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With the increase in the environmental awareness across the oil and gas industry along with the strict environmental regulations related to drilling waste management, different practices have been applied to reduce the impact of drilling waste on the environment such as slim-hole drilling, effective solid control equipment, and environmental friendly drilling fluid additives. The main objective of these techniques is to reduce the volume of the disposed contaminated drill cuttings, therefore, reducing both impact on the environment and the cost related to drilling waste handling. This paper investigates the feasibility of using bio-degradable waste as an environmental friendly drilling fluid additives. A comprehensive experimental evaluation of different bio-degradable waste materials has been carried out to investigate their effectiveness in improving the different properties of water-based drilling fluids. These waste materials, which were prepared in-house, include but not limited to grass, corncobs, sugar cane, pomegranate peel, soya bean peel, etc. The additives were evaluated at different concentrations and mixtures and the various drilling fluids properties were measured, such as filtration, pH, and rheological properties. The filtration properties were evaluated using the standard low pressure low temperature API filter press. The results showed that some materials such as soya bean peel powder reduced the fluid loss up to 60% and improved the yield point and the gel strength up to 330 % and 640% with minor to no effect on the plastic viscosity, suggesting the applicability of using both additives as a rheology modifier and a filtration control agent. Other materials such as henna and tamarind gum outer reduced the pH dramatically, suggesting their applicability in being used as pH control agents, especially when drilling through cement. These promising results showed a good potential for these environmental friendly drilling fluid additives (EFDFA) that were generated from waste material to be used as an alternative for some of the toxic materials currently used in the industry. Using these additives, will contribute towards reducing both; the impact on the environment as well as the overall cost of drilling fluids and drilling waste handling.
With the increase in the environmental awareness across the oil and gas industry along with the strict environmental regulations related to drilling waste management, different practices have been applied to reduce the impact of drilling waste on the environment such as slim-hole drilling, effective solid control equipment, and environmental friendly drilling fluid additives. The main objective of these techniques is to reduce the volume of the disposed contaminated drill cuttings, therefore, reducing both impact on the environment and the cost related to drilling waste handling. This paper investigates the feasibility of using bio-degradable waste as an environmental friendly drilling fluid additives. A comprehensive experimental evaluation of different bio-degradable waste materials has been carried out to investigate their effectiveness in improving the different properties of water-based drilling fluids. These waste materials, which were prepared in-house, include but not limited to grass, corncobs, sugar cane, pomegranate peel, soya bean peel, etc. The additives were evaluated at different concentrations and mixtures and the various drilling fluids properties were measured, such as filtration, pH, and rheological properties. The filtration properties were evaluated using the standard low pressure low temperature API filter press. The results showed that some materials such as soya bean peel powder reduced the fluid loss up to 60% and improved the yield point and the gel strength up to 330 % and 640% with minor to no effect on the plastic viscosity, suggesting the applicability of using both additives as a rheology modifier and a filtration control agent. Other materials such as henna and tamarind gum outer reduced the pH dramatically, suggesting their applicability in being used as pH control agents, especially when drilling through cement. These promising results showed a good potential for these environmental friendly drilling fluid additives (EFDFA) that were generated from waste material to be used as an alternative for some of the toxic materials currently used in the industry. Using these additives, will contribute towards reducing both; the impact on the environment as well as the overall cost of drilling fluids and drilling waste handling.
Drilling wastes generated in large volumes is recognized to have many effects on the environment. Several techniques have been applied by the oil and gas industry to overcome the impacts of drilling waste on the environment, an example of these techniques is using environmentally friendly drilling fluid additives. This work investigates the potential of using Fibrous Food Waste Material (FFWM) as an environmentally friendly drilling fluid additive. This material was prepared in-house. Experimental evaluation has been carried out to investigate the ability of FFWM to enhance several properties of water-based drilling fluid under two different pH conditions. The FFWM was first evaluated at 9.3 pH then the pH was increased using sodium hydroxide to 11.5. Several properties of drilling fluid were measured. The measurements included testing the rheological properties using viscometer, measuring the filtration using standard low-pressure low-temperature filter press, the pH using pH tester, and other important properties. The findings of this work showed that FFWM in 9.3 pH environment reduced the fluid loss by 18% and 30% when 1% and 2% concentrations of FFWM were added, respectively. This reduction in fluid loss was along with forming a thin filter cake. The filter cake thickness of the reference fluid was decreased from 3 mm to 2.14 mm and 1.9 mm at 1% and 2% concentrations of FFWM. Additionally, FFWM resulted in increasing the plastic viscosity (PV) compared to the reference fluid by 33.33% at 1% and 2% concentrations. While the yield point (YP) was increased by 22.22% and 44.44% when 1% and 2% concentrations of FFWM were added, respectively. Both the initial and final gel strengths were increased by 27.27%, 44.44 %, 7.14% and 14.28% at 1% and 2% concentrations, respectively. Moreover, the results in 11.5 pH emphasized the efficient performance of FFWM, and it showed better improvement in the filtration specifications and the rheological properties. In other words, PV, YP, and gel strength were significantly increased; while the fluid loss was very low and the filter cake was very thin at 11.5 pH condition compared to 9.3 pH condition for the same concentrations, proving the ability of FFWM to perform better under higher pH condition. The significant enhancement in the rheological and filtration properties, suggesting the applicability of using this additive as a rheology modifier and filtration control agent. These results showed the potential use of FFWM as an alternative for some of the toxic materials used today in the oil and gas industry. This work demonstrates that this additive will help to reduce both the impact on the environment along with reducing the cost of drilling fluid and drilling waste handling.
The main objective of this paper is to develop a new material used to control the seepage losses and combat issues regarding thick mud cake. The plan is to develop a biodegradable waste material from Grass, which is environmentally friendly to be utilized as an alternative material to address filtration problems. Raw material from local Grass in the USA was used to construct the fibrous fluid loss control agent (Grass Powder). The lab procedure consisted of crushing and grinding process to assemble the samples to be ready for preparation. Spud mud samples were used as a guide to indicate filtration control. The material was tested to generate results from the experiments conducted at surface conditions to determine the reduction in the volume of filtrate and mud cake. Based on the experiments conducted, Grass Powder (GP) can be applied to treat problems associated with the seepage loss in the drilling operations. The grass availability, being eco-friendly, low cost, and the simple method of Grass Powder preparation by using grinding and crushing can prove to be a suitable replacement for conventional materials used to control filtration. Then, the results of Grass Powder were compared to starch, commonly used conventional additive. The results showed that Grass Powder decreased the fluid loss by 44% at 1% (7 grams) concentration of GP, and the filter cake was enhanced as well when comparing it to the reference fluid. While the starch material showed an improvement in seepage loss by 40% at 1% (7 grams) concentration when comparing it to the reference fluid. In addition, starch was less efficient in improving the filter cake as compared to Grass Powder. Consequently, GP laboratory outcomes slightly showed better performance as compared to starch additive, suggesting the feasibility of Grass Powder to be used as fluid loss control agents. In brief, these experimental results exhibit that Grass Powder has the potential to be utilized as biodegradable drilling fluid additives replacing chemical additives and reducing the amount of non-biodegradable waste disposed to the environment.
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