Design and Manufacturing of an Exploration Autonomous Unmanned Aerial Vehicle
Efe Çetin YILMAZ
Kilis 7 Aralık University Faculty of Engineering Department of Mechanical Engineering
https://orcid.org/0000-0002-6212-7483
Faysal ALBAYRAK
https://orcid.org/0000-0003-2132-1826
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Keywords

UAV
Electronic Circuit Design
Smart Hand Control
Autonomous Fly

How to Cite

YILMAZ, E., & ALBAYRAK, F. (2022). Design and Manufacturing of an Exploration Autonomous Unmanned Aerial Vehicle. International Journal of Innovative Research and Reviews, 6(2), 93-98. Retrieved from http://www.injirr.com/article/view/113

Abstract

The importance of rotary-wing and fixed-wing Unmanned Aerial Vehicles (UAV), which have recently been used in various fields all over the world, is increasing day by day. Some of these vehicles are not only used for civilian life, but also in the military field. In this field, systems that undertake important tasks in the military field have been developed with very different technologies. These systems, which have developed rapidly in recent years, have become preferred because they facilitate the needs. The success of our country in the field of UAV has reached an important level and has set an example to the whole world. Among these systems, the UAV, which operate autonomously, have increased their importance because they provide great convenience to the user. For these systems, in this study, it has been tried to fulfill the autonomous reconnaissance task given to the UAV in places where there is no ground control center, where the remote control is not possible, or as a result of the disconnection with the UAV, and successful results have been obtained. In addition, in our study, the manual control system and the fully autonomous system were discussed and applied to the UAV system. It has been ensured that the UAV system can successfully take off as fully autonomous control, reach the target, reconnaissance, and land successfully at the take-off site. In addition, the sensor information and camera images on the UAV were instantly transferred to the ground control station and the reconnaissance mission was completed through the autonomous fly process.

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References

[1] Cruzatty C, Sarmiento E, Valencia E, Cando E. Design methodology of a UAV propeller implemented in monitoring activities. Materials Today-Proceedings (2022) 49:115–121. doi:10.1016/j.matpr.2021.07.481.

[2] Wang B, Zhao D, Li WX, Wang ZY, Huang Y, You YC, et al. Current technologies and challenges of applying fuel cell hybrid propulsion systems in unmanned aerial vehicles. Progress in Aerospace Sciences (2020) 116. doi:ARTN.

[3] Carlander L, Kirkwood L, Shehab E, Baguley P, Durazo-Cardenas I. Integration of cost-risk assessment of denial of service within an intelligent maintenance system. Product-Service Systems across Life Cycle (2016) 47:66–71. doi:10.1016/j.procir.2016.03.229.

[4] Montobbio F, Staccioli J, Virgillito ME, Vivarelli M. Robots and the origin of their labour-saving impact. Technological Forecasting and Social Change (2022) 174. doi:ARTN.

[5] Devi PA, Priyadarsini CI, Avvari C. Design of folded wing mechanism for Unmanned Aerial Vehicle (UAV). Materials Today-Proceedings (2022) 62:4117–4125. doi:10.1016/j.matpr.2022.04.660.

[6] Kutty HA, Rajendran P. 3D CFD Simulation and Experimental Validation of Small APC Slow Flyer Propeller Blade. Aerospace (2017) 4(1). doi:ARTN.

[7] Abdelfatah R, Alshaer N, Ismail T. A review on pointing, acquisition, and tracking approaches in UAV-based fso communication systems. Optical and Quantum Electronics (2022) 54(9). doi:ARTN.

[8] Quintana C, Sibson P, Erry G, Thueux Y, Kingston E, Ismail T, et al. Low size, weight and power Quantum Key Distribution system for small form unmanned aerial vehicles. Free-Space Laser Communications Xxxi (2019) 10910. doi:Unsp.

[9] Chand N, DeLuck T, Hunton AJ, Eteson BM, Moriarty DT, Carlson RT. Compact Low-Cost Non-RF Communication Solutions for Unmanned Ground Vehicles. Military Communications Conference, 2010 (Milcom 2010) (2010):1577–1582. doi:10.1109/Milcom.2010.5680178.

[10] Najafi M, Ajam H, Jamali V, Diamantoulakis PD, Karagiannidis GK, Schober R. Statistical Modeling of the FSO Fronthaul Channel for UAV-Based Communications. Ieee Transactions on Communications (2020) 68(6):3720–3736. doi:10.1109/Tcomm.2020.2981560.

[11] Dabiri MT, Sadough MS, Khalighi MA. Channel Modeling and Parameter Optimization for Hovering UAV-Based Free-Space Optical Links. Ieee Journal on Selected Areas in Communications (2018) 36(9):2104–2113. doi:10.1109/Jsac.2018.2864416.

[12] Wang JY, Ma Y, Lu RR, Wang JB, Lin M, Cheng JL. Hovering UAV-Based FSO Communications: Channel Modelling, Performance Analysis, and Parameter Optimization. Ieee Journal on Selected Areas in Communications (2021) 39(10):2946–2959. doi:10.1109/Jsac.2021.3088656.

[13] Efe Çetin Yılmaz, Barış Cangüleç, Uğurcan Acar. Design and Manufacturing of an Industrial Autonomous Controlled Separation System. International Journal of Innovative Research and Reviews (2021) 5(1):31–37.

[14] Kerimoğlu K. Sabit Kanatlı Bir İnsansiz Hava Aracı İçin Düşük Bütçeli Otopilot Sistemi Tasarımı [Low-budget Autopilot System Design for an Unmanned Aerial Vehicle with Fixed Wings]. Master Thesis. Tobb Ekonomi ve Teknoloji Üniversitesi (2011).
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