• Title/Summary/Keyword: Future Airborne Capability Environment

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Development and Verification Methodology for Small Civil Unmanned Aerial Vehicle System based on Open System Architecture (개방형 시스템 아키텍처 기반의 소형 민간 무인항공기 시스템 개발 및 검증 방법)

  • Jo, Hyun-Chul;Park, Keunyoung
    • Journal of Platform Technology
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    • v.8 no.2
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    • pp.32-43
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    • 2020
  • The Unmanned Aerial Vehicle(UAV) system has been mainly used for military domains, but it also widely applied to used in the civilian domains. In civilian domains, low-cost and small-sized UAV systems are mainly applied in various industries. The software that operates UAV systems has a lot of common functions. However, even though there are many common functionalities of the software, changing the devices may cause a problem requiring software modification. These problems degrade interoperability, modularity and portability in UAV systems. In order to solve the problems, an Open System Architecture(OSA) has been proposed. In this paper, we propose a UAV system software architecture based on Future Airborne Capability Environment(FACE) standard. Our system can support UAV systems of various platforms in the civilian domains, which is supplied in small quantity batch production. And it has the advantages of software consolidation and portability. Finally, We describe the development and conformant methodology of the software based on the FACE standard using open development tools.

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A design of FACE-compliant IOS and TS segments architecture based on ARINC653 in avionics system (항공전자 시스템에서 ARINC653 기반의 FACE를 준수하는 IOS 및 TS 세그먼트 구조 설계 )

  • Doo-Hwan Lee;Young-Uk Nam;Kyeong-Yeon Cho;Ji-Yong Yoon
    • Journal of Advanced Navigation Technology
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    • v.27 no.4
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    • pp.429-435
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    • 2023
  • The increasing complexity of avionics systems has emphasized the portability and reusability of software components. In this paper, a structural design method for IOSS (Input Output Service Segment) and TSS (Transport Service Segment) complying with the FACE (The Future Airborne Capability Environment) standard in the VxWorks 653 operating environment that satisfies ARINC 653 requirements is described. IOSS and TSS operate independently in different partitions to minimize time/space separation and the influence of other software, and to increase portability and reusability, strategy patterns among design patterns are applied. In addition, IOSS provides external interface service by applying distributed IO service structure, and among external interfaces, the ARINC 664 P7 interface of FACE-compliant equipment is placed in TSS to optimize the data movement path.