Design and Fabrication of an Autonomous Octorotor Flying Robot

被引:0
|
作者
Haddadi, S. Jamal [2 ]
Zarafshan, Payam [1 ]
机构
[1] Univ Tehran, Coll Aburaihan, Dept Agrotechnol, Tehran, Iran
[2] Qazvin Islamic Azad Univ, Dept Elect Comp & IT Engn, Qazvin, Iran
关键词
Octorotor; Flying Robot; Coaxial; Design Procedure; Stabilization;
D O I
暂无
中图分类号
TP24 [机器人技术];
学科分类号
080202 ; 1405 ;
摘要
In this paper, the full procedure of the mechanical design and electronic subsystems of a new Octorotor flying robot is discussed. The number of motors from four motors is increased to eight motors which all of motors set as coaxial and they are installed two by two. It means that four motors are placed on top of the robot and another four motors are placed on down of the robot coaxially. This structure can be use for carrying more pay load. In addition, there are many factors in control of a flying robot which its motion affects from eight motors. In fact, the main factor of flying robot motion is done by these brushless DC motors which achieves to the desired area. Also, IMU works as a stabilizer in the motion control system. Since the robot needs more flight time, it should have light-weight and official materials such as fiber carbon. It should be note that the equal distance is considered between the shaft centers of the motors in Octorotor. Also, the movement control system of Octorotor is supplied by the designed PID controller which will be discussed.
引用
收藏
页码:702 / 707
页数:6
相关论文
共 50 条
  • [31] Detection of the tau-margin and application to autonomous control of a flying robot
    Shimada, Yasuhiro
    Seto, Rei
    Ito, Kazuyuki
    PROCEEDINGS OF THE 2009 FIFTH INTERNATIONAL CONFERENCE ON INTELLIGENT SENSORS, SENSOR NETWORKS AND INFORMATION PROCESSING, 2009, : 103 - 108
  • [32] Navigation in an autonomous flying robot by using a biologically inspired visual odometer
    Iida, F
    Lambrinos, D
    SENSOR FUSION AND DECENTRALIZED CONTROL IN ROBOTIC SYSTEMS III, 2000, 4196 : 86 - 97
  • [33] Neural Chaotic Dynamics for Adaptive Exploration Control of an Autonomous Flying Robot
    Jaiton, Vatsanai
    Manoonpong, Poramate
    FROM ANIMALS TO ANIMATS 17, SAB 2024, 2025, 14993 : 251 - 262
  • [34] Simulation of Crash Tests for Electrically Propelled Flying Exploratory Autonomous Robot
    Wasik, Mateusz
    Skarka, Wojciech
    TRANSDISCIPLINARY ENGINEERING: CROSSING BOUNDARIES, 2016, 4 : 937 - 946
  • [35] A novel autonomous self-assembly distributed swarm flying robot
    Wei Hongxing
    Li Ning
    Liu Miao
    Tan Jindong
    CHINESE JOURNAL OF AERONAUTICS, 2013, 26 (03) : 791 - 800
  • [36] Design and Fabrication of Bipedal Robot
    Kumar, Ashwin Sushil
    Krishnan, Aswin G.
    Sridhar, Akshay
    Kiruthika, N.
    Prakash, N. Krishna
    2014 INTERNATIONAL CONFERENCE ON COMPUTING, COMMUNICATION AND NETWORKING TECHNOLOGIES (ICCCNT, 2014,
  • [37] Detection of the tau-margin and application to autonomous control of a flying robot
    Shimada, Yasuhiro
    Seto, Rei
    Ito, Kazuyuki
    2009 INTERNATIONAL CONFERENCE ON INTELLIGENT SENSORS, SENSOR NETWORKS AND INFORMATION PROCESSING (ISSNIP 2009), 2009, : 103 - +
  • [38] A novel autonomous self-assembly distributed swarm flying robot
    Wei Hongxing
    Li Ning
    Liu Miao
    Tan Jindong
    Chinese Journal of Aeronautics, 2013, 26 (03) : 791 - 800
  • [39] A novel autonomous self-assembly distributed swarm flying robot
    Wei Hongxing
    Li Ning
    Liu Miao
    Tan Jindong
    Chinese Journal of Aeronautics , 2013, (03) : 791 - 800
  • [40] Development of small flying robot with rotary wing and autonomous control system
    Bae, Soon-Kwan
    Hwang, H. C.
    Yoon, Kwang-Joon
    Goo, Nam-Seo
    2007 IEEE INTERNATIONAL CONFERENCE ON ROBOTICS AND BIOMIMETICS, VOLS 1-5, 2007, : 1815 - +