Developing the Cascade Thermal Circuit for the Turbine Unit Operating on Low-Boiling Working Medium Intended for Agricultural Power Engineering

Автор(и)

  • Oleksandr Shubenko A.N. Podgorny Institute For Mechanical Engineering Problems NAS of Ukraine, Ukraine https://orcid.org/0000-0001-9014-1357
  • Vitaliy Malyarenko O.M. Beketov National University of Ukraine Economy in Kharkiv, Ukraine
  • Mykola Babak A.N. Podgorny Institute For Mechanical Engineering Problems NAS of Ukraine, Ukraine
  • Oleksandr Volodymyrovych Senetskyi A. N. Podgorny Institute for Mechanical Engineering Problems NAS of Ukraine, Ukraine https://orcid.org/0000-0001-8146-2562
  • Volodymyr Sarapin A.N. Podgorny Institute For Mechanical Engineering Problems NAS of Ukraine, Ukraine https://orcid.org/0000-0002-5323-5351

DOI:

https://doi.org/10.20998/2078-774X.2017.10.02

Анотація

The modes of operation of the appropriate cogeneration unit of a low power (~80 kW) whose closed cycle uses a low-boiling working medium have been analyzed. The engineering solution on the improvement of power plant has been suggested. Realization of the two-cascade thermal circuit would allow us to operate mini-heat and power plants (HPP) both during the winter period and in summer provided that the electric power is increased by 20 to 25 kW. The available low-boiling working media for the second cascade were analyzed and those were selected that maximally meet the requirements set to the thermodynamic efficiency, operation performances, ecological safety and the operation reliability. Using the program system developed by the IPMash of the National Academy of Ukraine the team carried out computation investigations of thermal circuits for two-cascade power units. Performances for the power unit operating during the summer period on low-boiling working medium with hot water supply and in the condensation mode have been obtained; the electric efficiency for such modes will be equal on average to 22 % and 27 %, respectively. The computation data for the performances of the second cascade of mini-HPP with the working medium of R-600a were given for 100 % modes and partial modes used for the hot water supply (HWS) that showed the efficiency of the unit operation in the entire loading range. For the regular electric power generation by the cogeneration unit the option of thermal circuit with the parallel mounting of the boiler and the air capacitor at the turbine exhaust duct of the second cascade was calculated that would allow for the operation of the power system in any HWS mode.

Біографія автора

Oleksandr Volodymyrovych Senetskyi, A. N. Podgorny Institute for Mechanical Engineering Problems NAS of Ukraine

Посилання

Geletuha, G. G., Zheleznaya, T. A. and Prahovnik, A. K. (2015), "Analiz energeticheskih strategiy stran ES imirairolivnihvozobnovlyaemyih istochnikov energii. Analiticheskaya zapiska BAU № 13 [An analysis of the energystrategiesoftheEUandthe world and the role into them of renewable energy sources. AnalyticalNoteBAUnumber13]",Bioenergeticheskayaassotsiatsiya Ukrainy, available at: www.uabio.org/activity/uabio-analytics(accessed26November2016).

Kozhuhovskiy, I. S. (2013), "Kontseptsiya razvitiya infrastrukturyi elektrosnabzheniya i tsentralizovannogoteplosnabzheniyana osnove raspredelennoy generatsii i kogeneratsii [The concept ofinfrastructuredevelopment electric powersupplyanddistrictheating based on cogeneration and distributed generation]", Sankt-PeterburgskiypolitehnicheskiyuniversitetPetraVelikogo, available at: http://nnhpe.spbstu.ru/wp-content/uploads/2015/09/2013_10_24_АПБЭ.pdf (accessed26December 1016).

(2016), "My delaem energiyu zelenoy! [We make green energy!]", Bioenergeticheskaya assotsiatsiya Ukrainy. Officialwebsiteof the manufacturer, available at: http://www.uabio.org/ru/ (accessed 20 Desember 2016).

Geletuha, G. G., Zheleznaya, T. A. and Drozdov, O. I. (2013), "Kompleksnyy analiz tehnologiy vyrobnitstva energii ztverdoibiomasy v Ukraini. Chastyna 1. Soloma [Comprehensive analysis of the technologies of energyproductionfromsolidbiomassinUkraine. Part 1. Straw]", Prom. teplotehnIka, Vol. 35, No. 3, pp. 57–63, ISSN 0204-3602.

Zheleznaya, T. A., Geletuha, G. G. (2006), "Obzor sovremennyih tehnologiy gazifikatsii biomassy [Review of modernbiomassgasification technology]", Prom. teplotehnIka, Vol. 28, No. 2, pp. 61–75, ISSN 0204-3602.

Gneushev, V. A., Stadnik, A. S. and Krohmalyuk, Yu. A. (2012), "Logika sooruzheniya i obespecheniya biotoplivom mini-TETSvUkraine [Logic of construction and ensure biofuels mіnі-CHP in Ukraine]", Energy saving. Energy. Energy audit, No. 07(101),pp.44–52, ISSN 2218-1849.

Tyurina, E. A. (2013), "Innovatsionnye tehnologii pererabotki biomassy v ekologicheski chistye topliva i elektroenergiyu[Innovative technologies for processing biomass into clean fuel andelectricity]",Vozobnovlyaemayaenergetika.Putipovyisheniyaenergeticheskoy i ekonomicheskoy effektivnosti REENROR-2013:mater.PervogoMezhdun. foruma 22-23October 2013 g, pp. 361–363, Ob'edinennyy institut vyisokih temperaturRAN,Moscow.

Dikalenko, M. (2013), "V Ukraine massa othodov, dostoynyh nazyvatsya biotoplivom, kak i kotelnyh, dostoynyh egoispolzovat[In Ukraine, the mass of waste is worthy to be called biofuels, as well as boilers,worthyofitsuse]",Ezhednevnyyinformatsionnyy daydzhest "TEK I PRESSA", availableat:http://uaenergy.com.ua/post/17054/v-ukraine-massa-othodov -dostojnyh-nazyvatsya (accessed 15 December2016).

(2015), "SShA investiruyut v stroitelstvo 10 mini-TETS v Harkovskoy obl. [United States to invest in the construction of10mіnі-CHP in the Kharkiv region]", ElektroVesti. Portal pro elektrosnabzhenie, available at:http://elektrovesti.net/41896_ssha-investiruyut-v-stroitelstvo-10-mini-tets-v-kharkovskoy-obl (accessed 12 December 2016).

Tartière Thomas. (2016), "ORC Market: A World Overview", available at: http://orc-world-map.org/analysis.html (accessed20December 2016).

(2016), ²Mini-TETS na drevesnoy biomasse. Kombinirovannoe proizvodstvo elektricheskoy i teplovoy energii (kogeneratsiya)[Mini-CHP wood biomass. Combined production of electricity and heat (cogeneration)]", OOO"VADOinzheniring".Officialwebsiteofthe manufacturer, available at: http://www.vadogroup.com/index.php/ru/,(accessed12Desember2016).

Obernbergen, I., Thonhofer, P. and Reisehofer, E. (2002), "Obernbergen Ingwald Description and evaluation of thenew1,000 kWel Organic Rankine Cycle process integrated in the biomass CHP plant in Liens, Austria", Euroheat&Power,Vol.10,pp.41–48.

Bazaev, A. R. (2007), "Issledovanie termodinamicheskih svoystv smesey tehnicheski vazhnyh veschestv kakeffektivnyhteplonositeley v energeticheskih ustanovkah [The study of thermodynamic propertiesofmixturesoftechnicallyimportantsubstances such as effective heat transfer in power plants]", FIZIKA, CILD XIII,No.1–2, pp. 57–60.

Bileka, B. i dr. (2002), "Utilizatsiya sbrosnoy teploty GPA v energoustanovkah s nizkokipyaschimi rabochimi telami[Disposalrelief GPA heat in power plants with low-boiling working bodies]", Gas turbine technology, No. 5, pp. 6–10.

Redko, A. A. (2009), "Termodinamicheskie parametry geotermalnoy elektricheskoy stantsii s binarnym sverhkriticheskimtsiklom[The thermodynamic parameters of a geothermal power plant with supercriticalbinarycycle]",Integratedtechnologiesandenergy saving, No. 4, pp. 81–85.

Pyatnichko, V. A., Krushnevich, T. K. and Pyatnichko, A. I. (2003), "Utilizatsiya nizkopotentsialnogo tepla dlyaproizvodstvaelektroenergii s ispolzovaniem pentana v kachestve rabochego tela [Utilization of low-gradeheattogenerateelectricityusingpentane as the working fluid]", Ecotechnology and resource saving, No. 4, pp. 3–6.

Grinman, M. I. and Fomin, V. A. (2006), "Perspektivy primeneniya energeticheskih ustanovok maloy moschnostisnizkokipyaschimi rabochimi telami [Prospects for the use of energy of low power installations withlowboilingpointworkingfluids]",Power-plant engineering, No. 1, pp. 63–69.

Shubenko, A. L. at al. (2010), "Ekonomicheskaya effektivnost utilizatsii nizkopotentsialnyh vtorichnyh energeticheskihresursovposredstvom ustanovki turbiny na nizkokipyaschem rabochem tele [Economic efficiency of utilizationoflow-gradewasteenergy by installing a turbine on the low boiling working fluid]", Energy saving. Energy. Energyaudit,No. 6, pp. 18–26.

Grishutin, M. M., Sevastyanov, A. P. , Seleznev, L. I. and Fedorovich, E. D. (1988), Paroturbinnye ustanovki sorganicheskimirabochimi telami [Steam turbines installations with organic working fluids], Mechanical Engineering, Leningrad,ISBN5-217-00076-7.

Lyhvar, N. V. (2003), "Gibkie matematicheskie modeli energoustanovok dlya optimizatsii rezhimov TETS [Flexiblemathematicalmodels to optimize power plants CHP mode]", Improving turbines by methods of mathematical andphysicalmodeling,Vol.2,pp.413–419.

Lyhvar, N. V., Govoruschenko, Yu. N. and Yakovlev, V. A. (2003), "Modelirovanie teploenergeticheskih ustanovoksispolzovaniem interaktivnoy shemnoy grafiki [Modeling of thermal power plants with theuseofinteractivegraphicscircuit]",Mechanical Engineering Problems, No. 1, pp. 30–41.

Shubenkom A. L., Lyhvarm N. V. and Senetskiym A. V. (2009), "Ratsionalnoe raspredelenie nagruzok mezhduturbinamienergouzla promyishlennogo predpriyatiya v protsesse ekspluatatsii [Rational distribution of loadsbetweentheturbinepowerunitindustrial plant in the operation process]", Energy saving. Energy. Energy audit, No. 12(70),pp. 26–34.

Andreev, S. Yu. at al. (2016), "Kogeneratsiya v kotelnyh na osnove organicheskogo tsikla Renkina [Cogeneration in theboilerplants on the basis of organic Rankine cycle]", Municipal economy of cities. Series Technical sciencesandArchitecture,No.130,pp.55–64, ISSN 0869-1231.

Matiyuk, L. N. (2016), "Osnovnaya kontseptsiya: «Bioenergeticheskaya derevnya» [The basic concept: «BioenergyVillage»]",Special Agency for Renewable Resources (FNR), Gülzow, FachagenturNachwachsendeRohstoffee.V,availableat:http://saee.gov.ua/sites/default/files/1_Bio.pdf (accessed 04January2017).

(2016), "Tverdotoplivnye kotly s vysokotemperaturnym organicheskim teplonositelem [Solid fuel boilers with high-temperatureorganic coolant]", The company "Felix Energy Group» representative in Ukraine of "LeadingSpecializedDesignBureauforcomplexequipment for microclimate", Official website of the manufacturer, availableat:http://f-g.com.ua/tverdotoplivnye_kotly_s_vysokotemperaturnym_organicheskim_teplonositelem_.html (accessed08December 2016).

Sokolov, E. Ya. (2006), Teplofikatsiya i teplovyie seti: uchebnik dlya vuzov [District heating and heat networks: atextbookfor high schools], Publishing House MEI, Moscow.

##submission.downloads##

Опубліковано

2017-10-28

Як цитувати

Shubenko, O., Malyarenko, V., Babak, M., Senetskyi, O. V., & Sarapin, V. (2017). Developing the Cascade Thermal Circuit for the Turbine Unit Operating on Low-Boiling Working Medium Intended for Agricultural Power Engineering. Вісник Національного технічного університету «ХПІ». Серія: Енергетичнi та теплотехнiчнi процеси й устаткування, (10), 13–24. https://doi.org/10.20998/2078-774X.2017.10.02

Номер

Розділ

Енергетичні та теплотехнічні процеси й устаткування