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
  • [31] Scientometric analysis of research on "remotely piloted aircraft" A research agenda for the construction industry
    Golizadeh, Hamed
    Hosseini, M. Reza
    Martek, Igor
    Edwards, David
    Gheisari, Masoud
    Banihashemi, Saeed
    Zhang, Jingxiao
    ENGINEERING CONSTRUCTION AND ARCHITECTURAL MANAGEMENT, 2020, 27 (03) : 634 - 657
  • [32] Modelling the risks remotely piloted aircraft pose to people on the ground
    Clothier, Reece A.
    Williams, Brendan P.
    Hayhurst, Kelly J.
    SAFETY SCIENCE, 2018, 101 : 33 - 47
  • [33] Oil spill remote monitoring by using remotely piloted aircraft
    Urbahs, Aleksandrs
    Zavtkevics, Vladislavs
    AIRCRAFT ENGINEERING AND AEROSPACE TECHNOLOGY, 2019, 91 (04): : 648 - 653
  • [34] AIRBORNE REMOTE-SENSING FROM REMOTELY PILOTED AIRCRAFT
    CANAS, AAD
    IRWIN, DA
    INTERNATIONAL JOURNAL OF REMOTE SENSING, 1986, 7 (12) : 1623 - 1635
  • [35] Coffee Growing with Remotely Piloted Aircraft System: Bibliometric Review
    Bento, Nicole Lopes
    Ferraz, Gabriel Araujo e Silva
    Santana, Lucas Santos
    Oliveira e Silva, Mirian de Lourdes
    AGRIENGINEERING, 2023, 5 (04): : 2458 - 2477
  • [36] Center for Interdisciplinary Remotely-Piloted Aircraft Studies (CIRPAS)
    Bluth, RT
    Durkee, PA
    Seinfeld, JH
    Flagan, RC
    Russell, LM
    Crowley, PA
    Finn, P
    BULLETIN OF THE AMERICAN METEOROLOGICAL SOCIETY, 1996, 77 (11) : 2691 - 2699
  • [37] REMOTELY PILOTED AIRCRAFT SYSTEM AIR VEHICLE TYPE SELECTION
    Glizde, Nikolajs
    Urbaha, Margarita
    18TH INTERNATIONAL SCIENTIFIC CONFERENCE ENGINEERING FOR RURAL DEVELOPMENT, 2019, : 1302 - 1312
  • [38] Recurrent error pathways in HFACS data: Analysis of 95 mishaps with remotely piloted aircraft
    Tvaryanas, Anthony P.
    Thompson, William T.
    AVIATION SPACE AND ENVIRONMENTAL MEDICINE, 2008, 79 (05): : 525 - 532
  • [39] CHALLENGES FOR INTEGRATION OF REMOTELY PILOTED AIRCRAFT SYSTEMS INTO THE EUROPEAN SKY
    Zielinski, Tadeusz
    Marud, Wieslaw
    SCIENTIFIC JOURNAL OF SILESIAN UNIVERSITY OF TECHNOLOGY-SERIES TRANSPORT, 2019, 102 : 217 - 229
  • [40] Remotely piloted aircraft -based automated vertical surface survey
    Grohmann, Carlos H.
    Viana, Camila D.
    Garcia, Guilherme P. B.
    Albuquerque, Rafael W.
    METHODSX, 2023, 10