Quadcopter combined with machine vision development
碩士 === 國立中央大學 === 光機電工程研究所 === 106 === Thesis will use Arduino as the main control, using IMU fusion quaternion algorithm to detect the pitch, roll, yaw angle and angular velocity of the fuselage, and negative feedback control through the structure of multi-layer PID to achieve self-balancing of the...
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ndltd-TW-106NCU056510182019-09-12T03:37:43Z http://ndltd.ncl.edu.tw/handle/gtderm Quadcopter combined with machine vision development 四軸機結合機器視覺之開發 Hsu-Wu Su 蘇許武 碩士 國立中央大學 光機電工程研究所 106 Thesis will use Arduino as the main control, using IMU fusion quaternion algorithm to detect the pitch, roll, yaw angle and angular velocity of the fuselage, and negative feedback control through the structure of multi-layer PID to achieve self-balancing of the fuselage, In machine vision, RaspberryPi is used as a tool for image processing, and the decoded signal is transmitted back to the Arduino through the UART to compensate for the attitude. Among them, the optical flow method is used to achieve hovering, and the Hough transform is used to track the ground target. thesis will introduce the system architecture, attitude algorithm, PID feedback control structure, sensor calibration, and how to use machine vision to compensate for the attitude. Ji-Chang Lo 羅吉昌 2018 學位論文 ; thesis 88 zh-TW |
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碩士 === 國立中央大學 === 光機電工程研究所 === 106 === Thesis will use Arduino as the main control, using IMU fusion quaternion algorithm to detect the pitch, roll, yaw angle and angular velocity of the fuselage, and negative feedback control through the structure of multi-layer PID to achieve self-balancing of the fuselage, In machine vision, RaspberryPi is used as a tool for image processing, and the decoded signal is transmitted back to the Arduino through the UART to compensate for the attitude. Among them, the optical flow method is used to achieve hovering, and the Hough transform is used to track the ground target. thesis will introduce the system architecture, attitude algorithm, PID feedback control structure, sensor calibration, and how to use machine vision to compensate for the attitude.
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Ji-Chang Lo |
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Ji-Chang Lo Hsu-Wu Su 蘇許武 |
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Hsu-Wu Su 蘇許武 |
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Hsu-Wu Su 蘇許武 Quadcopter combined with machine vision development |
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Hsu-Wu Su |
title |
Quadcopter combined with machine vision development |
title_short |
Quadcopter combined with machine vision development |
title_full |
Quadcopter combined with machine vision development |
title_fullStr |
Quadcopter combined with machine vision development |
title_full_unstemmed |
Quadcopter combined with machine vision development |
title_sort |
quadcopter combined with machine vision development |
publishDate |
2018 |
url |
http://ndltd.ncl.edu.tw/handle/gtderm |
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