學歷

Ph.D., 美國加州柏克萊大學機械系 (2006-2010)
M. S., 國立清華大學動力機械研究所 (2000-2002)
B. S., 國立清華大學動力機械系 (1996-2000)

會士

ASME, AUTSE, IAAM

微奈米相變熱傳
奈米固態熱傳
太陽熱能轉換與儲存
電子散熱

微奈米熱傳
高等熱傳學

相變化熱傳

流體力學
熱傳學
熱力學

1. 114年度，「磁場作用下缺陷鐵磁奈米線之熱傳行為研究」(114-2221-E-002-079-MY2)，主持人，計畫期間：2025/08/01 – 2027/07/31，委託單位：國家科學及技術委員會。
2. 113年度，「淨零策略－連續式真空儲冰泥空調系統之研發（2/2）」(113-2218-E-002-025)，主持人，計畫期間：2024/07/01 – 2025/09/30，委託單位：國家科學及技術委員會。
3. 113年度，「聚合物奈米纖維與鐵磁奈米線物理性質之研究（4/4）」(113-2223-E-002-010)，主持人，計畫期間：2024/07/31 – 2025/08/01，委託單位：國家科學及技術委員會（工程技術躍升計畫）。
4. 113年度，「氣體參與式電極之微／奈米結構工程以提升潔淨能源轉換效率（2/2）」(113-2926-I-002-509-G)，主持人，計畫期間：2024/03/01 – 2025/02/28，委託單位：國家科學及技術委員會。
5. 113年度，「三維新型熱沉於流動沸騰散熱之應用」，主持人，計畫期間：2024/01/01 – 2024/12/31，委託單位：酷碼科技（Cooler Master）。
6. 112年度，「聚合物奈米纖維與鐵磁奈米線物理性質之研究（3/4）」(112-2223-E-002-013)，主持人，計畫期間：2023/08/01 – 2024/07/31，委託單位：國家科學及技術委員會（工程技術躍升計畫）。
7. 112年度，「淨零策略－連續式真空儲冰泥空調系統之研發（1/2）」(112-2218-E-002-048)，主持人，計畫期間：2023/07/01 – 2024/06/30，委託單位：國家科學及技術委員會。
8. 111年度，「氣體參與式電極之微／奈米結構工程以提升潔淨能源轉換效率（1/2）」(111-2926-I-002-512-G)，主持人，計畫期間：2022/09/01 – 2023/08/31，委託單位：國家科學及技術委員會。
9. 111年度，「聚合物奈米纖維與鐵磁奈米線物理性質之研究（2/4）」(111-2223-E-002-010)，主持人，計畫期間：2022/08/01 – 2023/07/31，委託單位：國家科學及技術委員會（工程技術躍升計畫）。
10. 111年度，「快速反應儲冰空調技術之研究與示範（2/2）」(111-3116-F-002-006)，共同主持人，計畫期間：2021/06/01 – 2023/06/30，委託單位：科技部／國家科學及技術委員會。
11. 111年度，「半導體元件散熱分析」，主持人，計畫期間：2022/01/01 – 2022/12/31，委託單位：力晶積成電子製造股份有限公司。
12. 110年度，「快速反應儲冰空調技術之研究與示範（1/2）」(110-3116-F-002-003)，共同主持人，計畫期間：2021/08/01 – 2022/05/31，委託單位：科技部。
13. 110年度，「聚合物奈米纖維與鐵磁奈米線物理性質之研究（1/4）」(110-2223-E-002-003)，主持人，計畫期間：2021/08/01 – 2022/07/31，委託單位：科技部（工程技術躍升計畫）。
14. 108年度，「單根磁性奈米線磁－熱－電多重物理耦合機制之探討」(108-2221-E-002-171-MY3)，主持人，計畫期間：2019/08/01 – 2021/09/30，委託單位：科技部。
15. 107年度，「微／奈米結構表面抑制萊頓弗羅斯特效應與降低液滴接觸時間之研究」(107-2221-E-002-195-MY3)，主持人，計畫期間：2018/08/01 – 2021/07/31，委託單位：科技部。

Selected Journal Publications (First and Corresponding Author)

1. Inbaoli A, Sujith Kumar C.S.*, Ming-Chang Lu*, "Transient pool boiling of water on copper tubes: An experimental analysis of transient heating, boiling hysteresis and surface wettability," International Journal of Heat and Mass Transfer, 253, 127629, 2025. 
2. Saumyadwip Bandyopadhyaya, Qi-Jun Chen, Ming-Chang Lu*, "Single Re-entrant micropillar arrays for enhanced pool boiling performance," International Journal of Heat and Mass Transfer, 255, 127473, 2025. 
3. Ting-Yu Hsu, Hung-Chih Chen, Chung-Te Huang, Chuanhua Duan*, Ming-Chang Lu*, "Droplets Impacting on Superheated Surfaces with Asymmetric Re-Entrant Microgrooves," Small Methods, 2500008, 2025. (SCI IF 9.1)
4. Chug-Te Hunag, Liangwei Zheng, Yiding Zhong, Jörg Wener, Ming-Chang Lu*, Chuanhua Duan*, "Enhancing Hydrogen Evolution Reaction through Coalescence-Induced Bubble Departure on Patterned Gold-Silicon Microstrip Surfaces," ACS Applied Materials & Interfaces, 17, 7109-7118, 2025. 
5. Wei-Tsu Peng, Jiun-Hung Yi, Chih-Cheng Cheng, Kuan-Ju Yu, Tien-Kan Chung*, Ming-Chang Lu*, "Significant Magnon Contribution to Heat Transfer in Nickel Nanowires," Materials Today Physics, 49, 101585, 2024. (SCI IF 9.7) 
6. Ching-Wen Lo*, Yu-Hsiang Chen, and Ming-Chang Lu*, "Sustained Condensation Efficiency on 3D Hybrid Surfaces," Small Structures, 2400406, 2024. (SCI IF 11.3) 
7. Chung-Te Huang, Wen-Shin Chan, Qi-Jun Chen, Wei-Lun Hsu, and Ming-Chang Lu*, "Enhanced Boiling Heat Transfer on Three-Dimensional Hybrid Micropillar Array Surfaces," International Journal of Heat and Mass Transfer, 220, 125011, 2024. 
8. Ding-Jun Huang, Wei-Tsu Peng, Yen-Ta Lee, Ming-Chang Lu*, "Reduced Graphene Oxide Films for Reducing Hotspot Temperatures of Electronic Devices," International Communications in Heat and Mass Transfer, 136, 106193, 2022.
9. Chung-Te Huang, Ching-Wen Lo, and Ming-Chang Lu*, "Reducing Contact Time of Droplets Impacting Superheated Hydrophobic Surfaces," Small, 18, 2106704, 2022. (SCI IF 12.1)
10. Kai Chen, Feng-Ju Chung, Yen-Ling Lin, Yen-Ta Lee, María del Rocío Rodríguez-Laguna, Arumugam Manikandan, Ming-Chang Lu*, and Yu-Lun Chueh*, "Metal- and Alloy-Based Core−Shell Particles in Nitrate Senary Salt with Low Thermal Hysteresis for Solar Thermal Energy Storage," ACS Applied Energy Materials, 5, 2697-2705, 2022. 
11. Wei-Tsu Peng, Fu-Ren Chen, and Ming-Chang Lu*, "Thermal Conductivity and Electrical Resistivity of Single Copper Nanowires," Physical Chemistry Chemical Physics, 23, 20359-20364, 2021. 
12. Chung-Te Huang, Meng-Shiue Lee, Ching-Wen Lo, Wensyang Hsu, and Ming-Chang Lu*, "Wide Temperature Antifouling Characteristic of a Double Re-Entrant Pillar Array Surface," International Journal of Heat and Mass Transfer, 175, 121178, 2021. 
13. Ching-Wen Lo, Jia-Xiong Li, and Ming-Chang Lu*, "Frosting and Defrosting on the Hydrophilic Nylon-6 Nanofiber Membrane–Coated Surfaces," Applied Thermal Engineering, 184, 116300, 2021. 
14. Hsin-Che Chien, Wei-Tsu Peng, Te-Hsuan Chiu, Pei-Hsiu Wu, Yueh-Ju Liu, Cheng-Wei Tu, Chien-Lung Wang*, and Ming-Chang Lu*, “Heat Transfer of Semicrystalline Nylon Nanofibers,” ACS Nano, 14, 3, 2939-2946, 2020. (SCI IF 16.1)
15. Venkataraman Sahoo, Ching-Wen Lo, and Ming-Chang Lu*, "Leidenfrost Suppression and Contact Time Reduction of a Drop Impacting on Silicon Nanowire Array-Coated Surfaces," International Journal of Heat and Mass Transfer, 148, 118980, 2020. 
16. Ching-Wen Lo, Yu-Cheng Chu, Ming-Han Yan, and Ming-Chang Lu*, "Enhancing Condensation Heat Transfer on Three-Dimensional Hybrid Surfaces," Joule, 3, 2806-2823, 2019. (SCI IF 35.4)
17. Venkataraman Sahoo, Chu-Yao Chou, Ching-Wen Lo, and Ming-Chang Lu*, “Elongated Bouncing and Reduced Contact Time of a Drop in the Janus State,” Langmuir, 34, pp. 10874-10879, 2018. 
18. Ting-Heng Hsu, Chieh-Hsuan Chung, Feng-Ju Chung, Chun-Che Chang, Ming-Chang Lu*, and Yu-Lun Chueh*, "Thermal Hysteresis in Phase-Change Materials: Encapsulated Metal Alloy Core-shell Microparticles," Nano Energy, 51, pp. 563-570, 2018. (SCI IF 17.1)
19. Yi Liu, Ming-Chagn Lu*, and Dongyan Xu*, "The suppression effect of easy-to-activate nucleation sites on the critical heat flux in pool boiling," International Journal of Thermal Sciences, 129, pp. 231-237, 2018. 
20. Ya-Tzu Hsu, Jia-Xiong Li, and Ming-Chang Lu*, "Enhanced Immersion Cooling Using Two-Tier Micro- and Nanostructures," Applied Thermal Engineering, 131. pp. 864-873, 2018. 
21. Ming-Chang Lu*, Chien-Chang Lin, Ching-Wen Lo, Cheng-Wei Huang, and Chi-Chuan Wang, "Superhydrophobic Si Nanowires for Enhanced Condensation Heat Transfer," International Journal of Heat and Mass Transfer, 111, pp. 614-623, 2017. 
22. Ching-Wen Lo, Venkataraman Sahoo, and Ming-Chang Lu*, "Control of Ice Formation," ACS Nano, 11, pp. 2665-2674, 2017. (SCI IF 16.1, Featured by X-MOL, Nanowerk, and Phys.org)
23. Chih-Chung Lai, Shih-Ming Lin, Yuan-Da Chu, Chun-Che Chang, Yu-Lun Chueh*, and Ming-Chang Lu*, "Tunable Endothermic Plateau for Enhancing Thermal Energy Storage Obtained Using Binary Metal Alloy Particles," Nano Energy, 25, pp. 218-224, 2016. (SCI IF 17.1)
24. Ming-Chang Lu*, Chih-Hung Huang, Chung-Te Huang, and Yu-Chi Chen, "A Modified Hydrodynamic Model for Pool Boiling CHF Considering the Effects of Heater Size and Nucleation Site Density," International Journal of Thermal Sciences, 91, pp. 133-141, 2015.
25. Ching-Wen Lo, Chi-Chuan Wang, and Ming-Chang Lu*, "Scale Effect on Dropwise Condensation on Superhydrophobic Surfaces," ACS Applied Materials & Interfaces, 6, pp. 14353-14359, 2014. 
26. Chih-Chung Lai, Wen-Chih Chang, Wen-Liang Hu, Zhiming M. Wang, Ming-Chang Lu*, and Yu-Lun Chueh*, "Solar-Thermal Energy harvesting Scheme: Enhanced heat capacity of molten HITEC salt mixed with Sn/SiOx core-shell nanoparticles," Nanoscale, 6, pp. 4555-4559, 2014.
27. Ching-Wen Lo, Chi-Chuan Wang, and Ming-Chang Lu*, "Spatial Control of Heterogeneous Nucleation on the Superhydrophobic Nanowire Array," Advanced Functional Materials, 24, pp. 1211-1217, 2014. (SCI IF: 19.0)
28. Ming-Chang Lu*, and Chien-Hsun Huang, "Specific Heat Capacity of Molten-salt based Alumina Nanofluid," Nanoscale Research Letters, 8, pp. 292-299, 2013. 
29. Ming-Chang Lu*, Renkun Chen, Vinod Srinivasan, Van P. Carey, and Arun Majumdar, "Critical Heat Flux of Pool Boiling on Si Nanowire Array-Coated Surfaces," International Journal of Heat and Mass Transfer, 54, pp. 5359-5367, 2011. 
30. Renkun Chen, Ming-Chang Lu (co-first author), Vinod Srinivasan, Zhijie Wang, Hyung Hee Cho, and Arun Majumdar*, “Nanowires for Enhanced Boiling Heat Transfer,” Nano Letters, 9, pp. 548-553, 2009. (SCI IF 9.1)
31. Ming-Chang Lu*, Srinath Satyanarayana, Rohit Karnik, Arun Majumdar, and Chi-Chuang Wang, "A Mechanical-Electrokinetic Battery Using a Nano-porous Membrane," Journal of Micromechanics and Microengineering, 16, pp. 667-675, 2006.