Pengendalian Sudut Pitch dan Roll Pesawat Flying Wing

Try Susanto
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Abstract

The development of the aviation world in recent years has increased, one of which is the field of unmanned aerial vehicles. This development is in line with the increasing use of UAVs in various fields, including for military missions, natural disaster monitoring missions, and aerial photography missions. Many types of aircraft that can be used to complete these missions, one type of aircraft that is widely used is the flying wing type aircraft. This type of aircraft is triangular in shape and does not have a tail. This aircraft controller uses elevons on the right and left sides of its wings, and its form is relatively small, so this aircraft is susceptible to environmental disturbances and causes flight mission failures. To overcome this problem, a control system is needed that is able to make the aircraft maintain flight stability. In this study, the Linear Quadratic Regulator control method was applied to overcome this. The LQR control method is used to control the pitch and roll angles of the aircraft. Based on the test results, the interference given can be handled well by the aircraft. It was proven that when given a disturbance, the aircraft experienced an overshoot of 4.24º at the pitch angle and 4.26º at the roll angle, but could quickly return to the setpoint within 1.2 seconds at the pitch angle, and 1.3 seconds at the roll angle. Thus the aircraft is able to maintain flight stability.
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角度俯仰和滚转飞翼控制
近年来,航空界的发展有所增加,其中之一就是无人机领域。这一发展与无人机在各个领域的日益使用相一致,包括军事任务、自然灾害监测任务和航空摄影任务。许多类型的飞机可以用来完成这些任务,其中一种被广泛使用的飞机是飞翼型飞机。这种类型的飞机是三角形的,没有尾翼。这种飞机控制器在机翼的左右两侧使用升降舵,其形状相对较小,因此这种飞机容易受到环境干扰,并导致飞行任务失败。为了克服这个问题,需要一种能够使飞机保持飞行稳定性的控制系统。在本研究中,应用线性二次调节器控制方法来克服这一问题。LQR控制方法用于控制飞机的俯仰角和滚转角。根据测试结果,飞机可以很好地处理给定的干扰。事实证明,当受到扰动时,飞机在俯仰角和滚转角分别经历了4.24º和4.26º的超调,但在俯仰角的1.2秒内和滚转角的1.3秒内可以快速返回设定值。因此,飞机能够保持飞行稳定性。
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发文量
21
审稿时长
32 weeks
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