Dynamic modelling & intelligent control of a flying machine

This report documents the Final Year Project (FYP) entitled Dynamic Modelling & Intelligent Control of an Unmanned Aerial Vehicle (UAV) as part of fulfilment for the requirement for the Electrical and Electronics Engineering course. The report details the design and construction of a suitable qu...

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Main Author: Woon, Hermann Wei Rong
Other Authors: Er Meng Joo
Format: Final Year Project
Language:English
Published: 2015
Subjects:
Online Access:http://hdl.handle.net/10356/64235
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Institution: Nanyang Technological University
Language: English
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spelling sg-ntu-dr.10356-642352023-07-07T16:18:25Z Dynamic modelling & intelligent control of a flying machine Woon, Hermann Wei Rong Er Meng Joo School of Electrical and Electronic Engineering DRNTU::Engineering::Electrical and electronic engineering This report documents the Final Year Project (FYP) entitled Dynamic Modelling & Intelligent Control of an Unmanned Aerial Vehicle (UAV) as part of fulfilment for the requirement for the Electrical and Electronics Engineering course. The report details the design and construction of a suitable quadcopter UAV. The UAV shall be capable of performing specific missions such as flying through high turbulence, crossing narrow space, payload delivery, passing through chain curtain, intelligence gathering and navigate through vegetation. Extensive studies and researches into the various types of UAVs, their capabilities and construction were made for the defined mission. A quadcopter UAV was selected for design and construction. The UAV is remotely controlled from a Ground Station. The UAV was designed with onboard computers and a ground station to provide an extensive and intensive processing power. This high processing power enable the mission, such as dropping of payload on target, to be pre-planned and automated, thus allowing the pilot to concentrate on the heavy workload of flying the UAV. The cardinal proper weight distribution of the UAV was achieved through a weight and balance analysis of the UAV. The UAV undergone flight tuning to achieve maximum stability. Stability is one of the most important factor which makes the UAV a successful flying machine. The UAV was also designed with flight controllable capabilities such as automatic throttle control, precision payload delivery system and Kinect flight control. The stable UAV, equipped with multitude of capabilities, represented NTU and participated in the Singapore Amazing Flying Machine Competition (SAFMC) 2015 Semi-Autonomous D1 Category. The team competed with 33 other teams from different tertiary institutes. The UAV team won the various prizes and was awarded the following:  Championship Award - Runner-up (2nd Place)  Best Presentation Award - GOLD (1st Place)  Best Video Award - 2nd Runner-up (3rd Place) Bachelor of Engineering 2015-05-25T07:03:34Z 2015-05-25T07:03:34Z 2015 Final Year Project (FYP) http://hdl.handle.net/10356/64235 en Nanyang Technological University 79 p. application/pdf
institution Nanyang Technological University
building NTU Library
continent Asia
country Singapore
Singapore
content_provider NTU Library
collection DR-NTU
language English
topic DRNTU::Engineering::Electrical and electronic engineering
spellingShingle DRNTU::Engineering::Electrical and electronic engineering
Woon, Hermann Wei Rong
Dynamic modelling & intelligent control of a flying machine
description This report documents the Final Year Project (FYP) entitled Dynamic Modelling & Intelligent Control of an Unmanned Aerial Vehicle (UAV) as part of fulfilment for the requirement for the Electrical and Electronics Engineering course. The report details the design and construction of a suitable quadcopter UAV. The UAV shall be capable of performing specific missions such as flying through high turbulence, crossing narrow space, payload delivery, passing through chain curtain, intelligence gathering and navigate through vegetation. Extensive studies and researches into the various types of UAVs, their capabilities and construction were made for the defined mission. A quadcopter UAV was selected for design and construction. The UAV is remotely controlled from a Ground Station. The UAV was designed with onboard computers and a ground station to provide an extensive and intensive processing power. This high processing power enable the mission, such as dropping of payload on target, to be pre-planned and automated, thus allowing the pilot to concentrate on the heavy workload of flying the UAV. The cardinal proper weight distribution of the UAV was achieved through a weight and balance analysis of the UAV. The UAV undergone flight tuning to achieve maximum stability. Stability is one of the most important factor which makes the UAV a successful flying machine. The UAV was also designed with flight controllable capabilities such as automatic throttle control, precision payload delivery system and Kinect flight control. The stable UAV, equipped with multitude of capabilities, represented NTU and participated in the Singapore Amazing Flying Machine Competition (SAFMC) 2015 Semi-Autonomous D1 Category. The team competed with 33 other teams from different tertiary institutes. The UAV team won the various prizes and was awarded the following:  Championship Award - Runner-up (2nd Place)  Best Presentation Award - GOLD (1st Place)  Best Video Award - 2nd Runner-up (3rd Place)
author2 Er Meng Joo
author_facet Er Meng Joo
Woon, Hermann Wei Rong
format Final Year Project
author Woon, Hermann Wei Rong
author_sort Woon, Hermann Wei Rong
title Dynamic modelling & intelligent control of a flying machine
title_short Dynamic modelling & intelligent control of a flying machine
title_full Dynamic modelling & intelligent control of a flying machine
title_fullStr Dynamic modelling & intelligent control of a flying machine
title_full_unstemmed Dynamic modelling & intelligent control of a flying machine
title_sort dynamic modelling & intelligent control of a flying machine
publishDate 2015
url http://hdl.handle.net/10356/64235
_version_ 1772825156987650048