Investigation on Cooling Effectiveness and Flow Resistance of Inlet Fogging Location in Gas Turbine Inlet Duct

被引:0
|
作者
Zhang, Hai [1 ]
Jiang, Bin [1 ]
Zheng, Qun [1 ]
Chaker, Mustapha [2 ]
机构
[1] Harbin Engn Univ, Harbin 150001, Peoples R China
[2] CB&I, Houston, TX 77072 USA
关键词
Inlet fogging cooling; Nozzle frame; Pressure drop;
D O I
暂无
中图分类号
TH [机械、仪表工业];
学科分类号
0802 ;
摘要
The output power and efficiency of gas turbines are reduced significantly during the hot weather, particularly in areas where the daytime temperature reaches as high as 50 degrees C. Gas turbine inlet fogging and overspray has been considered a efficient and cost-effective method to augment the power output. Therefore, the evaporation effect and the flow resistance performance in the inlet duct after the inlet fogging applied are the objectives of this paper. The nozzles array mounted on channels and beams, and they have effects on the pressure drop. Installation site of the fogging nozzles which is relative to the silencers also have impact on the effectiveness of evaporation and cooling. For research the evaporative cooling effect in the duct, the whole inlet duct is meshed in this research to compute the pressure drop through the nozzles frames under fogging and none fogging conditions with CFD method. The results indicate that injection velocity and arrangement of nozzles have significant effects on the pressure drops and cooling effect, which will affect compressor performance. Gas turbine is sensitive not only to the inlet temperature, but also to the inlet pressure drop. This paper provides a comprehensive analysis of the pressure drop and evaporation of inlet fogging and will be of values to gas turbine inlet fogging system designers and users.
引用
收藏
页数:9
相关论文
共 50 条
  • [31] INLET AIR FOGGING OF MARINE GAS TURBINE IN POWER OUTPUT LOSS COMPENSATION
    Domachowski, Zygfryd
    Dzida, Marek
    POLISH MARITIME RESEARCH, 2015, 22 (04) : 53 - 58
  • [32] Technical performance and cost-effectiveness of gas turbine inlet air cooling systems
    Department of Architectural Science and Technology, Qinghua University, Beijing 100084, China
    Reneng Dongli Gongcheng, 2006, 3 (231-234):
  • [33] Analysis of gas turbine operating parameters with inlet fogging and wet compression processes
    Sanaye, Sepehr
    Tahani, Mojtaba
    APPLIED THERMAL ENGINEERING, 2010, 30 (2-3) : 234 - 244
  • [34] Numerical Analysis of Gas Turbine Inlet Fogging Nozzle Manifold Pressure Drop
    Zhang, Hai
    Zheng, Qun
    Chaker, Mustapha
    Meher-Homji, Cyrus
    PROCEEDINGS OF THE ASME TURBO EXPO: TURBINE TECHNICAL CONFERENCE AND EXPOSITION, 2014, VOL 3A, 2014,
  • [35] Turbine inlet air cooling
    Stewart Jr., William E.
    ASHRAE Journal, 1998, 40 (09):
  • [36] Turbine inlet air cooling
    Stewart, WE
    ASHRAE JOURNAL-AMERICAN SOCIETY OF HEATING REFRIGERATING AND AIR-CONDITIONING ENGINEERS, 1998, 40 (09): : 32 - +
  • [37] EFFECT OF WATER TEMPERATURE ON THE PERFORMANCE OF GAS TURBINE INLET AIR-FOGGING SYSTEMS
    Chaker, Mustapha A.
    Meher-Homji, Cyrus B.
    PROCEEDINGS OF THE ASME TURBO EXPO: TURBINE TECHNICAL CONFERENCE AND EXPOSITION, 2013, VOL 5A, 2013,
  • [38] Simulation of mist transport for gas turbine inlet air cooling
    Wang, Ting
    Li, Xianchang
    Pinninti, Venu
    NUMERICAL HEAT TRANSFER PART A-APPLICATIONS, 2008, 53 (10) : 1013 - 1036
  • [39] On the effect of swirl flow of gas turbine exhaust gas in an inlet duct of heat recovery steam generator
    Lee, BE
    Kwon, SB
    Lee, CS
    JOURNAL OF ENGINEERING FOR GAS TURBINES AND POWER-TRANSACTIONS OF THE ASME, 2002, 124 (03): : 496 - 502
  • [40] Rational Designing of Gas Turbine Inlet Air Cooling System
    Radchenko, Andrii
    Bohdal, Lukasz
    Zongming, Yang
    Portnoi, Bohdan
    Tkachenko, Veniamin
    ADVANCED MANUFACTURING PROCESSES (INTERPARTNER-2019), 2020, : 591 - 599