Remotely Piloted Aircraft: Analysis of the Deployment in Aeronautical Accident Investigation Bureau

被引:2
|
作者
Santa Maria, Humbert Dorneles [1 ]
Frogeri, Rodrigo Franklin [2 ]
Piurcosky, Fabricio Pelloso [2 ]
Prado, Liz Aurea [2 ]
机构
[1] Acad Force Aerea Pirassununga, Sao Paulo, SP, Brazil
[2] Grp Educ UNIS, Dept Pesquisa Varginha, Minas Gerais, MG, Brazil
关键词
Airplane accident; Investigation; Technology Acceptance Model; Remotely piloted aircraft system; RPAS;
D O I
10.1590/jatm.v13.1187
中图分类号
V [航空、航天];
学科分类号
08 ; 0825 ;
摘要
This study analyzed Remotely Piloted Aircraft System (RPAS) deployment in the Regional Services of Aeronautical Accidents Investigation and Prevention (SERIPA - Brazil) as a support tool to investigate aviation accidents. Such review is justified by the acquisition and use of this equipment and new technology by investigators since 2017. Research aim was to analyze the perception of SERIPA investigators regarding the usefulness and ease of use of the RPAS equipment. We applied an adaptation of the Theoretical Model of Technology. Methodologically, the study was characterized as exploratory and carried out through an inductive logic and qualitative approach. A case study has been done with 14 investigators belonging to six Brazilian SERIPA units. In conclusion, the respondents deem the RPAS to be useful for aircraft accident investigation, and the equipment is of easy use. RPAS was observed as a tool capable of replacing manned aircraft in some crash sites. The external variable, i.e. crash site characteristics, emerged as a factor that influences the use of RPAS, as well as the transport of RPAS in commercial aircraft.
引用
收藏
页码:1 / 21
页数:21
相关论文
共 50 条
  • [41] Communication techniques for Remotely piloted Aircraft with Integrated Modular Avionics
    Kainrath, Klaus
    Gruber, Mario
    Fluehr, Holger
    Leitgeb, Erich
    2016 INTERNATIONAL CONFERENCE ON BROADBAND COMMUNICATIONS FOR NEXT GENERATION NETWORKS AND MULTIMEDIA APPLICATIONS (COBCOM), 2016,
  • [42] Automatic routing for the flyby of monitoring objects by a remotely piloted aircraft
    Gorelikovs, Dmitrijs
    Urbaha, Margarita
    Urbahs, Aleksandrs
    Stankunas, Jonas
    ICTE IN TRANSPORTATION AND LOGISTICS 2018 (ICTE 2018), 2019, 149 : 398 - 405
  • [43] Mode choice behavior analysis of air transport on the introduction of remotely piloted passenger aircraft
    Lee, Joon-Kyu
    Kim, Sang Hyun
    Sim, Ga Ram
    JOURNAL OF AIR TRANSPORT MANAGEMENT, 2019, 76 : 48 - 55
  • [44] Multiple criteria analysis of remotely piloted aircraft systems for monitoring the crops vegetation status
    Cristea, L.
    Luculescu, M. C.
    Zamfira, S. C.
    Boer, A. L.
    Pop, S.
    7TH INTERNATIONAL CONFERENCE ON ADVANCED CONCEPTS IN MECHANICAL ENGINEERING, 2016, 147
  • [45] FORENSIC USE OF REMOTELY PILOTED AIRCRAFT AT THE BRAZILIAN FEDERAL POLICE
    Miranda, Guilherme H. B.
    FORENSIC SCIENCE INTERNATIONAL, 2017, 277 : 249 - 249
  • [46] Stacked Patch Antennas Appropriate for Remotely Piloted Aircraft Applications
    Petropoulos, Ioannis
    Sombrin, Jacques
    Delhote, Nicolas
    Menudier, Cyrille
    2015 LOUGHBOROUGH ANTENNAS & PROPAGATION CONFERENCE (LAPC), 2015,
  • [47] Ionic Charge Emission Into Fog From a Remotely Piloted Aircraft
    Harrison, R. Giles
    Nicoll, Keri A.
    Marlton, Graeme J.
    Tilley, Douglas J.
    Iravani, Pejman
    GEOPHYSICAL RESEARCH LETTERS, 2022, 49 (19)
  • [48] Impact of Controller Delays on the Nonlinear Dynamics of Remotely Piloted Aircraft
    Gill, Stephen J.
    Lowenberg, Mark H.
    Neild, Simon A.
    Crespo, Luis G.
    Krauskopf, Bernd
    JOURNAL OF GUIDANCE CONTROL AND DYNAMICS, 2016, 39 (02) : 292 - 300
  • [49] Decision Making by Remotely Piloted Aircraft System's Operator
    Shmelova, Tetiana
    Sikirda, Yuliya
    Kovalyov, Yuriy
    2017 IEEE 4TH INTERNATIONAL CONFERENCE ACTUAL PROBLEMS OF UNMANNED AERIAL VEHICLES DEVELOPMENTS (APUAVD), 2017, : 92 - 99
  • [50] ASSEMBLY OF A REMOTELY PILOTED AIRCRAFT OF LOW COST APPLIED TO AGRICULTURE
    Da Cunha, Joao P. A. R.
    Sirqueira Neto, Matheus A.
    ENGENHARIA AGRICOLA, 2017, 37 (06): : 1268 - 1274