Condition analysis of a multicopter carried with passive skid for rough terrain landing

Abstract This paper describes the condition analysis of a multicopter carried with a proposed device for rough terrain landing. Based on a multicopter carried with an electrical robot arm for grasping, we proposed a method to determine whether the skid-carried multicopter can land on an arbitrary sl...

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Autores principales: Maozheng Xu, Taku Senoo, Takeshi Takaki
Formato: article
Lenguaje:EN
Publicado: SpringerOpen 2021
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Acceso en línea:https://doaj.org/article/975de54b3a2e4be7a0a753995fecbf45
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spelling oai:doaj.org-article:975de54b3a2e4be7a0a753995fecbf452021-11-28T12:03:58ZCondition analysis of a multicopter carried with passive skid for rough terrain landing10.1186/s40648-021-00212-62197-4225https://doaj.org/article/975de54b3a2e4be7a0a753995fecbf452021-11-01T00:00:00Zhttps://doi.org/10.1186/s40648-021-00212-6https://doaj.org/toc/2197-4225Abstract This paper describes the condition analysis of a multicopter carried with a proposed device for rough terrain landing. Based on a multicopter carried with an electrical robot arm for grasping, we proposed a method to determine whether the skid-carried multicopter can land on an arbitrary slope or not. We established the static model of the entire device, and analyzed the conditions under which the arm and skid can contact the arbitrary plane and the COG (Center of Gravity), which includes the mass of passive skid, multicopter body and each link of the robot arm. Further, we proposed a method to analyze whether the entire device can land stably. By analyzing that the projection of the entire device’s COG is inside or outside the triangle, that comprises the contact point between the device and the uneven ground, we can determine whether the device can land successfully and the condition for capable landing is concluded. After the numerical analysis, the verification experiment is conducted, and by comparing the result of analysis with the experiment, the accuracy of the analysis can be demonstrated.Maozheng XuTaku SenooTakeshi TakakiSpringerOpenarticleLandingPassive skidRough terrainTechnologyTMechanical engineering and machineryTJ1-1570Control engineering systems. Automatic machinery (General)TJ212-225Machine design and drawingTJ227-240Technology (General)T1-995Industrial engineering. Management engineeringT55.4-60.8AutomationT59.5Information technologyT58.5-58.64ENROBOMECH Journal, Vol 8, Iss 1, Pp 1-12 (2021)
institution DOAJ
collection DOAJ
language EN
topic Landing
Passive skid
Rough terrain
Technology
T
Mechanical engineering and machinery
TJ1-1570
Control engineering systems. Automatic machinery (General)
TJ212-225
Machine design and drawing
TJ227-240
Technology (General)
T1-995
Industrial engineering. Management engineering
T55.4-60.8
Automation
T59.5
Information technology
T58.5-58.64
spellingShingle Landing
Passive skid
Rough terrain
Technology
T
Mechanical engineering and machinery
TJ1-1570
Control engineering systems. Automatic machinery (General)
TJ212-225
Machine design and drawing
TJ227-240
Technology (General)
T1-995
Industrial engineering. Management engineering
T55.4-60.8
Automation
T59.5
Information technology
T58.5-58.64
Maozheng Xu
Taku Senoo
Takeshi Takaki
Condition analysis of a multicopter carried with passive skid for rough terrain landing
description Abstract This paper describes the condition analysis of a multicopter carried with a proposed device for rough terrain landing. Based on a multicopter carried with an electrical robot arm for grasping, we proposed a method to determine whether the skid-carried multicopter can land on an arbitrary slope or not. We established the static model of the entire device, and analyzed the conditions under which the arm and skid can contact the arbitrary plane and the COG (Center of Gravity), which includes the mass of passive skid, multicopter body and each link of the robot arm. Further, we proposed a method to analyze whether the entire device can land stably. By analyzing that the projection of the entire device’s COG is inside or outside the triangle, that comprises the contact point between the device and the uneven ground, we can determine whether the device can land successfully and the condition for capable landing is concluded. After the numerical analysis, the verification experiment is conducted, and by comparing the result of analysis with the experiment, the accuracy of the analysis can be demonstrated.
format article
author Maozheng Xu
Taku Senoo
Takeshi Takaki
author_facet Maozheng Xu
Taku Senoo
Takeshi Takaki
author_sort Maozheng Xu
title Condition analysis of a multicopter carried with passive skid for rough terrain landing
title_short Condition analysis of a multicopter carried with passive skid for rough terrain landing
title_full Condition analysis of a multicopter carried with passive skid for rough terrain landing
title_fullStr Condition analysis of a multicopter carried with passive skid for rough terrain landing
title_full_unstemmed Condition analysis of a multicopter carried with passive skid for rough terrain landing
title_sort condition analysis of a multicopter carried with passive skid for rough terrain landing
publisher SpringerOpen
publishDate 2021
url https://doaj.org/article/975de54b3a2e4be7a0a753995fecbf45
work_keys_str_mv AT maozhengxu conditionanalysisofamulticoptercarriedwithpassiveskidforroughterrainlanding
AT takusenoo conditionanalysisofamulticoptercarriedwithpassiveskidforroughterrainlanding
AT takeshitakaki conditionanalysisofamulticoptercarriedwithpassiveskidforroughterrainlanding
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