Indexed by:Journal Article

First Author:Zhang, Y.

Correspondence Author:Zhang, Y (reprint author), Dalian Univ Technol, Minist Educ, Key Lab Ocean Energy Utilizat & Energy Conservat, Dalian 116024, Liaoning, Peoples R China.

Co-author:Song, Y.C.,Hu, C.

Date of Publication:2013-04-19

Journal:Advanced Materials Research

Included Journals:Scopus、CPCI-S、EI

Document Type:J

Volume:734-737

Page Number:1411-1414

ISSN:9783037857441

Key Words:Joule-Thomson effect; CO2; wellbore heat transfer; temperature distribution

Abstract:Ramey model is a classical wellbore heat transfer model. However Ramey model did not consider Joule-Thomson effect. In this paper, Ramey model is improved by considering Joule-Thomson effect. The results show that Joule-Thomson effect will cause fluid temperature higher due to a positive Joule-Thomson coefficient and pressure rise. Injection temperature has little effect on fluid temperature. Fluid pressure is influenced by fluid viscidity. Higher injection pressure leads to faster pressure increasing speed.