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Future Works

Dalam dokumen Seong-Min Lee (Halaman 170-182)

Chapter 1 Introduction Introduction

7.2 Future Works

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limited translational motion range. In addition, a methodology for the operation of several vehicles with the motion platform and one operator can be developed.

• Human in the Loop Control

In many industrial applications, several roles of humans have been partially substituted for cooperation with robots, requiring human-machine interaction. However, most existing control systems have excluded human interaction with mechanical and electronic systems. Furthermore, the control systems have been designed only considering actuator fault or saturation and tracking performance under disturbances. As a result, the conventional strategies have incurred ineffective human operating systems, where note the human-machine interactions (continuous loop from disturbances by humans to the effects on the humans by machines).

Therefore, a new control structure including humans can be proposed to achieve the desired performance for correct human perception as well as desired tracking control under several disturbances.

151

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© 2016 IEEE. Reprinted, with permission, from Seong-Min Lee, SangA Park, and Hungsun Son, “Multi DOFs motion platform based on spherical wheels for unmanned systems,” Aug. 2016.

© 2017 IEEE. Reprinted, with permission, from Seong-Min Lee and Hungsun Son, “MultiDegree-of- Freedom Motion Platform based on Spherical Wheel,” Oct. 2017.

© 2018 IEEE. Reprinted, with permission, from Seong-Min Lee and Hungsun Son, “Six DOFs motion platform using omni-spherical wheels,” Jul. 2018.

© 2019 IEEE. Reprinted, with permission, from Seong-Min Lee and Hungsun Son, “Three degree-of- freedom orientation measurement for spherical wheel motion platform using optical sensors,” Jul. 2019.

© 2019 IEEE. Reprinted, with permission, from Seong-Min Lee and Hungsun Son, “Improvement of Design and Motion Control for Motion Platform based on Spherical Wheels,” Oct. 2019.

© 2020 IEEE. Reprinted, with permission, from Seong-Min Lee and Hungsun Son, “Sliding-mode control with multi-sensor fusion for orientation of spherical motion platform,” Jul. 2020.

© 2021 IEEE. Reprinted, with permission, from Seong-Min Lee, Kewei Xia, and Hungsun Son,

“Robust Tracking Control of Spherical Motion Platform for Virtual Reality,” Jan. 2021.

Dalam dokumen Seong-Min Lee (Halaman 170-182)