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Facile Characterization and Quantification of Total Petroleum Hydrocarbon and Polycyclic Aromatic Hydrocarbons in Water and Sediment Samples from Three Creeks in Bonny L.G.A of Rivers State, Nigeria

Document Type : Research Paper

Authors

1 University of Port Harcourt

2 Department of Pure and Industrial Chemistry, Faculty of Science, University of Port Harcourt, Rivers State, Nigeria

Abstract
The exploration and exploitation of crude oil in Niger Delta has resulted in continued oil spillage into the water bodies and the land around the region. Hence, this study focuses on the evaluation of the amount and types of Polycyclic Aromatic Hydrocarbons (PAHs) and Total Petroleum Hydrocarbons (TPH) in the water and sediment samples of three Creeks namely Fibiri, Adamkiri, and Okpokoma Dappa in Bonny Local Government Area of Rivers State using Gas Chromatography-Flame Ionization Detector (GC-FID). The results obtained revealed variations in the concentrations of PAHs and TPH within the sediment and water samples extracted from these three locations. Fibiri Creek emerged as the focal point of heightened 16-priority PAH levels studied, succeeded by Adamikiri and Okpokoma Dappa Creeks. Similarly, the concentration of TPH in water samples mirrors the decreasing order across the three Creeks as Fibiri > Adamakiri > Okpokoma Dappa. In Fibiri Creek, n-C32 commands the highest concentration at 11.3224 ppm, while Okpokoma Dappa manifests the lowest concentration with n-C11 registering at 1.19456 e-2 ppm. This study exposed that Low Molecular Weight (LMW) PAHs such as naphthalene, acenaphthylene, acenaphthene, fluorene, and anthracene were predominant underscoring the pervasive influence of petroleum-related activities. However, High Molecular Weight (HMW) PAHs like Dibenzo [a, h] anthracene was also discernible contributing to the complex PAH profile observed across the studied Creeks. This research provides a good knowledge of hydrocarbon matrices across the three Creeks, offering a foundation for targeted environmental management strategies and remediation efforts.

Keywords

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[1]  J.  Craig,  Encyclopedia  of  Earth  Sciences  Series.  Springer,  Cham. 
https://doi.org/10.1007/978-3-319-02330-4_34-1 (2020). 
[2]  R.  P.  Philp,  Handbook  of  Hydrocarbon  and  Lipid  Microbiology.  Springer,  Cham. 
https://doi.org/10.1007/978-3-319-90569-3_13 (2020). 
[3] O. A. Atunbi, Inter J Petro Environ Eng, 2(2), 35-42 (2011). 
[4] I. L. Briggs, B. C. Briggs, Academic Press, 143-147 (2018). 
[5]  O.  W.  Achaw,  E.  Danso-Boateng,  Chemical  and  Process  Industries.  Springer,  Cham. 
https://doi.org/10.1007/978-3-030-79139-1_9 (2021). 
[6] M. C. Dayane, F. Daniela, V. Gabriela, O. G. Alexandre, A. A. Débora, Fuel, 311, 122594 
(2022). 
[7] M. G. Commendatore, I. L. Esteves, Inter J Environ Pollut, 31(4), 428-444 (2004). 
[8]  I. García-Bautista, U. García-Cruz, N.  Pacheco,  et  al., Bull Environ Contam  Toxicol, 108, 
107-113 (2022). 
[9] S. Hosseini, R. Sharifi, A. Habibi, Arch Microbiol, 206, 98 (2024).  
[10] C. Liang, Z. Wu, J. Zhao, L. Zhu, J Hazard Mater, 169(1-2), 552-558 (2009). 
[11] I. C. Ossai, A. Ahmed, A. Hassan, F. S. Hamid, Environ Technol Inn, 17, 100526 (2020). 
[12] P. Navarro, D. Moreno, M. Larriba, J. García, F. Rodríguez, R. I. Canales, J. Palomar, Sep 
Purif Technol, 316, 123848 (2023). 
[13]  B.  Selvaraj,  J.  Gitanjali,  R.  Gandhimathi,  S.  Nadana,  K.  N.  Aruljothi,  J.  Lee,  K. 
Sabariswaran, Chemosphere, 337, 139396 (2023). 
[14] C. R. Marris, S. N. Kompella, M. R. Miller,  J. P.  Incardona, F. Brette,  J. C. Hancox, E. 
Sørhus, H. A. Shiels, J Physiol, 598(2), 227-247 (2020). 
[15] A. B. Patel, S. Shaikh, K. R.  Jain, C. Desai, D. Madamwar, Front Microbiol, 11, 562813 
(2020). 
 [16]  S.  Kuppusamy,  N.  R.  Maddela,  M.  Megharaj,  K.  Venkateswarlu,  Total  Petroleum 
Hydrocarbons. Springer, Cham. https://doi.org/10.1007/978-3-030-24035-6_1 (2020). 
[17] M. A.  I. Khan, B. Biswas, E. Smith, R. Naidu, M. Megharaj, Chemosphere, 212, 755-767 
(2018). 
[18] I. E. Daniel, P. J. Nna, Asian J Environ Ecology, 1(2), 1-7 (2016). 
[19] V. Ighariemu, D. C. Belonwu, M. O. Wegwu, Toxicol Environ Health Sci, 11(2), 114-119 
(2019). 
[20] S. E. Inyang, A. B. Aliyu, A. O. Oyewale, J Appl Sci Environ Manage, 22(12), 1953 (2019). 
[21] R. J. Law, J. Klungsoyr, Inter J Environ Pollut, 13(1-6), 262-283 (2000). 
[22] N. U. Benson, J. P. Essien, Curr Sci, 96(2), 238-244 (2009). 
[23] E. Ogolo, J Environ Res Develop, 16(3), 248-256 (2022). 
[24] R. Uhunmwangho, C. Emu, K. E. Okedu, Inter J Eng Res Afri, 53, 157-170 (2021). 
[25] A. Inengite, N. C. Oforka, L. Osuji, Inter J Appl Environ Sci, 5, 127-143 (2010). 
[26] H. Jia, L. Gu, Environ Sci Pollut Res Inter, 27(26), 32710-32718 (2020). 
[27] D. N. Ogbonna, M. E. Origbe, Inter J Environ Climate Change, 11(6), 90-99 (2021). 
[28] L. Dong, L. Lin,  J. He, Z. Pan, X. Wu, Y. Yang, Z.  Jing, S. Zhang, G. Yin, Proc Safety 
Environ Prot,164, 208-218 (2022). 
[29] W. Guo, M. He, Z. Yang, C. Lin, X. Quan, Sci Total Environ, 569, 1052-1060 (2016). 
[30] Y. Cao, J. Wang, M. Xin, B. Wang, C. Lin, Water Res, 248, 120873 (2024). 
[31] Y. Jabali, A. Iaaly, M. Millet, Environ Monit Assess 193, 714 (2021). 
[32] A. Adejumo, A. Adebayo, Environ Pollut, 159(8-9), 2170-2175 (2011). 
[33] R. A. Grmasha, C. Stenger-Kovács, O. J. Al-sareji, et al., Sci Rep, 14, 8318 (2024). 
[34] J. Dachs, P. Mayer, Estuar Coast Shelf Sci, 64(1), 1-2 (2005). 
[35] M. Y. Foshtomi, S. Oryan, M. Taheri, K. D. Bastami, M. A. Zahed, Marine Pollut Bull,149, 
110655 (2019). 
[36] A. Buchelis, H. C. B. Hansen, G. Jonsson, Marine Pollut Bull, 60(11), 2055-2063 (2010). 
[37] G. Sun, Y. Xu, Sci Total Environ, 605, 1086-1102 (2017).