sound-ranging control

简明释义

声测距控制

英英释义

例句

1.Using sound-ranging control, the engineers were able to monitor structural integrity in real-time.

通过使用声波定位控制，工程师能够实时监测结构的完整性。

2.The new sonar system features advanced sound-ranging control for better accuracy.

新型声纳系统具有先进的声波定位控制功能，以提高准确性。

3.The military uses sound-ranging control to accurately locate enemy positions.

军方使用声波定位控制来准确定位敌方位置。

4.In underwater exploration, sound-ranging control helps in mapping the ocean floor.

在水下探测中，声波定位控制有助于绘制海底地图。

5.The research team implemented sound-ranging control to track marine life movements.

研究小组实施了声波定位控制来跟踪海洋生物的移动。

作文

In recent years, technological advancements have transformed various fields, including navigation and tracking systems. One such innovation is the concept of sound-ranging control, which refers to a method of determining the position of an object by analyzing sound waves. This technique has been particularly beneficial in underwater exploration and military applications, where traditional methods of positioning may fall short due to environmental constraints. Understanding how sound-ranging control works can provide insights into its significance and potential future applications.The principle behind sound-ranging control lies in the propagation of sound waves through different mediums. When a sound wave is emitted from a source, it travels through the medium—be it air, water, or solid materials—until it encounters an object. Upon hitting the object, the sound wave reflects back to the source. By measuring the time it takes for the sound wave to return, one can calculate the distance to the object using the speed of sound in that particular medium.One of the most notable applications of sound-ranging control is in sonar technology, which is widely used in submarines and ships for navigation and detecting other vessels or underwater obstacles. Sonar systems emit sound pulses and listen for echoes to determine the location and size of objects underwater. This method is especially useful in deep-sea exploration, where visibility is often limited, and conventional optical methods cannot be employed effectively.Moreover, sound-ranging control is also applied in wildlife research, particularly in studying marine life. Researchers use this technology to monitor the movements and behaviors of various aquatic species by tagging them with devices that emit sound signals. The data collected helps scientists understand migration patterns, population dynamics, and habitat usage, ultimately contributing to conservation efforts.In the military domain, sound-ranging control plays a crucial role in submarine warfare. Submarines rely on this technology for stealthy navigation and for detecting enemy vessels. By utilizing advanced sound-ranging techniques, submarines can remain undetected while gathering intelligence on surrounding activities. This capability enhances operational effectiveness and provides a strategic advantage in naval operations.Despite its numerous advantages, sound-ranging control does face challenges. Environmental factors such as temperature, salinity, and pressure can affect the speed of sound in water, leading to inaccuracies in distance measurements. Additionally, background noise from marine life or human activities can interfere with the detection of sound waves, complicating the analysis further.As technology continues to evolve, the future of sound-ranging control looks promising. Innovations in artificial intelligence and machine learning could enhance data processing capabilities, allowing for more precise interpretations of sound signals. Furthermore, integrating sound-ranging control with other technologies, such as satellite navigation systems, could lead to even greater accuracy and reliability in tracking and positioning.In conclusion, sound-ranging control is a powerful tool that has revolutionized various fields, particularly in navigation and environmental monitoring. Its ability to utilize sound waves for positioning offers unique advantages, especially in challenging environments where traditional methods may fail. As research and development in this area continue, we can expect to see even more innovative applications and improvements in sound-ranging control technology, further enhancing our understanding of the world around us.

近年来，科技进步已经改变了多个领域，包括导航和跟踪系统。其中一种创新是“声测控制”的概念，它指的是通过分析声波来确定物体位置的方法。这项技术在水下探测和军事应用中尤其受益，因为传统的定位方法可能由于环境限制而不够有效。理解“声测控制”的工作原理可以提供对其重要性和潜在未来应用的深入了解。“声测控制”的原理在于声波在不同介质中的传播。当声波从一个源头发出时，它会穿过介质——无论是空气、水还是固体材料——直到遇到一个物体。当声波碰到物体时，会反射回源头。通过测量声波返回所需的时间，可以利用该特定介质中的声速计算到物体的距离。“声测控制”最显著的应用之一是在声呐技术中，这种技术被广泛用于潜艇和船只的导航以及探测其他船只或水下障碍物。声呐系统发出声脉冲并监听回声，以确定水下物体的位置和大小。这种方法在深海探测中尤为有用，因为能见度通常有限，而传统的光学方法无法有效使用。此外，“声测控制”也应用于野生动物研究，特别是在研究海洋生物方面。研究人员使用这项技术来监测各种水生物种的运动和行为，通过给它们贴上发出声信号的设备。收集的数据帮助科学家理解迁徙模式、种群动态和栖息地使用，最终促进保护工作。在军事领域，“声测控制”在潜艇战争中发挥着至关重要的作用。潜艇依靠这项技术进行隐秘导航和探测敌方舰艇。通过利用先进的声测技术，潜艇可以在收集周围活动情报的同时保持隐身。这种能力提高了作战效率，并为海军行动提供了战略优势。尽管有许多优点，“声测控制”也面临挑战。温度、盐度和压力等环境因素可能影响水中的声速，从而导致距离测量的不准确。此外，来自海洋生物或人类活动的背景噪音可能干扰声波的检测，进一步复杂化分析。随着技术的不断发展，“声测控制”的未来看起来充满希望。人工智能和机器学习的创新可以增强数据处理能力，使声信号的解释更加精确。此外，将“声测控制”与其他技术（如卫星导航系统）相结合，可能会导致更高的精度和可靠性，在跟踪和定位方面取得更大成就。总之，“声测控制”是一种强大的工具，已经彻底改变了多个领域，特别是在导航和环境监测方面。它利用声波进行定位的能力提供了独特的优势，尤其是在传统方法可能失败的挑战性环境中。随着这一领域的研究和开发的持续推进，我们可以期待看到更多创新应用和“声测控制”技术的改进，进一步增强我们对周围世界的理解。