Control System Design for Tricopter using Filters and PID controller
Vishal P Venkata, Natarajan V

TL;DR
This paper presents a control system for a Tricopter using complementary filtering for angle estimation and PID control for stabilization, validated through real-world testing and graphical analysis.
Contribution
It introduces a software implementation of a Tricopter control system combining complementary filters and PID controllers, emphasizing the role of filter design and parameter tuning.
Findings
Effective angle estimation using complementary filter with gyroscope and accelerometer
Successful stabilization of Tricopter with PID control in real-world tests
Graphical validation of control system performance
Abstract
The purpose of this paper is to present the control system design of Tricopter. We have presented the implementation of control system in software in this paper. Tricopter's control system mainly consists of two parts Complimentary filter and PID block. The angles along X, Y and Z axis are taken from the complementary filter which acts as a feedback block. We have used the combination of gyroscope and accelerometer for finding the angle. We have also shown the role of the complimentary filter in finding out the angle along X, Y, and Z axis instead of using gyroscope and accelerometer directly. The second main part is the PID Controller which calculates the error in angle along X, Y and Z axis and produces an output signal which reduces error. We have shown the importance of the constant parameters of PID Controller. The results of this paper are tested on an actual Tricopter and also…
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Taxonomy
TopicsInertial Sensor and Navigation · Adaptive Control of Nonlinear Systems · Control and Dynamics of Mobile Robots
