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2020
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2019
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[96] Zhao Y, Yang S, Zhang LQ, Chew JW. Understanding the varying discharge rates of lognormal particle size distributions from a hopper using the Discrete Element Method. Powder Technology 2019;342:356–70. https://doi.org/10.1016/j.powtec.2018.09.080.
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2018
[86] Zhou P, Zeng Z, Qiao L. Simulation of shear-thinning droplets impact on solid surfaces byusing Lattice Boltzmann method. Chongqing Daxue Xuebao/Journal of Chongqing University 2018;41:1–9. https://doi.org/10.11835/j.issn.1000-582X.2018.12.001.
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[84] Zhang L, Yang S, Zeng Z, Chew JW. Lattice model effects on the accuracy of the boundary condition implementations for the convection–diffusion lattice Boltzmann method. Computers and Fluids 2018;176:153–69. https://doi.org/10.1016/j.compfluid.2018.08.029.
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[82] Zhang L, Yang S, Zeng Z, Chew JW. Consistent boundary conditions of the multiple-relaxation-time lattice Boltzmann method for convection–diffusion equations. Computers and Fluids 2018;170:24–40. https://doi.org/10.1016/j.compfluid.2018.04.027.
[81] Zhang L, Yang S, Zeng Z, Chew JW. An alternative implementation of the kinetic theory based axisymmetric lattice Boltzmann model. Computers and Mathematics with Applications 2018;76:1388–407. https://doi.org/10.1016/j.camwa.2018.06.032.
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[78] Wang L, Zeng Z, Zhang L, Qiao L, Zhang Y, Lu Y. A new boundary scheme for simulation of gas flow in kerogen pores with considering surface diffusion effect. Physica A: Statistical Mechanics and Its Applications 2018;495:180–90. https://doi.org/10.1016/j.physa.2017.12.028.
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2017
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2016
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[54] Yang S, Sun Y, Zhang L, Zhao Y, Chew JW. Numerical investigation on the effect of draft plates on spouting stability and gas-solid characteristics in a spout-fluid bed. Chemical Engineering Science 2016;148:108–25. https://doi.org/10.1016/j.ces.2016.03.010.
[53] Yang S, Sun Y, Zhang L, Chew JW. Computational study of the effect of draft plates on the solid behavior in a spout-fluid bed. Industrial and Engineering Chemistry Research 2016;55:12598–615. https://doi.org/10.1021/acs.iecr.6b02732.
[52] Xie H, Zeng Z, Zhang L, Yokota Y, Kawazoe Y, Yoshikawa A. Simulation on Thermocapillary-Driven Drop Coalescence by Hybrid Lattice Boltzmann Method. Microgravity Science and Technology 2016;28:67–77. https://doi.org/10.1007/s12217-015-9483-4.
[51] Wang L, Zeng Z, Zhang L, Xie H, Liang G, Lu Y. A lattice Boltzmann model for thermal flows through porous media. Applied Thermal Engineering 2016;108:66–75. https://doi.org/10.1016/j.applthermaleng.2016.07.092.
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2015
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2014
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2013
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2012
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[25] Liang G-Y, Zeng Z, Zhang L-Q, Xie H-Q. A three dimensional parallel implementation of lattice Boltzmann method. Shuidonglixue Yanjiu Yu Jinzhan/Chinese Journal of Hydrodynamics Ser A 2011;26:531–7. https://doi.org/10.3969/j.issn1000-4874.2011.05.003.
[24] Li X, Zeng Z, Yao L, Li L, Chen C, Zhang Y, et al. Influence of transverse magnetic field on thermocapillary flow in liquid bridge. Crystal Research and Technology 2011;46:249–54. https://doi.org/10.1002/crat.201000663.
[23] Yao L, Zeng Z, Mizuseki H, Kawazoe Y. Effects of rotating magnetic fields on thermocapillary flow: Comparison of the infinite and the Φ1-Φ2 models. International Journal of Thermal Sciences 2010;49:2413–8. https://doi.org/10.1016/j.ijthermalsci.2010.07.017.
[22] Wen C, Zhang Y-X, Chen J-Q, Zeng Z. Numerical simulation of dam-break flows in curved and furcated channels by using space-time Conservation Element and Solution Element method. Jisuan Lixue Xuebao/Chinese Journal of Computational Mechanics 2010;27:435–41.
[21] Chen C, Zeng Z, Mizuseki H, Kawazoe Y. Thermocapillary convection of liquid bridge under axisymmetric magnetic fields. Materials Transactions 2008;49:2566–71. https://doi.org/10.2320/matertrans.MB200830.
[20] Zeng Z, Mizuseki H, Chen J, Ichinoseki K, Kawazoe Y. Oscillatory thermocapillary convection in liquid bridge under microgravity. Materials Transactions 2004;45:1522–7. https://doi.org/10.2320/matertrans.45.1522.
[19] Zeng Z, Chen J, Mizuseki H, Fukuda T, Kawazoe Y. Three-dimensional unsteady convection in LiCaAlF6-Czochralski growth. Journal of Crystal Growth 2004;266:81–7. https://doi.org/10.1016/j.jcrysgro.2004.02.086.
[18] Zeng Z, Chen J, Mizuseki H, Sato H, Shimamura K, Ichinoseki K, et al. Numerical study on LiCaAlF6 czochralski crystal growth. Materials Transactions 2004;45:1515–21. https://doi.org/10.2320/matertrans.45.1515.
[17] Chen J-Q, Zhao W-X, Zeng Z. Theoretical and numerical analysis of the factual focus location in ESWL. Chinese Journal of Biomedical Engineering 2004;23:247–51.
[16] Zeng Z, Chen J, Mizuseki H, Shimamura K, Fukuda T, Kawazoe Y. Three-dimensional oscillatory convection of LiCaAlF6 melts in Czochralski crystal growth. Journal of Crystal Growth 2003;252:538–49. https://doi.org/10.1016/S0022-0248(03)00949-7.
[15] Zeng Z, Chen J, Mizuseki H, Shishido T, Ichinoseki K, Kawazoe Y. Marangoni convection in the LiCaAIF6 crystal growth by the czochralski technique. Journal of Thermal Science 2003;12:348–52.
[14] Zeng Z, Mizuseki H, Shimamura K, Fukuda T, Kawazoe Y, Higashino K. Usefulness of experiments with model fluid for thermocapillary convection - Effect of Prandtl number on two-dimensional thermocapillary convection. Journal of Crystal Growth 2002;234:272–8. https://doi.org/10.1016/S0022-0248(01)01700-6.
[13] Zeng Z, Chen J, Mizuseki H, Shishido T, Ichinoseki K, Kawazoe Y. Marangoni Convection in the LiCaAIF6 Crystal Growth by the Czochralski Technique. Journal of Thermal Science 2002;11:348–52. https://doi.org/10.1007/s11630-002-0048-7.
[12] Zeng Z, Mizuseki H, Simamura K, Fukuda T, Higashino K, Kawazoe Y. Three-dimensional oscillatory thermocapillary convection in liquid bridge under microgravity. International Journal of Heat and Mass Transfer 2001;44:3765–74. https://doi.org/10.1016/S0017-9310(01)00012-6.
[11] Zeng Z, Mizuseki H, Shimamura K, Higashino K, Fukuda T, Kawazoe Y. Marangoni convection in model of floating zone under microgravity. Journal of Crystal Growth 2001;229:601–4. https://doi.org/10.1016/S0022-0248(01)01236-2.
[10] Zeng Z, Mizuseki H, Higashino K, Shimamura K, Fukuda T, Kawazoe Y. Structure similarity of mixed buoyancy-thermocapillary flow in half-zone liquid bridge. Materials Transactions 2001;42:2322–31. https://doi.org/10.2320/matertrans.42.2322.
[9] Guo Y, Lu J-Q, Zeng Z, Wang Q, Gu B-L, Kawazoe Y. Quantum size effect and temperature effect on spin-polarized transport in ZnSe/Zn1-xMnxSe multilayers. Physics Letters, Section A: General, Atomic and Solid State Physics 2001;284:205–15. https://doi.org/10.1016/S0375-9601(01)00285-7.
[8] Zeng Z, Mizuseki H, Ichinoseki K, Higashino K, Kawazoe Y. Marangoni convection in half-zone liquid bridge. Materials Transactions, JIM 1999;40:1331–6. https://doi.org/10.2320/matertrans1989.40.1331.
[7] Zeng Z, Mizuseki H, Higashino K, Kawazoe Y. Numerical simulation of oscillatory thermocapillary convection in liquid bridge. Proceedings of SPIE - The International Society for Optical Engineering 1999;3792:353–62.
[6] Zeng Z, Mizuseki H, Ichinoseki K, Higashino K, Kawazoe Y. Numerical simulation of convection depth in shear cell under microgravity. Advances in Space Research 1999;24:1321–4. https://doi.org/10.1016/S0273-1177(99)00740-1.
[5] Zeng Z, Mizuseki H, Higashino K, Kawazoe Y. Direct numerical simulation of oscillatory Marangoni convection in cylindrical liquid bridges. Journal of Crystal Growth 1999;204:395–404. https://doi.org/10.1016/S0022-0248(99)00207-9.
[4] Guo Y, Gu B-L, Zeng Z, Kawazoe Y. Erratum: Size effect on quasibound states and negative differential resistances in step-barrier structures (Physics Letter A (1999) 261: (114-118) PII: S037596019900568X). Physics Letters, Section A: General, Atomic and Solid State Physics 1999;264:249. https://doi.org/10.1016/S0375-9601(99)00811-7.
[3] Zeng Z, Mizuseki H, Ichinoseki K, Kawazoe Y, Higashino K. Numerical study of dynamic behavior of melting sample in shear cell under microgravity. Numerical Heat Transfer; Part A: Applications 1998;34:709–18. https://doi.org/10.1080/10407789808914011.
[2] Wang Q, Sun Q, Yu JZ, Zeng Z, Kawazoe Y. The local magnetism of Fe impurity in Nbn and NbnMom clusters. Journal of Magnetism and Magnetic Materials 1998;184:106–10. https://doi.org/10.1016/S0304-8853(97)01098-6.
[1] Guo Y, Gu B-L, Yu J-Z, Zeng Z, Kawazoe Y. Resonant tunneling in step-barrier structures under an applied electric field. Journal of Applied Physics 1998;84:918–24. https://doi.org/10.1063/1.368156.
中文期刊
24. 陈黎明,张良奇,王小双,等.一种精确的含可溶性表面活性剂两相流动相场方法[J/OL].应用数学和力学,1-26[2024-08-28].
23. 张少松,张良奇,陈黎明,等.基于WENO格式有限体积法的铁磁流体两相流相场方法[J/OL].重庆大学学报,1-17[2024-08-28].
22. 周游、曾忠*、刘浩、张良奇，高径比对 GaAs 熔体液桥热毛细对流失稳的影响，力学学报，54/2 (2022) 301-315.
21. 颜永松、王维朗、薛婧媛、游滨、曾忠、侯湘，学术期刊同行评议中不端行为的应对策略，编辑学报，33/04 (2021) 426-429.
20. 姚丽萍*、陈震寰、李明生、曾忠, 太阳能烟囱强化地下空间自然通风特性的研究[J]. 太阳能学报, 42/6 (2021) 184-190.
19. 邱周华*、曾忠、刘浩, 基于Picard迭代的ＰＮ×ＰＮ－２谱元法求解定常不可压缩 Navier-Stokes方程, 应用数学和力学，42/2 (2021) 142-150.
18. 李家宇、曾忠*、乔龙, 相场方法模拟液滴的动态润湿行为，应用数学和力学，40/9 (2019) 957-967.
17. 周平、曾忠*、乔龙, 假塑性流体液滴撞击壁面上的铺展的格子Boltzmann模拟, 重庆大学学报，41/12 (2018) 1-9.
16. 周涛*、曾忠，FSAE赛车新型曲面前翼尾翼气动优化设计，重庆大学学报， 40/10 (2017) 40-52.
15. 屈菁菁、曾忠*、乔龙、付昌禄、丁雨憧，微下拉法YAG晶体生长数值模拟，应用数学和力学, 37/6 (2016) 574-583.
14. 刘亚平、曾忠*、许小龙、张臻、屈菁菁, 不同结构的板翅式油冷器单层冷却液侧换热特性的数值模拟, 应用数学和力学, 35/7 (2014) 815-822.
13. 梁功有、曾忠*、张永祥、张良奇、谢海琼、陈昱, 两球形颗粒间横向毛细力的格子Boltzmann研究, 应用数学和力学, 34/5（2013）445-453.
12. 梅欢*、曾忠、邱周华、李亮、姚丽萍, 极坐标系下Fourier-Legendre谱元方法与有限差分法数值扩散的比较, 计算力学学报,30/3 (2013) 406-411.
10. 李亮、曾忠*、姚丽萍、陈朝波、陈景秋，组合线圈磁场对液桥表面张力流的影响， 工程力学 29-8 （2012）39-44.
9. 梅欢*、曾忠、邱周华，极坐标系下的Legendre谱元方法求解Poisson-型方程，计算力学学报. 29/5 （2012） 641-645.
8. 梁功有、曾忠*、姚丽萍、张良奇、邱周华、梅欢，二维方腔内热表面张力流的格子Boltzmann方法模拟，重庆大学学报 35/9 （2012） 106-113.
7. 姚丽萍、曾忠*、张永祥，微重力环境下横向旋转磁场对热表面张力流的影响，重庆大学学报, 35（2012）115-120.
6. 李亮、曾忠*、时洪宇、赵前成、成宝江、陈杰富、周武. 600MW超临界CFB锅炉中振荡对流分析, 西南大学学报（自然科学版）, 33 (2011) 152-159.
5. 梁功有、曾忠*、张良奇、谢海琼，格子Boltzmann方法三维并行程序设计, 水动力学研究与进展A辑, 26/5 (2011) 531-537.
4. 文岑、张永祥*、陈景秋、曾忠，用CE/SE法对弯曲与分叉河道的溃坝洪水波的数值研究，计算力学学报，27/3 (2010) 435-441.
3. 张尚中*、曾忠、张永祥、邱周华、时洪宇, Czochralski法晶体生长全局数值模拟, 重庆交通大学学报，28 (2009) 355-357.
2. 曾忠*、龙庆会、陈景秋, 基于64位CPU系统的计算性能比较: Opteron vs. Xeon, 计算机工程与应用, 43/19 (2007) 98-103.
1.陈景秋、赵万星、曾忠，ESWL的实际焦点位置的理论和数值分析，中国生物医学工程学报，23/3 (2004) 247-251.
书籍章节：
1. Z. Zeng, H. Mizuseki, and Y. Kawazoe, Oscillatory convection of LiCaAlF6 melt in Czochralski model, 书籍 Studies on Flow Instabilities in Bulk Crystal Growth, 2007: 39-56, Editor A. Gelfgal ISBN: 81-7895-277-7, Transworld Research Network.
学术会议报告
[35]李湘帆，张良奇，磁注液面上Rosensweig不稳定性的仿真研究，第十三届全国流体力学学术会议，哈尔滨，2024年8月 9日-13日，报告人李湘帆
[34]孙漫漫，曾忠，磁场下两相铁磁流体润湿动力学行为研究，第十三届全国流体力学学术会议，哈尔滨，2024年8月9日-13日，报告人孙漫漫
[33]万宇健，张良奇，耦合质量输运的多相流数值模拟，第十三届全国流体力学学术会议，哈尔滨，2024 年8月9日-13日，报告人万宇健
[32]肖姚，张登龙，张良奇，A reductio-consistent phase field model for non-isothermal incompressible N-phase flows，第六届国际液滴会议，北京，2023年8月27-30日，报告人张登龙（英文报告）
[31]陈铄，曾忠，非等径砷化镓液桥热毛细对流的动态模式分解，第十三届全国微重力科学学术会议暨空间材料-空间生命-微重力科学前沿交叉论坛，哈密，2023年7月11-15日，报告人陈铄（优秀青年论文奖）
[30] 王小双，张良奇，相场两相流求解器的开发与验证，第二十届全国计算流体力学会议，哈尔滨，2023年6月25日-27日，报 告人王小双（优秀青年论文奖）
[29] 曾忠，刘浩 普朗特数对环形液池内热毛细对流不稳定性及失稳机制的影响，第十二届南方计算力学学术会议（邀请报告），武汉，2019年11月15-18日。
[28] Liangqi Zhang, Zhong Zeng, Haiqiong Xie, Gongyou Liang, Hiroshi Mizuseki, Yoshiyuki Kawazoe An improved lattice Boltzmann model for incompressible flow, 23rd International congress of Theoretic and Applied Mechanics, Beijing, China, August 19-24,2012.(英文报告).
[27] Hao Liu, Zhong Zeng, Volume effect of thermocapillary flow instability in annular pool for low-Prandtl-number melt, 12th Asian Microgravity Symposium (AMS), Zhuhai, China, November 12-16, 2018. 报告人刘浩
[26] 刘浩，曾忠，旋转对提拉法结构浅液池内热毛细对流稳定性的影响，第一届中国空间科学大会，厦门，10月25日-28日，2019年。报告人刘浩
[25] 乔龙，曾忠，谢海琼，界面微液滴热毛细迁移及操 控数值模拟，重庆力学学会 2017 年学术年会，重庆，5月13日，2017年。报告人乔龙
[24] 乔龙，LBM方法多相流及传热传质青年研讨会，西安，7月16日-21日, 2017年
[23] 乔龙，曾忠， 谢海琼，两相及多相流体热毛细流数值模拟（三相流体热毛细流数值模拟），第十届全国微重力科学学术会议，银川，2017年8月18日-22日。报告人乔龙
[22] 尹林茂，曾忠，刘浩，旋转环形浅液池内热毛细流的失稳机理研究，第十届全国微重力科学学术会议，银川，2017年8月18日-22日。
[21] 张易，曾忠，趋肤效应对旋转磁场作用下提拉法结构浅液池热毛细流的影响，第十届全国微重力科学学术会议，银川，2017年8月18日-22日。
[20] 周平, 2016 谱方法及其应用春季班，北京计算科学研究中心，北京，中国，04, 2016
[19] Hao Liu, Zhong Zeng, Long Qiao, Effect of rotating magnetic field on the thermocapillary flow instability in a liquid bridge, 9th Conference of the International Marangoni Association (IMA), Guilin, China, August 31–September 5, 2018. 报告人刘浩
[18] 尹林茂, 2016 谱方法及其应用春季班，北京计算科学研究中心，北京，中国，04, 2016
[17] 乔龙，微尺度多相流动及界面效应高级讲习班，合肥，7月 23日-26日, 2016年
[16] 刘浩, 2016 谱方法及其应用春季班，北京计算科学研究中心，北京，中国，04, 2016
[15] 刘浩，第十届全国微重力科学学术会议，银川，8月18日至22日，2017年
[14] Long Qiao, Zhong Zeng, Haiqiong Xie, Phase-field-based Finite Volume Method for Simulating Thermocapillary Flows, 7th International Conference on Fluid Mechanics (ICFM7), Qingdao, China, May 24-27, 2015.
[13] Linmao Yin, Zhong Zeng, Long Qiao, Yi Zhang, Linear stability analysis of thermocapillary flow using a spectral element method, 6th China-Germany Workshop on Microgravity and Space Life Sciences, Hangzhou, China, September 26-28, 2015. 报告人尹林茂
[12] Linmao Yin, Zhong Zeng, Liangqi Zhang, The 7th International Conference on Fluid Mechanics, Qingdao, Shandong, China, 05, 2015. 报告人尹林茂
[11] Long Qiao, Zhong Zeng and Haiqiong Xie, Phase-field-based finite volume method for simulating thermocapillary flows, 7th International Conference on Fluid Mechanics, Qingdao, China, May 24-27, 2015. 报告人乔龙
[10] liangqi Zhang, Zhong Zeng, Comparisons of Lattice Boltzmann Models for Incompressible Flow, 2014 Conference on Computational Mechanics (CCM), Suzhou, China May 16-18, 2014..
[9] Zhong Zeng, Long Qiao, Yaping Liu, Yuui Yokota, Yoshi Kawazoe, Akira Yoshikawa, Modified Micro-Pulling Down Crystal Growth Method to Improve theRadial Distribution of Dopant, The 9th General Meeting of ACCMS-VO , Okinawa, JAPAN, December 20-22, 2014.
[8] Liangqi Zhang, Zhong Zeng, Comparisons of Lattice Boltzmann Models for Incompressible Flow, 2014 Conference on Computational Mechanics (CCM), Suzhou, 05, 2014.(英文报告).
[7] Liangqi Zhang, Eighth International Conference on Computational Fluid Dynamics, Chengdu, 07, 2014.
[6] Huan Mei, Zhong Zeng, Zhouhua Qiu, Liangqi Zhang, Zu’an Tian, Linmao Yin, Linear stability analysis of lid-driven cavity flow using a spectral element method, 23rd International congress of Theoretic and Applied Mechanics,Beijing, China, August 19-24,2012
[5] Liangqi Zhang, Zhong Zeng, Haiqiong Xie, Gongyou Liang, Hiroshi Mizuseki, Yoshiyuki Kawazoe, An improved lattice Boltzmann model for incompressible flow, 23rd International congress of Theoretic and Applied Mechanics,Beijing, China, August 19-24,2012
[4] Zhouhua Qiu, Zhong Zeng, Huan Mei, Hiroshi Mizuseki, Yoshiyuki Kawazoe,An advantage of spectral element method for solving incompressible Navier-Stokes equations, 23rd International congress of Theoretic and Applied Mechanics,Beijing, China, August 19-24,2012
[3] 张良奇, 曾忠, 梁功有, 谢海琼, 一个改进的不可压缩格子Boltzmann 模型, 2012年全国计算力学大会, 重庆, 11, 2012.(中文报告).
[2] 张良奇, 曾忠, 一个新的不可压缩格子Boltzmann 模型, 2014年五校航空航天及力学学术论坛, 重庆, 04, 2014.(中文报告).
[1] Zhong Zeng，Liping Yao, Hiroshi Mizuseki and Yoshiyuki Kawazoe, Convection control by rotating magnetic field in floating zone model, The Sixth General Meeting of ACCMS-VO, Sendai-Matsushima, JAPAN，February 10th-12th, 2012
[3] Liangqi Zhang, Haiqiong Xie, 2014 Summer School and International Symposium on Fundamental Issues of Multiphase Flows, Wuhan, China, 06, 2014.
[2] Liangqi Zhang, Haiqiong Xie, 2012 Summer School on the Lattice Boltzmann Method, Beijing, China, 07, 2012.
[1] Liangqi Zhang, Haiqiong Xie, 2011 Summer School on the Lattice Boltzmann Method, Beijing, China, 05, 2011.
