Analysis Of Mapping Multicopter Drones In The Entrance Area Of Prospective New Airports In Congot, Temon, Kulonprogo, Yogyakarta

  • Indreswari Suroso Aeronautical Studies Program of Yogyakarta Higher Aeronautical Technology School
Keywords: Drone, UAV, Mapping, Multicopter, DJ I Phantom, Congot

Abstract

This research use multicopter drone. This mapping was carried out at the entrance area of the prospective new airport precisely at the Congot beach area, Temon district, Kulonprogo district with a multicopter drone. This drone is capable of recording an altitude of 100 meters above ground level and can photograph an area of 1.5 km. This study used a drone type multicopter The vehicle specifications are as follows: Frame: F450; Flight Controller: DJI Naza M-Lite; Propeller: 1045 Prop; motorbike: brushless sunnsky 980 kVa; ESC: Skywalker 40 Ampere 3s; Battery: Ace 3s Gens 5000mAH; Remote: Turnigy 9XR with Frsky Tanseiver; and camera: Xiaomi Yi 4k International edition. The height of a multicopter drone reaches 30 meters, can take an area of up to 1 km and a flight time of 15 minutes. The advantage of this multicopter is that it uses a DJ I Phantom camera classified as stable for the light weight drone class. So for terrain with high wind speed, this multicopter drone is still able to maintain its position in the air. The Kulonprogo Regional Government and the Congot Radar Unit really appreciate this mapping because it is very helpful in mapping the entrance of new prospective airports in Kulonprogo.

 

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References

Anurogo, W., et al. 2017. A Simple Aerial Photogrammetric Mapping System Overview and Image Acquisition Using Unmanned Aerial Vehicles (UAVs). Journal of Applied Geospatial Information. 1(1). 11-18
Choanji, T. Et al. 2018. Clustering Slope Stability from Using Drone DEM Lineament Extraction And Rock Mass Rating In Pangkalan Koto Baru, West Sumatra, Indonesia. Journal of Applied Geospatial Information. 2(2). 124-129
Gross, J., Yu Gu., Rhudy, M. 2016. Fixed-Wing UAV Attitude Estimation Using Single Antenna GPS Signal Strength Measurements. Aerospace Journal. 3(2). 14-20
Juang, W.K., and Tung, L.L.U. 2016. Pembuatan Model Quadcopter yang Dapat Mempertahankan Ketinggian Tertentu. Jurnal Teknik Elektro. DOI: 10.9744/jte.9.2. ISSN 1411-870X. 9(2). 49-55
Muryamto, R., Waljiyanto, Rahardjo, U., Riyadi, G., Andaru., Taftazani, I., Marta, W., Farida. 2016. Pembuatan Peta Dan Sistem Informasi Geospasial Lahan Pertanian Di Kecamatan Sentolo, Kabupaten Kulonprogo, Yogyakarta. Indonesian Journal of Community Engagement. 2(3). 278-287
Octory, O. (2015). Foto Udara dengan Menggunakan Wahana UAV Jenis Fixed Wing. Journal of Geodesy and Geometis. ISSN: 1858-2281. 11(1)
Patmena, L. dan Purwanto, H. 2010. Pemanfaatan UAV untuk Pemetaan. Spectra. 15(8).16-26
Saroinsong, H.A. Poekoel, V.C., Manembu, P.D.K. 2018. Rancang Bangun Wahana Pesawat Tanpa Awak (Fixed Wing) Berbasis Ardupilot. Jurnal Teknik Elektro dan Komputer. ISSN : 2301 – 8402. 7(1). 73-85
Sirin D.N.K.S, et al. (2015). Standarisasi Pengambilan Foto Udara dengan Pesawat LSA untuk pengembangan Payload Inderaraja. Seminar Nasional Penginderaan Jauh LAPAN
Sofianti, R. (2011). Teknologi Pesawat tanpa Awak untuk Pemetaan dan Pemantauan Tanaman dan Lahan Pertanian. Jurnal Informatika Pertanian, Balai Besar Pertanian. 2(2). 58-62
Suroso, I., and Irmawan, E. 2018. Analysis Of Unmanned Aerial Vehicle (UAV) Type Fixed Wing For Aeromodelling Contest In Kotabaru, Lampung. Journal of Applied Geospatial Information. 2(1). 102-107
Wenang, A., Lubis, M.Z., Hanah. 2017. A Simple Aerial Photogrammetric Mapping System Overview and Image Acquisition Using Unmanned Aerial Vehicles (UAV). Journal Of Applied Geospatial Information. ISSN : 2579-3608. 1(1). 12-18
Wibowo, S.B., Sumiharto, R., Hujja, R.M. 2015. Desain Pengembangan Autopilot Pesawat Udara Tanpa Awak Menggunakan Avr-Xmega Sebagai Perangkat OBDH. Jurnal Teknologi. 8(1). 11-19
Published
2019-05-17