azimuth stabilization

简明释义

方位稳定

英英释义

Azimuth stabilization refers to the process of maintaining a fixed orientation or direction of an object, typically in a horizontal plane, relative to a reference point, often used in navigation and tracking systems.

方位稳定化是指保持物体相对于参考点在水平面内固定方向或朝向的过程,通常用于导航和跟踪系统。

例句

1.The satellite's system employs azimuth stabilization to maintain its orientation in space.

卫星系统采用方位稳定来保持其在太空中的方向。

2.The military relies on azimuth stabilization for reconnaissance missions to gather precise data.

军方依靠方位稳定进行侦察任务,以收集精确数据。

3.To improve the accuracy of the telescope, engineers incorporated azimuth stabilization technology.

为了提高望远镜的准确性,工程师们引入了方位稳定技术。

4.The drone uses azimuth stabilization to ensure smooth flight paths during navigation.

无人机使用方位稳定来确保导航时的平稳飞行路径。

5.In naval operations, azimuth stabilization is crucial for targeting weapons accurately.

在海军行动中,方位稳定对准确瞄准武器至关重要。

作文

In the realm of navigation and orientation, the term azimuth stabilization plays a crucial role. It refers to the method of maintaining a constant directional heading, which is essential for various applications such as aviation, maritime navigation, and even in certain military operations. Understanding the concept of azimuth stabilization can significantly enhance our appreciation of how modern technology aids in precise navigation.The word 'azimuth' itself originates from Arabic, meaning 'the direction of the horizon.' In navigational contexts, azimuth is defined as the angle between a reference direction (usually true north) and the line to a specific point of interest. This angle is measured clockwise from the reference direction. Thus, azimuth stabilization ensures that this angle remains consistent despite changes in the vehicle's position or orientation.One of the most common applications of azimuth stabilization is found in the field of aviation. Aircraft rely heavily on instruments that provide accurate readings of their heading. Pilots use these readings to navigate effectively, especially when flying in poor visibility conditions. The implementation of azimuth stabilization in aircraft instruments allows pilots to maintain a steady course, even when faced with turbulence or other external factors that may cause the aircraft to veer off its intended path.In maritime navigation, azimuth stabilization is equally important. Ships must navigate vast oceans where landmarks are scarce. By employing systems that utilize azimuth stabilization, sailors can ensure that their vessels remain on course, avoiding potential hazards such as reefs or other ships. Moreover, modern naval vessels often incorporate advanced technologies that allow for real-time adjustments to their navigation systems, enhancing the effectiveness of azimuth stabilization.Military operations also benefit greatly from azimuth stabilization. In combat situations, maintaining a precise heading is vital for coordinating movements and ensuring effective communication among units. Military vehicles equipped with azimuth stabilization systems can navigate challenging terrains while keeping their orientation intact, thereby increasing operational efficiency and safety.Beyond traditional navigation, azimuth stabilization has found applications in various technologies, including drones and robotics. For instance, drones equipped with azimuth stabilization systems can perform complex maneuvers while maintaining stability and orientation. This capability is particularly useful in surveillance and reconnaissance missions, where precise positioning is crucial for gathering accurate data.In conclusion, the significance of azimuth stabilization cannot be overstated. It is a fundamental aspect of modern navigation that enhances the safety and efficiency of various modes of transport. As technology continues to advance, the methods and systems used for azimuth stabilization will likely become even more sophisticated, paving the way for new innovations in navigation and orientation. Understanding this concept not only enriches our knowledge of navigational techniques but also highlights the intricate relationship between technology and our ability to traverse the world around us.

在导航和定位领域,术语方位稳定发挥着至关重要的作用。它指的是保持恒定方向的方式,这对于航空、海洋导航甚至某些军事行动等各种应用都是必不可少的。理解方位稳定的概念可以显著增强我们对现代技术如何帮助精确导航的欣赏。“方位”一词本身源于阿拉伯文,意为“地平线的方向”。在导航的上下文中,方位被定义为参考方向(通常是正北)与特定兴趣点之间的角度。这个角度是顺时针测量的。因此,方位稳定确保这个角度在车辆的位置或方向发生变化时保持一致。方位稳定最常见的应用之一是在航空领域。飞机在飞行中非常依赖提供其航向准确读数的仪器。飞行员使用这些读数有效导航,特别是在能见度差的情况下。飞机仪器中实施的方位稳定使飞行员能够保持稳定的航向,即使面临颠簸或其他外部因素可能导致飞机偏离预定路径。在海洋导航中,方位稳定同样重要。船只必须在广阔的海洋中航行,而地标稀少。通过采用利用方位稳定的系统,水手可以确保他们的船只保持航向,避免潜在的危险,如暗礁或其他船只。此外,现代海军舰艇通常配备先进的技术,可以实时调整其导航系统,从而增强方位稳定的有效性。军事行动也极大受益于方位稳定。在作战情况下,保持精确的航向对于协调行动和确保各单位之间的有效沟通至关重要。配备方位稳定系统的军事车辆能够在复杂地形中导航,同时保持其方向不变,从而提高了操作效率和安全性。除了传统导航,方位稳定还在无人机和机器人等各种技术中找到了应用。例如,配备方位稳定系统的无人机可以在保持稳定和方向的同时执行复杂的机动。这一能力在监视和侦察任务中尤其有用,因为精确定位对获取准确数据至关重要。总之,方位稳定的重要性不容小觑。它是现代导航的一个基本方面,增强了各种交通方式的安全性和效率。随着技术的不断进步,用于方位稳定的方法和系统可能会变得更加复杂,为导航和定位的新创新铺平道路。理解这一概念不仅丰富了我们对导航技术的知识,还突显了技术与我们穿越周围世界能力之间的复杂关系。

相关单词

azimuth

azimuth详解:怎么读、什么意思、用法

stabilization

stabilization详解:怎么读、什么意思、用法