bottomhole flowing temperature

简明释义

1. 井底流动温度; 2. 井底流温;

英英释义

例句

1.Monitoring the bottomhole flowing temperature is crucial for optimizing production rates.

监测底 hole 流动温度对于优化生产率至关重要。

2.A high bottomhole flowing temperature can indicate potential issues with the well.

高底 hole 流动温度可能表明井口存在潜在问题。

3.Operators need to adjust the pump settings based on the bottomhole flowing temperature readings.

操作员需要根据底 hole 流动温度读数调整泵的设置。

4.The engineer measured the bottomhole flowing temperature to assess the reservoir's performance.

工程师测量了底 hole 流动温度以评估储层的性能。

5.The bottomhole flowing temperature was recorded at 150 degrees Fahrenheit during the test.

测试期间，底 hole 流动温度记录为150华氏度。

作文

In the field of petroleum engineering, understanding various parameters is crucial for efficient resource extraction. One such important parameter is the bottomhole flowing temperature, which refers to the temperature of the fluid at the bottom of a well during production. This measurement plays a significant role in determining the overall performance of oil and gas wells. The bottomhole flowing temperature is not only essential for evaluating the thermodynamic properties of the reservoir fluids but also influences the design and operation of surface facilities. When drilling a well, engineers must consider the thermal behavior of the fluids present in the reservoir. The bottomhole flowing temperature helps in identifying phase changes that the hydrocarbons may undergo as they flow from the reservoir to the surface. For instance, if the temperature is too low, it might lead to the formation of hydrates or wax, which can clog the pipeline and hinder production. Conversely, a higher temperature can affect the viscosity of the oil, making it easier or harder to extract depending on the specific characteristics of the reservoir. Moreover, the bottomhole flowing temperature can provide insights into the reservoir's pressure conditions. By analyzing the temperature data along with pressure measurements, engineers can make informed decisions regarding enhanced oil recovery techniques. For example, if the temperature is significantly different from the expected values, it may indicate issues like water influx or gas breakthrough, which could compromise the well's productivity. The measurement of bottomhole flowing temperature is typically conducted using specialized tools such as downhole temperature gauges. These instruments are deployed into the wellbore and provide real-time data that is critical for monitoring the well's performance over time. Accurate measurements allow engineers to adjust their strategies promptly, ensuring optimal extraction rates. In conclusion, the bottomhole flowing temperature is a vital parameter in the oil and gas industry. Its implications extend beyond mere temperature readings; it affects the entire production process, from reservoir evaluation to surface facility design. Understanding this concept is essential for engineers and geoscientists alike, as it directly impacts the efficiency and profitability of oil and gas operations. Therefore, continuous research and development in measuring and interpreting the bottomhole flowing temperature will contribute significantly to the advancement of petroleum engineering practices.

在石油工程领域，理解各种参数对于有效资源开采至关重要。其中一个重要参数是井底流动温度，它指的是在生产过程中井底流体的温度。这个测量值在确定油气井的整体性能方面起着重要作用。井底流动温度不仅对评估储层流体的热力学特性至关重要，而且影响着地面设施的设计和操作。在钻井过程中，工程师必须考虑储层中流体的热行为。井底流动温度有助于识别在从储层流向地表过程中，碳氢化合物可能经历的相变。例如，如果温度过低，可能会导致水合物或蜡的形成，这会堵塞管道并妨碍生产。相反，较高的温度可能会影响油的粘度，使抽取变得更容易或更困难，这取决于储层的具体特性。此外，井底流动温度可以提供对储层压力条件的洞察。通过分析温度数据与压力测量，工程师可以就增强油气回收技术做出明智的决策。例如，如果温度与预期值显著不同，可能表明存在如水涌入或气体突破等问题，这可能会影响井的生产能力。井底流动温度的测量通常使用专门的工具，如井下温度计。这些仪器被部署到井筒中，并提供实时数据，这对监测井的长期性能至关重要。准确的测量使工程师能够及时调整策略，确保最佳开采率。总之，井底流动温度是石油和天然气行业的重要参数。它的影响超出了简单的温度读数；它影响整个生产过程，从储层评估到地面设施设计。理解这一概念对于工程师和地球科学家来说都是必不可少的，因为它直接影响油气作业的效率和盈利能力。因此，在测量和解释井底流动温度方面的持续研究和开发将对石油工程实践的进步贡献重大。