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Coupling effect of key parameters of heat recovery components on the HAT cycle performance

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  • Zhang, Qing
  • Wang, Yuzhang
  • Jiang, Jiangjun
  • Weng, Shilie
  • Cao, Xiuling

Abstract

Humid Air Turbine (HAT) cycle that uses a water-air mixture as a working fluid has a significant advantage in the distributed generation technologies and combined heat and power. The feature of the HAT cycle is that air humidification is carried out at a variable temperature. This cycle is considered as one of the optimal humidified gas turbine cycles to achieve the energy cascade utilization. However, most studies typically use the method of a single variable to investigate the coupled process of humidification and heat recovery, which limits the further performance improvement of the HAT cycle. Herein, we study the interactions among air humidification, heat recovery and system performance to elaborate the effects of interactive variables on the HAT cycle performance. Considering the complexity of the interaction of water-air ratio, aftercooler effectiveness and recuperator effectiveness, a thorough numerical analysis was carried out from the following perspectives: the thermodynamic correlation between components and systems was investigated by controlling a single parameter; the interaction of multiple variables was performed with identical turbine inlet temperature (TIT) and pressure ratio (PR) conditions; and the coupling relationship between interactive variables with a variation of TIT and PR conditions. A thorough analysis revealed that the variables that significantly impact the HAT cycle efficiency are successively RE, W/A, and AE. The analysis of the coupling effects of interactive variables under different TITs is consistent with the above results. As the PR increases, the W/A and AE have a more significant effect on HAT cycle efficiency and the effect of RE on the HAT cycle efficiency greatly diminishes. The HAT cycle efficiency, specific work output, and heat recovery achieved 43.9%, 556 kJ/kg, 5505.33 kW, where its corresponding TIT, PR, W/A, AE, RE values are 1280 °C, 8, 1.5,0.75, 0.9, respectively. Overall, a thorough analysis of interactive variables is of great significance to fully understand the effect of heat recovery on the efficiency enhancement and specific work output improvement from the thermodynamic perspective.

Suggested Citation

  • Zhang, Qing & Wang, Yuzhang & Jiang, Jiangjun & Weng, Shilie & Cao, Xiuling, 2022. "Coupling effect of key parameters of heat recovery components on the HAT cycle performance," Energy, Elsevier, vol. 238(PC).
    • Handle: RePEc:eee:energy:v:238:y:2022:i:pc:s0360544221022994
    DOI: 10.1016/j.energy.2021.122051
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    1. Stathopoulos, P. & Paschereit, C.O., 2015. "Retrofitting micro gas turbines for wet operation. A way to increase operational flexibility in distributed CHP plants," Applied Energy, Elsevier, vol. 154(C), pages 438-446.
    2. Saghafifar, Mohammad & Gadalla, Mohamed, 2015. "Analysis of Maisotsenko open gas turbine power cycle with a detailed air saturator model," Applied Energy, Elsevier, vol. 149(C), pages 338-353.
    3. Mahmood, Muhammad H. & Sultan, Muhammad & Miyazaki, Takahiko & Koyama, Shigeru & Maisotsenko, Valeriy S., 2016. "Overview of the Maisotsenko cycle – A way towards dew point evaporative cooling," Renewable and Sustainable Energy Reviews, Elsevier, vol. 66(C), pages 537-555.
    4. Fallah, M. & Siyahi, H. & Ghiasi, R. Akbarpour & Mahmoudi, S.M.S. & Yari, M. & Rosen, M.A., 2016. "Comparison of different gas turbine cycles and advanced exergy analysis of the most effective," Energy, Elsevier, vol. 116(P1), pages 701-715.
    5. Lee, Jong Jun & Jeon, Mu Sung & Kim, Tong Seop, 2010. "The influence of water and steam injection on the performance of a recuperated cycle microturbine for combined heat and power application," Applied Energy, Elsevier, vol. 87(4), pages 1307-1316, April.
    6. De Paepe, Ward & Pappa, Alessio & Montero Carrero, Marina & Bricteux, Laurent & Contino, Francesco, 2020. "Reducing waste heat to the minimum: Thermodynamic assessment of the M-power cycle concept applied to micro Gas Turbines," Applied Energy, Elsevier, vol. 279(C).
    7. Xu, Zhen & Lu, Yuan & Wang, Bo & Zhao, Lifeng & Xiao, Yunhan, 2021. "Experimental study on the off-design performances of a micro humid air turbine cycle: Thermodynamics, emissions and heat exchange," Energy, Elsevier, vol. 219(C).
    8. De Paepe, W. & Contino, F. & Delattin, F. & Bram, S. & De Ruyck, J., 2014. "New concept of spray saturation tower for micro Humid Air Turbine applications," Applied Energy, Elsevier, vol. 130(C), pages 723-737.
    9. Kayadelen, Hasan Kayhan & Ust, Yasin, 2017. "Thermodynamic, environmental and economic performance optimization of simple, regenerative, STIG and RSTIG gas turbine cycles," Energy, Elsevier, vol. 121(C), pages 751-771.
    10. Zhang, Qing & He, Ming & Wang, Yuzhang & Weng, Shilie, 2020. "Analysis of air humidification process for humid air turbine cycle with a detailed air humidifier model," Applied Energy, Elsevier, vol. 279(C).
    11. Jonsson, Maria & Yan, Jinyue, 2005. "Humidified gas turbines—a review of proposed and implemented cycles," Energy, Elsevier, vol. 30(7), pages 1013-1078.
    12. Montero Carrero, Marina & De Paepe, Ward & Parente, Alessandro & Contino, Francesco, 2016. "T100 mGT converted into mHAT for domestic applications: Economic analysis based on hourly demand," Applied Energy, Elsevier, vol. 164(C), pages 1019-1027.
    13. Thu, Kyaw & Saha, Bidyut Baran & Chua, Kian Jon & Bui, Thuan Duc, 2016. "Thermodynamic analysis on the part-load performance of a microturbine system for micro/mini-CHP applications," Applied Energy, Elsevier, vol. 178(C), pages 600-608.
    14. De Paepe, Ward & Montero Carrero, Marina & Bram, Svend & Contino, Francesco & Parente, Alessandro, 2017. "Waste heat recovery optimization in micro gas turbine applications using advanced humidified gas turbine cycle concepts," Applied Energy, Elsevier, vol. 207(C), pages 218-229.
    15. Zhang, Qing & He, Ming & Wang, Yuzhang & Weng, Shilie, 2020. "Experimental analysis of the air humidification process for humid air turbine cycle using a two-phase measurement system," Applied Energy, Elsevier, vol. 279(C).
    16. Montero Carrero, Marina & De Paepe, Ward & Bram, Svend & Musin, Frédéric & Parente, Alessandro & Contino, Francesco, 2016. "Humidified micro gas turbines for domestic users: An economic and primary energy savings analysis," Energy, Elsevier, vol. 117(P2), pages 429-438.
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