UL 4600在无人机系统(UAS)和城市空中交通(UAM)中的适用性

U. Ferrell, Alfred Anderegg
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Those central features of safety and auditability follow the Federal Aviation Administration (FAA) compliance philosophy and could be adapted to aviation. • Continued Airworthiness with Monitored Safety Metrics: The FAA's desire to move to performance-based standards with risk-based strategy is supported by ANSI/UL 4600. Further, ANSI/UL 4600 recognizes that continued safety is even more important than one-time initial approval/acceptance, especially for learning systems used in problem-solving Artificial Intelligence (AI). Functional transformations of learning systems are continuously monitored by OEMs. Continued airworthiness could be assessed using this method even though the system is presumably fielded with unknown risks due to new and novel technology. • Modernization of Regulatory Approaches: This methodology supports performance-based regulations with compliance required to enforce system-of-systems interoperability. Applicants could design and test appropriate to their technology while regulators can audit and check for safety case completeness. Over time, industry can standardize some portions of testing as the technology matures. Different standards and codified standard approaches could also be independently designed and adapted as technology becomes standardized across the industry. Aviation regulators are already on this path to make performance-based regulations where applicants have the choice of technology and standards that can support innovation. • Industry and Public Stakeholder Engagement: The standard has undergone industry and public scrutiny in the automobile segment with considered reviews from technical, legal, and actuarial perspectives. The FAA and The MITRE Corporation (MITRE) have been working to implement a safety case umbrella that encompasses all facets of UAS and UAM development, operation, and maintenance. 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引用次数: 2

摘要

航空是一个保守的领域,专注于确定性系统,不断建立在已知风险的基础上。目前,使用安全保证标准的现有航空设计保证方法不适合自主系统的监管保证航空正面临着无人机系统(UAS)和城市空中机动(UAM)技术的巨大增长。申请人和监管机构面临的挑战是确保自主系统的系统安全。同样受到自动驾驶系统挑战的汽车行业正在寻找一些可能的解决方案。本文探讨航空业是否可以将这些解决方案应用于UAS和UAM保障。ANSI/UL 4600,自动产品评估安全标准,是第一个也是唯一一个公开的自动安全标准。该标准由认证的非营利性标准组织Underwriters Laboratories支持。该标准已被美国国家标准协会(ANSI)认可为国际标准。ANSI/UL 4600以目标为基础,技术中立的特点使其适用于其他行业和应用。它通过监测安全性能来确保安全,从而实现所需的航空监管方法。它反映了原始设备制造商(oem)的利益相关者的观点,他们已经考虑了与这些新技术相关的设计和制造挑战的产品责任。•基于目标和技术中立:ANSI/UL 4600不需要特定的设计方法或特定的技术。申请公司必须提供一个可审计和可辩护的基于证据的安全案例。这些安全和可审计性的核心特征遵循联邦航空管理局(FAA)的合规理念,可以适用于航空业。•安全指标监控下的持续适航性:美国联邦航空局希望采用基于性能的标准和基于风险的策略,这得到了ANSI/UL 4600的支持。此外,ANSI/UL 4600认识到持续安全比一次性初始批准/验收更重要,特别是对于用于解决问题的人工智能(AI)的学习系统。oem厂商持续监控学习系统的功能转换。使用这种方法可以评估持续适航性,即使系统可能由于新技术而存在未知风险。•监管方法的现代化:该方法支持基于性能的法规,并符合执行系统互操作性所需的要求。申请人可以设计和测试适合他们的技术,而监管机构可以审计和检查安全案例的完整性。随着时间的推移,随着技术的成熟,行业可以对测试的某些部分进行标准化。随着技术在整个行业的标准化,不同的标准和编纂的标准方法也可以独立设计和调整。航空监管机构已经在这条道路上制定了基于绩效的法规,申请人可以选择能够支持创新的技术和标准。•行业和公众利益相关者参与:该标准经过了汽车行业和公众的审查,从技术、法律和精算的角度进行了深思熟虑的审查。美国联邦航空局(FAA)和MITRE公司(MITRE)一直致力于实施一个安全案例保护伞,该保护伞涵盖了UAS和UAM开发、运营和维护的各个方面。安全案例保护伞是一种结合特定UAS和UAM细微差别的系统方法,因为它们与当前的监管结构有关。虽然这种方法可以对飞机的设计、开发、生产、维护和运营进行基于性能和风险的监督,但目前的法规并不是针对人工智能,特别是机器学习而制定的。即使没有使用这些先进的技术,小型无人机通常也会使用商用现货(COTS)技术,监管机构也可以使用这种方法来确保血统未知的技术。ANSI/UL 4600的编纂方法可以叠加到基于现行法规的安全保护伞方法上。建立可审核的安全个案,亦可提高申请人的安全意识和安全文化。对于UAS和UAM的批准,本文建议采用结构化和实用的框架,并以证据为基础的安全案例,同时考虑到现行法规对UAS和UAM安全的适用性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Applicability of UL 4600 to Unmanned Aircraft Systems (UAS) and Urban Air Mobility (UAM)
Aviation is a conservative field with a focus on deterministic systems that continuously builds on known risks. Currently, available aviation design assurance methods using safety assurance standards are not suited for regulatory assurance of autonomous systems Aviation is facing enormous growth in Unmanned Aircraft Systems (UAS) and Urban Air Mobility (UAM) technology. The challenge for applicants and regulators is to assure system safety of autonomous systems. The automobile industry, which is similarly challenged by autonomous systems, is finding some possible solutions. This paper explores whether the aviation industry can apply those solutions to UAS and UAM assurance. ANSI/UL 4600, Standard for Safety for the Evaluation of Autonomous Products, is the first and only publicly available autonomous safety standard. This standard is backed by a certified non-profit standards organization, Underwriters Laboratories. This standard has been recognized as an international American National Standards Institute (ANSI) approved standard. The goal-based, technology neutral features of ANSI/UL 4600 make it adaptable to other industries and applications. It assures safety through monitoring safety performance, which enables the desired aviation regulatory approach. It reflects stakeholder views from Original Equipment Manufacturers (OEMs) who have contemplated the product liability for the design and manufacturing challenges associated with these new technologies. The applicability to the aviation industry can be understood in terms of these features: • Goal-Based and Technology Neutral: ANSI/UL 4600 does not require a specific design approach or specific technology. The applicant company must present an auditable and defensible evidence-based safety case. Those central features of safety and auditability follow the Federal Aviation Administration (FAA) compliance philosophy and could be adapted to aviation. • Continued Airworthiness with Monitored Safety Metrics: The FAA's desire to move to performance-based standards with risk-based strategy is supported by ANSI/UL 4600. Further, ANSI/UL 4600 recognizes that continued safety is even more important than one-time initial approval/acceptance, especially for learning systems used in problem-solving Artificial Intelligence (AI). Functional transformations of learning systems are continuously monitored by OEMs. Continued airworthiness could be assessed using this method even though the system is presumably fielded with unknown risks due to new and novel technology. • Modernization of Regulatory Approaches: This methodology supports performance-based regulations with compliance required to enforce system-of-systems interoperability. Applicants could design and test appropriate to their technology while regulators can audit and check for safety case completeness. Over time, industry can standardize some portions of testing as the technology matures. Different standards and codified standard approaches could also be independently designed and adapted as technology becomes standardized across the industry. Aviation regulators are already on this path to make performance-based regulations where applicants have the choice of technology and standards that can support innovation. • Industry and Public Stakeholder Engagement: The standard has undergone industry and public scrutiny in the automobile segment with considered reviews from technical, legal, and actuarial perspectives. The FAA and The MITRE Corporation (MITRE) have been working to implement a safety case umbrella that encompasses all facets of UAS and UAM development, operation, and maintenance. The safety case umbrella is a systems approach to combine specific UAS and UAM nuances as they relate to current regulatory structure. While the approach affords a performance-based and risk-based oversight of aircraft design and development, production, maintenance and operation, the current regulations were not written to address AI and specifically machine learning. Even when those advanced techniques are not used, small UASs often use commercial-off-the-shelf (COTS) technology and technology of unknown pedigree could also be assured by the regulators using that approach. The codified approach of ANSI/UL 4600 could be superimposed on the safety case umbrella approach based on current regulations. The exercise of creating an auditable safety case also increases applicant safety awareness and safety culture. For approval of UAS and UAM, this paper recommends a structured and practical framework with an evidence-based safety case, which also takes into consideration the current regulations for applicability to UAS and UAM safety.
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