WANG Naihua

Professor   Supervisor of Doctorate Candidates   Supervisor of Master's Candidates

Name (Simplified Chinese):王乃华

Name (English):WANG Naihua

Name (Pinyin):WANG Naihua

E-Mail:

Date of Employment:2002-04-01

School/Department:热科学与工程研究中心

Administrative Position:教授

Education Level:With Certificate of Graduation for Doctorate Study

Business Address:山东大学千佛山校区,东配楼308

Gender:Male

Degree:Doctor

Status:Employed

Academic Titles:高等技术研究院 / 热科学与工程研究中心

Alma Mater:浙江大学

College:Institute of Thermal Science and Technology

Discipline:Thermal Power Engineering
Engineering Thermophysics
Power Engineering
Nuclear Science and Engineering

Academic Honor

2012   Candidate of the Program for New Century Excellent Talents of the Ministry of Education

Honor

2012   教育部新世纪人才


Paper Publications

Experimental study of heat transfer characteristics on condensation in the presence of NCG through thermal resistance analysis

Hits:

Title of Paper:Experimental study of heat transfer characteristics on condensation in the presence of NCG through thermal resistance analysis

Journal:Progress in Nuclear Energy

Key Words:As an efficient approach of heat transfer, condensation is applied to the passive containment cooling system in the nuclear power plant for a fast export of heat. However, the existence of noncondensable gases in the containment will inhibit condensation heat transfer then increase the risks to the nuclear power reactors. In order to search effective methods to improve the condensation heat transfer, this study investigated condensation in the presence of NCG experimentally focusing on two aspects: (i) to search heat transfer characteristics of filmwise condensation; (ii) to evaluate possible heat transfer enhancement taken by dropwise condensation. For the first one, a new numerical model was developed to quantitatively analyze the thermal resistance distribution in the condensation process. The result indicated that the effect of various parameters on condensation heat transfer depended on the variation of both the thermal resistances of the liquid film and NCG accumulation layer. It provided a reliable explanation for the divergence of early perspectives around the effects on condensation heat transfer of subcooling or system pressure. For the second one, dropwise mode was proved to significantly enhance the condensation heat transfer when the noncondensable gas existed. However, this heat transfer enhancement is limited by the NCG accumulation in the gaseous mixture.

Volume:2021

Issue:131

DOI Number:10.1016/j.pnucene.2020.103591

Translation or Not:No

Date of Publication:2020-12

Included Journals:SCI

Release Time:2021-03-04