Shock and harmonic response analysis of UAV nose landing gear system with air damper

This research presents a response analysis of a UAV nose landing gear system equipped with an air damper under shock and harmonic excitation. The study begins with dynamic modeling of the UAV landing gear system. The system dynamics consists of a main mass and a wheel mass that are connected to each...

Full description

Bibliographic Details
Main Authors: Lovely Son, Muhammad Surya, Mulyadi Bur, Ubaidillah Ubaidillah, Radon Dhelika
Format: Article
Language:English
Published: Taylor & Francis Group 2021-01-01
Series:Cogent Engineering
Subjects:
uav
Online Access:http://dx.doi.org/10.1080/23311916.2021.1905231
id doaj-174c94dd1da54b498cc4ef79d0a68ea9
record_format Article
spelling doaj-174c94dd1da54b498cc4ef79d0a68ea92021-04-21T16:14:28ZengTaylor & Francis GroupCogent Engineering2331-19162021-01-018110.1080/23311916.2021.19052311905231Shock and harmonic response analysis of UAV nose landing gear system with air damperLovely Son0Muhammad Surya1Mulyadi Bur2Ubaidillah Ubaidillah3Radon Dhelika4Universitas Sebelas MaretUniversitas Sebelas MaretUniversitas Sebelas MaretUniversitas AndalasUniversitas IndonesiaThis research presents a response analysis of a UAV nose landing gear system equipped with an air damper under shock and harmonic excitation. The study begins with dynamic modeling of the UAV landing gear system. The system dynamics consists of a main mass and a wheel mass that are connected to each other by a U-shaped landing gear. The U-shaped landing gear is modeled by a linear spring and dashpot element. The air damper is added to the landing gear to increase the damping. The air damper consists of an air balloon that is connected to the outside via an orifice hole and the connecting pipe. A serial connection of spring, mass, and dashpot elements describes the air damper dynamic model. The simulation study is conducted to evaluate the effect of the landing gear parameters variation on the UAV dynamic response under shock and harmonic excitation. The maximum acceleration and displacement response of the UAV body under shock load is greatly affected by the air balloon cross-sectional area (Aef) and the stiffness of the U-shaped landing gear system (KL). The harmonic response of the UAV body is evaluated from the ratio between the UAV body displacement amplitude and the base excitation amplitude under harmonic excitation. It is shown that the air balloon cross-sectional area (Aef) and the connecting pipe length (lp) have a significant effect on the UAV mass displacement ratio. The experimental study is conducted to validate the simulation results. It is shown that the experimental data can verify the simulation results.http://dx.doi.org/10.1080/23311916.2021.1905231air damperdynamicresponseuavlanding gear
collection DOAJ
language English
format Article
sources DOAJ
author Lovely Son
Muhammad Surya
Mulyadi Bur
Ubaidillah Ubaidillah
Radon Dhelika
spellingShingle Lovely Son
Muhammad Surya
Mulyadi Bur
Ubaidillah Ubaidillah
Radon Dhelika
Shock and harmonic response analysis of UAV nose landing gear system with air damper
Cogent Engineering
air damper
dynamic
response
uav
landing gear
author_facet Lovely Son
Muhammad Surya
Mulyadi Bur
Ubaidillah Ubaidillah
Radon Dhelika
author_sort Lovely Son
title Shock and harmonic response analysis of UAV nose landing gear system with air damper
title_short Shock and harmonic response analysis of UAV nose landing gear system with air damper
title_full Shock and harmonic response analysis of UAV nose landing gear system with air damper
title_fullStr Shock and harmonic response analysis of UAV nose landing gear system with air damper
title_full_unstemmed Shock and harmonic response analysis of UAV nose landing gear system with air damper
title_sort shock and harmonic response analysis of uav nose landing gear system with air damper
publisher Taylor & Francis Group
series Cogent Engineering
issn 2331-1916
publishDate 2021-01-01
description This research presents a response analysis of a UAV nose landing gear system equipped with an air damper under shock and harmonic excitation. The study begins with dynamic modeling of the UAV landing gear system. The system dynamics consists of a main mass and a wheel mass that are connected to each other by a U-shaped landing gear. The U-shaped landing gear is modeled by a linear spring and dashpot element. The air damper is added to the landing gear to increase the damping. The air damper consists of an air balloon that is connected to the outside via an orifice hole and the connecting pipe. A serial connection of spring, mass, and dashpot elements describes the air damper dynamic model. The simulation study is conducted to evaluate the effect of the landing gear parameters variation on the UAV dynamic response under shock and harmonic excitation. The maximum acceleration and displacement response of the UAV body under shock load is greatly affected by the air balloon cross-sectional area (Aef) and the stiffness of the U-shaped landing gear system (KL). The harmonic response of the UAV body is evaluated from the ratio between the UAV body displacement amplitude and the base excitation amplitude under harmonic excitation. It is shown that the air balloon cross-sectional area (Aef) and the connecting pipe length (lp) have a significant effect on the UAV mass displacement ratio. The experimental study is conducted to validate the simulation results. It is shown that the experimental data can verify the simulation results.
topic air damper
dynamic
response
uav
landing gear
url http://dx.doi.org/10.1080/23311916.2021.1905231
work_keys_str_mv AT lovelyson shockandharmonicresponseanalysisofuavnoselandinggearsystemwithairdamper
AT muhammadsurya shockandharmonicresponseanalysisofuavnoselandinggearsystemwithairdamper
AT mulyadibur shockandharmonicresponseanalysisofuavnoselandinggearsystemwithairdamper
AT ubaidillahubaidillah shockandharmonicresponseanalysisofuavnoselandinggearsystemwithairdamper
AT radondhelika shockandharmonicresponseanalysisofuavnoselandinggearsystemwithairdamper
_version_ 1721515945459974144