Engineering, Energy, Transport AIC

Ivan Sevostianov – Doctor of Technical Sciences, Full Professor of the Department of “Technological Processes and Equipment of Processing and Food Productions” of Vinnytsia National Agrarian University (3 Solnechnaya St, Vinnytsia, 21008, Ukraine, e-mail: ivansev70@gmail.com, https://orcid.org/0000-0001-8965-9810).

Vibro-pressing equipment its one from most effective kinds of machines for dehydration of damp dispersive wastes of food industry (alcoholic bard, beer pellets, beet press, coffee and barley slime) for their further using as valuable additives to agricultural fodders or as fuel. In comparison with other equipment for mechanical dehydration (hydraulic, belt and screw presses, centrifuges) vibro-presses with hydraulic pulse, unbalanced or electromagnetic drive provide the same or higher productivity (20 ÷ 25 t / h) and energy efficiency (2,7 ÷ 3,2 kW / t) under lower final humidity of processed wastes (20 ÷ 25% against 70 – 76% - in case of realization of other mechanical methods). The last advantage allows do not conduct an additional drying of the wastes and that provides significant decrease of general power consuming of the working process. For provision of high efficiency parameters of the vibro-blowing dehydration there is need to provide optimal values of working and design parameters of the equipment for their realization. There are several approaches for research of the vibro-press equipment. The approaches that realized with help of differential equations of movement of the machine’s executive elements or differential equations of balances their energy provide high accuracy of calculations but because of complexity of these equations they are unsuitable for creation of a method of engineering design calculation of the machines. In the article are proposed algebraic equations and formulas for definition of optimal parameters of the vibro-pressing equipment for dehydration of damp dispersive wastes of food industry for realization of given parameters of efficiency and with consideration of initial and final physical-mechanical characteristics of the processed waste. There are conducted calculated diagrams of these parameters.

[1]    Sevostianov, I.V. (2020). Tekhnolohiia ta obladnannia dlia vibroudarnoho znevodnennia volohykh dyspersnykh materialiv : monohrafiia [Technology and equipment for vibro-blowing dehydration of damp dispersive materials : monograph]. Vinnytsia: VNAU. [in Ukrainian].
[2]    Iskovych-Lototskyi, R.D. (2006). Osnovy teorii rozrahunku processive ta obladnannya dlya vibroudarnoho pressuvannya. Monografiya [Foudations of calculation theory and elaboration of processes and equipment for vibro-blowing pressing. Monograph]. Vinnytsia: UNIVERSUM-Vinnytsia [in Ukrainian].
[3]    Iskovych-Lototskyi, R.D., Obertyh, R.R., Sevostianov, I.V. (2006). Processy ta obladnannya vibraciynyh i vibroudarnyh technologyi. Monografiya [Processes and equipment of vibration and vibro-blowing technologies. Monograph]. Vinnytsia: UNIVERSUM-Vinnytsia. [in Ukrainian].
[4]    Cherevko, O.I., Poperechny, A.M. (2014). Procesy i aparaty harchovyh vyrobnycztv [Processes and apparatuses of food productions]. Harkiv: Svit Knyg. [in Ukrainian].
[5]    Zamitsky, O.V., Bondar, N.V., Kradozhon, S.O. (2022). Laboratorni doslidjennya kombinovanoho metody znevodnennya vnutrishnimy djerelamy teploty v umovah electrichnoho nagrivu [Laboratory researches of a combined method of dehydration with using of internal sources of heat in conditions of electric heating]. Visnyk Vinnytskogo Politechnichnoho Institutu, 1. [in Ukrainian].
[6]    Snezhkin, Yu. F., Shapar, R. O. (2020). Energoefektyvne obladnannya dlya znevodnennya termolabilnyh materialiv [Energy efficient equipment for dehydration of thermolabile materials]. Teplofizika ta Teploenergetika, 42(2), 5–17. [in Ukrainian].
[7]    Gosovsky, R. (2018). Zakonomirnosti filtratsiinoho sushinnia orhanichnoi syrovyny dlia vyhotovlennia alternatyvnoho palyva [Regularities of filtering drying of organic raw materials for manufacturing of alternative fuel]. Dissertation of candidate of technical sciences. Lviv: National University “Lvivska Politehnica” [in Ukrainian].
[8]    Artyuhova, N.O. (2015). Sushinnya dispersnyh materialiv u bagatostupenevyh polychnyh aparatah z aktyvnym gidrodynamichnym rezhimom [Drying of dispersion materials in multi-stepped shelved apparatuses with active hydrodynamic regime]. Dissertation of candidate of technical sciences. Sumy: Sumy State University. [in Ukrainian].
[9]    Sevostianov, I.V. Polishchuk, O.V., Slabkyi, A.V. (2015). Rozrobka ta doslidzhennia ustanovky dlia dvokomponentnoho vibroudarnoho znevodnennia vidkhodiv kharchovykh vyrobnytstv [Elaboration and research of installation for two-component vibro-blowing dehydration of food productions waste], Vostochno-evropeiskyi zhurnal peredovykh tekhnolohyi, 5/7 (77), 40–46 [in Ukrainian].
[10]    Sevostianov, I.V., Lutsyk, V.L. (2017). Ustanovka dlia bahatostadiinoho znevodnennia vidkhodiv kharchovykh vyrobnytstv [Installation for multistage dehydration of food productions waste]. Visnyk mashynobuduvannia ta transportu, 1, 105–113 [in Ukrainian].
[11]    Sevostianov, I., Ivanchuck, Ya. Kravets, S. (2020). Elaboration and researches of highly effective installation for vibro-blowing dehydration of dispersive waste of food productions. Tekhnika, enerhetyka, transport APС, 3 (110), 24–33. [in English].
[12]    Sevostianov, I.V. (2021). Processy ta obladnannia dlia vibroudarnoho filtruvannia volohykh dyspersnykh seredovisch : monohrafiia [Processes and equipment for vibro-blowing filtering of damp dispersive mediums : monograph]. Vinnytsia: VNAU. [in Ukrainian].
[13]    Haidamaka, A.V. (2020). Detali mashyn. Osnovy teorii ta rozrakhunkiv [Details of machines. Foundations of the theory and calculations]. Kharkiv : NTU «KhPI» [in Ukrainian].