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Анотація
В статье описана математическая модель расчета геометрических и энергетических параметров жидкостно-парового эжектора с цилиндрической камерой смешения и приведены результаты численного моделирования течения двухфазной среды в такой камере смешения. Также поданы результаты экспериментального исследования плоскопараллельного жидкостно-парового эжектора с цилиндрической камерой смешения и проведено их сравнение с теоретическими данными. Выполнен анализ эксергетической эффективности применения эжектора с такой камерой смешения.
Ключові слова:
Жидкостно-паровой эжектор, Цилиндрическая камера смешения, Численное моделирование, Экспериментальное исследование, Эксергетичекая эффективность.
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Як цитувати
Шарапов, С., & Арсеньев, В. (2016). ЭКСПЕРИМЕНТАЛЬНОЕ ИССЛЕДОВАНИЕ ЖИДКОСТНО-ПАРОВОГО ЭЖЕКТОРА С ЦИЛИНДРИЧЕСКОЙ КАМЕРОЙ СМЕШЕНИЯ. Refrigeration Engineering and Technology, 52(2). https://doi.org/10.21691/ret.v52i2.58
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ХОЛОДИЛЬНІ ТА СУПУТНІ ТЕХНОЛОГІЇ
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REFERENCES
1. Sokolov, E. Ya., Zinger, N. M. (1989). Struynie appa-raty [Inkjet machines], Moscow, 352 p. (in Russian)
2. Arsenyev, V. M., Sharapov, S. O., Prokopov, M. G. (2011). Ocenka energeticheskoi effectivnosti zhidkostno-parovogo egektora, primeniaemogo dlia sozdania vaku-uma v metallurgii [Energy efficiency value of the liquid-vapor ejector used to create vacuum in the metalurgical engeeniring]. Refrigeration engineering and technology, No. 5 (133), 62-66 (in Russian)
3. Marchenko, V. N., Zhilenko, N. A., Kucenko, S. N. (2005). Perspektivy primeneniya I rezultatychislennogo modelirovaniya struynoy termokompressornoy ustanov-ki [Perspectives of application and results of jet thermo-compression unit numerical modeling]. Visnyk of Sumy State University: Technical Sciences Series, No. 1, 36 40 (in Russian)
4. Marchenko, V. N., Zhilenko, N. A. (2004). Struinaia termokompressornaia ustanovka (STK): naznachenie, princip deistvia, matematicheskaia model’ i rezultaty rascheta rabochego protsessa [Stream thermocompres-sion unit (STC): purpose, principle, thermodynamic mod-el and the calculation results of working process]. Visnyk of Sumy State University: Technical Sciences Series, 13 (72): 50 60 (in Russian)
5. Marchenko, V. N., Osipov, V. A., Prokopov, M. G., Sharapov, S. O. (2009). Principle of stream thermocom-pression: conception of energetic efficiency and prospect of realization is in small heat energetic. «MOTROL. Mo-toryzacja і energetylca rolnictwa», Simferopol-Lublin, Vol. 11 A, 70-76.
6. Sharapov, S., Arsenyev, V., Protsenko, M. (2013). The use of liquid-vapor ejector in vacuum systems. Sci-ence et technique du froid. Refrigeration science and technology, France/Slovakia, Vol. 4.
7. Sharapov, S. O. (2011). Zadachi eksperimentalnykh issledovaniy rabochego processa zhidkostno-parovogo ejectora v vakuumnom rezhime raboty i ikh tekhnich-eskoe soderzhanie [Objectives of experimental research work the liquid-steam-jet ejector and its technical con-tent], Visnyk of Sumy State University: Technical Scienc-es Series, No. 1, 51 57 (in Russian).
8. Tsatsaronis, J. (2002). Vzaimodeistvie termodina-miki i ekonomiki dlia minimizacii stoimosti energo-preobrazuiuschei sistemy [The interaction of thermody-namics and economics in order to minimize the cost of energy conversion systems]. Odessa, 152 p. (in Russian).
9. Morozyuk, T. V. (2006). Teoria kholodilnikh mashin i teplovikh nasosov [The theory of chillers and heat pumps]. Odessa, 712 p. (in Russian)
10. Arsenyev, V. M. (2011). Teplonasosna tekhnologia energozberezhennia [Energy-saving heat pump technolo-gy]. Sumy, Sumy State University, 283 p. (in Ukrainian).
1. Sokolov, E. Ya., Zinger, N. M. (1989). Struynie appa-raty [Inkjet machines], Moscow, 352 p. (in Russian)
2. Arsenyev, V. M., Sharapov, S. O., Prokopov, M. G. (2011). Ocenka energeticheskoi effectivnosti zhidkostno-parovogo egektora, primeniaemogo dlia sozdania vaku-uma v metallurgii [Energy efficiency value of the liquid-vapor ejector used to create vacuum in the metalurgical engeeniring]. Refrigeration engineering and technology, No. 5 (133), 62-66 (in Russian)
3. Marchenko, V. N., Zhilenko, N. A., Kucenko, S. N. (2005). Perspektivy primeneniya I rezultatychislennogo modelirovaniya struynoy termokompressornoy ustanov-ki [Perspectives of application and results of jet thermo-compression unit numerical modeling]. Visnyk of Sumy State University: Technical Sciences Series, No. 1, 36 40 (in Russian)
4. Marchenko, V. N., Zhilenko, N. A. (2004). Struinaia termokompressornaia ustanovka (STK): naznachenie, princip deistvia, matematicheskaia model’ i rezultaty rascheta rabochego protsessa [Stream thermocompres-sion unit (STC): purpose, principle, thermodynamic mod-el and the calculation results of working process]. Visnyk of Sumy State University: Technical Sciences Series, 13 (72): 50 60 (in Russian)
5. Marchenko, V. N., Osipov, V. A., Prokopov, M. G., Sharapov, S. O. (2009). Principle of stream thermocom-pression: conception of energetic efficiency and prospect of realization is in small heat energetic. «MOTROL. Mo-toryzacja і energetylca rolnictwa», Simferopol-Lublin, Vol. 11 A, 70-76.
6. Sharapov, S., Arsenyev, V., Protsenko, M. (2013). The use of liquid-vapor ejector in vacuum systems. Sci-ence et technique du froid. Refrigeration science and technology, France/Slovakia, Vol. 4.
7. Sharapov, S. O. (2011). Zadachi eksperimentalnykh issledovaniy rabochego processa zhidkostno-parovogo ejectora v vakuumnom rezhime raboty i ikh tekhnich-eskoe soderzhanie [Objectives of experimental research work the liquid-steam-jet ejector and its technical con-tent], Visnyk of Sumy State University: Technical Scienc-es Series, No. 1, 51 57 (in Russian).
8. Tsatsaronis, J. (2002). Vzaimodeistvie termodina-miki i ekonomiki dlia minimizacii stoimosti energo-preobrazuiuschei sistemy [The interaction of thermody-namics and economics in order to minimize the cost of energy conversion systems]. Odessa, 152 p. (in Russian).
9. Morozyuk, T. V. (2006). Teoria kholodilnikh mashin i teplovikh nasosov [The theory of chillers and heat pumps]. Odessa, 712 p. (in Russian)
10. Arsenyev, V. M. (2011). Teplonasosna tekhnologia energozberezhennia [Energy-saving heat pump technolo-gy]. Sumy, Sumy State University, 283 p. (in Ukrainian).