Application of Production Chemical Foam Sticks for Compatibility of Gas Wells in Niger Delta, Nigeria


Authors : Chikwe T. N.; Iwuoha, G. N.; Osuji L. C.

Volume/Issue : Volume 10 - 2025, Issue 8 - August


Google Scholar : https://tinyurl.com/25e4r35s

Scribd : https://tinyurl.com/2mehusw2

DOI : https://doi.org/10.38124/ijisrt/25aug1264

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Abstract : Production chemical foam stick (PC F20) was applied into three natural gas wells in Niger Delta namely WSI, WS4 and WS7 respectively to ascertain its compatibility to the wells in terms of gas production and impact on well parameters. Results obtained shows that 28.4, 15.7 and 44.2 % of water produced from WS1, WS4 and WS7 respectively were stripped off these wells after treatment with PC F20. The increase in gas production obtained from WS1, WS4 and WS7 were 15.8, 4.0 and 25.9 % respectively. WS7 with the highest bottom hole temperature (BHT) of 140 0C had the highest increase in gas production while WS4 with the least BHT of 97.9 0C had the least increase in gas production. The higher the BHT of the gas well above the melting point of PC F20 which is 122 0C the faster the dissolution time of the foam stick. The solubility rates of WS1, WS4 and WS7 were 35.0, 78.0 and 22.0 minutes respectively, this is inversely proportional to the stick falling rates which were 109, 74 and 128 ft/mins respectively. The higher the gas produced from each well the higher the condensate produced. The lower the water produced from each well the lower the fluid salt content of the well. PC F20 increases the gas production of natural gas wells while reducing the hydrostatic and well head pressure of the wells as such is recommended for old and ageing wells with high propensity for water production and reduced pressure.

Keywords : Temperature, Pressure, Solubility, Surfactant, Condensate.

References :

  1. Min L, Li SL, Sun LT (2002) New view on continuous- removal liquids from gas wells. Society of Petroleum Engineers (SPE) Production & Facilities, 17(1):42-46
  2. Dunca. KW, Muzaffar AK (2011) Foam sticks application to increase production and Encapsulated Inhibitors to Mitigate Corrosion & Scale Formation. Society of Petroleum Engineers (SPE) 156213
  3. James FL, Henty VN (2004) Solving gas well liquid-loading problems. Journal of Petroleum Technology 56(4): 30-36
  4. Xiaolei L, Gioia F, Catalin T (2017) Liquid loading in gas wells: From core-scale transient measurements to coupled field-scale simulations Journal of Petroleum Science and Engineering 157: 1056-1066.
  5. Nosseir MA, Darwich TA, Mohamed HM, Sayyouh ME (2000) A new approach for accurate prediction of loading in gas wells under different flowing conditions. Society of Petroleum Engineers (SPE) 37408.
  6. Nourhan EM, Yassman YR, Aly S. Mostafa HH (2024) A Multi-objective optimization method for simulating the operation of natural gas transport system. Korean Journal of Chemical Engineering 41: 1609-1624.
  7. He Z, Gioia F, Catalin T (2010) Modelling fully transient two-phase flow in the near-wellbore region during liquid loading in gas wells. Journal of natural gas science and engineering 2(2): 122-131
  8. Nejat R, Nejimi S, Farai M, Hamed H (2024) An investigation on hydrate prediction and inhibition: An industrial case study. The Canadian Journal of chemical Engineering 103(1): 396-409
  9. Diego CC, Ignacio EG (2014) Sustainable Development of the shale gas supply chain and the optima drilling Strategy for Nonconventional wells. Computer Aided Chemical Engineering 1-57.
  10. Wei N, Li Y (2007) Visual experimental research on gas well liquid loading, Drilling and production Technology 3: 43-45.
  11. Steeve GW (2013) Small-Diameter Concentric Tubing extends economic life of high water/sour Gas Edwards producers. Journal of Petroleum Technology 34(09): 1947-1950.
  12. Boyun G, Ali G, Chengcai X (2006) A systematic approach to predicting Liquid loading in gas wells. Society of Petroleum Engineers (SPE) and Oper 21(01): 81-88.
  13. Guohua L, Shunil H (2013) A new model for the accurate Prediction of liquid loading in low-pressure wells. Journal of Canadian petroleum Technology 51(06): 493-498.
  14. Boyun G, Ali G (2012) Natural gas Engineering Handbook, 2nd edition 305-490
  15. Weidong X, Huajun G, Chongyu C, Zhenghong Y (2022) A model for superimposed coalbed methane, shale gas and tight sandstone reservoirs, Taiyuan Formation, Yushe-Wuxiang Block, eastern Qinshui Basin. Scientific Reports 12: 11455
  16. Wenguang T, Suping Z, Fenghua T, Song L (2023) Symbiotic Combination and Accumulation of Coal Measure Gas in the Daning–Jixian Block, Eastern Margin of Ordos Basin, China. Energies 4: 1737.
  17. Li J, Zhang D, Li D, Zhang S (2018) Co-accumulating mechanisms of unconventional gas in the coal measure of the Qinshui Basin. Journal of the China Coal Society (6) DOI 10. 13225:4017
  18. 18 Yi T, Gao W (2018) Reservoir formation characteristics as well as co-exploration and co-mining orientation of Upper Permian coal-bearing gas in Liupanshui Coalfield. Journal of the China Coal Society (6) DOI 10. 13225:4018

19. Shen J, Zhang CJ, Qin Y, Zhang B (2017) Effect factors on co-mining of sandstone gas and coalbed methane in coal series and threshold of parameter in Linxing block, Ordos Basin. Natural Gas Geosciences 28(3):479-487.

Production chemical foam stick (PC F20) was applied into three natural gas wells in Niger Delta namely WSI, WS4 and WS7 respectively to ascertain its compatibility to the wells in terms of gas production and impact on well parameters. Results obtained shows that 28.4, 15.7 and 44.2 % of water produced from WS1, WS4 and WS7 respectively were stripped off these wells after treatment with PC F20. The increase in gas production obtained from WS1, WS4 and WS7 were 15.8, 4.0 and 25.9 % respectively. WS7 with the highest bottom hole temperature (BHT) of 140 0C had the highest increase in gas production while WS4 with the least BHT of 97.9 0C had the least increase in gas production. The higher the BHT of the gas well above the melting point of PC F20 which is 122 0C the faster the dissolution time of the foam stick. The solubility rates of WS1, WS4 and WS7 were 35.0, 78.0 and 22.0 minutes respectively, this is inversely proportional to the stick falling rates which were 109, 74 and 128 ft/mins respectively. The higher the gas produced from each well the higher the condensate produced. The lower the water produced from each well the lower the fluid salt content of the well. PC F20 increases the gas production of natural gas wells while reducing the hydrostatic and well head pressure of the wells as such is recommended for old and ageing wells with high propensity for water production and reduced pressure.

Keywords : Temperature, Pressure, Solubility, Surfactant, Condensate.

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Paper Submission Last Date
30 - November - 2025

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