Design and Prototyping of an Autonomous Un-Guided Vehicle (AuGV) for Hazardous Areas Usage: Moon Rover Space Exploration Vehicle Prototyping

Sumaila Musa, Alexander Ajibola, Ikenna Ijeh, Emmanuel Okyere, Jamie Gibson


This paper present the design and prototyping of an AuGV capable of navigating & avoiding obstacles in its path whilst it simultaneously calculate the shortest or best route to achieve the primary task for which it is designed for, i.e. deploying it solar-panel on locating a spot of brightest light intensity.

While most AGV (Autonomous Guided Vehicle) journal papers focuses on simulations and abstract ideas, this paper focuses on the development of an actual working prototype (with emphasizes on hardware such as controller, subsystems as well as the various communication protocols which were incorporated to link the various the subsystems together and to effectively transfer data and information control).

Decentralized embedded system solution was used to achieve the objectives of this project; while the test environment, obstacles in path, etc. are not known to the AGV neither were they incorporated in the programming of the AGV controller.

A fully functioning prototype was built, tested and it results presented herein as well as video demonstration


AGV; Locomotion; Light-Sensing & Deployment of Solar-panel; MBED Microcontroller; Obstacle-sensing & Avoidance; Prototyping

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The IET (2017). “Swimming and Wriggling robots unveiled for Fukushima clean-up”. VIEW [last accessed 29th July, 2017].

Yaghoubi S., Khalili S., Nezhad R. M., Kazemi M. R and Sakhaiifar M (2012). Designing and methodology of AGV vehicle Robots/ Self-Guided Vehicle systems, future trends. IJRRAS

Junemann R. and Schmidt T. (2000). Material flu system. Springer.

Tompkins J.A., White J. A., Bozer Y. A. and Tanchoco J.M.

(2003). Facilities Planning, 3rd Edition. John Wiley & Sons, Inc.

McHaney R. (1995). “Modelling battery constraints in discrete event automated guided vehicles simulations”. International Journal of Production Research. pp. 3023 – 3040. CrossRef

Kumar S. and Singh R. (2011). “Advanced speed control of an automated guided vehicle”. Proceeding of the International Multi-conference of Engineers and computer scientists. Vol II.

MBED Website (2015). Available at:

<> [Accessed: 20th July, 2017].

Ehrlin E. and Tornqvist M. (2012). Networked control of Autonomous Guided Vehicles.

Antonelli G., Chiaverini S. and Fusco G. (2005). “A calibration method for odometry of mobile robots based on the least-squares techniques: theory and experimental validation”. IEEE Transactions on vol. 21, pp. 994 – 1004. CrossRef

Bethencourt J., Qiang L. and Fernandez A. “Controller design and implementation for a differential drive wheeled mobile robot”, pp 4038 – 4043.

Kim K.H., Jeon S.M. and Ryu R.K. (2006). “Deadlock prevention for automated guided vehicle in automated container terminals”. Spectrum, vol. 28,,, pp. 659 – 679. CrossRef

Yahyaei M., Jam J. and Hosnavi R. (2009). Controlling the navigation of automatic guided vehicle using integrated fuzzy logic controller vwith programmable logic controller. Springer-Verlag, London. pp. 795 – 807.

Darren Krasny, (2003). “The Autonomous Maintenance Robot for confined space Maintenance Application”, Battelle Memorial Institute.


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