缺乏知识获取会影响核电厂的安全

Samuel Miranda, Ralph Caruso
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引用次数: 1

摘要

在供应公司(如供应商)、业主/运营商公用事业公司(如被许可方)和监管机构(如美国核管理委员会)的工程人员中,缺乏知识获取(LOKA)可能会损害核电厂的安全,并在核电厂的整个运行寿命期间持续存在。当经验丰富的技术审查人员未能将足够的信息或技术传递给经验不足的技术审查人员时,就会发生LOKA。在技术审查人员中存在LOKA可能会导致错误和遗漏,从而导致误导性或不完整的许可基础。提出了8个错误和遗漏的例子,每个例子都在物理现象、逻辑、许可策略和对监管的影响的背景下进行了评估。这些错误和遗漏可归因于几个原因,其中一个可能是LOKA。对于LOKA或其原因的可靠归属没有直接解决,因为注意力主要集中在可能但并非完全由LOKA引起的错误和遗漏的安全影响上。LOKA的认识论可能考虑到培训或人际关系,一般在其他研究中讨论,这些研究适用于影响比核动力工业更大的问题。如果那些设计、分析、许可、运营和管理核电站的人不能充分理解和应用经过验证的工程原理、标准、既定法规、批判性思维和合理的逻辑推理,那么可以说LOKA是存在的。LOKA可能会阻碍安全性分析、可行的许可策略和公平监管判断中可辩护结论的发展。文中给出了8个错误和遗漏的例子,每一个都导致了一个似乎与行业标准、联邦法规、工程原理或物理现象或简单逻辑相冲突的结论。这些例子通常是根据一个众所周知的、经常被引用的核工业标准的要求进行评估的,这个标准现在已经有近半个世纪的历史了。该标准于1973年由美国核学会(ANS)发布(1973年,《固定压水反应堆工厂设计的核安全标准》,La Grange Park, IL, ANS- n18.2 -1973)。它表达了核安全和许可的基本原则,适用于供应商、许可证持有者和监管机构。本标准根据预期发生频率,定义核电厂运行情况或事件的核安全准则和核电厂设计要求。发生频率高的事件不得对公众构成危险。对于可能对公众构成最大危险的事件,必须有计划地控制在极低的预期发生频率之内。这个概念是通过将假定的工厂情况(或事件)分组到根据其预期发生频率定义的类别中来实现的。被许可方必须对每个类别的事件进行分析和评估,以证明事件的后果不超过该类别的指定可接受限度。此外,被许可人必须证明某些事件不会发展成更严重的事件(例如,事件将被归为更严重、后果更高的类别),而不会同时发生独立的故障。也就是说,标准(美国核学会,1973年,《设计稳压水反应堆核电站的核安全标准》,La Grange Park, IL, ANS-N18.2-1973)要求核电站的设计方式必须不允许高频、低后果事件降级为高频、高后果事件。在示例评估中考虑的错误和遗漏可能是由于LOKA以及其他可能的原因造成的。在每个示例中,LOKA就足够了;但没有必要,以产生注意到的错误和遗漏。注意力集中在LOKA的安全含义上,而不是它的认识论。核电工业中的LOKA,包括其监管机构,正在进行中,因为它没有得到承认和补救。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Lack of Knowledge Acquisition Can Impair Nuclear Power Plant Safety
A lack of knowledge acquisition (LOKA), among engineering staff members in supply firms (e.g., vendors), owner/operator utilities (e.g., licensees), and in regulatory agencies (e.g., the NRC), can impair nuclear power plant (NPP) safety in ways that can persist throughout the operating lifetime of an NPP. A LOKA occurs when experienced technical reviewers fail to pass enough information, or technology, to less-experienced technical reviewers. The existence of a LOKA, among technical reviewers, can lead to errors and omissions that can result in misleading or incomplete licensing bases. Eight examples of errors and omissions are presented, each of which is evaluated in the context of physical phenomena, logic, licensing strategy, and effects upon regulation. These errors and omissions could be attributed to several causes, one of which could be a LOKA. Reliable attribution to a LOKA or its causes is not directly addressed, since attention is focused principally upon the safety implications of errors and omissions that may possibly, but not exclusively, be due to a LOKA. The epistemology of a LOKA, which may consider training or human relations, is generally addressed in other studies, which apply to issues that affect more than the nuclear power industry. If those who design, analyze, license, operate, and regulate NPPs do not adequately understand and apply proven engineering principles, standards, and established regulations, critical thinking, and sound logical reasoning, then it could be said that a LOKA exists. A LOKA could hamper the development of defensible conclusions in safety analyses, viable licensing strategies, and fair regulatory judgments. Eight examples of errors and omissions are presented, each of which leads to a conclusion that seems to conflict with an industry standard, a federal regulation, an engineering principle or physical phenomenon, or just plain logic. The examples are generally evaluated in accordance with the requirements of a well-known, oft-cited nuclear industry standard, which is now almost half a century old. This standard was published in 1973 by the American Nuclear Society (ANS) (1973, Nuclear Safety Criteria for the Design of Stationary Pressurized Water Reactor Plants, La Grange Park, IL, ANS-N18.2-1973). It expresses the fundamental principle of nuclear safety and licensing, which is applied by vendors, licensees, and regulators alike. This Standard defines nuclear safety criteria and plant design requirements for plant operating situations or events according to their expected frequencies of occurrence. Those events that have high frequencies of occurrence must not pose a danger to the public. Events that could pose the greatest danger to the public must be limited, by design, to extremely low expected frequencies of occurrence. This concept is implemented by grouping postulated plant situations (or events) into categories that are defined according to their expected frequencies of occurrence. Licensees are required to present analyses and evaluations of the events, in each category, to demonstrate that the events’ consequences do not exceed the category’s specified acceptance limits. Furthermore, licensees are required to demonstrate that certain events would not develop into more serious events (e.g., events that would be grouped into more serious, higher-consequence categories), without the concurrent occurrence of independent faults. That is, the Standard (American Nuclear Society, 1973, Nuclear Safety Criteria for the Design of Stationary Pressurized Water Reactor Plants, La Grange Park, IL, ANS-N18.2-1973) requires that NPPs must be designed in a way that does not allow high-frequency, low-consequence events to degrade into high-frequency, high-consequence events. The errors and omissions that are considered in the example evaluations could be due to a LOKA, among other possible causes. In each example, a LOKA is sufficient; but not necessary, to produce the noted errors and omissions. Attention is focused upon the safety implications of a LOKA, not its epistemology. The LOKA in the nuclear power industry, including its regulators, is ongoing, since it is not recognized and remedied.
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