王建华
一、联系方式
单位：中国科学技术大学工程科学学院
热科学和能源工程系
地址：合肥市金寨路96号
邮编：230027
电话：
传真：
电子邮件：jhwang@ustc.edu.cn

二、学历及学位
78.02-82.02 合肥工业大学，精密机械工程系，工学学士
83.09-86.07 哈尔滨工业大学，动力工程系，工学硕士
98.02-02.12 德国斯图加特大学，能源工程学院，热流体机械研究所，工学博士（Dr.-Ing.）

三、主要海外留学及工作经历
92.02-93.08德国宇航院哥庭根流体力学研究所，从事实验流体力学先进测量技术研究，中科院访问****
96.06-96.12香港城市大学，从事数学模型和数值计算方法研究，资深助理研究员（SR）
98.04-02.12德国斯图加特大学，热流体机械研究所，从事强化冷却技术实验研究，全职研究伙伴 (Wissenschaftliche Mitarbeiterin BatA2)

四、近年来研究方向
1 ）多孔介质传热传质过程的数学模型、数值模拟方法及实验技术研究
2 ）空天飞行器主动热防护技术及相关材料/结构设计问题研究
3 ）强化冷却结构多场耦合问题实验技术及数值模拟方法研究
4 ）现代化光学诊断及数字图像处理技术在热物理量测量方面的应用
5 ）新能源、洁净能源基础理论及应用技术研究

五、教学经历
1）基础流体力学
2）传热及流动过程的数值计算方法
3）气体动力学
4）热过程的数值模拟
5）传热传质学（双语课）

六、主要社会工作
《航空动力学报》编辑委员会成员
Committee Member of ASME/HTD Gas Turbine Heat Transfer (K-14)
Committee Member of ASME/IGTI Heat Transfer

七、公开发表的代表性论文
杂志论文
[1] Ran Yao, Jianhua Wang*, Ming Wang, Lei Wang, Influence of flat endwall simplification in gas turbines on cooling performance, International Journal of Heat and Mass Transfer, 130(2019) 1226-1237.
[2] Hao Su, Jianhua Wang*, Fei He*, Liang Chen, Bangcheng Ai, Numerical investigation on transpiration cooling with coolant phase change under hypersonic conditions, International Journal of Heat and Mass Transfer, 129(2019) 480-490.
[3] Nan Wu, Jianhua Wang*, Fei He, Liang Chen, Bangcheng Ai, Optimization transpiration cooling of nose cone with non-uniform permeability, International Journal of Heat and Mass Transfer, 127(2018) 882-891.
[4] Nan Wu, Jianhua Wang*, Wenjie Dong, Rui Ding, An experimental investigation on combined sublimation and transpiration cooling for sintered porous plates, International Journal of Heat and Mass Transfer, 116(2018)685-693.
[5] Jianhua Wang*, Lianjin Zhao, Xiaochun Wang, Jie Ma, Jia Lin, An Experimental Investigation on Transpiration Cooling of Wedge Shaped Nose Cone with Liquid Coolant, International Journal of Heat and Mass Transfer, 75 (2014) 442–449.
[6] Jianhua Wang*, Zhixin Feng, Qian Zhang, Xiangyu Wu, Shiyan Ma, Experimental Investigations on Overall Cooling Effect of Ribbed Channel with Air Bleeds, International Journal of Heat and Mass Transfer, 55 (2012) 4800–4807.
[7] Liu H. C., Wang J. H.*, Numerical Investigation on Synthetical Performances of Fluid Flow and Heat Transfer of Semiattached Rib-channels, International Journal of Heat and Mass Transfer, 54 (2011) 575–583.
[8] Shi J. X., Wang J. H.*, Inverse Problem of Transpiration Cooling for Estimating Wall Heat Flux by LTNE Model and CGM Method, International Journal of Heat and Mass Transfer, (2009)52: 2714-2720.
[9] Kang Qian, Jianhua Wang*, Fei He*, Yadong Wu, Zihe Zhou, An experimental investigation on transpiration cooling performances using solid hydrogel as coolant, Applied Thermal Engineering 158(2019)113753.
[10] Wei Wang, Jian Pu*, Jian-hua Wang*, Wei-long Wu, Ming Wang, An experimental investigation on cooling characteristics of a vane laminated end-wall with axial-row layout of film-holes, Applied Thermal Engineering 148 (2019) 953–962.
[11] Rui Ding, Jianhua Wang*, Fei He*, Guangqi Dong, Longsheng Tang, Numerical investigation on the performances of porous matrix with transpiration and film cooling, Applied Thermal Engineering 146 (2019) 422-431.
[12] Wenjie Dong, Jianhua Wang*, Siyuan Chen, Bangcheng Ai, Xiaoguang Luo, Modelling and investigation on heat transfer deterioration during transpiration cooling with liquid coolant phase-change, Applied Thermal Engineering 128 (2018) 381–392.
[13] Lin Shen, Jianhua Wang*, Numerical investigation on the optimization of local transpiration cooling effectiveness, Applied Thermal Engineering 127 (2017) 58–69.
[14] Zhaoqing Ke, Jianhua Wang*, Conjugate heat transfer simulations of pulsed film cooling on an entire turbine vane, Applied Thermal Engineering, 109 (2016) 600–609.
[15] Lin Shen, Jianhua Wang*, Wenjie Dong, Jian Pu, Jinlong Peng, Dejun Qu, Lianzhong Chen, An experimental investigation on transpiration cooling with phase change under supersonic condition, Applied Thermal Engineering 105 (2016) 549–556.
[16] Zhaoqing Ke, Jianhua Wang*, Numerical investigations of pulsed film cooling on an entire turbine vane, Applied Thermal Engineering, 87 (2015) 117-126.
[17] Fei He, Jianhua Wang*, Lucheng Xu, Xiaochun Wang, Modeling and Simulation of Transpiration Cooling with Phase Change, Applied Thermal Engineering, 58 (2013) 173-180.
[18] Jin-Long Liu, Jian-Hua Wang*, Thermodynamic analysis of a novel tri-generation system based on compressed air energy storage and pneumatic motor, Energy, 91 (2015) 420-429.
[19] Fei He, Jianhua Wang*, Numerical Investigation on Critical Heat Flux and Coolant Volume Required for Transpiration Cooling with Phase Change, Energy Conversion and Management, 80 (2014) 591–597.
[20] Jin-Long Liu, Jian-Hua Wang*, A comparative research of two adiabatic compressed air energy storage systems, Energy Conversion and Management, 108 (2016) 566–578.
[21] Prasert Prapamonthon, Huazhao Xu, Wenshuo Yang, Jianhua Wang*, Numerical Study of the Effects of Thermal Barrier Coating and Turbulence Intensity on Cooling Performances of a Nozzle Guide Vane, Energies 2017, 10, 362.
[22] Xiaochun Wang, Jianhua Wang*, Fei He*, Hong Zhang, Effect of Relative Movement between the Shroud and Blade on Tip Leakage Flow Characteristics, Energies 2017, 10, 1600; doi:10.3390/en**.
[23] Nan Wu, Jianhua Wang*, Fei He*, Guangqi Dong, Longsheng Tang, An experimental investigation on transpiration cooling of a nose cone model with a gradient porosity layout, Experimental Thermal and Fluid Science 106 (2019) 194–201.
[24] Ren-bin Yu, Jian Pu*, Peng Wang, Jian-hua Wang*, Bo Wan, Jian-xia Luo, Shu-qing Tian, Auxiliary hole influence on internal flow characteristics in bend region of a real investment-casting blade coolant channel, Experimental Thermal and Fluid Science,102(2019)123-136.
[25] Hang Su, Jian Pu*, Jian-hua Wang*, Rui-ming Yuan, Yong-xian Luan, Bin-peng Kang, An experimental investigation of cooling characteristics at a vane end-wall with a locally enhanced hole-layout, Experimental Thermal and Fluid Science, 96 (2018)137-145.
[26]Jian Pu, Jian-hua Wang*, Shi-yan Ma, Xiang-yu Wu, An experimental investigation of geometric effect of upstream converging slot-hole on end-wall film cooling and secondary vortex characteristics, Experimental Thermal and Fluid Science 69 (2015) 58–72.
[27] Jian Pu, Jun Yu, Jian-hua Wang*, Wen-shuo Yang, Zhi-qiang Zhang, Lei Wang,An experimental investigation of secondary flow characteristics in a linear turbine cascade with upstream converging slot-holes using TR-PIV, Experimental Thermal and Fluid Science 59 (2014) 56–71.
[28] Jian Pu, Zhao-Qing Ke, Jian-Hua Wang*, Hong-De You, Zhi-Neng Du, An Experimental Investigation on Fluid Flow Characteristics in a Real Coolant Channel of LP Turbine Blade with PIV Technique, Experimental Thermal and Fluid Science 45 (2013) 43–53.
[29] Hao Su, Fei He*, Jianhua Wang*, Nan Wu, Ran Yao, Haitao Hanb Min Chu，Numerical investigation on the characteristics of coolant flow, heat absorption and phase change in transpiration cooling process,International Journal of Thermal Sciences 142 (2019) 68-76.
[30]Lianjin Zhao, Jianhua Wang*, Jie Ma, Jia Lin, Jinlong Peng, Dejun Qu, Lianzhong Chen, An Experimental Investigation on Transpiration Cooling under Supersonic Condition using a Nose Cone Model, International Journal of Thermal Sciences 84 (2014) 207-213.
[31] Shi J. X., Wang J. H., Inverse problem of estimating space and time dependent hot surface heat flux in transient transpiration cooling process, International Journal of Thermal Sciences, (2009)48:1398-1404.
[32] Shi J. X., Wang J. H.*, Optimized Structure of Two Layered Porous Media with Genetic Algorithm for Transpiration Cooling, International Journal of Thermal Sciences, (2008) 47:1595 -1601.
[33] Wang Xu, Xu Huazhao*, Wang Jianhua*, Song Wei, Wang Ming, Multi-objective optimization of discrete film hole arrangement on a high pressure turbine end-wall with conjugate heat transfer simulations, International Journal of Heat and Fluid Flow,78 (2019)108428.
[34] Wenshuo Yang, Jian Pu, Jianhua Wang*, The Combined Effects of an Upstream Ramp and Swirling Coolant Flow on Film Cooling Characteristics, ASME Journal of Turbomachinery, Nov. 2016, Vol. 138 / 111008.
[35] Wang J. H., Shi J. X., Discussion of Boundary Conditions of Transpiration Problems Using LTNE Model, ASME Journal of Heat Transfer, Jan. 2008,Vol.130, No.1.
[36] Wang J. H., Wang H. N., A Discussion of Transpiration Cooling Problems Through an Analytical Solution of Local Thermal Non-Equilibrium Model, ASME Journal of Heat Transfer, Oct. 2006, Vol. 128, 1093-1098.
[37] Wenjie Dong, Jianhua Wang*, A New Model and its Application to Investigate Transpiration Cooling with Liquid Coolant Phase Change, Transp. Porous Med (2018) 122:575–593.
[38] Kuan Wei, Jianhua Wang*, Mao Mao, Model Discussion of Transpiration Cooling with Boiling, Transp. Porous Med., 25, April, 2012, DOI 10.1007/s11242-012-0006-0.
[39] J. X. Shi , J. H. Wang*, A Numerical Investigation of Transpiration Cooling with Liquid Coolant Phase Change, Transp. Porous Med., (2011) 87:703–716, DOI 10.1007 /s11242- 010 -9710-9.
[40] Shi J. X., Wang, J. H.*, A Numerical Investigation on the Laminar Boundary Flow Layer with Transpiration Cooling, Transp. Porous Med., 2008. 9. DOI 10.1007/s11242-008-9279 -8.
[41] Wang J. H., Gan M., Detecting and Characterization of Penetrating Pores of Porous Materials, Materials Characterization, 58(2007)8-12.
[42] Wang J. H., Han X. S., Numerical Investigation of Transpiration and Ablation Cooling, Heat Mass Transfer, (2007)43:274-284.
[43] Wang J. H., Wang H. N., Sun J. G., Wang J., Numerical Simulation of Control Ablation by Transpiration Cooling, Heat Mass Transfer, (2007) 43:471-478.
[44] Prasert Prapamonthon, Huazhao Xu, Zhaoqing Ke, Wenshuo Yang, Jianhua Wang*, Thermal barrier coating and turbulence intensity effects on leading edge cooling using conjugate heat transfer analysis, Transactions of the Canadian Society for Mechanical Engineering, Vol. 41, No. 2, 2017.
[45]He Fei, Wang Jianhua, Dong Wenjie, Wu Nan, Model comparison, thermal nonequilibrium characteristic and boundary conditions discussion of two-phase flow with phase change in porous media, Numerical Heat Transfer Part B-Fundamentals, 2019, Vol. 76, No. 2, 88–105.
[46] Lin Jia, Lingjin Zhao, Wang J. H.*, Numerical Investigation on Aerothermos-dynamic Characteristics of Wedge Shaped Nose Cone of Near Space Supersonic Flight, Applied Mechanics and Materials , Vols. 541-542 (2014) pp 608- 612.
[47] Lingjin Zhao, Lin Jia, Wang J. H.*, Jinlong Peng, Dejun Qu, Lianzhong Chen, An Experimental Investigation on Transpiration Cooling for Supersonic Vehicle Nose Cone using Porous Material, Applied Mechanics and Materials ,Vols. 541-542 (2014) pp 690-694.
[48] Wang J. H., Messner J., Stetter H., An Experimental Investigation of Transpiration Cooling, Part I- An Application Investigation on Infrared Measurement Technique, International J. of Rotating Machinery, April 2003, Vol 9, No. 3, 154-163.
[49] Wang J. H., Messner J., Stetter H., An Experimental Investigation of Transpiration Cooling, Part II- Comparison of Cooling Methods and Media, International J. of Rotating Machinery, Aug. 2004,Vol 9, No.10, 355-363.
[50] Peng L. M., Wang J. H., Li H., Zhao J. H., He L., Synthesis and Microstructural Characterization of Ti-Al 3 Ti Metal-intermetallic Laminate Composites, Scripta Materialia, 52 (2005) 243-248.
[51] Peng L. M., Wang J. H. , Li H., He L., Zhao J. H., Synthesis and Mechanical Properties of Ternary Molybdenum Carbosilicide and Its Composite, J. of Materials Science, 40 (2005) 2705-2707.
[52] Peng L.M., Li H., Wang J. H. , Processing and Mechanical Behavior of Laminated Ti- Al 3 Ti Composites, J. of Materials Science and Eng. A 406 (2005)309-318.
[53] Peng L. M., Li H., Wang J. H., Gong, M., High Strength and High Fracture Toughness Ceramic-iron Aluminid3 (Fe 3 Al) Composites, Materials Letters 60 (2006) 883-887.
[54] Peng L. M., Li H., Wang J. H., Gong, M., Synthesis and Microstructural Characterization of Aluminum Borate Whiskers, Ceramics International 32 (2006)365-368.
[55] Peng L. M., Wang J. H., Li H., Gong M., Processing and Mechanical Properties of Multiphase Composites Based on Mo-Si-Al-C system, J. of Alloys and Compounds 420(2006) 77-82.
[56]袁瑞明，浦 健*，王 位，王建华，栾永先, 温比对第一级导叶端壁气膜冷却特性的影响, 航空动力学报, (2018)第33卷 第８期.
[57] 胡冰城，王建华*，徐华昭，吴伟龙，徐景亮, 具有热障涂层的导向叶片耦合数值研究, 航空动力学报, (2017)第32卷 第10期.
[58] 马杰，林佳，王建华，液态水相变发散冷却的实验，航空动力学报，（2014）第29卷，第3期,556-562.
[59] 贾闪，王晓春，王建华, 具有发散冷却功能的曲目结构边界层特性实验研究，航空动力学报，（2010）第25卷，第2期.
[60] 吕锡嘉, 王建华*, 刘庆东, 吴向宇，应用红外热像技术实验研究层板结构冷却特性，航空动力学报（2009）第24卷，第10期.
[61] 时骏祥，王建华*，基于遗传算法的双层发散冷却优化，航空动力学报，(2009）第24卷，第2期.
[62] 谢远远，王建华*，发散冷却控制烧蚀过程的数值研究，航空动力学报，（2008）第23卷，第8期.
[63] 时骏祥，王建华*，发散冷却最小冷却介质注射量的数值研究，航空动力学报，（2007）第22卷，第2期.
[64] 马龙，王建华*，吴向宇，杜治能，利用红外技术进行层板冷却特性实验研究，航空动力学报，（2007）第23卷，第4期.
[65] 孙纪国，王建华，烧结多孔结构的渗透和流阻特性研究，航空动力学报，（2008）第23卷，第1期.
[66]王海南，王建华*，一维、稳态、非热平衡发汗冷却的解析解研究，航空动力学报，2006, vol.21, No.1, pp. 77-82.
[67] 杨帆，胡阳洋，王建华*，重型卡车风阻优化，交通运输工程学报，（2013）第3卷，第6期 54-61.
[68] 张洪，王建华*，张清波，透平叶片顶部间隙流动特性的实验和数值研究，实验流体力学，（2012）第26卷，第3期.
[69] 李谦，王建华*，吴向宇，杨士杰，冷却介质在层板内流动特性研究，第一部分，利用粒子图像测速技术再现复杂流场，实验流体力学，（2007）第21卷，第4期.
[70] 王储，王建华*，杜治能，杨士杰，冷却介质在层板内流动特性研究，第二部分，数值模拟复杂结构内流场，实验流体力学，（2007）第21卷，第4期.
[71] 苏杭，浦健*，王位，王建华，栾永先，一种降低端壁温度的离散气膜孔布置，工程热物理学报，（2018）第39卷，第7期。
[72] 王位，浦健，王建华，栾永先，康滨鹏，实验研究层板结构对端壁冷却的影响，工程热物理学报，（2019）第40卷，第6期
[73] 周杰，王建华*，气动汽车高压气体减压过程的能量损失与补偿，液压与气动，（2007）第7期，28-32.
[74] 聂晶，王建华*， 叶片气动马达传动装置出口冷气特性研究，液压与气动，（2013）第11期，第267卷，75-83.
[75] 丁亮, 马杰, 王建华^*, 烧结多孔介质渗透特性实验研究, 力学季刊, 33(3), pp 375-381, 2012/9.
[76] 王晓春, 王建华, 刘朋欣, 涡轮叶片端壁表面温度相似性研究, 热能动力工程, (2015) 01期, pp 1-5+157.

会议论文
[1] Weilong Wu, Huazhao Xu*, Jianhua Wang*, Xianyu Wu, Lei Wang, Numerical Investigation on the Influences of Pin-Fin on Cooling Air Flow of Turbine Blade Trailing Edge, ASME Paper, GT 2019-91989 June 17-21, 2019 in Phoenix, Arizona, USA.
[2] Wei Song, Ming Wang, Taiqiu Liu, Zhineng Du, Huazhao Xua*, Xiaofang Cheng, Jianhua Wang*, Numerical investigation on Cooling Air Flow and Resistance Characteristics inner Laminated Cooling Structures, ASME Paper, GT2019-92025 June 17-21, 2019 in Phoenix, Arizona, USA.
[3] Ran Yao, Jian-hua Wang*, Numerical Investigation on the Differences between Temperature Ratio and Density Ratio in Film-cooled Endwall, ASME Paper, GT 2018-75255 June 11-15, 2018, Oslo, Norway.
[4] Peng Wang, Jian Pu*, Ren-bin Yu, Jian-hua Wang, Bo Wan, Jian-Xia Luo, Shu-qing Tian, An experimental investigation on internal flow characteristics in a realistic and entire coolant channel with ribs and film holes, ASME Paper, GT2018-75715 June 11-15, 2018, Oslo, Norway.
[5] Kang Qian, Yadong Wu，Zihe Zhou, Nan Wu, Fei He*, Jianhua Wang, Meng Wang,An Experimental Investigation on the Analogous Transpiration Cooling Utilizing Hydrogels as Coolants, The 4th International Conference on Mechanical and Aero-nautical Engineering (ICMAE) Dec. 2018, id : C017.
[6]Meng Wang, Fei He*, Nan Wu, Jianhua Wang, Guangqi Dong, Numerical Simulation of Transpiration Cooling within Variable Property of Water and Steam, The 4th International Conference on Mechanical and Aeronautical Engineering (ICMAE) Dec. 2018, Hong Kong, id : C018.
[7]Ran Yao, Jianhua Wang*, Wenshuo Yang, Wei Wang, Zhineng Du, Ming Wang, A Numerical Investigation on the Differences between Annular and Flat Film Cooled Endwalls, ASME Paper, GT2017-63337, June 26-30, 2017, Charlotte, NC, USA.
[8]Wei Wang, Jian Pu, Rui-ming Yuan, Jian-hua Wang, Bin-peng Kang, Yong-xian Ruan, An experimental investigation on the overall cooling performances of two turbine endwall structures, ASME GT2017-63226, June 26-30, 2017, Charlotte, NC, USA.
[9] N Wu, J H Wang*, L Shen, G Q Dong and J H Xie, Numerical study of a three dimensional interaction between two bow shock waves and the aerodynamic heating on a wedge shaped nose cone, ICMAE [C]187, 2016 Dec. 29-31, Hong Kong.
[10] Lin Shen, Jianhua Wang*, Wenjie Dong, A numerical investigation on aero-thermodynamic characteristics of a nose cone in wind tunnel and near space flight environment, International Conference on Computational Methods for Thermal Problems, [C] 220-223, 2016 July 6-8, Georgia Tech, Atlanta, USA.
[11] Wenjie Dong, Jianhua Wang*, Lin Shen, Effects of permeability on two-dimensional transpiration cooling, International Conference on Computational Methods for Thermal Problems, [C] 272-275, 2016 July 6-8, Georgia Tech, Atlanta, USA.
[12] Xue-yi Wang, Jian Pu, Rui-ming Yuan, Jian-hua Wang, Combined influences of surface deposition and hole-blockage on film-cooling performances. ASME GT2016-56902, June 13-17, 2016, Seoul, South Korea.
[13] Qingbo Zhang, Huazhao Xu, Jianhua Wang, Ge Li, Lei Wang, Xiangyu Wu, Shiyan Ma, Evaluation of CFD predictions using different turbulence models on a film cooled guide vane under experimental conditions, ASME GT2015-42563, June 15-19, 2015, Montréal, Canada.
[14] Wenshuo Yang, Jian Pu, Jianhua Wang*, Combination effects of upstream-ramp and swirling coolant flow on film cooling characteristics, ASME GT2015-43051, June 15-19, 2015, Montréal, Canada.
[15] Prasert Prapamonthon, Huazhao Xu, Wenshuo Yang, Jianhua Wang, Predicting Adiabatic Film Effectiveness of a Turbine Vane by Two-equation Turbulence Model, ASME GT2015-42565, June 15-19, 2015, Montréal, Canada.
[16] Zhaoqing Ke, Jian Pu, Jianhua Wang, Lei Wang, Zhiqiang Zhang, Xiangyu Wu, Investigation on Fluid Flow and Heat Transfer Performances within a Real Turbine Blade Channel, ASME Turbo Expo GT2014-25097, June 16-20, 2014, Düsseldorf, Germany.
[17] Huazhao Xu, Jianhua Wang*, Ting Wang, A Numerical Investigation of Stator-Rotor Interaction Effects on Flow Field and Film Cooling Effectiveness in a 3D Transonic Turbine Stage with Highly Twisted Rotors, ASME International Mechanical Engineering Congress & Exposition, IMECE2013-66784,Nov. 15-21, 2013, San Diego, California, USA.
[18] Huazhao Xu, Jianhua Wang*, Ting Wang,Numerical Investigations of Wake and Shock Wave Effects on Film Cooling Performance in a Transonic Turbine Stage, Part 2 – Unsteadiness Effect in a 2D Rotating Passage, ASME Turbo Expo GT2013-94545, June 3-7 , 2013, San Antonio, Texas, USA.
[19] Huazhao Xu, Jianhua Wang*, Ting Wang, Numerical Investigations of Wake and Shock Wave Effects on Film Cooling Performance in a Transonic Turbine Stage, Part 1–Methodology Development and Qualification over Stationary Stators and Rotors, ASME Turbo Expo GT2013-94544, June 3-7 , 2013, San Antonio, Texas, USA.
[20] Jian Pu, Zhaoqing Ke, Jianhua Wang, Lei Wang, Hongde You, An Experimental Investigation of Tip Coolant Ejection Effect on Internal Flow Behaviors Within a Realistic Blade Coolant Channel,ASME Turbo Expo GT2013-94136, July 3-7, 2013, San Antonio, Texas, USA.
[21] Jianhua Wang*, Xiaochun Wang, Lianjin Zhao, Fei He, Shiyan Ma, Changming Hao, An Experimental and Numerical Investigation on Endwall Film Cooling, ASME Turbo Expo GT2013-94267, July 3-7, 2013, San Antonio, Texas, USA.
[22] Zhixin Feng, Zhongwang Dou, Jianhua Wang, Shiyan Ma, Zhiqiang Zhang,Numerical Investigations of Cooling Enhancement with Internal Ribs and External Coolant Film, ASME Turbo Expo 2012 Power for Land, Sea, and Air, June 11-15, 2012, Copenhagen, Denmark, GT2012-68682.
[23] Chengyun Xin, Jianhua Wang*, Jianheng Xie, Yuee Song, Modeling and Numerical Simulations of Vapor-Liquid Flow and Heat Transfer within Micro-channel Heat Sinks, Proc. of the ASME 2012 3rd Micro/Nanoscale Heat & Mass Transfer International Conference, March 3-6, 2012, Atlanta, Georgia, USA, MNHMT2012-75239.
[24] Jianhua Wang*, Yejun Zhu, Jian Kuang, Xiaochun Wang, Numerical Investigation on Film Cooling Performances, ASME Turbo Expo 2011 Power for Land, Sea, and Air, June 6-10, 2011, Vancouver, Canada, GT2011-45775.
[25]Wang J. H.*, Liu Y. L., Wang X. C., Du Z. N., Yang S.J., Characteristics of Tip Leakage of the Turbine Blade with Cutback Squealer and Coolant Injection, ASME Turbo Expo 2010 Power for Land, Sea, and Air, June 14-18, 2010, Glasgow, UK, GT2010-22566.
[26]Wang J. H.*, Liu H. C., Mao M., Li X., Zhang Z. Q., Numerical Investigation of Fluid Flow and Heat Transfer Performances of Semiattached Rib Channel Design, ASME Turbo Expo 2010 Power for Land, Sea, and Air, June 14-18, 2010, Glasgow, UK, GT2010-22563.
[27]Zhang H., Wang J. H.*, Wu X. Y., Lu H. Y., A Simplified Approach to Design Transverse Ribs Which Array Alternately in Rectangular Channel, ASME Turbo Expo 2010 Power for Land, Sea, and Air, June 14-18, 2010, Glasgow, UK, GT2010-22562.
[28] Wang J. H.*, Lv X. J., Liu Q.D., Wu X. Y., An Experimental Investigation on Cooling Performance of a Laminated Configuration Using Infrared Thermal Image Technique, ASME Turbo Expo 2008 Power for Land, Sea, and Air, June 8-12, 2009, Orlando, Florida, USA, GT2009-59838.
[29] Wang J. H.*, Xu H. Z., Lv X. J., DuZ. N., Yang S. J., A Nunmerical Investigation on Fluid-Thermal- Structure Coupling Characteristics of Laminated Film Cooling Configurations, ASME Turbo Expo 2008 Power for Land, Sea, and Air, June 8-12, 2009, Orlando, Florida, USA, GT2009-59604.
[30] Wang, J. H.*, Xu, H. Z., Liu, Y. L., Du, Z. N., Yang, S. J., Experimental and Numerical Investigations on Turbine Airfoil Cooling Designs, Part I-An Investigation on Flow Features by Particle Image Velocimetry, ASME Turbo Expo 2008 Power for Land, Sea, and Air, June 14-17, 2008, Berlin, Germany, GT2008-50673.
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