azimuthal effect

简明释义

方位效应;

英英释义

The azimuthal effect refers to the variation in a phenomenon or measurement that occurs due to changes in the azimuth angle, which is the angle between a reference direction (usually true north) and the direction of an object as viewed from a specific point.

方位效应是指由于方位角的变化而导致的现象或测量的变化,方位角是指从特定点观察物体时,参考方向(通常是正北)与物体方向之间的角度。

例句

1.Understanding the azimuthal effect is crucial for accurate GPS navigation.

理解方位效应对于准确的GPS导航至关重要。

2.The azimuthal effect can cause variations in signal strength for radio communications.

方位效应可能导致无线电通信信号强度的变化。

3.In meteorology, the azimuthal effect helps in predicting wind patterns over large areas.

在气象学中,方位效应有助于预测大面积的风向模式。

4.The azimuthal effect can significantly influence the trajectory of satellites in orbit.

方位效应可以显著影响轨道上卫星的轨迹。

5.Engineers must account for the azimuthal effect when designing antennas.

工程师在设计天线时必须考虑方位效应

作文

The concept of the azimuthal effect is an important one in various fields, particularly in physics and geography. Understanding this term requires a grasp of how angles and directions play a crucial role in our perception of the world around us. The azimuthal effect refers to the distortion that occurs when projecting the three-dimensional surface of the Earth onto a two-dimensional map. This phenomenon can lead to significant inaccuracies in distance, area, and direction, depending on the projection method used.In cartography, for example, the azimuthal effect is most evident in azimuthal projections, which are designed to represent the Earth from a specific point. These projections can provide accurate distances and directions from that point, but they can also distort other aspects, such as size and shape, especially as one moves away from the center point of the projection. This can create challenges for navigators and geographers who rely on accurate representations of geographical features.Moreover, the azimuthal effect is not limited to maps; it also has implications in astronomy. When observing celestial bodies, astronomers must account for the azimuthal effect to accurately determine the position and movement of stars and planets. The angle of observation can greatly influence the perceived location of these objects, leading to potential errors if not properly corrected.In everyday life, we encounter the azimuthal effect when using GPS technology. Global Positioning Systems rely on satellite signals to calculate precise locations on Earth. However, due to the azimuthal effect, slight variations in signal reception can lead to discrepancies in the displayed location. This is why sometimes our navigation devices may show us slightly off from our actual position, especially in urban areas where tall buildings can obstruct signals.To mitigate the azimuthal effect in various applications, scientists and researchers continue to develop more sophisticated models and technologies. For instance, advancements in geographic information systems (GIS) allow for more accurate mapping and analysis by incorporating data from multiple sources and correcting for distortions caused by the azimuthal effect. These tools are essential for urban planning, environmental monitoring, and disaster management, where precision is crucial.In conclusion, the azimuthal effect is a fundamental concept that highlights the complexities of representing our three-dimensional world in a two-dimensional format. Whether in cartography, astronomy, or modern navigation, understanding the azimuthal effect is vital for ensuring accuracy and reliability in our interpretations of spatial information. As technology continues to evolve, so too will our methods for addressing the challenges posed by the azimuthal effect, ultimately enhancing our ability to navigate and understand the world around us.

“方位效应”是一个重要的概念,尤其在物理学和地理学等多个领域中。理解这个术语需要掌握角度和方向在我们感知周围世界中的关键作用。“方位效应”是指在将地球的三维表面投影到二维地图时发生的失真现象。这种现象可能导致距离、面积和方向上的显著不准确,具体取决于所使用的投影方法。例如,在制图学中,“方位效应”在方位投影中表现得尤为明显,这些投影旨在从特定点表示地球。这些投影可以提供从该点出发的准确距离和方向,但也可能扭曲其他方面,例如大小和形状,特别是在远离投影中心点时。这可能给依赖于地理特征准确表示的导航者和地理学家带来挑战。此外,“方位效应”不仅限于地图;它在天文学中也具有重要意义。在观察天体时,天文学家必须考虑“方位效应”,以准确确定恒星和行星的位置和运动。观察角度可以极大地影响这些物体的感知位置,如果不加以修正,可能会导致潜在的误差。在日常生活中,当我们使用GPS技术时,会遇到“方位效应”。全球定位系统依赖卫星信号来计算地球上的精确位置。然而,由于“方位效应”,信号接收的轻微变化可能导致显示位置的差异。这就是为什么有时我们的导航设备可能会显示我们与实际位置稍有偏差,尤其是在高楼大厦遮挡信号的城市地区。为了减轻各种应用中的“方位效应”,科学家和研究人员不断开发更复杂的模型和技术。例如,地理信息系统(GIS)的进步通过整合来自多个来源的数据并纠正“方位效应”造成的失真,从而实现更准确的映射和分析。这些工具对于城市规划、环境监测和灾害管理至关重要,因为在这些领域中,精确性至关重要。总之,“方位效应”是一个基本概念,突显了将我们三维世界表示为二维格式的复杂性。无论是在制图学、天文学还是现代导航中,理解“方位效应”对于确保我们对空间信息的解释的准确性和可靠性至关重要。随着技术的不断发展,我们解决“方位效应”带来的挑战的方法也将不断演变,从而增强我们导航和理解周围世界的能力。

相关单词

azimuthal

azimuthal详解:怎么读、什么意思、用法