[1] Wei T., Zhang B., Wang S., et al. Numerical analysis of passive safety injection driven by natural circulation in floating nuclear power plant[J]. Energy, 2023, 263: 126077.
[2] Weian Du, Yusheng Liu, Hongsheng Yuan, Shouxu Qiao, SichaoTan. Experimental investigation on natural convection and thermal stratification of IRWST using PIV measurement. International Journal of Heat and Mass Transfer, Volume 136, June 2019, Pages 128-145.
[3]Ayodeji A.Ala,Sichao Tan,Abdelgadir Eltayeb,Zahraddeen Abbati. Experimental study on sudden contraction and split into the inlets of two parallel rectangular jets. Experimental Thermal and Fluid Science,Volume 104, June 2019, Pages 272-283.
[4]Kun Cheng, Tao Meng, Sichao Tan, Zheng Liu. Experimental study on natural circulation flow instability in parallel boiling channels under low pressure. International Journal of Heat and Mass Transfer, Volume 132, April 2019, Pages 1126-1136.
[5]Chen Zeng, Sichao Tan, Shouxu Qiao, Fulong Zhao, Tao Meng. A simplified method for calculating the heat rejection from a rectangle droplet sheet. International Journal of Heat and Mass Transfer, Volume 132, April 2019, Pages 762-771 .
[6]Xing Li, Peiyao Qi, Tingjie Zhao, Shouxu Qiao, Sichao Tan. LIF study of temporal and spatial fluid mixing in an annular downcomer. Annals of Nuclear Energy, Volume 126, April 2019, Pages 220-232.
[7]KunCheng, TaoMeng, FulongZhao, SichaoTan. Development and validation of a thermal hydraulic transient analysis code for offshore floating nuclear reactor based on RELAP5/SCDAPSIM/MOD3.4. Annals of Nuclear Energy, Volume 127, May 2019, Pages 215- 226.
[8]Tao Meng, Kun Cheng, Chen Zeng, Yuhao He, Sichao Tan. Preliminary control strategies of megawatt-class gas-cooled space nuclear reactor with different control rod configurations. Progress in Nuclear Energy, Volume 113, May 2019, Pages 135 -144.
[9]Abdelgadir Eltayeb, Sichao Tan, Zhang Qi, Ayodeji A. Ala, Nisrene. M. Ahmed. PLIF experimental validation of a FLUENT CFD model of a coolant mixing in reactor vessel down-comer. Annals of Nuclear Energy, Volume 128, June 2019, Pages 190-202.
[10]Xing Li, Zhengpeng Mi, Sichao Tan, Xiaoyu Wang, Ruiqi Wang. Experimental investigation of fluid mixing inside a rod bundle using laser induced fluorescence. Progress in Nuclear Energy, 2019,90-102.
[11]Kun Cheng, Tao Meng, Chunping Tian, Hongsheng Yuan, Sichao Tan*, Experimental investigation on flow characteristics of pressure drop oscillations in a closed natural circulation loop: International Journal of Heat and Mass Transfer, 2018, 122: 1162-1171 .
[12]Xing Li, Zhengpeng Mi, Sichao Tan, Ruiqi Wang, Xiaoyu Wang, PIV study of velocity distribution and turbulence statistics in a rod bundle, Annals of Nuclear Energy, Volume 117, July 2018, Pages 305-317.
[13]HongshengYuan, SichaoTan, WeianDu, ShuhuaDing, ChaoGuo. Heterogeneous bubble nucleation model on heated surface based on free energy analysis. International Journal of Heat And Mass Transfer, Volume 122, July 2018, Pages 1198-1209.
[14]Ayodeji AdebisiAla, SichaoTan, Abdelgadir Eltayeb, ZhengpengMi. Effects of low-Re pulsatile flow on friction characteristics in bare square array rod bundles. Annals Of Nuclear Energy, Volume 120, October 2018, Pages 630-641.
[15]Zhuang, N., S. Tan, and H. Yuan, 2017, Flow resistance of low-frequency pulsatile turbulent flow in mini-channels. International Journal of Heat and Fluid Flow, v 65: p. 21-32.
2016
[16]Wang, X., R. Wang, S. Du, J. Chen, and S. Tan, 2016, Flow visualization and mixing quantification in a rod bundle using laser induced fluorescence: Nuclear Engineering and Design, v. 305, p. 1-8.
[17]Yu, Z., H. Yuan, C. Chen, Z. Yang, and S. Tan, 2016, Two-phase flow instabilities of forced circulation at low pressure in a rectangular mini-channel: International Journal of Heat and Mass Transfer, v. 98, p. 438-447.
[18]Yu, Z., S. Tan, H. Yuan, C. Chen, and X. Chen, 2016, Experimental investigation on flow instability of forced circulation in a mini-rectangular channel under rolling motion: International Journal of Heat and Mass Transfer, v. 92, p. 732-743.
[19] Yuan, H., S. Tan, J. Wen, and N. Zhuang, 2016, Heat transfer of pulsating laminar flow in pipes with wall thermal inertia: International Journal of Thermal Sciences, v. 99, p. 152- 160.
[20] Yuan, H., S. Tan, L. Feng, and X. Liu, 2016, Heterogeneous bubble nucleation on heated surface from insoluble gas: International Journal of Heat and Mass Transfer, v. 101, p. 1185-1192 .
[21] Yuan, H., S. Tan, N. Zhuang, and S. Lan, 2016, Flow and heat transfer in laminar-turbulent transitional flow regime under rolling motion: Annals of Nuclear Energy, v. 87, p. 527 -536.
[22]Zhuang, N., S. Tan, and H. Yuan, 2016, The friction characteristics of low-frequency transitional pulsatile flows in narrow channel: Experimental Thermal and Fluid Science, v. 76, p. 352-364.
[23]Hongsheng Yuan, Sichao Tan, Nailiang Zhuang, Shu Lan. Flow and heat transfer in laminar–turbulent transitional flow regime under rolling motion. Annals of Nuclear Energy, Volume 87, Part 2, January 2016, Pages 527-536.
[24]Li, S., S. Tan, and H. Yuan, 2015, Theoretical study on temperature oscillation of a parallel-plate in pulsating flow condition: International Journal of Heat and Mass Transfer, v. 81, p. 28-32.
[25]Li, S., S. Tan, C. Xu, and P. Gao, 2015, Visualization study of bubble behavior in a subcooled flow boiling channel under rolling motion: Annals of Nuclear Energy, v. 76, p. 390-400.
[26]Yu, Z., S. Lan, H. Yuan, and S. Tan, 2015, Temperature fluctuation characteristics in a mini-rectangular channel under rolling motion: Progress in Nuclear Energy, v. 81, p. 203-216.
[27]Li, S., S. Tan, P. Gao, and C. Xu, 2014, Experimental research of bubble number density and bubble size in narrow rectangular channel under rolling motion: Nuclear Engineering and Design, v. 268, p. 41-50.
[28]Yuan, H., S. Tan, N. Zhuang, and L. Tang, 2014, Theoretical analysis of wall thermal inertial effects on heat transfer of pulsating laminar flow in a channel: International Communications in Heat and Mass Transfer, v. 53, p. 14-17.
[29]Zhang, W., S. Tan, P. Gao, Z. Wang, L. Zhang, and H. Zhang, 2014, Non-linear time series analysis on flow instability of natural circulation under rolling motion condition: Annals of Nuclear Energy, v. 65, p. 1-9.
[30]Zhuang, N., S. Tan, H. Yuan, and C. Zhang, 2014, Flow resistance characteristics of pulsating laminar flow in rectangular channels: Annals of Nuclear Energy, v. 73, p. 398-407.
[31]Tan, S., Z. Wang, C. Wang, and S. Lan, 2013, Flow fluctuations and flow friction characteristics of vertical narrow rectangular channel under rolling motion conditions: Experimental Thermal and Fluid Science, v. 50, p. 69-78.
[32]Li, S., S. Tan, C. Xu, P. Gao, and L. Sun, 2013, An experimental study of bubble sliding characteristics in narrow channel: International Journal of Heat and Mass Transfer, v. 57, p. 89-99.
[33]张文超,谭思超,高璞珍. The identification and forecasting of chaos for natural circulation flow instabilities under rolling motion摇摆条件下自然循环系统流量混沌脉动的检验与预测.物理学报,2013年62卷144706-144706.
[34]张文超,谭思超,高璞珍. Chaotic forecasting of natural circulation flow instabilities under rolling motion based on lyapunov exponents基于Lyapunov指数的摇摆条件下自然循环流动不稳定性混沌预测.物理学报,2013年62卷53-60.
[35]Tan, S. C., G. H. Su, and P. Z. Gao, 2009, Experimental and theoretical study on single-phase natural circulation flow and heat transfer under rolling motion condition: Applied Thermal Engineering, v. 29, p. 3160-3168.
[36]Tan, S., G. H. Su, and P. Gao, 2009, Experimental study on two-phase flow instability of natural circulation under rolling motion condition: Annals of Nuclear Energy, v. 36, p. 103-113.
[37]Tan Si-chao, G. H. Su, Gao Pu-zhen. Heat transfer model of single-phase natural circulation flow under a rolling motion condition. Nuclear Engineering and Design, Volume 239, Issue 10, October 2009, Pages 2212-2216.