Xiuzhong Shen
@kyoto-u.ac.jp
Institute for Integrated Radiation and Nuclear Science, Kyoto University
Kyoto University
RESEARCH INTERESTS
Heat transfer and boiling two-phase flow
Scopus Publications
Scopus Publications
Xiuzhong Shen, Toshihiro Yamamoto, Ken Nakajima, and Takashi Hibiki
Elsevier BV
Vikrant Siddharudh Chalgeri, Xiuzhong Shen, and Toshihiro Yamamoto
Elsevier BV
Haomin Sun, Tomoaki Kunugi, Takehiko Yokomine, Xiuzhong Shen, and Takashi Hibiki
Elsevier BV
Haomin Sun, Tomoaki Kunugi, Takehiko Yokomine, Xiuzhong Shen, and Takashi Hibiki
Elsevier BV
Xiuzhong Shen, Toshihiro Yamamoto, Xu Han, and Takashi Hibiki
Springer Science and Business Media LLC
Toshihiro Yamamoto, Xiuzhong Shen, and Hiroki Sakamoto
Elsevier BV
Xiuzhong Shen and Takashi Hibiki
Elsevier BV
Takashi Hibiki, Peng Ju, Somboon Rassame, Shuichiro Miwa, Xiuzhong Shen, and Tetsuhiro Ozaki
Elsevier BV
Takashi Hibiki, Kenichi Katono, and Xiuzhong Shen
Elsevier BV
Xu Han, Xiuzhong Shen, Toshihiro Yamamoto, Ken Nakajima, Haomin Sun, and Takashi Hibiki
Elsevier BV
Toshihiro Yamamoto, Xiuzhong Shen, and Hiroki Sakamoto
Elsevier BV
Xiuzhong Shen and Takashi Hibiki
Elsevier BV
Xu Han, Xiuzhong Shen, Toshihiro Yamamoto, Ken Nakajima, and Takashi Hibiki
Elsevier BV
Xu Han, Xiuzhong Shen, Toshihiro Yamamoto, Ken Nakajima, Haomin Sun, and Takashi Hibiki
Elsevier BV
Xiuzhong Shen, Shuichiro Miwa, Yigeng Xiao, Xu Han, and Takashi Hibiki
Springer Science and Business Media LLC
Xiuzhong Shen and Takashi Hibiki
Elsevier BV
Takashi Hibiki, Tetsuhiro Ozaki, Xiuzhong Shen, Shuichiro Miwa, Ikuo Kinoshita, Tatsuya Hazuku, and Somboon Rassame
Elsevier BV
Xiuzhong Shen and Takashi Hibiki
Elsevier BV
Xiuzhong Shen and Baoqing Deng
Elsevier BV
Xiuzhong Shen, Joshua P. Schlegel, Takashi Hibiki, and Hideo Nakamura
Elsevier BV
Xiuzhong Shen, Haomin Sun, Baoqing Deng, Takashi Hibiki, and Hideo Nakamura
Elsevier BV
Joshua P. Schlegel, Takashi Hibiki, Xiuzhong Shen, Santosh Appathurai, and Hariprasad Subramani
Informa UK Limited
ABSTRACT A computer code has been written to predict interfacial area transport within the framework of the two-fluid model. The suitability of various constitutive models was evaluated from a scientific and numerical standpoint, and selected models were used to close the two-fluid model. The resulting system was then used to optimize the empirical constants in the interfacial area transport equation for large diameter pipes. The optimized model was evaluated based on comparison with the data of Shen et al. and Schlegel et al. The optimization shows agreement with previous research conducted by Dave et al. and Talley et al. using TRACE-T, and reduced the RMS error in the interfacial area concentration prediction for the large diameter pipe data from 52.3% to 34.9%. The results also highlight a need for additional high-resolution data at multiple axial locations to provide a more detailed picture of the axial development of the flow. The results also indicate a need for improved modeling of the interfacial drag, especially for Taylor cap bubbles under relatively low void fraction conditions.
Xiuzhong Shen and Baoqing Deng
Elsevier BV