elevator control angle

简明释义

横舵控制角

英英释义

The angle at which the elevator control surface of an aircraft is positioned to manage the aircraft's pitch and altitude.

飞机升降舵控制面的位置角度,用于管理飞机的俯仰和高度。

例句

1.The pilot adjusted the elevator control angle to ensure a smooth ascent.

飞行员调整了升降舵控制角度以确保平稳上升。

2.During the flight simulation, the elevator control angle was crucial for maintaining altitude.

在飞行模拟中,升降舵控制角度对于保持高度至关重要。

3.An incorrect elevator control angle can lead to a loss of control during landing.

不正确的升降舵控制角度可能导致着陆时失去控制。

4.The aircraft's manual provides guidelines on how to set the elevator control angle for different phases of flight.

飞机手册提供了在不同飞行阶段设置升降舵控制角度的指南。

5.To perform a steep turn, the pilot increased the elevator control angle significantly.

为了进行急转弯,飞行员显著增加了升降舵控制角度

作文

In the realm of aviation, understanding the various components that contribute to flight dynamics is crucial for both pilots and engineers. One such component is the elevator control angle, which plays a significant role in determining an aircraft's pitch attitude and overall stability during flight. The elevator control angle refers to the angle at which the elevator surface is deflected relative to the horizontal plane. This deflection affects the airflow over the tail section of the aircraft, thereby influencing its ability to climb, descend, or maintain level flight.When a pilot manipulates the control yoke or stick, they are effectively adjusting the elevator control angle. For instance, pulling back on the control yoke increases the elevator control angle, causing the elevator to deflect upward. This upward deflection generates a force that pitches the nose of the aircraft up, allowing it to climb. Conversely, pushing the control yoke forward decreases the elevator control angle, resulting in a downward deflection of the elevator, which causes the aircraft to descend.The significance of the elevator control angle cannot be overstated. It is essential for maintaining the desired flight path and ensuring the safety of the aircraft. A proper understanding of how the elevator control angle interacts with other aerodynamic forces is vital for pilots, especially during critical phases of flight such as takeoff and landing. During these phases, small changes in the elevator control angle can lead to significant changes in altitude and attitude, making precise control imperative.Moreover, the elevator control angle is also a critical factor in aircraft design. Engineers must consider the optimal range of elevator control angles when designing the tail surfaces of an aircraft to ensure that it can achieve the necessary performance characteristics. The relationship between the elevator control angle and the aircraft's center of gravity is another important aspect; if the center of gravity is too far forward or aft, it can affect the effectiveness of the elevator, leading to potential control issues.In addition to its practical applications, the elevator control angle also serves as a fascinating subject of study within the field of aerodynamics. Researchers continuously explore the effects of different elevator control angles on aircraft performance, particularly in the context of new materials and technologies that could enhance flight efficiency and safety. Understanding the nuances of the elevator control angle can lead to innovations in aircraft design and operation, ultimately contributing to the advancement of aviation as a whole.In conclusion, the elevator control angle is a fundamental concept in aviation that influences both the pilot's control of the aircraft and the engineering behind its design. Mastery of this concept is essential for anyone involved in aviation, whether as a pilot, engineer, or researcher. The ability to manipulate and understand the elevator control angle can significantly impact flight safety and performance, making it a topic worthy of thorough study and attention.

在航空领域,理解影响飞行动力学的各种组件对飞行员和工程师来说至关重要。其中一个关键组件是升降舵控制角,它在确定飞机的俯仰姿态和整体稳定性方面发挥着重要作用。升降舵控制角是指升降舵相对于水平面偏转的角度。这种偏转会影响飞机尾部的气流,从而影响其爬升、下降或保持平飞的能力。当飞行员操控控制杆或操纵杆时,他们实际上是在调整升降舵控制角。例如,向后拉动控制杆会增加升降舵控制角,导致升降舵向上偏转。这种向上的偏转产生一种力,使飞机的机头抬起,从而实现爬升。相反,向前推控制杆会减少升降舵控制角,导致升降舵向下偏转,使飞机下降。升降舵控制角的重要性不容小觑。它对于维持所需的飞行轨迹和确保飞机的安全至关重要。飞行员必须正确理解升降舵控制角如何与其他空气动力学力相互作用,尤其是在起飞和着陆等关键飞行阶段。在这些阶段,升降舵控制角的微小变化可能导致高度和姿态的显著变化,因此精确控制变得至关重要。此外,升降舵控制角也是飞机设计中的关键因素。工程师在设计飞机的尾翼时,必须考虑最佳的升降舵控制角范围,以确保飞机能够达到必要的性能特征。升降舵控制角与飞机重心之间的关系也是另一个重要方面;如果重心过于前移或后移,会影响升降舵的有效性,导致潜在的控制问题。除了实际应用外,升降舵控制角也是空气动力学领域一个引人入胜的研究主题。研究人员不断探索不同升降舵控制角对飞机性能的影响,特别是在新材料和技术的背景下,这些新材料和技术可以提高飞行效率和安全性。理解升降舵控制角的细微差别可以促进飞机设计和操作的创新,最终推动整个航空业的发展。总之,升降舵控制角是航空中一个基本概念,影响着飞行员对飞机的控制以及其设计背后的工程。掌握这一概念对于任何参与航空的人来说都是必不可少的,无论是飞行员、工程师还是研究人员。操控和理解升降舵控制角的能力可以极大地影响飞行的安全性和性能,使其成为值得深入研究和关注的主题。

相关单词

elevator

elevator详解:怎么读、什么意思、用法

angle

angle详解:怎么读、什么意思、用法