rudder angle fluctuation

简明释义

舵角波动

英英释义

例句

1.Engineers designed a new system to reduce rudder angle fluctuation in rough seas.

工程师设计了一种新系统，以减少在恶劣海况下的舵角波动。

2.The data showed that rudder angle fluctuation increased as the vessel approached the harbor.

数据显示，当船只接近港口时，舵角波动增加。

3.Crew training emphasized the importance of managing rudder angle fluctuation during maneuvers.

船员培训强调在操作过程中管理舵角波动的重要性。

4.The ship experienced significant rudder angle fluctuation during the storm, leading to difficulties in navigation.

在风暴中，船只经历了显著的舵角波动，导致导航困难。

5.To maintain course stability, the captain monitored the rudder angle fluctuation closely.

为了保持航向稳定，船长密切监测舵角波动。

作文

The stability and maneuverability of a vessel are crucial for safe navigation, particularly in challenging maritime environments. One of the key factors influencing these aspects is the rudder angle fluctuation (舵角波动). Understanding this phenomenon can significantly enhance our approach to maritime operations. When a ship is underway, the rudder serves as the primary control surface that allows the captain to steer the vessel. The angle at which the rudder is positioned relative to the water flow determines the effectiveness of the steering. However, various external factors such as wind, waves, and currents can cause the rudder angle fluctuation (舵角波动), leading to difficulties in maintaining a steady course. For instance, during rough weather conditions, the force of the waves can push against the hull of the ship, causing the rudder to move erratically. This results in a constant adjustment of the rudder angle, which is what we refer to as rudder angle fluctuation (舵角波动). Such fluctuations can make it challenging for the crew to keep the vessel on its intended path, increasing the risk of collisions or grounding. To mitigate the effects of rudder angle fluctuation (舵角波动), modern ships are equipped with advanced navigational systems that can predict and compensate for these changes. These systems utilize sensors and algorithms to monitor the ship's position and adjust the rudder accordingly. By doing so, they help maintain a more stable trajectory, even in adverse conditions. Moreover, understanding the dynamics of rudder angle fluctuation (舵角波动) is essential for training new mariners. They must learn to recognize the signs of excessive fluctuation and understand how to respond effectively. For example, if a sailor notices that the rudder is constantly shifting, they may need to adjust their steering inputs or reduce speed to regain control. In addition, engineers and designers of marine vessels are increasingly focusing on minimizing rudder angle fluctuation (舵角波动) through improved hull designs and rudder configurations. By optimizing these elements, they can create vessels that are more resilient to environmental forces, thus enhancing their overall performance. In conclusion, rudder angle fluctuation (舵角波动) is a critical concept in maritime navigation that impacts a vessel's stability and maneuverability. As technology advances, our ability to manage and predict these fluctuations improves, leading to safer and more efficient maritime operations. Understanding this phenomenon not only benefits sailors and engineers but also contributes to the overall safety of maritime transport, which is vital for global trade and commerce.

船舶的稳定性和机动性对于安全航行至关重要，尤其是在具有挑战性的海洋环境中。其中一个影响这些方面的关键因素是舵角波动(舵角波动)。理解这一现象可以显著增强我们对海事操作的处理方式。当船只航行时，舵作为主要控制面，使船长能够引导船只。舵相对于水流的角度决定了操控的有效性。然而，外部因素如风、波浪和洋流等会导致舵角波动(舵角波动)，从而使保持稳定航向变得困难。例如，在恶劣天气条件下，波浪的力量可能会冲击船体，导致舵不规则移动。这会导致舵角不断调整，这就是我们所称的舵角波动(舵角波动)。这种波动使船员在保持船只按照预定路径航行时面临挑战，增加了碰撞或搁浅的风险。为了减轻舵角波动(舵角波动)的影响，现代船只配备了先进的导航系统，可以预测和补偿这些变化。这些系统利用传感器和算法监测船只的位置，并相应地调整舵。因此，即使在不利条件下，它们也有助于保持更稳定的航迹。此外，理解舵角波动(舵角波动)的动态对新水手的培训至关重要。他们必须学习识别过度波动的迹象，并理解如何有效应对。例如，如果水手注意到舵不断移动，他们可能需要调整操控输入或降低速度以重新获得控制。此外，海洋船舶的工程师和设计师越来越关注通过改进船体设计和舵配置来最小化舵角波动(舵角波动)。通过优化这些元素，他们可以制造出对环境力量更具抵抗力的船只，从而增强其整体性能。总之，舵角波动(舵角波动)是海事导航中的一个关键概念，影响着船舶的稳定性和机动性。随着技术的进步，我们管理和预测这些波动的能力不断提高，从而导致更安全、更高效的海事操作。理解这一现象不仅有益于水手和工程师，也有助于全球贸易和商业中海事运输的整体安全。