Mechanically oscillating sample under magnetic field gradients: MOS-NMR

Everton Lucas-Oliveira , Agide Gimenez Marassi , Arthur Gustavo Araújo-Ferreira , Edson Luiz Géa Vidoto , Aparecido Donizeti Fernandes de Amorim , Willian Andrighetto Trevizan , Tito José Bonagamba
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引用次数: 2

Abstract

Nuclear Magnetic Resonance (NMR) has been widely used in Petroleum Science and Engineering to study geological formations (porous media) in laboratories or under well-logging conditions. In both cases, NMR is still evolving to provide more accurate data on well productivity. In well-logging, NMR is one of the main tools used in determining the economic viability of an oil well due to the reliability of measurements of fluid types, porosity, pore size, and permeability of the reservoir under analysis. There are two kinds of NMR well-logging techniques: Wireline and Logging While Drilling (LWD). In the latter, due to the drilling process, measurements are made with the NMR tool translating, vibrating and, in some cases, rotating relatively to the geological formation. To understand the behavior of NMR signals measured under LWD conditions, not yet including displacement and drill vibration, we have recently developed a single-sided magnet, probes, and a mechanical system that emulates a relative sinusoidal motion between the sample and the applied magnetic field. This equipment was used to emulate a LWD tool operating under normal pressure and temperature conditions.

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磁场梯度下的机械振荡样品:MOS-NMR
核磁共振(NMR)已广泛应用于石油科学与工程中,在实验室或测井条件下研究地质构造(多孔介质)。在这两种情况下,核磁共振仍在不断发展,以提供更准确的油井产能数据。在测井中,核磁共振是确定油井经济可行性的主要工具之一,因为所分析的储层的流体类型、孔隙度、孔径和渗透率的测量是可靠的。目前有两种核磁共振测井技术:电缆测井和随钻测井(LWD)。在后一种情况下,由于钻井过程的原因,测量是通过核磁共振工具进行的,这些工具可以根据地质构造进行平移、振动,在某些情况下,还可以相对旋转。为了了解随钻测井条件下测量的核磁共振信号的行为,还不包括位移和钻头振动,我们最近开发了一个单面磁铁,探头和一个机械系统,模拟样品和外加磁场之间的相对正弦运动。该设备用于模拟正常压力和温度条件下的LWD工具。
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