Autonomous ballistic airdrop of objects from a small fixed-wing unmanned aerial vehicle

被引:0
|
作者
Siri Gulaker Mathisen
Frederik Stendahl Leira
Håkon Hagen Helgesen
Kristoffer Gryte
Tor Arne Johansen
机构
[1] NTNU,Department of Engineering Cybernetics, Centre for Autonomous Marine Operations and Systems (NTNU AMOS)
[2] Norwegian University of Science and Technology,undefined
来源
Autonomous Robots | 2020年 / 44卷
关键词
Real-time machine vision; Autonomous UAV; Target recognition; Path planning; Guidance and control; Target identification;
D O I
暂无
中图分类号
学科分类号
摘要
Autonomous airdrop is a useful basic operation for a fixed-wing unmanned aerial system. Being able to deliver an object to a known target position extends operational range without risking human lives, but is still limited to known delivery locations. If the fixed-wing unmanned aerial vehicle delivering the object could also recognize its target, the system would take one step further in the direction of autonomy. This paper presents a closed-loop autonomous delivery system that uses machine vision to identify a target marked with a distinct colour, calculates the geographical coordinates of the target location and plans a path to a release point, where it delivers the object. Experimental results present a visual target estimator with a mean error distance of 3.4 m and objects delivered with a mean error distance of 5.5 m.
引用
收藏
页码:859 / 875
页数:16
相关论文
共 50 条
  • [1] Autonomous ballistic airdrop of objects from a small fixed-wing unmanned aerial vehicle
    Mathisen, Siri Gulaker
    Leira, Frederik Stendahl
    Helgesen, Hakon Hagen
    Gryte, Kristoffer
    Johansen, Tor Arne
    [J]. AUTONOMOUS ROBOTS, 2020, 44 (05) : 859 - 875
  • [2] Agile maneuvering with a small fixed-wing unmanned aerial vehicle
    Levin, Joshua M.
    Paranjape, Aditya A.
    Nahon, Meyer
    [J]. ROBOTICS AND AUTONOMOUS SYSTEMS, 2019, 116 : 148 - 161
  • [3] Motion Planning for a Small Aerobatic Fixed-Wing Unmanned Aerial Vehicle
    Levin, Joshua
    Paranjape, Aditya
    Nahon, Meyer
    [J]. 2018 IEEE/RSJ INTERNATIONAL CONFERENCE ON INTELLIGENT ROBOTS AND SYSTEMS (IROS), 2018, : 8464 - 8470
  • [4] Autonomous Control of Running Takeoff and Landing for a Fixed-Wing Unmanned Aerial Vehicle
    Zhang Daibing
    Wang Xun
    Kong Weiwei
    [J]. 2012 12TH INTERNATIONAL CONFERENCE ON CONTROL, AUTOMATION, ROBOTICS & VISION (ICARCV), 2012, : 990 - 994
  • [5] On Maneuverability of Fixed-Wing Unmanned Aerial Vehicle Formations
    Challa, Vinay Reddy
    Ratnoo, Ashwini
    [J]. JOURNAL OF GUIDANCE CONTROL AND DYNAMICS, 2021, 44 (07) : 1327 - 1344
  • [6] Fire Monitoring with a Fixed-wing Unmanned Aerial Vehicle
    El Tin, Fares
    Sharf, Inna
    Nahon, Meyer
    [J]. 2022 INTERNATIONAL CONFERENCE ON UNMANNED AIRCRAFT SYSTEMS (ICUAS), 2022, : 1350 - 1358
  • [7] Autonomous flight performance optimization of fixed-wing unmanned aerial vehicle with morphing wingtip
    Oktay, Tugrul
    Eraslan, Yuksel
    [J]. AIRCRAFT ENGINEERING AND AEROSPACE TECHNOLOGY, 2024, 96 (03): : 475 - 482
  • [8] An Adaptive Control Framework for the Autonomous Aerobatic Maneuvers of Fixed-Wing Unmanned Aerial Vehicle
    Cao, Su
    Yu, Huangchao
    [J]. DRONES, 2022, 6 (11)
  • [9] Sensor-Driven Area Coverage for an Autonomous Fixed-Wing Unmanned Aerial Vehicle
    Paull, Liam
    Thibault, Carl
    Nagaty, Amr
    Seto, Mae
    Li, Howard
    [J]. IEEE TRANSACTIONS ON CYBERNETICS, 2014, 44 (09) : 1605 - 1618
  • [10] Autonomous Landing Algorithm of Fixed-Wing Unmanned Aerial Vehicle Based on Visual Guidance
    Hu Yunqiang
    Cao Yunfeng
    Zhuang Likui
    Song Xiaofeng
    [J]. LASER & OPTOELECTRONICS PROGRESS, 2022, 59 (14)