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Explore the Impact of Surfactant Type on the Stability and Separation Efficiency of Oil–Water Emulsions of Real Wastewater from Al-Basrah Crude Oil Using Microbubble Air Flotation

Treść / Zawartość
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Warianty tytułu
Języki publikacji
EN
Abstrakty
EN
Among several separation processes, the air flotation distinguish as remarkably high potential separation process related to its high separation efficiency and throughput, energy-efficient, simple process, cost-effective, applicable to a wide range of oily wastewater and no by-products. The current study aimed to investigate the effect of the type and concentration of surfactant on the stability of oil-water emulsion and efficiency of the separation process. For this purpose, three types of surfactant where used (anionic SDS, mixed nonionic Span 85/Tween 80, and cationic CTAB). The results demonstrated that the Span 85/Tween 80 surfactant has the best stability, and it increases with the surfactant concentration augmentation. The removal efficiency with CTAB surfactant reached to approximately 95% at concentration of 0.3%, and decreased by increasing the surfactant concentration. The mean diameter of bubbles generated in emulsion with CTAB surfactant was 71 µm, which was lower than that obtained with the other two surfactants.
Słowa kluczowe
Rocznik
Strony
367--378
Opis fizyczny
Bibliogr. 46 poz., rys., tab.
Twórcy
  • Department of Chemical Engineering, College of Engineering, University of Baghdad, Baghdad, Iraq
  • Department of Civil Engineering, College of Engineering, Ashur University, Baghdad, Iraq
  • Department of Chemical Engineering, College of Engineering, University of Baghdad, Baghdad, Iraq
Bibliografia
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  • 2. Al-Dulaimi, S.L., Al-Yaqoobi, A.M. 2021. Separation of oil/water emulsions by microbubble air flotation. IOP Conference Series: Materials Science and Engineering, 1076(1), 012030.
  • 3. Al-Yaqoobi, A.M.G., Zimmerman, W.B. 2022. Relative wettability measurement of porous diffuser and its impact on the generated bubble size. Chemical and Process Engineering - Inzynieria Chemiczna i Procesowa, 43(1), 45–55.
  • 4. Alkarbouly, S.M., Waisi, B.I. 2022. Fabrication of electrospun nanofibers membrane for emulsified oil removal from oily wastewater. Baghdad Science Journal 19(6), 1238–1248.
  • 5. Anestopoulos, I., Kiousi, D.E., Klavaris, A., Galanis, A., Salek, K., Euston, S.R., Pappa, A., Panayiotidis, M.I. 2020. Surface active agents and their healthpromoting properties: Molecules of multifunctional significance. Pharmaceutics, 12(7), 1–35.
  • 6. Arafat, A.S. 2014. Oily water treatments for Southern Iraqi Oil. College of Engineering of Nahrain University, 133.
  • 7. Basařová, P., Zedníková, M. 2019. Effect of Surfactants on Bubble-Particle Interactions. In (ed. A. K. Dutta), pp. Ch. 3, Rijeka: IntechOpen.
  • 8. Belhaj, A.F., Elraies, K.A., Mahmood, S.M., Zulkifli, N.N., Akbari, S., Hussien, O.S.E. 2020. The effect of surfactant concentration, salinity, temperature, and pH on surfactant adsorption for chemical enhanced oil recovery: a review. Journal of Petroleum Exploration and Production Technology, 10(1), 125–137.
  • 9. Brun, M., Delample, M., Harte, E., Lecomte, S., Leal-Calderon, F. 2015. Stabilization of air bubbles in oil by surfactant crystals: A route to produce airin-oil foams and air-in-oil-in-water emulsions. Food Research International, 67, 366–375.
  • 10. Chakibi, H., Hénaut, I., Salonen, A., Langevin, D., Argillier, J.-F. 2018. Role of Bubble–Drop Interactions and Salt Addition in Flotation Performance. Energy & Fuels, 32(3), 4049–4056.
  • 11. Chen, S., Zhou, Y., Liu, R., Zhou, A., Qu, J., Liu, L., Zhang, N., Yu, Y., Zhu, Z., Chang, J., Tao, X., Yuan, X., Li, Z. 2023. Comparison of attachment process of particles to air and oily bubbles in flotation. Advanced Powder Technology, 34(7), 104059.
  • 12. Dobrowolska, M.E., Koper, G.J.M. 2014. Optimal ionic strength for nonionically initiated polymerization. Soft Matter, 10(8), 1151–1154.
  • 13. Dziza, K., Santini, E., Liggieri, L., Jarek, E., Krzan, M., Fischer, T., Ravera, F. 2020. Interfacial properties and emulsification of biocompatible liquidliquid systems. Coatings, 10(4), 397.
  • 14. Faiq Al-Alawy, A., Jabbar Madlool, J. 2014. Coagulation/ flocculation, microfiltration and nanof iltration for water treatment of main outfall drain for injection in nasiriyah oil field. Iraqi Journal of Chemical and Petroleum Engineering, 15(4), 47–66.
  • 15. Han, Q., Kang, Y. 2017. Separation of water-inoil emulsion with microfiber glass coalescing bed. Journal of Dispersion Science and Technology, 38(11), 1523–1529.
  • 16. Jávor, Z., Schreithofer, N., Heiskanen, K. 2016. Multiscale analysis of the effect of surfactants on bubble properties. Minerals Engineering, 99, 170–178.
  • 17. Jawad, A.S., Al-Alawy, A.F. 2020. Synthesis and characterization of coated magnetic nanoparticles and its application as coagulant for removal of oil droplets from oilfield produced water. AIP Conference Proceedings 2213(March).
  • 18. Kumar, A., Selvam, P. 2018. Removal of Dispersed Oil Drops by Induced Gas Flotation, 1–59.
  • 19. Kumar, S., Mahto, V. 2017. Use of a Novel Surfactant to Prepare Oil-in-Water Emulsion of an Indian Heavy Crude Oil for Pipeline Transportation. Energy and Fuels, 31(11), 12010–12020.
  • 20. Kyzas, G.Z., Matis, K.A. 2018. Flotation in water and wastewater treatment. Processes 6(8), 116.
  • 21. Lee, J., Nikolov, A., Wasan, D. 2014. Surfactant micelles containing solubilized oil decrease foam film thickness stability. Journal of Colloid and Interface Science, 415, 18–25.
  • 22. Lv, G., Wang, F., Cai, W., Zhang, X. 2014. Characterization of the addition of lipophilic Span 80 to the hydrophilic Tween 80-stabilized emulsions. Colloids and Surfaces A: Physicochemical and Engineering Aspects, 447, 8–13.
  • 23. Liyana, M., Nour, A., Rizauddin, D., Gimbun. J., Nurdin, S. 2014. Stabilization and Characterization of Heavy Crude Oilin-Water (O/W) Emulsions. International Journal of Research in Engineering and Technology, 3(2), 489–496.
  • 24. Majumder, S.K., Kumar, G. 2016. Process intensification of oily wastewater treatment by ionic microbubble in a plant prototype. Int’l Journal of Research in Chemica, 3(1), 3–8.
  • 25. Mohammed, S.A.M., Fadhil, A.A. 2015. Improving treatment performance of dissolved air flotation system by using ionic liquids as surfactants. Iraqi Journal of Chemical and Petroleum Engineering, 16(2), 31–37.
  • 26. Mozaffari, S. 2015. Rheology of Bitumen at the Onset of Asphaltene Aggregation and its Effects on the Stability of Water-in-Oil Emulsion, University of Alberta, 99.
  • 27. Ogunbiyi, O., Liu, Z. 2023. 7 - Air flotation techniques for oily wastewater treatment. In (eds. A. Basile, A. Cassano, M. R. Rahimpour, & M.A.B.T.A.T. in W.T. Makarem), 153–172, Elsevier.
  • 28. Parhizkar, M., Edirisinghe, M., Stride, E. 2015. The effect of surfactant type and concentration on the size and stability of microbubbles produced in a capillary embedded T-Junction device. RSC Advances, 5(14), 10751–10762.
  • 29. Pérez-Calderón, J., Santos, M.V., Zaritzky, N. 2018. Optimal clarification of emulsified oily wastewater using a surfactant/chitosan biopolymer. Journal of Environmental Chemical Engineering, 6(4), 3808–3818.
  • 30. Poh, P.E., Ong, W.Y.J., Lau, E.V, Chong, M.N. 2014. Investigation on micro-bubble flotation and coagulation for the treatment of anaerobically treated palm oil mill effluent (POME). Journal of Environmental Chemical Engineering, 2(2), 1174–1181.
  • 31. Prakash, R., Majumder, S.K., Singh, A. 2018. Flotation technique: its mechanisms and design parameters. Chemical Engineering and Processing, 127, 249–270.
  • 32. Rao, N.R.H., Beyer, V.P., Henderson, R.K., Thielemans, W., Muylaert, K. 2023. Microalgae harvesting using flocculation and dissolved air flotation: selecting the right vessel for lab-scale experiments. Bioresource Technology, 374, 128786.
  • 33. Reis, A.S., Filho, A.M.R., Carvalho, G.R.L., Barrozo, M.A.S. 2017. Effect of surfactant on bubble size and air holdup on column flotation. Materials Science Forum, 899, 71–76.
  • 34. Rocha e Silva, F.C.P., Rocha e Silva, N.M.P., Luna, J.M., Rufino, R.D., Santos, V.A., Sarubbo, L.A. 2018. Dissolved air flotation combined to biosurfactants: a clean and efficient alternative to treat industrial oily water. Reviews in Environmental Science and Bio/Technology, 17(4), 591–602.
  • 35. Saad, M.A., Kamil, M., Abdurahman, N.H., Yunus, R.M., Awad, O.I. 2019. An overview of recent advances in state-of-the-art techniques in the demulsification of crude oil emulsions. Processes, 7(7), 1–26.
  • 36. Salih, M.H., Al-Alawy, A.F., Ahmed, T.A. 2021. Oil skimming followed by coagulation/flocculation processes for oilfield produced water treatment and zero liquid discharge system application. AIP Conference Proceedings 2372(November).
  • 37. Satpute, P.A., Earthman, J.C. 2021. Hydroxyl ion stabilization of bulk nanobubbles resulting from microbubble shrinkage. Journal of Colloid and Interface Science, 584, 449–455.
  • 38. Tadros, T.F. 2016. Emulsions: Formation, Stability, Industrial Applications 1st ed., De Gruyter, 243.
  • 39. Wang, C., Lü, Y., Ye, T., Chen, L., He, L. 2023. Investigation on the mechanism of air/condensate bubble flotation of emulsified oil droplet. Process Safety and Environmental Protection, 180, 554–565.
  • 40. Watcharasing, S., Kongkowit, W., Chavadej, S. 2009. Motor oil removal from water by continuous froth flotation using extended surfactant: effects of air bubble parameters and surfactant concentration. Separation and Purification Technology, 70(2), 179–189.
  • 41. Xu, H., Liu, J., Li, X., Zhang, C., Wang, Y. 2016. The effect of bubble size on oil-water separation efficiency for a novel oil-water separation column. Separation Science and Technology (Philadelphia), 51(1), 41–48.
  • 42. Xu, H., Jia, W., Ren, S., Wang, J. 2017. Novel and recyclable demulsifier of expanded perlite grafted by magnetic nanoparticles for oil separation from emulsified oil wastewaters. Chemical Engineering Journal, 337, 10–18.
  • 43. Yan, S., Yang, X., Bai, Z., Xu, X., Wang, H. 2020. Drop attachment behavior of oil droplet-gas bubble interactions during flotation. Chemical Engineering Science, 223, 115740.
  • 44. Yang, J., Pal, R. 2020. Investigation of surfactantpolymer interactions using rheology and surface tension measurements. Polymers, 12(10), 1–20.
  • 45. Zembyla, M., Murray, B.S., Sarkar, A. 2020. Waterin-oil emulsions stabilized by surfactants, biopolymers and/or particles: a review. Trends in Food Science and Technology, 104, 49–59.
  • 46. Zhang, X., Wang, Q., Wu, Z., Tao, D. 2020. An experimental study on size distribution and zeta potential of bulk cavitation nanobubbles. International Journal of Minerals, Metallurgy and Materials, 27(2), 152–161.
Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-1be4e915-30f8-41b4-9997-92a34647cccd
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