[1] Buzzard, W.C., et al., (2017) Influences of target surface small-scale rectangle roughness on impingement jet array heat transfer. Int. J. Heat Mass Tra,. 110: p. 805-816.
[2] El-Gabry, L.A. and D.A. Kaminski, (2005) Experimental investigation of local heat transfer distribution on smooth and roughened surfaces under an array of angled impinging jets.
[3] Xing, Y., S. Spring, and B. Weigand, (2011) Experimental and numerical investigation of impingement heat transfer on a flat and micro-rib roughened plate with different crossflow schemes. Int. J. Therm. Sci., 50(7): p. 1293-1307.
[4] Florschuetz, L.W., R. Berry, and D. Metzger, (1980) Periodic streamwise variations of heat transfer coefficients for inline and staggered arrays of circular jets with crossflow of spent air.
[5] Florschuetz, L., C. Truman, and D. Metzger. Streamwise (1981) flow and heat transfer distributions for jet array impingement with crossflow. in Turbo Expo: Power for Land, Sea, and Air. American Society of Mechanical Engineers.
[6] Han, B. and R.J. Goldstein, (2001) Jet‐impingement heat transfer in gas turbine systems. Annals of the New York Academy of Sciences, 934(1): p. 147-161.
[7] Weigand, B. and S. Spring. (2009) Multiple jet impingement− a review. in TURBINE-09. Proceedings of international symposium on heat transfer in gas turbine systems. Begel House Inc.
[8] Spring, S., Y. Xing, and B. Weigand, (2012) An experimental and numerical study of heat transfer from arrays of impinging jets with surface ribs.
[9] Brakmann, R., et al., (2016) Experimental and numerical heat transfer investigation of an impinging jet array on a target plate roughened by cubic micro pin fins. J. Turbomachinery, 138(11): p. 111010.
[10] Andrews, G.E., R. Abdul Hussain, and M. Mkpadi, (2003) Enhanced impingement heat transfer: Comparison of co-flow and cross-flow with rib turbulators. Proceedings of IGTC2003.
[11] Son, C., P. Ireland, and D. Gillespie.(2005) The effect of roughness element fillet radii on the heat transfer enhancement in an impingement cooling system. in Turbo Expo: Power for Land, Sea, and Air.
[12] Terzis, A., (2016) On the correspondence between flow structures and convective heat transfer augmentation for multiple jet impingement. Experiments in Fluids: p. 1-14.
[13] Terzis, A., et al., (2016) Aerothermal investigation of a single row divergent narrow impingement channel by particle image velocimetry and liquid crystal thermography. J. Turbomachinery, 138(5): p. 051003.
[14] Terzis, A., et al., (2014) Detailed heat transfer distributions of narrow impingement channels for cast-in turbine airfoils. J. Turbomachinery, 136(9): p. 091011.
[15] Mazaheri, K., M. Zeinalpour, and H. Bokaei, (2016)Turbine blade cooling passages optimization using reduced conjugate heat transfer methodology. Applied Thermal Engineering, 103: p. 1228-1236.
[16] Mazaheri, K., H.R. Bokaei, and M. Zeinalpour, (2015) Multi-objective optimization of internal cooling passages for a turbine blade. Modares Mechanical Engineering,. 15(8): p. 351-359.
[17] Flynt, G.A., K. Sreenivas, and R.S. Webster, (2013) Computation of heat transfer in turbine rotor blade cooling channels with angled rib turbulators, THE UNIVERSITY OF TENNESSEE AT CHATTANOOGA.
[18] Ruiz, J.D., (2008) Thermal design optimization of multi-passage internally cooled turbine blades. ProQuest.
[19] Munson, B., D. Young, and T. Okiishi, (1998) Fundamentals of fluid mechanics.
[20] Xing, Y., S. Spring, and B. Weigand, (2010) Experimental and numerical investigation of heat transfer characteristics of inline and staggered arrays of impinging jets.
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