Journal of Geosciences and Geomatics. 2021, 9(3), 96-109
DOI: 10.12691/JGG-9-3-1
Original Research

Biozonation and Sequence Stratigraphic Characterization of Sediments in X-well, JV-field Greater Ughelli Depo-belt Niger Delta Basin

Fregene T.J.1, , Lucas F.A.1 and Onyeachonam N.2

1Department of Geology, University of Benin, Benin City, Nigeria

2Departmen of Marine Geosciences, Univeristät Bremen, Bibliothek Straße, Germany

Pub. Date: July 01, 2021

Cite this paper

Fregene T.J., Lucas F.A. and Onyeachonam N.. Biozonation and Sequence Stratigraphic Characterization of Sediments in X-well, JV-field Greater Ughelli Depo-belt Niger Delta Basin. Journal of Geosciences and Geomatics. 2021; 9(3):96-109. doi: 10.12691/JGG-9-3-1

Abstract

Biozonation and sequence stratigraphic characterization of sediments in X-well, JV-Field Greater Ugheli Depo belt Niger Delta Basin were carried out using a total of One hundred and ninety (190) Ditch cutting samples, with the aim of identifying palynological and foraminiferal bio-events such as abundance, zones, paleoenvironment, age and also identify sequence stratigraphic key surfaces such as Maximum Flooding Surfaces (MFS) and Sequence Boundaries (SB) of sediments penetrated by the drill. Diagnostic Palynomorphs such as Praedapollis africanus, Peregrinipollis nigericus, Retibrevitricolporites obodoensis aided in the establishment of three P-zones which are P620, P580, P560 Zones in the well. P620 and P580 Zones were lumped together and occur at depth 4680ft-7620ft while P560 occur at depth 7620-11580ft, species of foraminifera recorded are calcareous and arenaceous benthic Foraminifera species. Planktic Foraminifera specie are generally absent. Species recorded include Sproplectammina wrightii, Florilus atlanticus, Florilus costiferum, Eponides cf eshira, Quinqueloculina rhodiensis, Nonion centrosulcatum, and Alveolophragmium crassum. Foraminiferal zones established are Nonion centrosulcatum (N9), Fursenkoina punctata (N5) planktic and N8-N5 zone. the well records the occurrence of Two maximum flooding surfaces (Mfs) and two sequence boundary(SB) which was establish in P620/P580 zones and one maximum flooding surface which was established in the P560 Zone. The Sequence boundaries, Maximum flooding surfaces and their respective ages in these palynological zones occurred at various depths, P620 and P580 occurred at 26.2Ma Alabamina 1 Mfs at (6397ft) and 28.1Ma BOLIVINA 27Mfs at (7401ft) and the Sequence boundaries occurred at 6750ft at 27.3Ma SB,7553ft at 29.3Ma SB, P560 occurred at depth 31.3Ma UVIGERINELLA 5Mfs at (11200ft).

Keywords

palynological zones, foraminiferal zones, palynomorphs, maximum flooding surface

Copyright

Creative CommonsThis work is licensed under a Creative Commons Attribution 4.0 International License. To view a copy of this license, visit http://creativecommons.org/licenses/by/4.0/

References

[1]  Ekweozor, C. M., and Daukoru, E.M, (1994). Northern delta depobelt portion of the Akata-Agbada(!) petroleum system, Niger Delta, Nigeria, in, Magoon, L.B., and Dow, W.G., eds., The Petroleum System-From Source to Trap, AAPG Memoir 60: Tulsa, American Association of Petroleum Geologists, p. 599-614.
 
[2]  Whiteman, AJ. (1982). Nigeria: Its Petroleum Geology, Resources and Potential. Graham and Trotman, London. pp. 1-394.
 
[3]  Doust, HE, and Omatsola, E. (1990). Niger Delta, in, Edwards, J. D., and Santogrossi, P.A., eds., Divergent/passive Margin Basins, AAPG Memoir 48: Tulsa, AAPG. p. 239-248.
 
[4]  Blow, W. H., (1979). The Cenozoic Globigerinida: Leiden, E.J. Brill., vol. 3, p. 1413.
 
[5]  Blow, W.H., (1969). Late Miocene to Recent Planktonic Foraminifera Biostratigraphy. In Brönnimann, P. and Renz, H. H. (Eds.), Proceedings First Int. Conf. on Planktonic Microfossils, Geneva, vol. 1, p. 199-422.
 
[6]  Germeraad, JH., Hopings, CA., Muller, J., (1968). Palynology of Tertiary Sediments from tropical areas. Reviewof Paleobotany and Palynology. Elsevier publishing company, Amesterdam 6, (1968), p. 189-348.
 
[7]  Bolli, H. M., and Saunders, J.B., (1985). Oligocene to Holocene low latitude planktic foraminifera: In, H.M. Bolli, J.B. Saunders and K. Perch-Nielsen (Eds.), Plankton Stratigraphy. Cambridge University Press, p. 155-262.
 
[8]  Chiaghanam, OI., Nwozor, KK., Chiadikobi, KC., Omoboriowo, AO., Soronnadi-Ononiwu, C G., Onuba, LN., Ofoma, AE. (2013). Lithofacies, Palynology and Paleoenvironmental Study of Early Campanian to Mid-Maastrichtian Deposits of Udi and Environs. Int. Journ. of Sci. and Tech, Vol. 2, p. 14-16.
 
[9]  Oloto, IN., (1994). Nigerian Maastrichtian to Miocene Dinoflagellate and miospore Biozonation- A summary, Journal of Mining and Geoscience, Vol. 30, p. 61-73.
 
[10]  Lucas, F.A and Fregene T.J (2017).Palynological zonation of Oligocene to early Miocene sediments of Greater Ughelli depobelt, Niger Delta basin. Journal of applied sciences and environmental management (JASEM) December (2017), Vol.21 (7). pp 1341-1345.
 
[11]  Lucas, FA., (2017). Microphytoplankton and Geological Boundaries in Maastrichtian to Lutetian Succession of Ajire-1 well, Anambra Basin,
 
[12]  Lucas F.A, Obiazi C.G, Omodolor H. E and Omontese S.O. Palynofacies Analysis and Palaeoenvironment of FAMO1Well, Upper Benue Trough Nigeria. International Journal of Research for Science and Computational Engineering, Volume-2, Issue-1, JAN- 2016, pp. 1-19.
 
[13]  Lucas F.A and Omodolor Hope E. Lithofacies Characterization of Sedimentary Succession from Oligocene to Early Miocene Age in X2 Well, Greater Ughelli Depo Belt, Niger Delta, Nigeria. Journal of Geosciences and Geomatics. 2018; 6(2): 77-84.
 
[14]  Ononeme O.E, Lucas F.A and Fregene T.J. Paleoenvironmental Recontruction of Tertiary Sediments in F-Field, Greater Ughelli Depobelt Niger Delta Basin, Journal of Geosciences and Geomatics, 2021, Vol. 9, No. 1, 24-27.
 
[15]  Vail, P. R., Mitchum, R. M. and Thompson, S. III, (1977). Seimic stratigraphy and global sea level changes, part 3; relative changes of sea level from coastal onlap. In C. W. Payton, ed., Seimic stratigraphy applications to hydrocarbon exploration: AAPG Memoir. 26, p. 216-235.
 
[16]  Doust, H E and Omatsola, EM. (1990). Niger Delta. In: Edwards J. D. and Santagrossi, P. A (eds), Divergent/Passive Basins. AAPG. Bull. Mem. 45. Tulsa Okhlahoma. p.201-238.
 
[17]  Short, KC and Stauble, AJ (1967). Outline of Geology of the Niger Delta. AAPG Bull 51; vol. 51, no. 5. p.761-779.
 
[18]  Avbovbo, AA. (1978). Tertiary lithostratigraphy of Niger Delta: Ameri. Assoc. of Petro. Geo. Bulle. vol. 62, p. 295-306.
 
[19]  Doust, HE, and Omatsola, E. (1990). Niger Delta, in, Edwards, J. D., and Santogrossi, P.A., eds., Divergent/passive Margin Basins, AAPG Memoir 48: Tulsa, AAPG. p. 239-248.
 
[20]  Weber, KJ. (1982). Hydrocabon distribution pattern in Nigeria growth fault structures. AAPG Bull., vol. 70, p. 661-662.
 
[21]  Weber, KJ and Daukoru, EM (1975). Petroleum Geological aspects of the Niger Delta 9th World Petroleum Congress, Tokyo, Proc., vol. 2, P. 209-221.
 
[22]  Weber, K. J. and Daukoru, E. M., (1975). Petroleum Geological Aspects of Niger Delta. Tokyo. Ninth World Petroleum Congress Proceedings, vol. 5(2), pp. 209-221.
 
[23]  Akpokodje, EG; Etu-Efeotor, JO and Olorunfemi, BN. (1991). The composition and physical properties of some ceramic and pottery clays of South Eastern Nigeria. J. Mini. and Geo. 27, pp 9-15.
 
[24]  Allmon, WD., (1993). In Defense of Paleontology. Geotimes. November 1993, p. 1-5.
 
[25]  Boggs, S. Jr., (2006). Principles of Sedimentology and Stratigraphy: Pearson education Inc. Upper Saddle Rivers, USA, ed P. 581.
 
[26]  Ejedawe, JE. (1981). Patterns of Incidence Of Oil Reserves in Niger Delta Basin. AAPG. Bull. 65, 1574-1585.
 
[27]  Evamy, BD; Haremboure, J;Kamerling, P; Knaap, WA; Molloy, FA and Rowlands, PH. (1978). Hydrocarbon habitat of Tertiary Niger Delta: AAPG. Bull, vol. 62, p. 277-298.
 
[28]  Knox, GJ and Omatsola, EM. (1989). Development of the Cenozoic Niger Delta in terms of the Escalator Regression model and impact on hydrocarbon distribution. Proceedings, KNGMG Coastal lowlands: geology and Geotechtonology. The Hague Netherlands.
 
[29]  Lucas, F.A and Fregene T.J. (2017). Paleoenvironmental reconstruction of Oligocene to early Miocene sediments of Greater Ughelli depobelt, Niger Delta basin. Journal of applied sciences and environmental management (JASEM) January (2018), Vol. 22 (1) pp 99-102. Geotimes. November 1993, p. 1-5.
 
[30]  Lucas, FA., (2017). Miospores and Geological Boundaries in Maastrichtian to Lutetian Succession of Ajire-1 well, Anambra Basin, Nigeria. International Journal of Science and Advanced Innovative Research, Vol. 2(1), pp. 74-84.
 
[31]  Nwajide CS and Reijers TJA. (1996). Geology of the southern Anambra Basin. In selected chapters on Geology, Reijers, T. J. A. (ed.). SPDC Corporate Reprographic Services, Warri, Nigeria, Pp. 215-270.
 
[32]  Nwozor, KR., Omudu, MI., Ozumba, BM., Egbuachor, CJ., Onwuemesi, AG., Anike, OL., (2013). Quantitative evidence of secondary mechanisms of overpressure generation: Insights from parts of Onshore Niger Delta, Nigeria, petr. Techn. Dev. Jour., Vol. 3(1), p. 64-83.
 
[33]  Reijers, T.J.A., Petters, S.W. and Nwajide, C.S (1996). “The Niger Delta Basin.” African Basins, In Selley, R.C. (Ed.). Amsterdam Elserview, pp 150-170.
 
[34]  Stacher, P. (1995). Present understanding of the Niger Delta hydrocarbon habitat, In: Oti, M. N. and Postma, G.(Eds.), Geology of Deltas: Rotterdam, A.A. Balkema, pp. 257-267.
 
[35]  Taylor, SR and McLennan SM. (1985). The Continental Crust: Its Composition and Evolution. Oxford, UK: Blackwell.
 
[36]  Taylor, SR and Mclennan, SM. (1981). The composition and evolution of the continental crust: rare earth element evidence from sedimentary rocks. Philosophical Transactions of the Royal Society A301, 381pp.
 
[37]  Van Der Zwan, C. J. Brugman, P. Roersman, H. and Potter, T. (1996). Biosignals from the EA field, Nigeria. RKGR. 96.054.
 
[38]  Van Hoeken-Klinkenberg, P. M. J., (1966). Maastrichtian Paleocene and Eocene Pollen and Spores from Nigeria. Leidse Geologische mededelingen, vol. 38, pp. 37-43.
 
[39]  Van Marle L.J, Van Hinte J.E, and Nederbragt A.J. (1987). Plankton percentage of the foraminifera fauna in seafloor samples from the Australian-Irian Jaya continental margin, Eastern Indonesia. Marine Geology, 77, 151-156.
 
[40]  Wanas, H.A. and Andel-Maguid, N.M. (2006). Petrography and geochemistry of Cambro-Ordovician Wajid sandstone, southwest Saudi Arabia: Implication for provenance and tectonic setting. Journal of Asian Earth Sciences, 27, 416-429.