[1] R.E. Johnston, Mechanical characterisation of AlSi-hBN, NiCrAl-Bentonite, and NiCrAl -Bentonite-hBN freestanding abradable coatings, Surface & Coatings Technology, 205(2011)3268–73.
[2] D. Sporer, S. Wilson and M. Dorfman, Ceramics for Abradable Shroud Seal Applications, 33rd International Conference on Advanced Ceramics and Composites, January (2009)
[3] R. Rajendran, Gas turbine coatings– An overview, Engineering Failure Analysis, 26(2012)355–69.
[4] M. Yi, J. He, B. Huang, H. Zhou, Friction and wear behaviour and abradability of abradable seal coating, Wear, 231(1999)47–53.
[6] YI. Maozhong, H. Baiyun, H. Jiawen, Erosion, wear behaviour and model of abradable seal coating, Wear, 252(2002)9–15.
[7] S. Ebert, R. Mucke, D. Mack,
R. Vaben, D. Stover, T. Wobst, S. Gebhard,
Failure mechanisms of magnesia alumina spinel abradable coatings under thermal cyclic loading, the European Ceramic Society, 33(2013)3335–3343.
[8] U. Bardi, C. Giolli, A. Scrivani, G. Rizzi, F. Borgioli, A. Fossati, K. Partes, T. Seefeld, D. Sporer and A. Refke, Development and Investigation on New Composite and Ceramic Coatings as Possible Abradable Seals, Thermal Spray Technology, 17(2008)805-11.
[9] X. Ren, S. Guo, M. Zhao, W. Pan, Thermal conductivity and mechanical properties of YSZ/LaPO4 composites, Materials Science, 49(2014)2243–51.
[10] S.M. Forghani, M.J. Ghazali, A. Muchtar, A.R. Daud, N.H.N. Yusoffc, C.H. Azhari, Effects of plasma spray parameters on TiO2 -coated mild steel using design of experiment (DoE) approach, Ceramics International, 39(2013)3121–7.
[11] D. Thirumalaikumarasamy, K. Shanmugama, V. Balasubramanian, Influences of atmospheric plasma spraying parameters on the porosity level of alumina coating on AZ31B magnesium alloy using response surface methodology, Progress in Natural Science, 22(2012)468–79.
[12] S. Guessasma, C. Coddet, Neural computation applied to APS spray process: porosity analysis, Surface and Coatings Technology, 197(2005)85–92.
[13] A. Scrivani, G. Rizzi, C.C. Berndt, Enhanced thick thermal barrier coatings that exhibit varying porosity, Materials Science and Engineering A, 476(2008)1–7.
[14] R. Kingswell, K.T. Scott and L.L. Wassell, Optimizing the Vacuum Plasma Spray Deposition of Metal, Ceramic and Cermet Coatings Using Designed Experiments, Thermal Spray Technology, 2(1993)179-86.
[15] Y. Wang and T.W. Coyle, Optimization of Solution Precursor Plasma Spray Process by Statistical Design of Experiment, Thermal Spray Technology, 17(2008)692-9.
[16] C.S. Ramachandran, V. Balasubramanian, and P.V. Ananthapadmanabhan, Multiobjective Optimization of Atmospheric Plasma Spray Process Parameters to Deposit Yttria-Stabilized Zirconia Coatings Using Response Surface Methodology, Thermal Spray Technology, 20(2011)590-607.
[17] S. Karthikeyan, V. Balasubramanian, R. Rajendran, Developing empirical relationships to estimate porosity and microhardness of plasma-sprayed YSZ coatings, Ceramics International, 40(2014)3171–83.
[18] T. Troczynski and M. Plamondon, Response Surface Methodology for Optimization of Plasma Spraying, Thermal Spray Technology, 4(1992)293-300.
[19] T. Steinke, G. Mauer, R. Vaben, D. Stover, D. R. Fagaraseanu and M. Hancock, Process Design and Monitoring for Plasma Sprayed Abradable Coatings, Thermal Spray Technology, 19(2010)756-64.
[20] F. Madadi, F. Ashrafizadeh, M. Shamanian, Optimization of pulsed TIG cladding process of stellite alloy on carbon steel using RSM, Alloys and Compounds, 510(2012)71-7.
)