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Communication and collaboration of heterogeneous unmanned systems using the joint architecture for Unmanned Systems (JAUS) standards

机译:使用针对无人系统(JAUS)标准的联合体系结构的异构无人系统的通信和协作

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The Naval Undersea Warfare Center Division Newport (NUWCDIVNPT) and Georgia Tech Research Institute (GTRI) completed a successful at-sea exercise with autonomous UAS and UUV systems demonstrating cross-domain unmanned system communication and collaboration. The exercise was held at the NUWC Narragansett Bay Shallow Water Test Facility (NBSWTF) range, and it represented for the first time the use of standard protocols and formats that effectively support cross-domain unmanned system operations. Four man-portable Iver2 UUVs operating in coordinated missions autonomously collected environmental data, which was compressed in-stride, re-formatted, and exfiltrated via UAS relay for display and tactical decision making. Two UAS with autonomous flight take-off and mission execution were sequenced to serve as ISR platforms and to support communications as RF relays for the UUVs performing Intelligence Preparation of the Environment missions. Two Command and Control nodes ashore provided unmanned system tasking and re-tasking, and they served to host and display both geo-positional data and status for UAS and UUV vehicles during the operational scenarios run during the exercise. The SAE Joint Architecture for Unmanned Systems (JAUS) standards were used for all message traffic between shore-based C2 nodes, UAS, and UUVs active in the NBSWTF exercise area. Exercise goals focused on CNO priorities expressed in the Undersea Domain Operating Concept of AUG 2013 which emphasized protocols essential to effective command and control of networked unmanned systems with decentralization and flexibility of command structures. Development for this project highlighted both the strengths and shortfalls of JAUS and captured the requirements for moving forward in effective cross-domain communications that support distributed, agile C2 nodes to meet evolving CONOPS for growing unmanned system presence and mission roles. The scenario employed operating parameters for UAS and UUV that have been- established in real-world operations and ongoing unmanned system programs. The tactical information from unmanned systems was displayed in real-time on shore-based C2 displays: the tactical FalconView display and the developmental TOPSIDE command and control station. This work represents a critical step in communications for networking of heterogeneous unmanned systems and establishes a solid platform for alignment of development and ongoing programs. The evaluation of JAUS suitability for near-term operational applications provides significant value as Concepts of Operation that rely on netted heterogeneous systems are being targeted. The focus on affordable commercial unmanned systems for this experimentation establishes the value of highly capable, portable systems to provide economical development and test opportunities with low-cost and low-risk alternatives to many planned and fielded systems. The JAUS architecture was introduced to the NUWC and GTRI unmanned systems though an instantiation of the Mission Oriented Operating Suite (MOOS) autonomy framework on secondary CPUs integrated into the Iver2 UUVs and the GTRI UAS. Since the GTRI UASs already had ROS installed, a MOOS-ROS bridge was employed to support use of the developed JAUS messaging capability. Established JAUS services were employed where the required functions could be met. New JAUS services were developed to meet functionality required for the operational scenarios in this exercise but not yet supported in the existing releases of SAE JAUS. Independent C++ header libraries that could be compiled at run time for specific autonomy frameworks, such as MOOS, were employed to support a software-agnostic approach. Immediate targets for broadening the influence of this work to coalition partners include the NATO Recognized Environmental Picture (REP) 2015 and The Technical Cooperation Program (TTCP) 2015 exercises. This project and demonstration was funded under a NUWC Strategic Initiat
机译:纽波特海军海战中心中心(NUWCDIVNPT)和佐治亚理工学院(GTRI)通过自主的UAS和UUV系统成功完成了海上演习,展示了跨域无人系统的通信和协作。该演习在NUWC Narragansett湾浅水测试设施(NBSWTF)范围内进行,它首次代表有效支持跨域无人系统操作的标准协议和格式的使用。在协调任务中运行的四个便携式Iver2 UUV自主收集环境数据,这些数据经过大步压缩,重新格式化并通过UAS中继进行泄密,以进行显示和战术决策。对两个具有自主飞行和任务执行功能的UAS进行了排序,以充当ISR平台并支持通信,以作为执行环境情报准备任务的UUV的RF中继。岸上的两个“指挥与控制”节点提供了无人系统任务和重新任务,在演习过程中运行的操作场景中,它们用于托管和显示UAS和UUV车辆的地理位置数据和状态。 SAE无人系统联合体系结构(JAUS)标准用于在NBSWTF演习区域中活跃的基于岸的C2节点,UAS和UUV之间的所有消息通信。练习目标集中在2013年8月的“海底域操作概念”中表达的CNO优先级,该概念强调了对网络无人系统进行有效指挥和控制,分散化和指挥结构灵活性所必需的协议。该项目的开发突出了JAUS的优势和不足,并捕捉了有效跨域通信向前发展的要求,这些通信支持分布式,敏捷的C2节点,以满足不断发展的CONOPS,以增加无人系统的存在和任务角色。该方案使用了在实际操作和正在进行的无人系统程序中建立的UAS和UUV的操作参数。来自无人系统的战术信息实时显示在岸上的C2显示器上:战术FalconView显示器和发展中的TOPSIDE指挥与控制站。这项工作代表了异构无人系统联网的通信中的关键步骤,并为开发和正在进行的程序的建立建立了坚实的平台。 JAUS对近期运营应用的适用性评估提供了重要的价值,因为目标是依赖联网的异构系统的运营概念。本实验着重于可负担的商用无人系统,确立了功能强大的便携式系统的价值,可为许多计划和部署的系统提供低成本,低风险的替代方案,从而提供经济的开发和测试机会。 JAUS体系结构是通过在集成到Iver2 UUV和GTRI UAS中的辅助CPU上的面向任务的操作套件(MOOS)自治框架的实例化引入到NUWC和GTRI无人系统的。由于GTRI UAS已经安装了ROS,因此使用MOOS-ROS桥来支持使用已开发的JAUS消息传递功能。可以使用既定的JAUS服务来满足所需的功能。开发了新的JAUS服务来满足本练习中操作场景所需的功能,但现有的SAE JAUS版本尚未支持该功能。采用了可以在运行时针对诸如MOOS之类的特定自治框架进行编译的独立C ++头文件库,以支持与软件无关的方法。扩大这项工作对联盟伙伴影响的近期目标包括2015年北约公认环境概览(REP)和2015年技术合作计划(TTCP)演习。该项目和示范项目是由NUWC战略发起机构资助的

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