Electrothermal Ice Protection Systems De-Icing: An Experimentally Validated Idealized Ice Shedding Model

被引:0
|
作者
Enache, Adriana [1 ,2 ,5 ,6 ]
Bernay, Bruno [3 ]
Glabeke, Gertjan [2 ,7 ]
Planquart, Philippe [2 ]
van Beeck, Jeroen [2 ,7 ]
Hendrick, Patrick [4 ,5 ]
机构
[1] Free Univ Brussels, Brussels, Belgium
[2] Von Karman Inst Fluid Dynam, B-1640 Rhode St Genese, Belgium
[3] Sonaca Grp, B-6041 Gosselies, Belgium
[4] Free Univ Brussels, B-1050 Brussels, Belgium
[5] Free Univ Brussels, Aerothermo Mech Dept & Environm, Brussels, Belgium
[6] Free Univ Brussels, Appl Fluid Dynam Dept, Brussels, Belgium
[7] Von Karman Inst Fluid Dynam, Environm & Appl Fluid Dynam Dept, B-1640 Rhode St Genese, Belgium
关键词
Ice Protection System; Aviation; Energy Consumption; Aerodynamic Force; Flow Visualization Techniques; Convective Boundary Condition; Icing Wind Tunnel; De-Icing; Phase Transition; NUMERICAL-SIMULATION; WIND; AVIATION;
D O I
10.2514/1.J062256
中图分类号
V [航空、航天];
学科分类号
08 ; 0825 ;
摘要
The increased use of electrothermal ice protection systems (ETIPSs) in various industries (manned and unmanned aviation, energy production) requires improvements to de-icing efficiency, ice shedding predictability, and energy consumption. To achieve these, a coupled numerical and experimental investigation of ETIPS's ice removal (ice shedding) mechanism is presented in this paper. Idealized ETIPS de-icing experiments performed in the icing wind tunnel of the von Karman Institute show several ice shedding mechanisms. A one-dimensional phase change solver developed for ice melting simulations highlights the water layer thickness influence over the ice shedding process. Coupled numerical-experimental results are employed to develop an idealized ice shedding model. The model is validated in realistic de-icing experiments in a second experimental campaign in the icing wind tunnel of the LeClerc Icing Research Laboratory.
引用
收藏
页码:2526 / 2551
页数:26
相关论文
共 50 条
  • [1] FENSAP-ICE: Unsteady Conjugate Heat Transfer Simulation of Electrothermal De-Icing
    Reid, Thomas
    Baruzzi, Guido S.
    Habashi, Wagdi G.
    JOURNAL OF AIRCRAFT, 2012, 49 (04): : 1101 - 1109
  • [2] Modeling and Analysis of Progressive Ice Shedding along a Transmission Line during Thermal De-Icing
    Xie, Yunyun
    Huang, Linyan
    Wang, Da
    Ding, Huaiping
    Yin, Xiaochun
    MATHEMATICAL PROBLEMS IN ENGINEERING, 2019, 2019
  • [3] A NEW MELTING MODEL IN ELECTROTHERMAL DE-ICING SIMULATION
    Lei, Guilin
    Dong, Wei
    Zhu, JianJun
    Zheng, Mei
    ASME TURBO EXPO: TURBINE TECHNICAL CONFERENCE AND EXPOSITION, 2015, VOL 5A, 2015,
  • [4] Damage accumulation model of ice detach behavior in ultrasonic de-icing technology
    Wang, Yibing
    Xu, Yuanming
    Su, Fei
    RENEWABLE ENERGY, 2020, 153 : 1396 - 1405
  • [5] Ultrasonic De-Icing Bondline Design and Rotor Ice Testing
    Overmeyer, Austin
    Palacios, Jose
    Smith, Edward
    AIAA JOURNAL, 2013, 51 (12) : 2965 - 2976
  • [6] De-icing: recovery of diffraction intensities in the presence of ice rings
    Chapman, Michael S.
    Somasundaram, Thayumanasamy
    ACTA CRYSTALLOGRAPHICA SECTION D-BIOLOGICAL CRYSTALLOGRAPHY, 2010, 66 : 741 - 744
  • [7] Instantaneous De-Icing of Freezer Ice via Ultrasonic Actuation
    Palacios, Jose
    Smith, Edward
    Rose, Joseph
    Royer, Roger
    AIAA JOURNAL, 2011, 49 (06) : 1158 - 1167
  • [8] Electromechanical ice protection system: De-icing capability prediction considering impedance matching effect
    Miao, B.
    Yuan, L.
    Zhu, C.L.
    Aeronautical Journal, 2024,
  • [9] Electromechanical ice protection system: de-icing capability prediction considering impedance matching effect
    Miao, B.
    Yuan, L.
    Zhu, C. L.
    AERONAUTICAL JOURNAL, 2024,
  • [10] The thin ice layer brittle fracture stress model and de-icing angle optimization
    Zhang, Chenghu
    Lin, Jiyou
    Chen, Pengfei
    Fu, Yan
    9TH INTERNATIONAL SYMPOSIUM ON HEATING, VENTILATION AND AIR CONDITIONING (ISHVAC) JOINT WITH THE 3RD INTERNATIONAL CONFERENCE ON BUILDING ENERGY AND ENVIRONMENT (COBEE), 2015, 121 : 1296 - 1303