1. Hsu, F.H., Wang, K., Huang, C.T., and Chang, R.Y. Investigation on conformal cooling system design in injection molding", Advances in Production Engineering & Management, 8(2), pp. 107-115 (2013). 2. Holker, R. Haase, M. Khalifa, N.B., and Takkaya, A. E. Hot extrusion dies with conformal cooling channels produced by additive manufacturing", Aluminum Two Thousand World Congress and International Conference on Extrusion and Benchmark ICEB, pp. 4838- 4846 (2015). 3. Sachs, E., Wylonis, E. Allen, S. Cima, M., and Guo, H. Production of injection moulding tooling with conformal cooling channels using the three dimensional printing process", Polymer Engineering and Science, 40(5), pp. 1237-1247 (2000). 4. Eimsa-ard, K. and Wannisorn, K. Conformal bubbler cooling for molds by metal deposition process", Computer-Aided Design, 69, pp. 126-133 (2015). 5. Wang, Y., Yu, K.M., and Wang, C.C.L. Spiral and conformal cooling in plastic injection molding", Computer-Aided Design, 63, pp. 1-11 (2015). 6. Vojnov_a, E. The bene_ts of a conforming cooling systems the molds in injection moulding process", Procedia Engineering, 149, pp. 535-543 (2016). 7. Venkatesh, G.Y., Ravi, K., and Raghavendra, G. Comparison of straight line to conformal cooling channel in injection molding", Materials Today: Proceedings, 4(2), pp. 1167-1173 (2017). 8. Jahan, A.S. and Mounayri, H. Optimal conformal cooling channels in 3D printed dies for plastic injection molding", Procedia Manufacturing, 5, pp. 888-900 (2016). 9. Park, H. and Dang, X.P. Development of a smart plastic injection mold with conformal cooling channels", Procedia Manufacturing, 10, pp. 48-59 (2017). 10. Wang, G., Zhao, G., Li, H., and Guan, Y. Multiobjective optimization design of the heating/cooling channels of the steam-heating rapid thermal response mold using particle swarm optimization", Int. J. of Thermal Science, 50, pp. 790-802 (2011). 11. Franke, M.M., Hilbinger, R.M., Lohmuller, A., and Singer, R.F. The e_ect of liquid metal cooling on thermal gradients in directional solidi_cation of super alloys: Thermal analysis", Journal of Material Processing Technology, 213, pp. 2081-2088 (2013). 12. Furumoto, T., Ueda, T., Amino, T., Ksunoki, D., Hosokowa, A., and Tanaka, T. Finishing performance of cooling channel with face protuberance inside the molding die", Journal of Material Processing Technology, 212, pp. 2154-2160 (2012). DOI: 10.1016/j.jmatprotec.2012.05.016 13. Khairul, M.A., Alim, M.A., Mahbubul, I.M., Saidur, R., Hepbasli, A., and Hossain, A. Heat transfer performance and exergy analyses of a corrugated plate heat exchanger using metal oxide nanouids", International Communications in Heat and Mass Transfer, 50, pp. 8-14 (2014). 14. Dizaji, H.S., Jafarmadar, S., and Asaadi, S. Experimental exergy analysis for shell and tube heat exchanger made of corrugated shell and corrugated tube", Experimental Thermal and Fluid Science, 81, pp. 475-481 (2017). A. Bolatturk et al./Scientia Iranica, Transactions B: Mechanical Engineering 26 (2019) 3255{3261 3261 15. Ipek, O., Kan, M., and Gurel, B. Examination of di_erent heat exchangers and the thermal activities of di_erent designs", Acta Physica Polonica A, 132(3), pp. 580-583 (2017). 16. Kan, M., Ipek, O., and Gurel, B. Plate heat exchangers as a compact design and optimization of di_erent channel angles", Acta Physica Polonica A, 128(2B), pp. B-49 B-52 (2015). 17. Karaail, R. and Ozturk, I. T. Thermoeconomic analyses of steam injected gas turbine cogeneration cycles", Acta Physica Polonica A, 128(2B), pp. B-279 B-281 (2015). 18. Zehtabiyan, R.N., Damirci, D.S., Fazel, Z.M.H., and Sa_ar, A.M. Generalized heat transfer and entropy generation of strati_ed air-water ow in entrance of a mini-channel", Scientia Iranica, B, 24(5), pp. 2406- 2417 (2017). 19. Nouri, B.A. and Seyyed, H.M.H. Numerical analysis of thermally developing turbulent ow in partially _lled porous pipes", Scientia Iranica, B, 22(3), pp. 835-843 (2015). 20. Altinsoy, _I., C_ elebi Efe, G.F., Yener, T., onder, K.G., and Bindal, C. E_ect of double stage nitriding on 34CrAlNi7-10 nitriding steel", Acta Physica Polonica A, 132, pp. 663-666 (2017). 21. Arunkumar, S., Rao, K.S., and Kumar, T.P. Spatial variation of heat ux at the metal-mold interface due to mold _lling e_ects in gravity die-casting", Int. J. of Heat and Mass Transfer, 51(11), pp. 2676-2685 (2008). 22. Hallam, C.P. and Gri_ths, W.D. A model of the interfacial heat-transfer coe_cient for the aluminum gravity die-casting process", Metallurgical and Materials Transactions B, 35(4), pp. 721-733 (2004). 23. Imran, A.A., Nabeel, S.M., and Hayder, M.J. Numerical and experimental investigation of heat transfer in liquid cooling serpentine mini-channel heat sink with di_erent new con_guration models", Thermal Science and Engineering Progress, 6, pp. 128-139 (2018). 24. Fluent, Version 16.1 User's Guide, Fluent Inc., Lebanon (NH) (2016). 25. Klein, S.A. Engineering Equation Solver (EES)", Academic Commercial1. Hsu, F.H., Wang, K., Huang, C.T., and Chang, R.Y. Investigation on conformal cooling system design in injection molding", Advances in Production Engineering & Management, 8(2), pp. 107-115 (2013). 2. Holker, R. Haase, M. Khalifa, N.B., and Takkaya, A. E. Hot extrusion dies with conformal cooling channels produced by additive manufacturing", Aluminum Two Thousand World Congress and International Conference on Extrusion and Benchmark ICEB, pp. 4838- 4846 (2015). 3. Sachs, E., Wylonis, E. Allen, S. Cima, M., and Guo, H. Production of injection moulding tooling with conformal cooling channels using the three dimensional printing process", Polymer Engineering and Science, 40(5), pp. 1237-1247 (2000). 4. Eimsa-ard, K. and Wannisorn, K. Conformal bubbler cooling for molds by metal deposition process", Computer-Aided Design, 69, pp. 126-133 (2015). 5. Wang, Y., Yu, K.M., and Wang, C.C.L. Spiral and conformal cooling in plastic injection molding", Computer-Aided Design, 63, pp. 1-11 (2015). 6. Vojnov_a, E. The bene_ts of a conforming cooling systems the molds in injection moulding process", Procedia Engineering, 149, pp. 535-543 (2016). 7. Venkatesh, G.Y., Ravi, K., and Raghavendra, G. Comparison of straight line to conformal cooling channel in injection molding", Materials Today: Proceedings, 4(2), pp. 1167-1173 (2017). 8. Jahan, A.S. and Mounayri, H. Optimal conformal cooling channels in 3D printed dies for plastic injection molding", Procedia Manufacturing, 5, pp. 888-900 (2016). 9. Park, H. and Dang, X.P. Development of a smart plastic injection mold with conformal cooling channels", Procedia Manufacturing, 10, pp. 48-59 (2017). 10. Wang, G., Zhao, G., Li, H., and Guan, Y. Multiobjective optimization design of the heating/cooling channels of the steam-heating rapid thermal response mold using particle swarm optimization", Int. J. of Thermal Science, 50, pp. 790-802 (2011). 11. Franke, M.M., Hilbinger, R.M., Lohmuller, A., and Singer, R.F. The e_ect of liquid metal cooling on thermal gradients in directional solidi_cation of super alloys: Thermal analysis", Journal of Material Processing Technology, 213, pp. 2081-2088 (2013). 12. Furumoto, T., Ueda, T., Amino, T., Ksunoki, D., Hosokowa, A., and Tanaka, T. Finishing performance of cooling channel with face protuberance inside the molding die", Journal of Material Processing Technology, 212, pp. 2154-2160 (2012). DOI: 10.1016/j.jmatprotec.2012.05.016 13. Khairul, M.A., Alim, M.A., Mahbubul, I.M., Saidur, R., Hepbasli, A., and Hossain, A. Heat transfer performance and exergy analyses of a corrugated plate heat exchanger using metal oxide nanouids", International Communications in Heat and Mass Transfer, 50, pp. 8-14 (2014). 14. Dizaji, H.S., Jafarmadar, S., and Asaadi, S. Experimental exergy analysis for shell and tube heat exchanger made of corrugated shell and corrugated tube", Experimental Thermal and Fluid Science, 81, pp. 475-481 (2017). A. Bolatturk et al./Scientia Iranica, Transactions B: Mechanical Engineering 26 (2019) 3255{3261 3261 15. Ipek, O., Kan, M., and Gurel, B. Examination of di_erent heat exchangers and the thermal activities of di_erent designs", Acta Physica Polonica A, 132(3), pp. 580-583 (2017). 16. Kan, M., Ipek, O., and Gurel, B. Plate heat exchangers as a compact design and optimization of di_erent channel angles", Acta Physica Polonica A, 128(2B), pp. B-49 B-52 (2015). 17. Karaail, R. and Ozturk, I. T. Thermoeconomic analyses of steam injected gas turbine cogeneration cycles", Acta Physica Polonica A, 128(2B), pp. B-279 B-281 (2015). 18. Zehtabiyan, R.N., Damirci, D.S., Fazel, Z.M.H., and Sa_ar, A.M. Generalized heat transfer and entropy generation of strati_ed air-water ow in entrance of a mini-channel", Scientia Iranica, B, 24(5), pp. 2406- 2417 (2017). 19. Nouri, B.A. and Seyyed, H.M.H. Numerical analysis of thermally developing turbulent ow in partially _lled porous pipes", Scientia Iranica, B, 22(3), pp. 835-843 (2015). 20. Altinsoy, _I., C_ elebi Efe, G.F., Yener, T., onder, K.G., and Bindal, C. E_ect of double stage nitriding on 34CrAlNi7-10 nitriding steel", Acta Physica Polonica A, 132, pp. 663-666 (2017). 21. Arunkumar, S., Rao, K.S., and Kumar, T.P. Spatial variation of heat ux at the metal-mold interface due to mold _lling e_ects in gravity die-casting", Int. J. of Heat and Mass Transfer, 51(11), pp. 2676-2685 (2008). 22. Hallam, C.P. and Gri_ths, W.D. A model of the interfacial heat-transfer coe_cient for the aluminum gravity die-casting process", Metallurgical and Materials Transactions B, 35(4), pp. 721-733 (2004). 23. Imran, A.A., Nabeel, S.M., and Hayder, M.J. Numerical and experimental investigation of heat transfer in liquid cooling serpentine mini-channel heat sink with di_erent new con_guration models", Thermal Science and Engineering Progress, 6, pp. 128-139 (2018). 24. Fluent, Version 16.1 User's Guide, Fluent Inc., Lebanon (NH) (2016). 25. Klein, S.A. Engineering Equation Solver (EES)", Academic Commercial V8.208.F-Chart Software, www.fChart.com (2008).
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