grid azimuth

简明释义

格方位坐标方位角

英英释义

Grid azimuth refers to the angle measured clockwise from a reference direction (typically true north) to a line that is projected onto a grid system used in mapping or navigation.

网格方位角是指从参考方向(通常是真北)顺时针测量到投影到地图或导航中使用的网格系统上的一条线的角度。

例句

1.Using a compass, we adjusted the grid azimuth 网格方位角 for magnetic declination.

使用指南针,我们调整了< span>网格方位角 网格方位角以适应磁偏角。

2.The GPS device provided us with the grid azimuth 网格方位角 for our hiking route.

GPS设备为我们的徒步路线提供了< span>网格方位角 网格方位角

3.The grid azimuth 网格方位角 was essential for aligning the satellite dish correctly.

正确对准卫星天线时,< span>网格方位角 网格方位角是至关重要的。

4.The surveyor calculated the grid azimuth 网格方位角 to determine the true direction of the building.

测量员计算了< span>网格方位角 网格方位角以确定建筑物的真实方向。

5.In aviation, pilots must know the grid azimuth 网格方位角 for accurate navigation.

在航空中,飞行员必须知道< span>网格方位角 网格方位角以便进行准确导航。

作文

In the field of cartography and navigation, understanding various terms is crucial for accurate mapping and orientation. One such term that often arises is grid azimuth. The concept of grid azimuth refers to the angle measured clockwise from a defined grid north to the line connecting the observer's location to a specific point of interest on a map. This angle is typically expressed in degrees and plays a significant role in both military operations and civilian navigation.To comprehend the importance of grid azimuth, it is essential to first understand the differences between true north, magnetic north, and grid north. True north is the direction along the Earth's surface towards the North Pole, while magnetic north refers to the direction a magnetic compass points, which can vary based on geographic location. Grid north, on the other hand, is a fixed reference point on a map based on the grid lines that are drawn on the map itself. It serves as a standard for measuring angles and directions within that specific map projection.When navigating using a map, one must often convert between different types of azimuths to ensure accuracy. For instance, if you are operating in a region where magnetic declination is significant, failing to adjust your measurements accordingly could lead to errors in navigation. This is where grid azimuth becomes particularly useful. By providing a reliable reference point, grid azimuth allows navigators to plot their courses with precision, ensuring they reach their destinations without unnecessary detours.In military contexts, the application of grid azimuth is even more critical. Troops rely on accurate maps and precise calculations to coordinate movements, direct artillery fire, and conduct reconnaissance missions. In these scenarios, the ability to determine a grid azimuth quickly can mean the difference between success and failure. For example, a soldier may need to establish a target's location relative to their own position and communicate that information to their team. By calculating the grid azimuth, they can provide clear and concise directions that enhance operational effectiveness.Moreover, the use of technology has further advanced the understanding and application of grid azimuth. With the advent of GPS and digital mapping tools, navigators now have access to real-time data that can help them calculate grid azimuth with remarkable accuracy. These technologies have transformed how we perceive navigation, making it more accessible and user-friendly. However, it is still essential to grasp the underlying principles of grid azimuth to effectively utilize these tools.In conclusion, grid azimuth is a fundamental concept in navigation and mapping that offers a standardized way to measure angles and directions. Its significance spans across various fields, from military operations to everyday navigation. Understanding grid azimuth not only enhances one's ability to navigate accurately but also fosters a deeper appreciation for the complexities involved in cartography. As we continue to advance technologically, the principles of grid azimuth will remain vital for ensuring effective communication and navigation in an ever-changing world.

在制图和导航领域,理解各种术语对准确制图和定位至关重要。其中一个常出现的术语是网格方位角网格方位角的概念是指从定义的网格北向顺时针测量到连接观察者位置与地图上特定兴趣点的直线的角度。这个角度通常以度数表示,并在军事行动和民用导航中发挥着重要作用。要理解网格方位角的重要性,首先需要了解真北、磁北和网格北之间的区别。真北是沿地球表面指向北极的方向,而磁北则是指磁罗盘指向的方向,这可能因地理位置而异。另一方面,网格北是基于地图上绘制的网格线的固定参考点。它作为在特定地图投影内测量角度和方向的标准。在使用地图导航时,人们通常必须在不同类型的方位角之间进行转换,以确保准确性。例如,如果您在一个磁偏角显著的地区操作,未能相应调整测量可能会导致导航错误。这就是网格方位角特别有用的地方。通过提供可靠的参考点,网格方位角使导航员能够精确地规划他们的航线,确保他们顺利到达目的地,而不必绕道而行。在军事环境中,网格方位角的应用更为关键。部队依赖准确的地图和精确的计算来协调移动、指挥炮火和进行侦察任务。在这些情况下,快速确定网格方位角的能力可能意味着成功与失败之间的差别。例如,一名士兵可能需要确定目标相对于自己位置的方向,并将该信息传达给他们的团队。通过计算网格方位角,他们可以提供清晰简明的方向,从而提高作战效果。此外,技术的使用进一步提升了对网格方位角的理解和应用。随着GPS和数字制图工具的出现,导航员现在可以访问实时数据,帮助他们以惊人的准确性计算网格方位角。这些技术改变了我们对导航的看法,使其变得更加易于获取和用户友好。然而,掌握网格方位角的基本原理仍然至关重要,以有效利用这些工具。总之,网格方位角是导航和制图中的一个基本概念,提供了一种标准化的方式来测量角度和方向。它的重要性跨越多个领域,从军事行动到日常导航。理解网格方位角不仅增强了个人准确导航的能力,还促进了对制图复杂性的更深层次的欣赏。随着我们在技术上的不断进步,网格方位角的原则将继续在确保有效沟通和导航中发挥重要作用。

相关单词

grid

grid详解:怎么读、什么意思、用法

azimuth

azimuth详解:怎么读、什么意思、用法