Design, Testing, and Operation of a Completion Deflector Running and Test Tool for Efficient Multilateral Completions
Matthew Bradley Stokes, Borisa Lajesic, Christian Alexander Ramirez, Lester Barett Dupler
Abstract
Matthew Bradley Stokes, Borisa Lajesic, Christian Alexander Ramirez, Lester Barett Dupler
Abstract
Abstract Trip optimization is essential in multilateral well construction, especially for extended-reach drilling (ERD) wells. This paper describes the design, testing, and operation of a completion deflector running and test tool (RTT) that was recently used during completion of one of the industry's deepest extended-reach multilateral wells. The RTT allows for running and pressure testing of a completion deflector and lower completion components in a single trip, thus saving at least one trip, and up to three trips. The challenge was to develop the capability to run a completion deflector with an existing pressure test tool. This was accomplished by converting the pressure test tool into a running tool. The new pressure actuated mechanism built into the tool releases the completion deflector automatically after a successful pressure test. A secondary release mechanism was also incorporated for contingency options. Extensive engineering qualification tests validated the new features to be highly reliable.
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Abstract Trip optimization is essential in multilateral well construction, especially for extended-reach drilling (ERD) wells. This paper describes the design, testing, and operation of a completion deflector running and test tool (RTT) that was recently used during completion of one of the industry's deepest extended-reach multilateral wells. The RTT allows for running and pressure testing of a completion deflector and lower completion components in a single trip, thus saving at least one trip, and up to three trips. The challenge was to develop the capability to run a completion deflector with an existing pressure test tool. This was accomplished by converting the pressure test tool into a running tool. The new pressure actuated mechanism built into the tool releases the completion deflector automatically after a successful pressure test. A secondary release mechanism was also incorporated for contingency options. Extensive engineering qualification tests validated the new features to be highly reliable.
Key concepts: Completion (oil and gas wells), Hydrostatic test, Drilling, Computer science, Test (biology), Simulation, Engineering, Reliability engineering