geodetic gravity meter

简明释义

大地型重力仪;

英英释义

A geodetic gravity meter is a precise instrument used to measure the acceleration due to gravity at specific locations on the Earth's surface, which helps in geodetic surveys and understanding variations in the Earth's gravitational field.

大地测量重力计是一种精密仪器,用于测量地球表面特定位置的重力加速度,有助于大地测量和理解地球重力场的变化。

例句

1.The installation of the geodetic gravity meter was completed last week at the research station.

上周,在研究站完成了大地重力计的安装。

2.The researchers used a geodetic gravity meter to measure the variations in Earth's gravitational field.

研究人员使用大地重力计来测量地球重力场的变化。

3.A geodetic gravity meter helps in understanding tectonic movements by measuring gravity changes.

通过测量重力变化,大地重力计有助于理解构造运动。

4.Using a geodetic gravity meter, scientists can detect changes in sea level more accurately.

科学家使用大地重力计可以更准确地检测海平面的变化。

5.In geophysical surveys, a geodetic gravity meter is essential for mapping subsurface structures.

在地球物理勘测中,大地重力计是绘制地下结构的重要工具。

作文

The field of geodesy is crucial for understanding the Earth's shape, orientation in space, and gravitational field. Among the various instruments used in this field, the geodetic gravity meter plays a vital role. A geodetic gravity meter (重力测量仪) is an advanced device designed to measure the acceleration due to gravity at specific locations on the Earth's surface. This measurement is essential for numerous applications, including mapping, surveying, and understanding geological structures. The significance of the geodetic gravity meter lies in its ability to provide precise measurements that can reveal variations in the Earth's gravitational field. These variations can indicate the presence of different geological formations, such as mountains, valleys, and even underground resources. For instance, when a geodetic gravity meter is used in a region with significant geological activity, it can help scientists predict volcanic eruptions or earthquakes by detecting shifts in gravitational forces. In practical terms, using a geodetic gravity meter involves setting up the instrument at a specific location and allowing it to stabilize before taking measurements. The device records minute changes in gravity that may occur due to various factors, such as changes in altitude, temperature, and even the distribution of mass within the Earth. The data collected can then be analyzed to provide insights into the Earth's structure and behavior. One of the primary applications of the geodetic gravity meter is in the field of civil engineering. Engineers use gravity measurements to assess the stability of structures and to ensure that buildings and bridges are constructed on solid ground. By understanding the gravitational forces at play, engineers can design safer and more durable structures. Moreover, the geodetic gravity meter is instrumental in resource exploration. In oil and gas industries, for example, gravitational measurements can help locate potential reserves. By analyzing the gravitational anomalies detected by the geodetic gravity meter, geologists can infer the presence of oil or gas deposits beneath the Earth’s surface, guiding drilling operations effectively. Furthermore, the geodetic gravity meter contributes to the study of climate change. Scientists can monitor changes in ice mass and sea level rise through precise gravity measurements. As glaciers melt, the gravitational pull in those areas changes, which can be detected by a geodetic gravity meter. This data is crucial for understanding the broader impacts of climate change on global sea levels and ecosystems. In conclusion, the geodetic gravity meter is an indispensable tool in modern geodesy and has far-reaching implications across various fields, including engineering, resource exploration, and environmental science. Its ability to provide accurate gravitational measurements enables researchers and professionals to make informed decisions and predictions about the Earth's physical properties. As technology advances, the capabilities of the geodetic gravity meter will likely expand, further enhancing our understanding of the planet we inhabit.

大地测量学领域对于理解地球的形状、空间中的方向以及引力场至关重要。在这个领域中,重力测量仪扮演着重要角色。重力测量仪是一种先进的设备,旨在测量地球表面特定位置的重力加速度。这一测量对于制图、测量和理解地质结构等众多应用至关重要。重力测量仪的重要性在于它能够提供精确的测量,揭示地球引力场的变化。这些变化可以指示不同地质构造的存在,例如山脉、山谷甚至地下资源。例如,当在一个地质活动显著的区域使用重力测量仪时,它可以通过检测引力的变化来帮助科学家预测火山喷发或地震。在实际操作中,使用重力测量仪涉及将仪器设置在特定位置,并让其稳定后再进行测量。该设备记录由于高度、温度变化甚至地球内部质量分布变化而可能发生的微小重力变化。收集的数据随后可以被分析,以提供对地球结构和行为的洞察。重力测量仪的主要应用之一是在土木工程领域。工程师使用重力测量来评估结构的稳定性,确保建筑物和桥梁建造在坚实的基础上。通过理解所施加的引力,工程师可以设计出更安全、更耐用的结构。此外,重力测量仪在资源勘探中也发挥着重要作用。在石油和天然气行业中,例如,引力测量可以帮助定位潜在的储藏。通过分析重力测量仪检测到的引力异常,地质学家可以推断地下的石油或天然气储藏,从而有效指导钻探作业。此外,重力测量仪有助于气候变化研究。科学家可以通过精确的重力测量监测冰川质量的变化和海平面上升。随着冰川融化,那些地区的引力吸引力会发生变化,这可以通过重力测量仪检测到。这些数据对于理解气候变化对全球海平面和生态系统的影响至关重要。总之,重力测量仪是现代大地测量学中不可或缺的工具,在工程、资源勘探和环境科学等多个领域具有深远的影响。它提供的准确重力测量使研究人员和专业人士能够就地球的物理特性做出明智的决策和预测。随着技术的进步,重力测量仪的能力可能会进一步扩展,进一步增强我们对居住星球的理解。

相关单词

geodetic

geodetic详解:怎么读、什么意思、用法

gravity

gravity详解:怎么读、什么意思、用法

meter

meter详解:怎么读、什么意思、用法