Study of operating modes of the AION tanker electrical power system
https://doi.org/10.30724/1998-9903-2024-26-1-51-63
Abstract
THE PURPOSE. Consider the issue of automation of modern sea vessels with a high degree of electrification. The purpose of the study is to analyze the electrical power system of the AION tanker to determine the possible occurrence of abnormal phenomena during parallel operation of generator sets and methods for eliminating them.
METHODS. The article analyzes the electrical power system and automatic control devices of the AION tanker. Particular attention is paid to the study of systems that ensure the production and distribution of electrical energy between consumers. The widespread use of modern computer-based automatic control systems in ship power plants has been noted. The extensive possibilities for controlling a ship's electrical power plant in various daily or emergency situations are shown. The software and hardware of the ship's Power Management System allows you to reduce the consumption of fuel, oil and other important resources by automatically regulating the load on diesel generators, timing the supply of fuel to the cylinders, and controlling exhaust and starting valves.
RESULTS. Experimental oscillograms of studies of the parallel operation of diesel generator sets were obtained, in which power exchange oscillations were recorded. The amplitude of power exchange oscillations reaches 40 % of the steady-state value, and their period is 600 - 800 ms, depending on the operating mode of the ship's electrical power system. During the
collection of these oscillograms, the ship's load is turned on and no starts or stops of any powerful consumers are made, that is, a quasi-steady process takes place.
CONCLUSION. It is proposed to introduce a function for eliminating power exchange oscillations into the ship power plant control system. To implement it, it is necessary to add a block that receives information from all parallel operating diesel generator sets and adaptively adjusts the settings of the frequency regulators.
About the Authors
A. E. SavenkoRussian Federation
Alexandr E. Savenko
Republic of Crimea; Kerch
I. V. Gabriel
Russian Federation
Igor V. Gabriel
Republic of Crimea; Kerch
References
1. Khvatov O. S., Tarpanov I. A., Kuznecov P. V., Ship power plant with reversible shaft generator unit operating by dual-power machine scheme and variable speed diesel generator. Vestnik Astrahanskogo gosudarstvennogo tehnicheskogo universiteta, 2021, № 3. P. 93–100.
2. Dar'Enkov A.B., Samoyavchev I., Khvatov O.S., Sugakov V. Improving energy performance power station of ship with integrated electric propulsion. MATEC Web of Conferences, 2017, 108, 14002.
3. Gracheva E. I., Alimova A.N. Calculating Methods and Comparative Analysis of Losses of Active and Electric Energy in Low Voltage Devices. International Ural Conference on Electrical Power Engineering (UralCon), 2019. 361-367.
4. Sen'kov A.P., Dmitriev B.F., Kalmykov A.N., Tokarev L.N. Ship unified electric-power systems. Russian Electrical Engineering, 2017, 88(5), pp. 253–258.
5. Gubanov Y. A., Kalinin I. M., Kornev A. S., Kuznetsov V. I., Sen'kov A. P. Directions of improvement for ship unified power systems. Marine Intelligent Technology, 2019, №1-1(43), pp. 103–109.
6. Zhu, Sipeng; Ma, Zetai ; Zhang, Kun ; Deng, Kangyao. Energy and exergy analysis of the combined cycle power plant recovering waste heat from the marine two-stroke engine under design and off-design conditions. Energy, 2020, Том: 210, Номер статьи: 118558 DOI: 10.1016/j.energy.2020.118558.
7. Avdeyev B. A. Intelligent energy-efficient systems of marine vessels. Bulletin of the Kerch State Maritime Technological University. 2021; 4: 99-113.
8. Mondejar, M. E.; Andreasen, J. G.; Pierobon, L.; Larsen, U; Thern, M.; Haglind, F. A review of the use of organic Rankine cycle power systems for maritime applications. Renewable & sustainable energy reviews, 2018, Vol: 91, pp.: 126-151 DOI: 10.1016/j.rser.2018.03.074.
9. Gracheva EI, Il'jasov I, Alimova AN. The comparative analysis and research of methods of calculation of losses of the electric power in the systems of electrical power supply of the industrial enterprises. Power engineering: research, equipment, technology. 2018;20(3- 4):62-71.
10. Gracheva E.I., Alimova A.N., Abdullazjanov R.Je. Analiz i sposoby rascheta poter' aktivnoj moshhnosti i jelektrojenergii v nizkovol'tnyh cehovyh setjah. Vestnik Kazanskogo gosudarstvennogo jenergeticheskogo universiteta. 2018;4(40):53–65.
11. Meshherjakov VN, Cherkasova VS, Meshherjakova OV. Korrekcija sistemy vektornogo upravlenija asinhronnym jelektroprivodom. Sistemy upravlenija iinformacionny etehnologii. 2015;3(61): 36-38.
12. Savenko A.E, Golubev A.N. Exchange power fluctuations in ship electrotechnical complexes. Ivanovskiy gosudarstvennyy energeticheskiy universitet imeni V.I. Lenina. Ivanovo, 2016. 172 p.
13. Savenko A.E, Savenko P.S. Influence of backlash on amplitude of exchange power fluctuations in autonomous electric power equipment. Power engineering: research, equipment, technology. 2018;20(5-6):46-54.
14. Savenko A.E., Savenko P.S. Analysis of Power Oscillations Parameters in Autonomous Electrical Complexes Using the Method of Customization Charts Designing. Proceedings – 2020 International Ural Conference on Electrical Power Engineering, UralCon 2020, Proc. 2020 Int. Ural Conf. on Electrical Power Engineering. pp. 400–405.
15. Aleynikov A.V, Golubev A.N, Martynov V.A. Development of a mathematical model of synchronous permanent magnet motor for real-time calculations. Vestnik IGEU. 2017;5:37- 43.
Review
For citations:
Savenko A.E., Gabriel I.V. Study of operating modes of the AION tanker electrical power system. Power engineering: research, equipment, technology. 2024;26(1):51-63. (In Russ.) https://doi.org/10.30724/1998-9903-2024-26-1-51-63