首页> 外文会议>2018 Integrated Communications, Navigation, Surveillance Conference >UAS situational awareness shortcomings, gaps, and future research needs
【24h】

UAS situational awareness shortcomings, gaps, and future research needs

机译:UAS态势感知缺陷,差距和未来研究需求

获取原文
获取原文并翻译 | 示例

摘要

1. Determine how much UA system monitoring information is necessary and design inference logic capable of using this information to safely mitigate the aberrant behavior, for resolving aberrant flight behavior both remotely and autonomously. 2. Examine and propose means for validation and verification of algorithms used in autonomous UAs and their operations. Define minimum success levels for determining aberrant behavior, the causal factor(s), the impact on the flight, and the actions taken by the UAS. 3. Explore the human factor issues for situational awareness for all aspects of POM operations. POM human factors are as significant as POM equipage and POM autonomous logic. For example, when assuming control from an automated or autonomous flight, and for the challenges presented by managing multiple UA and multiple simultaneous off-nominal events. 4. Investigate alternative traffic management paradigms to address the interaction between 55+ pound BVLOS operations and UTM. 5. Analyze C2 service issues including service availability and reliability at all altitudes and in all environments, multi-service resolution across multiple service providers and multiple technologies and spectrums, and spectrum and channel allocations in dense UA operating environments. 6. Address issues related to autonomous UA communications with ATC. 7. Establish minimum performance levels for Surface DAA encompassing all UA types and operating environments. Assess alternative sources of DAA information. a. Incorporate UA sensor data, for example from EO, IR, and Lidar sensors. b. Assess other detection technologies, for example millimeter wave. C. Establish a system to capture, synthesize, and distribute UA airborne DAA information. D. Establish a system to capture, synthesize, and distribute ground based non-aviation information related to atmospheric conditions, traffic activity, intrusion events, and obstacle presence. 8. Establish a system to capture, synthesize, and distribute UA airborne weather information. 9. Develop a specification for a minimum level of contingency planning, UA system and flight monitoring equipment, and real-time analysis capability. 10. Research and propose resolution to security concerns spanning GPS, ADS-B, and C2 link vulnerabilities, flight data and flight service vulnerabilities, and verification of automated flight modes and flight plans. 11. Evaluate issues related to multiple UA operations including linked failure modes, management of simultaneous off-nominal events, and unique fleet DAA behaviors. 12. Assess Minimum degree of precursor analysis for off-nominal events. Use trend analysis to predict off-nominal events and enable mitigations before the events occur.
机译:1.确定需要多少UA系统监视信息,并设计推理逻辑,该逻辑能够使用该信息来安全减轻异常行为,从而远程和自动解决异常飞行行为。 2.检查并提出用于验证和验证自主UA及其操作中使用的算法的方法。定义最小成功级别,以确定异常行为,因果因素,对飞行的影响以及UAS采取的行动。 3.探索人为因素问题,以了解POM运营各个方面的情况。 POM人为因素与POM设备和POM自主逻辑一样重要。例如,当假设是通过自动或自主飞行进行控制时,以及应对通过管理多个UA和多个同时发生的非标称事件带来的挑战。 4.研究替代的流量管理范例,以解决55磅以上的BVLOS操作与UTM之间的相互作用。 5.分析C2服务问题,包括在所有海拔高度和所有环境中的服务可用性和可靠性,跨多个服务提供商的多种服务解析,多种技术和频谱以及在密集UA操作环境中的频谱和信道分配。 6.解决与ATC进行自主UA通信有关的问题。 7.为Surface DAA建立涵盖所有UA类型和操作环境的最低性能级别。评估DAA信息的替代来源。一个。合并UA传感器数据,例如来自EO,IR和Lidar传感器的数据。 b。评估其他检测技术,例如毫米波。 C.建立一个捕获,综合和分发UA机载DAA信息的系统。 D.建立一个系统来捕获,综合和分发与大气状况,交通活动,入侵事件和障碍物存在有关的地面非航空信息。 8.建立一个系统来捕获,综合和分发UA机载天气信息。 9.制定最低级别的应急计划,UA系统和飞行监控设备以及实时分析功能的规范。 10.研究并提出解决方案,以解决涉及GPS,ADS-B和C2链路漏洞,飞行数据和飞行服务漏洞以及自动飞行模式和飞行计划的验证等安全问题。 11.评估与多个UA操作有关的问题,包括链接的故障模式,同时发生的异常事件管理以及独特的机队DAA行为。 12.评估异常事件的最小前体分析程度。使用趋势分析预测异常事件并在事件发生之前启用缓解措施。

著录项

相似文献

  • 外文文献
  • 中文文献
  • 专利
获取原文

客服邮箱:kefu@zhangqiaokeyan.com

京公网安备:11010802029741号 ICP备案号:京ICP备15016152号-6 六维联合信息科技 (北京) 有限公司©版权所有
  • 客服微信

  • 服务号