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Disruptive Clamp-On Technology Tested for Mud Measurement

机译:泥浆测量测试的破坏性钳位技术

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During drilling operations, it is of vital importance to have accurate and reliable volume control, with as fast as possible detection of flow abnormalities. The earlier a flow abnormality is detected; the faster actions can be taken to minimize the consequence and cost of a potential well control incident. Accurate and reliable measurements of the inflow of mud and return flow is key to improvements in volume control and early kick detection. Uncertainty and time delay in these measurements may lead to well control incidents such as uncontrolled fracturing, collapse of wells, influx and, in worst case, external spill of oil and gas to the surface. Existing inline traditional meters experience challenges due to clogging of measurement ports, mechanical erosion or damages on gaskets. Such being caused by the nature of mud consisting of a mixture of heavy materials and cuttings from the formation. Most of them are also not able to give quantified measurements, relying on human interpretation of trends in the data. Using Clamp-on flow meters for mud measurement would significantly reduce cost, risk and maintenance work if it could generate accurate and reliable measurements. However, due to its nature, drilling mud is a difficult medium to measure and several other technologies have come short trying to do so, including previous ultrasonic measurement techniques. This non-invasive ultrasound transmission concept, enables off-center beam transmission, forming the functionality of a multi-beam inline acoustic flow meter. The patented technology achieves this through disruptive acoustic guided wave transmission technology where the pipe wall is used as an advanced transmitting gateway between sensors, and helical shaped transducers enables measurements off-center signal transmission creating shorter paths than traditional clamp-on Meters in addition to traditional axial signal transmission. Combining these features enables measurements also through mud. This paper will present the theory behind the technology, technology advantages and potential, as well as flow test results from mud flow loop at a Mud loop testing facility in Norway performed in September 2018 where the Meter was subjected to detecting incremental changes in flow rate of mud at different flow rates.
机译:在钻井作业期间,具有准确可靠的体积控制至关重要,尽可能快地检测流异常。较早的流动异常被检测到;可以采取更快的行动来尽量减少潜在井控制事件的后果和成本。泥浆流入的准确可靠测量泥浆和返回流程是批量控制和早期踢球检测的关键。这些测量中的不确定度和时间延迟可能导致良好的控制事件,例如不受控制的压裂,井,涌入和最坏情况下的油气和气体的外部溢出。由于测量港口,机械侵蚀或垫圈损坏,现有的内联传统仪表体验挑战。这种是由泥浆的性质引起的,由重型材料和形成的切屑组成。其中大多数也无法提供量化的测量,依赖于人类对数据趋势的解释。如果它可以产生准确可靠的测量,则使用夹具流量计将显着降低成本,风险和维护工作。然而,由于其性质,钻井泥是一种难以测量的媒体,另外几种技术已经短暂试图这样做,包括以前的超声测量技术。这种非侵入式超声传输概念,使得偏心光束传输能够形成多光束内联声流量计的功能。专利技术通过破坏性的声学引导波传输技术实现了这一点,其中管壁用作传感器之间的先进传输网关,螺旋形换能器能够测量偏离中心信号传输,除了传统的传统外轴向信号传输。结合这些功能可以通过泥浆进行测量。本文将在2018年9月在2018年9月在2018年9月在2018年9月进行的技术,技术优势和潜力背后的理论,以及泥圈测试设施的流量测试结果,其中仪表经受了检测流量的增量变化不同流量汇率的泥浆。

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