2014•International Petroleum Technology ConferenceRequires access

Application Of Technologies For Improved Drilling, Hydraulic Fracturing, And Production Increase - Case Studies From Deep And High Pressure Gas Wells

Zillur Rahim, Hamoud Al-Anazi, Adnan A. Al-Kanaan, Wael El-Mofty

Open publisher page 2 citations

Abstract

Abstract Integration of technologies and application of innovative practices in drilling, completion, acid stimulation, and hydraulic fracturing have significantly contributed to the successful development of tight gas reservoirs. The well planning and development procedures entail careful selection of several critical parameters such as drilling azimuth, lateral length, well trajectory, drill-in fluids, well completion methods, stimulation fluid properties, fracture placement technique, proppant types, treatment volumes, and pumping schedule. All of these critical parameters impact fracture dimensions, proppant transport and placement, as well as stimulation efficiency and effective post-frac cleanup. Depending on reservoir rock properties and stress profile in the near wellbore (NWB) and the far field, the effectiveness of hydraulic stimulation in connecting the wellbore to the undamaged virgin reservoir, as well as maximizing reservoir contact area and enhancing flow back of treatment fluids to restore proppant conductivity, dictate the well potential, sustainable gas rate level, and ultimate recovery. Successful fracture stimulation is therefore measured not only by proper pumping and placement of the designed treatment, but more importantly by the post-treatment stabilized production rate after the well is cleaned up and flowed back.

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What this paper is about

Abstract Integration of technologies and application of innovative practices in drilling, completion, acid stimulation, and hydraulic fracturing have significantly contributed to the successful development of tight gas reservoirs. The well planning and development procedures entail careful selection of several critical parameters such as drilling azimuth, lateral length, well trajectory, drill-in fluids, well completion methods, stimulation fluid properties, fracture placement technique, proppant types, treatment volumes, and pumping schedule. All of these critical parameters impact fracture dimensions, proppant transport and placement, as well as stimulation efficiency and effective post-frac cleanup. Depending on reservoir rock properties and stress profile in the near wellbore (NWB) and the far field, the effectiveness of hydraulic stimulation in connecting the wellbore to the undamaged virgin reservoir, as well as maximizing reservoir contact area and enhancing flow back of treatment fluids to restore proppant conductivity, dictate the well potential, sustainable gas rate level, and ultimate recovery. Successful fracture stimulation is therefore measured not only by proper pumping and placement of the designed treatment, but more importantly by the post-treatment stabilized production rate after the well is cleaned up and flowed back.

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Available abstract

Abstract Integration of technologies and application of innovative practices in drilling, completion, acid stimulation, and hydraulic fracturing have significantly contributed to the successful development of tight gas reservoirs. The well planning and development procedures entail careful selection of several critical parameters such as drilling azimuth, lateral length, well trajectory, drill-in fluids, well completion methods, stimulation fluid properties, fracture placement technique, proppant types, treatment volumes, and pumping schedule. All of these critical parameters impact fracture dimensions, proppant transport and placement, as well as stimulation efficiency and effective post-frac cleanup. Depending on reservoir rock properties and stress profile in the near wellbore (NWB) and the far field, the effectiveness of hydraulic stimulation in connecting the wellbore to the undamaged virgin reservoir, as well as maximizing reservoir contact area and enhancing flow back of treatment fluids to restore proppant conductivity, dictate the well potential, sustainable gas rate level, and ultimate recovery. Successful fracture stimulation is therefore measured not only by proper pumping and placement of the designed treatment, but more importantly by the post-treatment stabilized production rate after the well is cleaned up and flowed back.

Key concepts: Petroleum engineering, Hydraulic fracturing, Completion (oil and gas wells), Drilling, Well stimulation, Wellbore, Geology, Drill

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