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Balázsik, Valéria
Dr. Tóth, Zoltán
Orosz, Gábor Tamás
Petőné, Csuka Ildikó
2026-09-07T07:38:37Z
2026-09-07T07:38:37Z
2020
http://hdl.handle.net/20.500.14044/40339
Nowadays many new data acquisition technologies have been appeared. Due to the increasingly advanced digital devices, high resolution cameras and utility of fast processing, Unmanned Aerial Vehicles (UAV) have become a prominent feature of the various remote sensing procedures. In the past, UAVs were only available for military purposes but over the last decade the ‘drone’ equipment has become easily accessible to everybody. While in the past photogrammetry was only used by qualified professionals, it is now applied successfully in many fields. Even though UAVs are widespread in surveying practice too, the related accuracy issues are not determined regularly. The manufacturing companies may calibrate the instruments of the device one by one, e.g. camera, GNSS receiver, in which way the nominal precision of an UAV, as an integrated system can be derived considering the error propagation law. However, in the practice the actual precision may notably differ from the nominal one, caused by different internal and external effects, such the flying stability of the device (platform), weather conditions, features of the observation object, etc. Because the benefits of the technology may justify the use of data in topographic mapping, cadastral mapping or even engineering geodesy, we have conducted studies to determine the accuracy that can be achieved using UAV as an integrated data acquisition tool. First, we developed a test field in rural area for investigations. The results of the test flights conducted there were determined that what conditions influence the accuracy of the survey. In addition, cadastral measurements were performed in the populated area using UAV and GNSS technologies and the results were compared with digital cadastral map data. Investigating the feasibility of engineering geodetic applications, we have performed an artificial surface survey using UAV technology. The results and conclusions of these studies are presented in this article.hu_HU
Nowadays many new data acquisition technologies have been appeared. Due to the increasingly advanced digital devices, high resolution cameras and utility of fast processing, Unmanned Aerial Vehicles (UAV) have become a prominent feature of the various remote sensing procedures. In the past, UAVs were only available for military purposes but over the last decade the ‘drone’ equipment has become easily accessible to everybody. While in the past photogrammetry was only used by qualified professionals, it is now applied successfully in many fields. Even though UAVs are widespread in surveying practice too, the related accuracy issues are not determined regularly. The manufacturing companies may calibrate the instruments of the device one by one, e.g. camera, GNSS receiver, in which way the nominal precision of an UAV, as an integrated system can be derived considering the error propagation law. However, in the practice the actual precision may notably differ from the nominal one, caused by different internal and external effects, such the flying stability of the device (platform), weather conditions, features of the observation object, etc. Because the benefits of the technology may justify the use of data in topographic mapping, cadastral mapping or even engineering geodesy, we have conducted studies to determine the accuracy that can be achieved using UAV as an integrated data acquisition tool. First, we developed a test field in rural area for investigations. The results of the test flights conducted there were determined that what conditions influence the accuracy of the survey. In addition, cadastral measurements were performed in the populated area using UAV and GNSS technologies and the results were compared with digital cadastral map data. Investigating the feasibility of engineering geodetic applications, we have performed an artificial surface survey using UAV technology. The results and conclusions of these studies are presented in this article.hu_HU
dc.formatpdfhu_HU
enhu_HU
Accuracy of UAV based data collection (case studies)hu_HU
Open accesshu_HU
Óbudai Egyetemhu_HU
2020. November 12.hu_HU
Székesfehérvárhu_HU
Alba Regia Műszaki Karhu_HU
Óbudai Egyetemhu_HU
Műszaki tudományok - közlekedés- és járműtudományokhu_HU
uavhu_HU
data collectionhu_HU
receiverhu_HU
technologyhu_HU
vehiclehu_HU
Konferenciaközleményhu_HU
AIS 2020 15th International Symposium on Applied Informatics and Related Areas organized in the frame of Hungarian Science Festival 2020 by Óbuda University Proceedingshu_HU
local.tempfieldCollectionsKönyvrészletekhu_HU
8.hu_HU
Kiadói változathu_HU
4 p.hu_HU
AIS 2020 15th International Symposium on Applied Informatics and Related Areas organized in the frame of Hungarian Science Festival 2020 by Óbuda Universityhu_HU
978-963-449-209-2hu_HU
2020hu_HU
Székesfehérvárhu_HU
Székesfehérvárhu_HU


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