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The influence of diversified forward sweep heights on operating range and performance of an ultra-high-load low-reaction transonic compressor rotor

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  • Sun, Shijun
  • Wang, Songtao
  • Chen, Shaowen

Abstract

To provide a guideline for the optimal selection of forward sweep height (FSH) in terms of operating range and performance, numerical simulations are utilized to investigate the effects of different FSHs on a new-type low-reaction ultra-high-load compressor rotor. The results illustrate that it is an effective measure to amplify stall margin improvement (SMI) by adequately increasing FSH (no more than 50% span). Nonetheless, when FSH exceeds 50% span, there appears a drop in SMI. Both total pressure ratio (TPR) and peak efficiency (PE) demonstrate a continual downward trend with increasing FSH. It is noteworthy that compared with the unswept rotor, forward sweep enhances stall margin in all rotors but reduces PE and the corresponding TPR when FSH is more than 50% span. There exists an optimal FSH (50% span) that could maximize SMI (15.12%) and simultaneously achieve a negligible performance change at PE condition. A deep insight into the flow field reveals that as FSH increases, the shock gradually migrates downstream and the separation bubble on suction side shrinks at PE point and shortens in streamwise direction near stall. If FSH continually increases above 50% span, SMI brought by the change in shock structure and tip leakage flow will drop.

Suggested Citation

  • Sun, Shijun & Wang, Songtao & Chen, Shaowen, 2020. "The influence of diversified forward sweep heights on operating range and performance of an ultra-high-load low-reaction transonic compressor rotor," Energy, Elsevier, vol. 194(C).
    • Handle: RePEc:eee:energy:v:194:y:2020:i:c:s0360544219325526
    DOI: 10.1016/j.energy.2019.116857
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    References listed on IDEAS

    as
    1. Li, Zhihui & Liu, Yanming, 2017. "Blade-end treatment for axial compressors based on optimization method," Energy, Elsevier, vol. 126(C), pages 217-230.
    2. Wojcik, Jacek D. & Wang, Jihong, 2018. "Feasibility study of Combined Cycle Gas Turbine (CCGT) power plant integration with Adiabatic Compressed Air Energy Storage (ACAES)," Applied Energy, Elsevier, vol. 221(C), pages 477-489.
    3. Haisheng Chen & Xinjing Zhang & Jinchao Liu & Chunqing Tan, 2013. "Compressed Air Energy Storage," Chapters, in: Ahmed F. Zobaa (ed.), Energy Storage - Technologies and Applications, IntechOpen.
    4. Guo, Huan & Xu, Yujie & Chen, Haisheng & Zhang, Xinjing & Qin, Wei, 2018. "Corresponding-point methodology for physical energy storage system analysis and application to compressed air energy storage system," Energy, Elsevier, vol. 143(C), pages 772-784.
    5. Benini, Ernesto & Biollo, Roberto, 2007. "Aerodynamics of swept and leaned transonic compressor-rotors," Applied Energy, Elsevier, vol. 84(10), pages 1012-1027, October.
    6. Budt, Marcus & Wolf, Daniel & Span, Roland & Yan, Jinyue, 2016. "A review on compressed air energy storage: Basic principles, past milestones and recent developments," Applied Energy, Elsevier, vol. 170(C), pages 250-268.
    7. Guo, Cong & Xu, Yujie & Zhang, Xinjing & Guo, Huan & Zhou, Xuezhi & Liu, Chang & Qin, Wei & Li, Wen & Dou, Binlin & Chen, Haisheng, 2017. "Performance analysis of compressed air energy storage systems considering dynamic characteristics of compressed air storage," Energy, Elsevier, vol. 135(C), pages 876-888.
    8. Du, Juan & Li, Yiwen & Li, Zhihui & Li, Jichao & Wang, Zinan & Zhang, Hongwu, 2019. "Performance enhancement of industrial high loaded gas compressor using Coanda jet flap," Energy, Elsevier, vol. 172(C), pages 618-629.
    9. Tian, Zhitao & Zheng, Qun & Liu, Pengfei & Malik, Adil & Jiang, Bin, 2019. "Effect of shroud end wall structure on tip leakage flow in highly loaded helium compressor rotor," Energy, Elsevier, vol. 179(C), pages 1114-1123.
    10. Bass, Robert J. & Malalasekera, Weeratunge & Willmot, Peter & Versteeg, Henk K., 2011. "The impact of variable demand upon the performance of a combined cycle gas turbine (CCGT) power plant," Energy, Elsevier, vol. 36(4), pages 1956-1965.
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