NiCrW--BN气路封严涂层的可刮削性评价

材料研究学报

2010, Vol. 24

Issue (4): 406-410

研究论文

本期目录 | 过刊浏览

NiCrW--BN气路封严涂层的可刮削性评价

刘夙伟, 刘阳, 李曙, 高禩洋, 王鹏

中国科学院金属研究所沈阳 110016

Abradability Evaluation of NiCrW–BN Gas Path Seal Coating

LIU Suwei, GAO Siyang, LI Shu, LIU Yang, WANG Peng

Institute of Metal Research, Chinese Academy of Sciences, Shenyang 110016

引用本文:

刘夙伟刘阳李曙高禩洋王鹏. NiCrW--BN气路封严涂层的可刮削性评价[J]. 材料研究学报, 2010, 24(4): 406-410.
, , , , . Abradability Evaluation of NiCrW–BN Gas Path Seal Coating[J]. Chin J Mater Res, 2010, 24(4): 406-410.

全文: PDF(748 KB)

摘要:

用销--盘、单摆冲击划痕和高速刮擦三种试验方法, 研究了两种NiCrW--BN封严涂层的可刮削性。结果表明: 封严涂层的可刮削性不同于耐磨性, 即涂层的磨损量、比能耗和硬度等测量结果, 不能单独作为其可刮削性的评价判据; 评价封严涂层的可刮削性, 应该综合涂层磨损、叶片磨损、摩擦系数和磨痕形貌等多方面的信息。封严涂层的可刮削性能受试验条件的影响十分明显, 高速刮擦试验可模拟涂层工作参数(刮擦线速度、入侵速率等), 可能重现其磨损现象, 因此采用高速刮擦试验方法评价封严涂层的可刮削性更为合理。

关键词 ：复合材料 , 可刮削性 , 高速刮擦法 , 封严涂层 , 可刮削

Abstract：

The abradability of two NiCrW–BN seal coatings processed by different heat treatments were observed by pin–disk, single–pass scratching, and high–speed wear tests. The results show that seal coating abradability is different from its wear– resistance, i.e. measuring of wear loss, wear–resistance, specific energy consumption and hardness, can not be used as abradability criterion. Coating abradability evaluation should be composed of extensive information, such as coating and blade wear loss, friction coefficient, wear topography. Seal coating abradability is obviously influenced by test condition, while high–speed rubbing test can simulate working variables of seal coating, such as rub linear speed, incursion velocity, probably reproduce its wear phenomena. Therefore the adoption of high–speed test to evaluate seal coating abradability is more reasonable.

Key words： composites abradability high–speed rubbing test seal coating abradable

收稿日期: 2010-04-09

ZTFLH:

TG174

基金资助:

国家自然科学基金50675215资助项目。

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[1] J. T. DeMasi-marcin, D. K. Gupta, Protective coatings in the gas turbine engine, Surface & Coatings Technology, 68-69(1-3), 1 (1994) [2] LIU Suwei, LI Shu, LIU Yang, Seal coating and evaluation of its abradability, China Surface Engineering, 22(1), 12(2009) (刘夙伟, 李曙, 刘阳, 封严涂层材料及其可刮削性的评价, 中国表面工程, 22(1), 12(2009) [3] A. F. Emery, J. Wolak, S. Etemad, S. R. Choi, An experimental investigationof temperatures due to rubbing at the blade–seal interface in an aircraft compressor, Wear, 91(2) , 117(1983) [4] M. O. Borel, A. R. Nicoll, H. W. Sch?pfer, R. K. Schmid, The wear mechanisms occurring in abradable seals of gas turbines, Surface & Coatings Technology, 39-40(1-3), 117(1989) [5] D. E. Chappel, L. Vo, H. W. Howe, in: The International Gas Turbine & Aeroengine Congress & Exhibition, Gas path blade tip seals: abradable seal material testing at utility gas and steam turbine operating conditions(New Orleans, USA, ASME, 2001)p.1 [6] K. Hajmrle, P. Fiala, A. P. Chilkowich, L. T. Shiembob, in: ASME Turbo Expo.(vol. 4), Abradable seals for gas turbines and other rotary equipment(Vienna, Australia, ASME, 2004) p.673 [7] F. E. Kennedy, N. P. Hine, Single-pass rub testing of abradable seal materials, Journal of the ASLE, 38(9): 557(1982) [8] Y. N. Liang, S. Z. Li, S. Li, Evaluation of abradability of porous seal materials in a single pendulum scratch device, Wear, , 177(2), 167(1994) [9] R. C. Bill, L. P. Ludwig, Wear of seal materials used in aircraft propulsion system, Wear, , 59(1), 165(1980 [10] W. F. Laverty, Rub energetics of compressor blade tip seals, Wear, 75(1), 1 (1982) [11] E. Novinski, J. Harrington, J. Klein, Modified zirconia abradable seal coating for high temperature gas turbine applications, Thin Solid Films, 95, 255(1982) [12] YI Maozhong, ZHANG Xianlong, HU Naisai, HE Jiawen, Abradability evaluation of seal coating by impact-scraping test machine, Acta Aeronautica et Astronautica Sinica, 20(3), 249(1999) (易茂中, 张先龙, 胡奈赛, 何家文, 冲击刮削法评价封严涂层的可磨耗性, 航空学报, 20(3), 249(1999)) [13] M. Z. Yi, J. W. He, B. Y. Huang, H. J. Zhou. Friction and wear behavior and abradability of abradable seal coating, Wear, 231(1), 47(1999) [14] G. Barbezat, R. Clarke, A. R. Nicoll, in: Proceedings of the international symposium on tribology(Vol.2), The importance of tribology in the development and application of abradable plasma sprayed coatings for aircraft engines, edited by Y. S. Jin(Beijing, China, International Academic Publishers, 1993)p.756

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