Scientific and Technical Journal

ELECTROTECHNIC AND COMPUTER SYSTEMS

ISSN Print 2221-3937
ISSN Online 2221-3805
WIRELESS METHOD FOR CONTROL UNPLUG OF DEVICES ON BOARD UAVS WITH LIMITED ENERGY RESOURCES
Abstract:

The study is devoted to the problem of saving limited energy resources of unmanned vehicles (UAVs). Regardless of the size and weight of the UAV, its electronic-optical system consumes from 7 to 20 % of the battery's charge. Author proposes the method for the UAV clusters formation with wireless unplug of non-priority devices from the power supply on board the slave drones. The algorithm for alternately connecting to the power supply of similar devices on board various UAVs of one cluster has developed. To non-priority devices can be attributed digital cameras, meteorological sensors, etc., embedded to drones that fly from each other at a distance commensurate with the GPS coordinates’ error. In this case it is enough if the monitoring functions will only perform devices on the Master drone of cluster. Devices assigned to non-priority ones are unplugged by a signal via the Bluetooth module. After the task is completed by the Master UAV of the cluster or when removing the Slave UAV from the Master drone, Master UAV sends the signal to connect the non-priority devices to the battery on board Slave drones. Considering that the 4K digital camera consumes about 11.2 % of the UAV battery charge (for the entire flight time), it can be argued that due to the use of the created method, it is expected that the energy consumption will be reduced and the flight time of the UAV will be increased. It has been proven that certain progress in saving limited energy resources of a UAV can be achieved by direct interaction between the computer components of the Master and Slave UAVs. In this case the external commands of their owner (the ground dispatch center) are not required. A multi-scale modeling was performed on the Arduino platform. It has confirmed the operability of the devised method. Subsequently, the proposed method can be improved by implementing a remote interaction between drones, which are at a distance that exceeds the technical capabilities of the direct communication of the UAV modules within a flock.

Authors:
Keywords
DOI
http://dx.doi.org/10.15276/eltecs.27.103.2018.23
References
  1. Baiduzh, R. (2017). “Rules of Aircraft Operation of Unmanned Aircraft in Ukraine (Concept)” [Pravyla povitrianoi ekspluatatsii bezpilotnykh povitrianykh suden v Ukraini (kontseptsiia)] ; State aviation administration of Ukraine. Publ. Oct. 06. Available at: http://drone.ua/wp-content/uploads/2017/04/20171006_Kontseptsiya-BPS.pdf (in Ukraine).
  2. “The market of drones is a game according to the rules” [Rynok dronov – igra po pravilam]. Publ. Apr. 27, 2017. Available at: http://drone.ua/drone-regulations/ (in Russian).
  3. UAV RQ-4 Global Hawk. [Forum] “Heavies” [Boyevaya tekhnika]. Publ. Sep. 09, 2017. Available at: http://spec-naz.org/index.php?/topic/6373/ (in Russian).
  4. “RQ-4 Global Hawk martial laser equip” [RQ-4 Global Hawk osnastyat boyevym lazerom]. Military Review [Voyennoye obozreniye]. Publ. Aug. 28, 2017. Available at: https://topwar.ru/123590-rq-4-global-hawk-osnastyat-boevym-lazerom.html (in Russian).
  5. DJI Phantom 4 PRO : Specs. Available at: https://www.dji.com/ru/phantom-4-pro/info.
  6. Blade Chroma CGO3 4K. Available at: https://www.horizonhobby.com/media/chroma/BLH8675.html.
  7. Walkera Voyager 5 : Specs. Available at: http://www.walkera.com/index.php/Goods/canshu/id/66.html.
  8. “Megapixel cameras with CMOS-matrix” [Megapiksel'nyye kamery s CMOS-matritsey]. Technologies for shielding [Tekhnologii zashchity]. 2009. Vol. 4 (in Russian).
  9. Koucheryavy, A. Е., Prokopev, A. V. and Vyrelkin, A. D. (2015). Research application unmanned aerial vehicle as a temporary the head node clusters ground sensor networks [Issledovaniye vozmozhnosti primeneniya bespilotnogo letatel'nogo apparata v kachestve vremennogo golovnogo uzla klasterov nazemnoy sensornoy seti]. Telecom IT. Vol. 1(9), pp. 27–34 (in Russian).
  10. “Testing of the new Ukrainian UAV "Leleka-100"” [Ispytaniya novogo ukrainskogo BPLA «Leleka-100»]. Publ. Feb. 8, 2017. Available at: https://bmpd.livejournal.com/2422228.html (in Russian).
  11. “China lifted a record for the drones in the air” [Kytai pidniav u povitria rekordnyi rii droniv]. Correspondent. Publ. June 12, 2017. Available at: http://ua.korrespondent.net/tech/technews/3860820-kytai-pidniav-u-povitria-rekordnyi-rii-droniv (in Ukraine).
  12. Intel Drone Light Show Breaks Guinness World Records Title at Olympic Winter Games PyeongChang 2018 : News Release. Intel Newsroom. Publ. Feb. 9, 2018. Avaliable at: https://newsroom.intel.com/news-releases/intel-drone-light-show-breaks-guinness-world-records-title-olympic-winter-games-pyeongchang-2018/.
  13. “Google tested the drone control system” [Google vyprobuvav systemu rehuliuvannia rukhu bezpilotnykiv]. Correspondent. Publ. June 9, 2017. Available at: https://ua.korrespondent.net/tech/technews/3860062-Google-vyprobuvav-systemu-rehuluivannia-rukhu-bezpilotnykiv (in Ukraine).
  14. “DJI drones will receive offline support” [Drony DJI poluchat podderzhku oflayn-rezhima]. Publ. Aug. 16, 2017. Available at: https://hitech.newsru.com/article/16aug2017/dji (in Russian).
  15. “Search GPS Tracker RF-V16 for ¾” [Poiskovyy GPS treker RF-V16 dlya DJI Phantom]. Available at: http://coptertime.ru/catalog/multy-access/gps-tracker-dji-phantom/ (in Russian).
  16. Islam, Md. R. and Kim J. M. (2014). An Effective Approach to Improving Low-Cost GPS Positioning Accuracy in Real-Time Navigation. The Scientific World Journal. Vol. 2014, Article ID 671494, 8 p. doi: 10.1155/2014/671494.
  17. Zhuravska, І. М. and Musiyenko, M. P. (2017). “The synthesis of routes of UAVs’ sub-swarms based on Hopfield neural network for inspection of territories” [Syntez marshrutiv sub-roiv bezpilotnykh aparativ z vykorystanniam neironnoi merezhi Khopfilda dlia obstezhennia terytorii]. Radio Electronics, Computer Science, Control : Zaporizhzhya National Technical University, 3, pp. 86–94. doi: 10.15588/1607-3274-2017-2-10 (in Ukraine).
  18. Kurniawan, A. (2017). Arduino Programming with .NET and Sketch. New York : Apress, 168 p. doi: 10.1007/978-1-4842-2659-9.
  19. Arduino in Ukraine [Internet Shop]. Available at: https://arduino.ua/ (in Russian).
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Last download:
21 Aug 2019

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