A New Synergistic Approach to Studying Drag Reduction of Rigid Polymer and Microbubbles in Turbulent Flow

Drag has been a challenge encountered in liquid transportation of liquids. A universal means of reduction has however, not been implemented. Most efforts made to study its working mechanism and finding best environmental friendly approaches have been major setback. Mostly, materials investigated to...

Deskribapen osoa

Xehetasun bibliografikoak
Egile Nagusiak: Oluwasoga, Akindoyo Edward, Abdulbari, Hayder A., Olaotan, Ogunleye Olaide
Formatua: Conference or Workshop Item
Hizkuntza:English
Argitaratua: Universiti Malaysia Pahang 2016
Gaiak:
Sarrera elektronikoa:http://umpir.ump.edu.my/id/eprint/15830/1/P058%20pg428-436.pdf
_version_ 1825823410232492032
author Oluwasoga, Akindoyo Edward
Abdulbari, Hayder A.
Olaotan, Ogunleye Olaide
author_facet Oluwasoga, Akindoyo Edward
Abdulbari, Hayder A.
Olaotan, Ogunleye Olaide
author_sort Oluwasoga, Akindoyo Edward
collection UMP
description Drag has been a challenge encountered in liquid transportation of liquids. A universal means of reduction has however, not been implemented. Most efforts made to study its working mechanism and finding best environmental friendly approaches have been major setback. Mostly, materials investigated to militate these challenges are either less effective or harmful to the environment. In this work, an environmental friendly approach which entails bubble injection into rigid polymer (Xanthan gum) was investigated. The materials were tested individually and as complex. 51%, 56% and 62% drag reduction were obtained for 700ppm of the xanthan gum alone in the RDA, 700ppm in the pipe and 700ppm of xanthan gum with microbubbles pipe respectively. Despite the fact that the individual additives were able to reduce drag, their complex mixture showed better performance. The performance of the complex could be attributed a synergy which occurs between these additives, thus suggested a new working mechanism of the duo. Based on the combination of these additives, it could be concluded that there is an extra drag reduction when they are combined than the individual additive. Aside this, there is a synergistic relationship in their drag reduction mechanism.
first_indexed 2024-03-06T12:10:51Z
format Conference or Workshop Item
id UMPir15830
institution Universiti Malaysia Pahang
language English
last_indexed 2024-03-06T12:10:51Z
publishDate 2016
publisher Universiti Malaysia Pahang
record_format dspace
spelling UMPir158302018-01-11T04:35:47Z http://umpir.ump.edu.my/id/eprint/15830/ A New Synergistic Approach to Studying Drag Reduction of Rigid Polymer and Microbubbles in Turbulent Flow Oluwasoga, Akindoyo Edward Abdulbari, Hayder A. Olaotan, Ogunleye Olaide TP Chemical technology Drag has been a challenge encountered in liquid transportation of liquids. A universal means of reduction has however, not been implemented. Most efforts made to study its working mechanism and finding best environmental friendly approaches have been major setback. Mostly, materials investigated to militate these challenges are either less effective or harmful to the environment. In this work, an environmental friendly approach which entails bubble injection into rigid polymer (Xanthan gum) was investigated. The materials were tested individually and as complex. 51%, 56% and 62% drag reduction were obtained for 700ppm of the xanthan gum alone in the RDA, 700ppm in the pipe and 700ppm of xanthan gum with microbubbles pipe respectively. Despite the fact that the individual additives were able to reduce drag, their complex mixture showed better performance. The performance of the complex could be attributed a synergy which occurs between these additives, thus suggested a new working mechanism of the duo. Based on the combination of these additives, it could be concluded that there is an extra drag reduction when they are combined than the individual additive. Aside this, there is a synergistic relationship in their drag reduction mechanism. Universiti Malaysia Pahang 2016 Conference or Workshop Item PeerReviewed application/pdf en http://umpir.ump.edu.my/id/eprint/15830/1/P058%20pg428-436.pdf Oluwasoga, Akindoyo Edward and Abdulbari, Hayder A. and Olaotan, Ogunleye Olaide (2016) A New Synergistic Approach to Studying Drag Reduction of Rigid Polymer and Microbubbles in Turbulent Flow. In: Proceedings of The National Conference for Postgraduate Research (NCON-PGR 2016) , 24-25 September 2016 , Universiti Malaysia Pahang (UMP), Pekan, Pahang. pp. 428-436.. (Published) http://ee.ump.edu.my/ncon/wp-content/uploads/2016/10/Proceeding-NCON-PGR-2016.zip
spellingShingle TP Chemical technology
Oluwasoga, Akindoyo Edward
Abdulbari, Hayder A.
Olaotan, Ogunleye Olaide
A New Synergistic Approach to Studying Drag Reduction of Rigid Polymer and Microbubbles in Turbulent Flow
title A New Synergistic Approach to Studying Drag Reduction of Rigid Polymer and Microbubbles in Turbulent Flow
title_full A New Synergistic Approach to Studying Drag Reduction of Rigid Polymer and Microbubbles in Turbulent Flow
title_fullStr A New Synergistic Approach to Studying Drag Reduction of Rigid Polymer and Microbubbles in Turbulent Flow
title_full_unstemmed A New Synergistic Approach to Studying Drag Reduction of Rigid Polymer and Microbubbles in Turbulent Flow
title_short A New Synergistic Approach to Studying Drag Reduction of Rigid Polymer and Microbubbles in Turbulent Flow
title_sort new synergistic approach to studying drag reduction of rigid polymer and microbubbles in turbulent flow
topic TP Chemical technology
url http://umpir.ump.edu.my/id/eprint/15830/1/P058%20pg428-436.pdf
work_keys_str_mv AT oluwasogaakindoyoedward anewsynergisticapproachtostudyingdragreductionofrigidpolymerandmicrobubblesinturbulentflow
AT abdulbarihaydera anewsynergisticapproachtostudyingdragreductionofrigidpolymerandmicrobubblesinturbulentflow
AT olaotanogunleyeolaide anewsynergisticapproachtostudyingdragreductionofrigidpolymerandmicrobubblesinturbulentflow
AT oluwasogaakindoyoedward newsynergisticapproachtostudyingdragreductionofrigidpolymerandmicrobubblesinturbulentflow
AT abdulbarihaydera newsynergisticapproachtostudyingdragreductionofrigidpolymerandmicrobubblesinturbulentflow
AT olaotanogunleyeolaide newsynergisticapproachtostudyingdragreductionofrigidpolymerandmicrobubblesinturbulentflow