The Prospect of Using Palm Wine As a Fluid Loss Control Agent In Water Based Drilling Mud


Fluid loss
Palm wine
Drilling fluid

How to Cite

Akintola A. Sarah, S. O. Isehunwa, S. M. Oboh. The Prospect of Using Palm Wine As a Fluid Loss Control Agent In Water Based Drilling Mud. Int. J. Petrol. Technol. [Internet]. 2017 Apr. 3 [cited 2022 Jun. 28];3(2):42-8. Available from:


The need to advance and project the use of local materials as suitable drilling fluid additive in the oil and gas industry in Nigeria led to the research on the possible use of palm wine and potash as additives in a water base drilling mud. A comparative study of these local materials (palm wine and potash) with imported foreign materials (lignite and caustic soda) as control were used in investigating the properties of a water base drilling fluid. A laboratory investigation of the effects of temperature and aging time on the properties of water-base drilling fluid is made with Fann Model 800 High Temperature and a High Pressure (HTHP) Viscometer, according to the API recommended standard practice. The results obtained showed similarity in the drilling fluid's rheological and filtration properties; mud weight and pH values for both local and foreign additives. The result from the mud sample prepared from the palm wine and potash had apparent viscosity, plastic viscosity and yield point decreasing steadily with increase in temperature for all aging time just as shown with the control sample, while the aging effect diminishing as the aging time increases. The potash was seen to have increased the mud pH from 7.0 to 12.9 pH units. The results, shows that both palm wine and potash can be used as suitable in water base drilling mud additive.


Growcock F and Harvey T. Drilling Fluids ASME Shale Shaker Committee. Drilling Fluids Processing Handbook. Elsevier 2005.

Annis MR. Retention of synthetic-based drilling material on cuttings discharged to the Gulf of Mexico. Report for the American Petroleum Institute (API) ad hoc Retention on Cuttings Work Group under the API Production Effluent Guidelines Task Force. American Petroleum Institute, Washington, DC 1997; August 29.

Bourgoyne Jr, Millheim AT, Chenevert ME and Young JrF. Applied Drilling Engineering. Richardson, TX: Society of Petroleum Engineering 1986.

Annis MR and Esso PR. High-Temperature Flow Properties of Water-Base Drilling Fluids. Journal of Petroleum Technology 2010; 19(8): 1074-1080.

Alderman NJ, Gavignet D and Maitland GCO. High Temperature, High Pressure Rheology of Water-Based Muds. SPE18035, Symposium 1988; 187-195.

Ali M and Al-Marhoun M. The Effect of High Temperature, High Pressure, and Aging on Water-Based Drilling Fluids. Society of Petroleum Engineers Salimi S, Sadeghy K, Kharandish MG. Rheological Behaviour of Polymer-Extended Water-Based Drilling Muds at High Pressures and Temperatures. University of Tehran, Iran 1990; 1-6.

Majidi R, Miska SZ, Yu M, Thompson LG and Zhang J. Modeling of Drilling Fluid Losses in Naturally Fractured Formations. Society of Petroleum Engineers 2008.

Wenwu H and Stephens M. Bridging Particle Size Distribution in Drilling Fluid and Formation Damage. Society of Petroleum Engineers Ukhum ME, Okolie NP, Oyerinde AO. Some mineral profiles of fresh and bottled palm wine – a comparative study. African Journal of Biotechnology 2005- 11; 4: 829-32.

API Recommended Practice. Recommended Practice for Field Testing water-based Drilling Fluids. American Petroleum Institute 2003; 13(B-1)I: 1.

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