ANALYSIS OF COGENERATION ENERGY CONVERSION SYSTEM DESIGN IN IPWR REACTOR

Ign. Djoko Irianto, Sriyono Sriyono, Sukmanto Dibyo, Djati Hoesen Salimy, Tukiran Surbakti, Rahayu Kusumastuti

DOI: http://dx.doi.org/10.17146/tdm.2022.24.1.6414

Abstract


The acceleration of national development, especially in the industrial sector, requires an adequate national energy supply. There are various types of energy sources which include conventional energy sources as well as new and renewable energy sources including nuclear energy. The problem is how to utilize these energy sources into energy that is ready to be utilized. BATAN as a research and development institution in the nuclear field has taken the initiative to contribute to the development of technology for providing electricity and other thermal energy, particularly reactor technology as a power plant and a provider of thermal energy. This research aims to analyze the design of the IPWR type SMR reactor cogeneration energy conversion system. The IPWR reactor cogeneration energy conversion system which also functions as a reactor coolant is arranged in an indirect cycle configuration or Rankine cycle. Between the primary cooling system and the secondary cooling system is mediated by a heat exchanger which also functions as a steam generator. The analysis was carried out using ChemCAD computer software to study the temperature characteristics and performance parameters of the IPWR reactor cogeneration energy conversion system. The simulation results show that the temperature of saturated steam coming out of the steam generating unit is around 505.17 K. Saturated steam is obtained in the reactor power range between 40 MWth to 100 MWth. The results of the calculation of the energy utilization factor (EUF) show that the IPWR cogeneration configuration can increase the value of the energy utilization factor up to 91.20%.

Full Text:

PDF

References


REFERENCES 1. Abdussami M.R., Adham M.I., Gabbar H.A. Modeling and performance analysis of nuclear-renewable micro hybrid energy system based on different coupling methods. Energy Reports. 2020. 6(June):189–206. 2. Gabbar H.A., Abdussami M.R., Adham M.I. Techno-economic evaluation of interconnected nuclear-renewable micro hybrid energy systems with combined heat and power. Energies. 2020. 13(7) 3. Schmidt J.M., Gude V.G. Nuclear cogeneration for cleaner desalination and power generation – A feasibility study. Clean. Eng. Technol. 2021. 2(November 2020):100044. 4. Pirmohamadi A., Ghazi M., Nikian M. Optimal design of cogeneration systems in total site using exergy approach. Energy. 2019. 166:1291–302. 5. Sato H., Yan X.L. Study of an HTGR and renewable energy hybrid system for grid stability. Nucl. Eng. Des. 2019. 343(August 2018):178–86. 6. Verfondern K., Yan X., Nishihara T., Allelein H. Safety concept of nuclear cogeneration of hydrogen and electricity. Int. J. Hydrogen Energy. 2017. 42(11):7551–9. 7. Sudadiyo S., Irianto I.D., Supriatna P. Analysis On The Axial Turbine Blade Using Fluent For High Temperature Helium-Cooled Reactor (RGTT200K). Semin. Nas. Teknol. Energi Nukl. 2015. 2015.:15–6. 8. Irianto I.D., Sudadiyo S., Dibyo S. Performance Analysis On RGTT200K Cogeneration System For Changes In The Reactor Coolant Mass Flow Rate. in: Seminar Nasional Teknologi Energi Nuklir 2015. Bali. 2015. pp. 15–6. 9. Irianto I.D. Design And Analysis Of Helium Brayton Cycle For Energy Conversion System Of RGTT200K. Tri Dasa Mega. 2016. 18(2):75–86. 10. Irianto I.D., Dibyo S., Salimy D.H., Pane J.S. Thermodynamic Analysis On Rankine Cycle Steam For Cogeneration Systems RGTT200K. in: Seminar Nasional Teknologi Energi Nuklir 2016. 2016. pp. 865–72. 11. Irianto I.D., Dibyo S., Sriyono, Salimy D.H., Kusumastuti R., Pujiastuti E., et al. Performance analysis on the design of the energy conversion system of the Indonesia experimental power reactor. AIP Conf. Proc. 2019. 2180(December) 12. Dibyo S., Irianto I.D., Bakhri S. Comparison on Two Option Design of The RDE Cogeneration System. J. Phys.: Conf. Ser. 2019. 1198:022039. 13. Kadarno P., Riyandwita B.W., Sriyono, Irianto I.D. Effect of helium purification system intake pipe on pressure drop of HTGR steam generator. AIP Conf. Proc. 2019. 2180(December) 14. Dibyo S., Irianto I.D. Design analysis on operating parameter of outlet temperature and void fraction in RDE steam generator. Tri Dasa Mega. 2017. 19(1):33–40. 15. Irianto I.D., Dibyo S., Sriyono S., Salimy D.H., Kusumastuti R., Pancoko M. Performance Analysis of RDE Energy Conversion System in Various Reactor Power Condition. Tri Dasa Mega. 2019. 21(3):99–106. 16. Zeliang C., Mi Y., Tokuhiro A., Lu L., Rezvoi A. Developmental Status , Design Characteristics and. Energies. 2020. 17. Priego E., Alonso G., del Valle E., Ramirez R. Alternatives of steam extraction for desalination purposes using SMART reactor. Desalination. 2017. 413:199–216. 18. Dong Z., Pan Y. A lumped-parameter dynamical model of a nuclear heating reactor cogeneration plant. Energy. 2018. 145:638–56. 19. Dong Z., Liu M., Jiang D., Huang X., Zhang Y., Zhang Z. Automatic generation control of nuclear heating reactor power plants. Energies. 2018. 11(10) 20. Xinhe Q., Xiaoyong Y., Jie W., Gang Z. Combined cycle schemes coupled with a Very High Temperature gas-cooled reactor. Prog. Nucl. Energy. 2018. 108(April):1–10. 21. Chen H., Wu Y., Xu J., Xu G., Yang Y., Liu W., et al. Thermodynamic and Economic Analyses of Reformative Design for High Back-Pressure Heating in Coal-Fueled Cogeneration Units. Entropy. 2019. 21(4):342. 22. Khan S.U. Transient Analysis of Integral Pressurized Water Reactor ( Ipwr ). Int. Conf. Nucl. Energy New Eur. 2013. 4:1–8.


Refbacks

  • There are currently no refbacks.


PTKRN Digital Library Mendeley
slot gacor slot