Implementation and Reconfiguration of Robot Operating System on Human Follower Transporter Robot

Authors

  • Addythia Saphala Faculty of Engineering and Information Technology Swiss German University
  • Prianggada Indra Tanaya Dept. of Industrial Engineering Faculty of Engineering

DOI:

https://doi.org/10.21512/commit.v9i2.1646

Keywords:

Robot Operating System (ROS), Human Follower Transporter Robot, Simultaneous Localization and Mapping, Robot Navigation

Abstract

Robotic Operation System (ROS) is an im- portant platform to develop robot applications. One area of applications is for development of a Human Follower Transporter Robot (HFTR), which  can  be  considered  as a custom mobile robot utilizing differential driver steering method and equipped with Kinect sensor. This study discusses the development of the robot navigation system by implementing Simultaneous Localization and Mapping (SLAM).

Dimensions

Plum Analytics

Author Biographies

Addythia Saphala, Faculty of Engineering and Information Technology Swiss German University

Department of Mechatronics

Prianggada Indra Tanaya, Dept. of Industrial Engineering Faculty of Engineering

Dean

Faculty of Engineering

References

J. M. O’Kane. (2014) A gentle introduction to ros. Retrieved on January 2015. [Online].

Available:http://www.cse.sc.edu/ ∼jokane/agitr/

E. M. Eppstein. (2014) Navigation. Retrieved on January 2015. [Online]. Available:http:

//wiki.ros.org/navigation.

F. K. Mista, “Development of trajectory plan- ner based on lagrange polynomial and b-spline equations for an autonomous human follower transporter robot,” Master’s thesis, Department of Mechatronics, Faculty of Engineering, Swiss German University, 2013.

W. Tjiu, “Development of execution and monitor- ing architecture modules for an autonomous hu- man follower transporter robot,” Bachelor Thesis, Department of Mechatronic, Faculty of Engineer- ing and Information Technology, Swiss German University, Tangerang, Indonesia, 2013.

Nirmala, P. I. Tanaya, and M. Sinaga, “A study on bipedal and mobile robot behavior through modeling and simulation,” International journal of communication and information technology, vol. 9, pp. 1–10, 2015.

H. G. Nguyen, J. Morrell, K. D. Mullens, A. B. Burmeister, S. Miles, N. Farrington, K. M. Thomas, and D. W. Gage, “Segway robotic mo- bility platform,” in Optics East. International Society for Optics and Photonics, 2004, pp. 207– 220.

C. Y. Wong, K. Turker, I. Sharf, and B. Beckman, “Posture reconfiguration and navigation maneu- vers on a wheel-legged hydraulic robot,” in Field and Service Robotics. Springer, 2015, pp. 215– 228.

J. Zhang, A. Salerno, N. Simaan, Y. L. Yao,

G. Randers-Pehrson, G. Garty, A. Dutta, and D. J. Brenner, “Systems and methods for robotic trans- port,” Patent, Aug. 31, 2010, uS Patent 7,787,681.

B. E. Brendle Jr and J. J. Jaczkowski, “Robotic follower: near-term autonomy for future combat systems,” in AeroSense 2002. International Society for Optics and Photonics, 2002, pp. 112– 117.

Wiki. (2014) Navigation/tutorials/robotsetup. Retrieved on January 2015. [On- line]. Available:http://wiki.ros.org/navigation/ Tutorials/RobotSetup

B. Gerkey. (2014) gmapping. Retrieved on January 2015. [Online]. Available:http://wiki. ros.org/gmapping

J. Stephan. (2014) differential drive. [Online].

Available:http://wiki.ros.org/differential drive

A. Saphala, “Reconfiguration and implementa-

tion of robot operating system for mapping and navigation on human follower transporter robot,” Master Thesis, Department of Mechatronic, Fac- ulty of Engineering and Information Technology, Swiss German University, Tangerang, Indonesia, 2014.

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Published

2015-10-31
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PDF downloaded 501  .