部分学术论文(第一作者或通讯作者)

[1] Zhiguo Tang, Feng Deng, Zhijian Zhao, et al. Study of flow and heat transfer characteristics of a liquid jet impinging on a heat sink with discontinuous staggered ring ribs [J]. International Journal of Heat and Mass Transfer, 2022, 190:122757. (JCR Q1, Top Journal, IF=5.431)

[2] Zhiguo Tang, Feng Deng, Yongtao Ji, et al. Structure optimization and cooling performance of a heat sink with discontinuous arc protrusions impacted by nanofluid slit jet impinging[J]. International Journal of Numerical Methods for Heat and Fluid Flow, 2022. DOI: 10.1108/HFF-06-2022-0363. (JCR Q1, IF=5.181)

[3] Zhiguo Tang, Renchen Zhao, Chao Yin, et al.Study on heat transfer characteristics and stability of subcooled flow boiling in a novel bottom-diverging microchannel with equal cross-sectional area[J]. Heat Transfer Research, 2022. DOI:10.1615/HeatTransRes.2022045172. (JCR Q3, IF=2.197)

[4] Zhiguo Tang, Zhijian Zhao, Chao Yin,et al.Orthogonal optimization of a liquid cooling structure with straight microtubes and variable heat conduction blocks for battery module[J]. Journal of Energy Engineering, 2022, 148(3): 04022017. (JCR Q3, IF=1.961)

[5] Jianping Cheng, shenlong Shuai,Zhiguo Tang*, Tao changfa*. Thermal performance analysis of a lithium-ion battery thermal management system with a vapor chamber and minichannel cold plate[J]. Applied Thermal Engineering, 2022, DOI: 10.1016/j.applthermaleng.2022.119694.(JCR Q1, Top Journal, IF=6.465)

[6] Jianping Cheng, Hongsen Xu,Zhiguo Tang*, Pei Zhou*. Multi-objective optimization of manifold microchannel heat sink with bionic corrugated bottom impacted by nanofluid jet[J]. International Journal of Heat and Mass Transfer, 2023, 201, 123634.(JCR Q1, Top Journal, IF=5.431)

[7] Jianping Cheng, Shenlong Shuai,Zhiguo Tang*. Numerical analysis of heat-pipe-based battery thermal management system for prismatic lithium-ion batteries[J]．Journal of Thermal Science and Engineering Applications (ASME), 2022,14:081008. (JCR Q4, IF=1.879)

[8] Jianping Cheng, shenlong Shuai,Zhiguo Tang*, Shuheng Hu. Effect of nitrate concentration on the coupling process of electricity generation and nitrate removal in biocathode microbial fuel cells[J]. Journal of Environmental Engineering, 2022, 185(5):04022013. (JCR Q4, IF=2.479)

[9] Zhiguo Tang, Zhiqing Liu, Jie Li, et al. A Lightweight Liquid Cooling Thermal Management Structure for Prismatic Batteries[J]．Journal of Energy Storage, 2021, 42(2):103078. (JCR Q1, IF=8.907)

[10] Zhiguo Tang, Zhiqing Liu, Renchen Zhao, et al.Investigation on the thermal management performance of a parallel liquid cooling structure for prismatic batteries[J]．Journal of Electrochemical Energy Conversion and Storage, 2021, 19:021002. (JCR Q4, IF=2.323)

[11] Zhiguo Tang, Jie Li, Zhiqing Liu, et al. Thermal performance of a thermal management system with a thin plate and a slender tube for prismatic batteries[J]. International Journal of Energy Research, 2021,45(4) : 5347-5358.. (JCR Q1, Top Journal, IF=4.672)

[12] Zhiguo Tang, Feng Deng, Shoucheng Wang, et al. Numerical simulation of flow and heat transfer characteristics of a liquid jet impinging on a cylindrical cavity heatsink[J]. Journal of Applied Fluid Mechanics, 2021,14(3): 723-732. (JCR Q4, IF=1.152)

[13] Zhiguo Tang, Shoucheng Wang, Zhiqing Liu, et al. Numerical analysis of temperature uniformity of a liquid cooling battery module composed of heat-conducting blocks with gradient contact angles[J]. Applied Thermal Engineering, 2020,178(9):115509. (JCR Q1, Top Journal,IF=6.465)

[14] Zhiguo Tang, Anqi Song, Shoucheng Wang, et al. Numerical analysis of heat transfer mechanism of thermal runaway propagation for cylindrical lithium-ion cells inbattery module [J]. Energies, 2020, 13, 1010. (JCR Q3，IF=3.252)

[15] Zhiguo Tang, Feng Zhang, Shoucheng Wang, et al. Liquid impingement flow and heat transfer of a cone heat sink with fillet profiles[J]. Journal of Fluids Engineering – Transactions of the ASME, 2020, 142(8): 081207. (JCR Q3，IF=1.998)

[16] Zhiguo Tang, Qin Gao, Jie Li, et al. Numerical analysis of temperature uniformity of liquid cooling based battery module with incremental heat transfer area[J].Journal of Thermal Science and Engineering Applications（ASME）2020，12（10）：051006. （JCR Q4，IF=1.879）

[17] Changfa Tao, Qingpan Ye, Chunmei Wang,Zhiguo Tang*. An experimental investigation on the burning behaviors of 18650 lithium ion batteries after different immersion times[J]. Journal of Cleaner Production, 2020, 242:1-10. (JCR Q1,Top Journal,IF=9.556)

[18] Zhiguo Tang, Hai Li, Feng Zhang, et al. Numeriacl study of liquid jet impingement flow and heat transfer of a cone heat sink[J]. International Journal of Numerical Methods for Heat and Fluid Flow,2019, 29 (11): 4074-4092. (JCR Q1, IF=5.181)

[19] Zhiguo Tang, Xiaoteng Min, Anqi Song, et al. Thermal management of a cylindrical lithium-ion battery module with an M-shaped serpentine multi-channel flat tube[J]. Journal of Energy Engineering, 2019, 145(1): 04018072. (JCR Q3，IF=1.961)

[20] Zhiguo Tang, Qingqing Liu, Hai Li, et al. Numerical Simulation of Heat Transfer Characteristics of Jet Impingement with a Novel Single Cone Heat Sink[J]. Applied Thermal Engineering, 2017, 127(25): 906-914. (JCR Q1,Top Journal,IF=6.465)

[21] Tang Zhiguo, Lin Qizhao, Mellander Bengt-Erik,et al. SDC-LiNa carbonate composite and nanocomposite electrolytes[J]. International Journal of Hydrogen Energy, 2010, 35(7): 2970-2975. (JCR Q2, Top Journal, IF=7.139)

[22] 李 海，唐志国*，高钦，等.空气射流冷却圆锥热沉的传热特性分析[J].中国科学技术大学学报，2020, 50(5): 551-558（EI）

[23] 闵小滕，唐志国*，高钦，等.基于微小通道波形扁管的圆柱动力电池液冷模组散热特性分析[J].浙江大学学报，2019，53(3):463-469（EI）

[24] 唐志国，张丹阳，刘轻轻，等.基于正交法的生物质焦油中苯酚气化制氢研究[J]．太阳能学报，2018, 39(3):850-856（EI）

[25] 周 嘉，唐志国*,闵小滕,等.微小单锥体热沉射流流动及换热特性研究[J]．工程热物理学报，2017, 38(11):2399-2407（EI）

[26] 马鹏程，唐志国*，刘轻轻，等.新型单圆锥体热沉单孔射流散热数值模拟[J]．机械工程学报，2016，52（24）：136-141（EI）

部分发明专利（第一发明人）

[1] 唐志国，赵智健，童身亮，等.一种均温分布式平行微细流道换热器及其应用[P]．发明专利授权号ZL202110903682.7，授权日期2022.08.12（联合企业申请）

[2] 唐志国，李杰，孔德垚，等.一种管板式热管型动力电池热管理模组结构[P]．发明专利授权号ZL201911239787.6，授权日期2021.03.02

[3] 唐志国，张峰，高钦，等.一种微小通道射流散热器[P]．发明专利授权号ZL201910126762.9，授权日期2020.11.06（已转化转移）

[4] 唐志国，闵小滕，李海，等.一种动力电池液冷成组箱[P]．发明专利授权号ZL201611241235.5，授权日期2019.03.08（已转化转移）

[5] 唐志国，楚金甫，陈西山，等.一种带有液冷箱电动汽车动力电池及液冷箱[P]．发明专利授权号ZL201610544342.9，授权日期2019.04.26（联合企业申请）

[6] 唐志国，周嘉，闵小滕，等.动力电池热控箱体[P]．发明专利授权号ZL201610326139.4，授权日期2018.11.06（已转化转移）

[7] 唐志国，马鹏程，刘轻轻，等.一种多通道液流温控导热板[P]．发明专利授权号ZL201610326136.0，授权日期2018.02.27（已转化转移）

[8] 唐志国，张丹阳，王元哲，等.一种电子器件液冷散热系统[P]．发明专利授权号ZL201410150370.3，授权日期2017.02.15（已转化转移）

[9] 唐志国，江超，郝嘉欣，等.一种基于热管电动汽车动力电池组温控系统[P]．发明专利授权号ZL201410159036.2，授权日期2016.05.11（已转化转移）

[10] 唐志国，夏顺礼，赵久志，等.一种电池组箱体[P]．发明专利授权号ZL201410055317.5，授权日期2015.12.02（联合企业申请）

[11] 唐志国，余勇辉，陈晨，等.生物质气化焦油分离并循环裂解转化装置[P]．发明专利授权号ZL201110275961.X，授权日期2013.07.31

[12] 唐志国，程建萍，马培勇．分布式天然气制氢反应器[P]．发明专利授权号ZL201010259263，授权日期2012.07.25

[13] 唐志国，唐超君，邢献军，等.一种干煤粉气流床气化炉[P]．发明专利授权号ZL200810021324.8，授权日期2011.06.22

[14] 唐志国，程建萍，陈长琦．两段式干煤粉气流床气化炉[P]．发明专利授权号ZL200810195490.X，授权日期2011.11.23

[15] 唐志国，程建萍，陈长琦，等.小型高效自热式天然气制氢设备[P]．发明专利授权号ZL200910116565.5，授权日期2011.04.06

[16] 唐志国，程建萍．生物质制取洁净富氢燃料气的装置[P]．发明专利授权号ZL200910116564.0，授权日期2010.12.08

[17] 唐志国，陆宽，陆海阳，等．一种基于柔性微小多孔扁管的动力电池液冷模块[P]．发明专利公开号CN114696003A，公开日期2022.07.01

[18] 唐志国，项毅，武一凡，等．一种微小射流均温低阻冷却板[P]．发明专利公开号CN114667040A，公开日期2022.06.24

[19] 唐志国，孙然，王嘉辉，等．一种微小双通道螺旋型沸腾换热式均温冷却板[P]．发明专利公开号CN114449871A，公开日期2022.05.06

[20] 唐志国，季永涛，帅深龙，等．一种微小多通道流体相变式均温换热板[P]．发明专利公开号CN114608364A，公开日期2022.06.10

[21] 唐志国，印超，邓峰，等．一种微小多通道沸腾换热式均温冷却板[P]．发明专利公开号CN114577042A，公开日期2022.06.03

[22] 唐志国，赵智健，王嘉辉，等．一种出口渐缩型微小通道的射流冷板[P]．发明专利公开号CN113438872A，公开日期2021.09.24

[23] 唐志国，赵仁陈，赖鹏辉，等．一种基于脉动热管的圆柱电池热管理模块[P]．发明专利公开号CN112382805 A，公开日期2021.02.19

[24] 唐志国，刘志清，孔德垚，等．一种基于液体金属的动力电池热管理模组[P]．发明专利公开号CN111525062A，公开日期2020.08.11

[25] 唐志国，王守成，李杰，等．富氢燃料气低污染燃烧的燃气空气预混器[P]．发明专利公开号CN110388643A，公开日期2019.10.29

[26] 唐志国，宋安琪，黎昱杰，等．一种可阻止热失控扩展的圆柱动力电池液冷热管理结构[P]．发明专利公开号CN 109686887A，公开日期2019.04.26