Insights into the applications of waste materials in the oil and gas industry: state of the art review, availability, cost analysis, and classification

Abstract

This study investigates different types of waste materials and their applicability in the oil and gas industry as well as analyzing various applications of these waste materials in the petroleum industry. This study also explores the availability of these waste materials by performing a statistical analysis in a good number of countries worldwide. The statistical study was performed starting with a study on which countries generate waste the most overall, followed by examining multiple countries and investigating their top three most available waste. The results showed that the USA is the leading country in terms of municipal solid waste generation of 258 million metric tons, followed by China that generates around 220.4 million metric tons and then India that generates 168.4 million metric tons of municipal solid waste. The regions that generate the most food waste are North America and Oceania, providing the availability of food waste in those regions. Most of the palm tree wastes are available in the Middle East and some parts of the USA, while green waste can be found in the USA, China, and the UK. Sawdust wastes are mostly available in Europe and North America, while hay waste is abundant in the USA. Waste materials were also examined for various petroleum industry applications. Food wastes were found to be effective in drilling and completion fluids. Various food waste products were utilized to alter the drilling fluid properties such as potato peels and mandarin peels. Food wastes were also effective in altering the pH of the drilling fluids. Some plant-based wastes such as date trees were effective treatments used to stop lost circulation. Based on biodegradability and toxicity basis, waste materials were also classified into four main categories, which are eco-friendly, biodegradable, non-biodegradable, and toxic using color category classification. In summary, waste materials have the potential to be used in the petroleum industry, and they might as well be a good alternative for the future. As an example, the drilling fluid average cost approximately one-tenth of the total cost of the drilling operation, which is considered a tangible cost. By using waste materials as drilling fluid additives, the cost of the drilling fluid can be minimized. Further investigation and research should be carried out to get a better understanding of the importance of waste materials, and how they can be exploited for future applications in the oil and gas industry.

Application of Silicomanganese Fume as a Novel Bridging Material for Water-Based Drilling Fluids

“…Recent trends in the literature have revealed that researchers are putting efforts to investigate economical materials such as the waste material from diverse origins and explore their application as a drilling fluid component, that is, BM or loss circulation material. The example of such research studies includes waste date seed powder, 26 shredded waste car tyres, 27 deceased date tree waste, 28 date tree trunk, 28 banana peel, 29 powered grass and grass ash, 30 Styrofoam waste, 31 durian rind, 32 sunflower seed and orange powder, 33 seashells, 34 eggshell, 35 potato peels and mandarin peels and other household wastes, 36 , 37 date tree ARC ECOFiber, 38 oil palm trunk waste, 39 carton waste, 40 and Eucalyptus bark powder waste. 41 …”

Fluorescein Derivatives as Fluorescent Probes for pH Monitoring along Recent Biological Applications

“…Logarithmically obtained from H + ion concentration, pH is one of the main physical characteristics used to describe an aqueous solution. Since the development of pH-meters, its measurement became inevitable across scientific fields, such as drinking water [2], industrial waste [3,4], global health [5], and agronomy [6]. As acidic or basic compounds are continuously released as outputs of cellular life, pH monitoring offered a unique opportunity to easily acquired data from biologic systems [7].…”

Experimental Investigation of the Rheological Behavior of an Oil-Based Drilling Fluid with Rheology Modifier and Oil Wetter Additives

“…Using the appropriate drilling fluid is a crucial part of any successful drilling operation. The drilling fluid’s cost, environmental impact and shale inhibition characteristics are all taken into account in selecting the optimum drilling fluid [ 6 , 7 , 8 , 9 ]. Oil-based and water-based drilling fluids are two main types of drilling fluids used in oil and gas drilling operations that differ in use and composition.…”