@article{scholars10740,
            note = {cited By 21},
         journal = {Thermal Science},
           title = {Condensate retention as a function of condensate flow rate on horizontal enhanced pin-fin tubes},
       publisher = {Serbian Society of Heat Transfer Engineers},
          volume = {2018},
           pages = {3887--3892},
            year = {2018},
             doi = {10.2298/TSCI171129161A},
          author = {Ali, H. M. and Ali, H. and Abubaker, M. and Saieed, A. and Pao, W. and Ahmadlouydarab, M. and Koten, H. and Abid, M.},
            issn = {03549836},
        keywords = {Ethylene; Ethylene glycol; Fins (heat exchange); Floods; Flow rate; Heat transfer, Condensate; Condensate flow rates; Condensate retention; Density ratio; Fin tubes; Floodings; Pin-fin tube; Pin-fins; Retention; Test tube, Surface tension},
        abstract = {The extent of condensate flooding as a function of condensate flow rate is measured on six horizontal pin-fin tubes (varying in circumferential pin- spacing) via simulated experimentation. Surface tension to density ratio is tested using three fluids namely water, ethylene glycol and R-141b. Results show that flooding was strongly effected by changing the condensate flow rate. An increase in flow rate caused a marginal decrease in flooding angle an angle extracted from top of the test tube to the fully flooded flank). Similarly, circumferential pin-spacing also effected the retention angle and the effect goes on increasing by decreasing the surface tension to density ratio. {\^A}{\copyright} 2018 Serbian Society of Heat Transfer Engineers.},
             url = {https://www.scopus.com/inward/record.uri?eid=2-s2.0-85057091042&doi=10.2298\%2fTSCI171129161A&partnerID=40&md5=b2e89d0983f4582cf40f16147a95e31b}
}