Development of a gas turbine plant for associated petroleum gas utilization gathering electrical and thermal energy at marginal fields

Authors: O.A. Zueva, N.L. Bachev, R.V. Bulbovich, A.M. Kleschevnikov (Perm National Research Polytechnic University, RF, Perm)

Key words: associated petroleum gas (APG), gas turbine unit, multi-zone combustion chamber, sustained combustibility, corrosion-active sulfur-containing surroundings.

The article is devoted to questions of APG recycling (wet, gray content and condensate content) in power plants with generation of electricity and thermal energy at marginal fields. To arrange a stable combustion of APG unstable composition and low caloric, on the one hand, and providing a predetermined level of non-uniformity of the temperature field of gas turbine inlet, on the other hand, multizone combustion chamber is developed with the combustion zone and the dilution zones. Settings are defined of single-shaft reducer gas turbine, using low-speed electric generator, which produces electric power 200 kW with consumer characteristics. It was defined regime, geometrical and thermal characteristics of a multi-zone combustion chamber. We carried out thermochemical and thermodynamic calculations to determine the parameters and composition of the working fluid to drive the turbine. Recommendations on the use of heat-resistant and heat-resistant alloys for the manufacture of structural elements of the "hot" path gas turbine. The data obtained can be used in the development of recycling facilities at marginal fields.
References
1. Rybakov B.A., Burov V.D., Rybakov D.B., Trushin K.S., Turbiny i dizeli – Turbines & Diesels Magazine, 2008, no. 3, pp. 2 – 11.
2. Sivukhin D.V., Obshchiy kurs fiziki. Termodinamika i molekulyarnaya fizika
(General course of physics. Thermodynamics and Molecular Physics),
Moscow: Fizmatlit Publ., 2005, 544 p.
3. Zueva O.A., Bul'bovich R.V., Bacheva N.Yu., Vestnik PNIPU. Aerokosmicheskaya tekhnika, 2012, no. 32, pp. 81-95.
4. Vorob'eva G.Ya., Korrozionnaya stoykost' materialov v agressivnykh
sredakh khimicheskikh proizvodstv (The corrosion resistance of materials in
corrosive environments of chemical production), Moscow: Khimiya Publ.,
1975, 816 p.
5. Sorokin V. G., Volosnikova A.V., Vyatkin S.A., Marochnik staley i splavov
(Database of steels and alloys), Moscow: Mashinostroenie Publ., 1989, 640 p.
6. Mingazov B.G., Kamery sgoraniya gazoturbinnykh ustanovok (Combustion
chambers of gas turbines), Kazan': Publ. of Kazan State Technical University,
2006, 220 p.
7. Sudarev A.V., Antonovskiy V.I., Kamery sgoraniya gazoturbinnykh ustanovok.
Teploobmen (Combustion chambers of gas turbines. Heat exchange),
Leningrad: Mashinostroenie Publ., 1985, 272 p.

Key words: associated petroleum gas (APG), gas turbine unit, multi-zone combustion chamber, sustained combustibility, corrosion-active sulfur-containing surroundings.

The article is devoted to questions of APG recycling (wet, gray content and condensate content) in power plants with generation of electricity and thermal energy at marginal fields. To arrange a stable combustion of APG unstable composition and low caloric, on the one hand, and providing a predetermined level of non-uniformity of the temperature field of gas turbine inlet, on the other hand, multizone combustion chamber is developed with the combustion zone and the dilution zones. Settings are defined of single-shaft reducer gas turbine, using low-speed electric generator, which produces electric power 200 kW with consumer characteristics. It was defined regime, geometrical and thermal characteristics of a multi-zone combustion chamber. We carried out thermochemical and thermodynamic calculations to determine the parameters and composition of the working fluid to drive the turbine. Recommendations on the use of heat-resistant and heat-resistant alloys for the manufacture of structural elements of the "hot" path gas turbine. The data obtained can be used in the development of recycling facilities at marginal fields.
References
1. Rybakov B.A., Burov V.D., Rybakov D.B., Trushin K.S., Turbiny i dizeli – Turbines & Diesels Magazine, 2008, no. 3, pp. 2 – 11.
2. Sivukhin D.V., Obshchiy kurs fiziki. Termodinamika i molekulyarnaya fizika
(General course of physics. Thermodynamics and Molecular Physics),
Moscow: Fizmatlit Publ., 2005, 544 p.
3. Zueva O.A., Bul'bovich R.V., Bacheva N.Yu., Vestnik PNIPU. Aerokosmicheskaya tekhnika, 2012, no. 32, pp. 81-95.
4. Vorob'eva G.Ya., Korrozionnaya stoykost' materialov v agressivnykh
sredakh khimicheskikh proizvodstv (The corrosion resistance of materials in
corrosive environments of chemical production), Moscow: Khimiya Publ.,
1975, 816 p.
5. Sorokin V. G., Volosnikova A.V., Vyatkin S.A., Marochnik staley i splavov
(Database of steels and alloys), Moscow: Mashinostroenie Publ., 1989, 640 p.
6. Mingazov B.G., Kamery sgoraniya gazoturbinnykh ustanovok (Combustion
chambers of gas turbines), Kazan': Publ. of Kazan State Technical University,
2006, 220 p.
7. Sudarev A.V., Antonovskiy V.I., Kamery sgoraniya gazoturbinnykh ustanovok.
Teploobmen (Combustion chambers of gas turbines. Heat exchange),
Leningrad: Mashinostroenie Publ., 1985, 272 p.


Attention!
To buy the complete text of article (a format - PDF) or to read the material which is in open access only the authorized visitors of the website can. .

Mobile applications

Read our magazine on mobile devices

Загрузить в Google play

Press Releases

11.10.2021
07.10.2021
29.09.2021
Конкурс на соискание молодежной премии имени академика И.М. Губкина