.I., Kolobov L.N. Mashiny nepreryvnogo transporta [Machines of continuous transport]. Mosocw, Mashinostroeniye Publ., 1987. 432 p.
Ivanchenko F.K. Pidiomno-transportni mashyny [Lifting and transport machines]. Kyiv, Vyshcha shkola Publ., 1993. 413 p.
Katryuk I.S., Musiyachenko Ye.V. Mashiny nepreryvnogo transporta. Konstruktsii, proyektirovaniye i ekspluatatsiya [Machines of continuous transport. Construction, design and operation]. Krasnoyarsk, IPTs KGTU Publ., 2006. 266 p.
Kuzmin, A.V. Spravochnik po raschetam mekhanizmov podemno-transportnykh mashin [Manual of calculation mechanisms of lifting and transport machines]. Minsk, Vysheyshaya shkola Publ., 1983. 350 p.
Bondariev V.S., Dubynets O.I., Kolisnyk M.P. Pidiomno-transportni mashyny: rozrakhunky pidiimalnykh i transportuvalnykh mashyn [Lifting and transport machines: calculations of hoisting and conveying machines]. Kyiv, Vyshcha shkola Publ., 2009. 734 p.
Baryshev A. I., Budishevskiy V. A., Sulima A. A., Tkachuk A. M. Raschet i proyektirovaniye transportnykh sredstv nepreryvnogo deystviya [Calculation and design of continuous action vehicles]. Donetsk, Nord-Press Publ., 2005. 689 p.
Romakin N.Ye. Mashiny nepreryvnogo transporta [Machines of continuous transport]. Moscow, Akademiya Publ., 2008. 432 p.
Jamaludin J., Rahim N.A., Hew W.P. Development of a self-tuning fuzzy logic controller for intelligent control of elevator systems. Engineering Applications of Artificial Intelligence, 2009, vol. 22, issue 8, pp. 1167-1178. doi: 10.1016/j.engappai.2009.04.006.
Kim C.S., Hong K.S., Kim M.K. Nonlinear robust control of a hydraulic elevator: experiment-based modeling and two-stage Lyapunov redesign. Control Engineering Practice, 2005, vol. 13, issue 6, pp. 789-803. doi: 10.1016/j.conengprac.2004.09.003.
Strakosch G.R., Caporale R.S. The Vertical Transportation Handbook. New York, John Wiley&Sons Publ., 2010. 610 p. doi: 10.1002/9780470949818.
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