德州自动浮标系统-可持续海洋观测,以帮助保护环境

J. Walpert, N. Guinasso, L. L. Lee, R. Martin
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引用次数: 7

摘要

2010年发生在路易斯安那州海岸的“深水地平线”(Deepwater Horizon)石油泄漏事件,再次让美国意识到海上钻井作业的内在风险。这次漏油事件的最终总成本将不仅以美元来衡量,还将以悲惨的生命损失、对沿海湿地的环境破坏以及对许多曾将石油工业仅仅视为致富手段的当地居民的心理伤害来衡量。虽然环境最终可能会恢复,但对当地社区的愤怒、困难和经济影响不容忽视。幸运的是,这种性质和规模的泄漏很少发生。参与石油行业的公司通过要求适当的人员培训、每天定期的安全和工具箱会议以及定期的设备维护来减少事故发生的可能性。钻井平台、油轮和燃料库的大多数作业都必须遵循标准操作程序,这些程序是专门为防止意外排放石油而设计的。尽管如此,无论培训、设备和程序的质量如何,一些事故仍然会偶尔发生。其中一些事故很少,但不可避免地会导致石油排放到环境中。海上工作是一项具有挑战性和潜在危险的职业,海上环境甚至可以使简单的任务变得困难和危险。做好应对石油泄漏的准备对于减轻潜在影响至关重要。1979年,墨西哥湾坎佩切湾发生了上一次大的井喷事故,当时许多在“深水地平线”平台上工作的人还没有出生。有些人还太年轻,不记得1989年的埃克森·瓦尔迪兹号(Exxon Valdez)油轮灾难,也不记得清理事故所涉及的巨大成本。诸如此类的事件促使美国政府通过了1990年《联邦石油污染法案》,该法案允许政府及其机构在石油泄漏期间控制清理工作,并从责任方那里收回所有费用。这反过来又促使德州政府在1991年通过了《德州石油泄漏预防和应对法案》。由于到达海岸的任何规模的泄漏都可能对环境和社会经济产生巨大影响,因此非常需要及时了解和了解泄漏发生的环境。这就是为什么在1994年,德州土地办公室(TGLO)与德州农工大学(TAMU)的地球化学和环境研究小组(GERG)签订合同,开发德州自动浮标系统(TABS)。它是该国唯一一个国家资助的海洋观测系统,其主要任务是为模拟溢油轨迹提供海洋学和气象数据。TABS系统在德克萨斯州大陆架上有9个永久性地点,为德克萨斯州的溢油响应管理者提供准确预测海上溢油轨迹所需的实时数据,从而将溢油对环境和经济的影响降至最低。在16年的运行中,tab已在40多个事件中用于决策目的。检测到泄漏后的最初几分钟对于决定如何处理泄漏,如何以及在何处拦截泄漏以及确定需要哪些资源至关重要。TABS系统提供了重要的信息,使响应管理人员能够采取行动,减轻石油泄漏的潜在影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Texas Automated Buoy System - sustainable ocean observations to help protect the environment
The Deepwater Horizon oil spill off the coast of Louisiana in 2010 woke the country once again to the inherent risks involved in offshore drilling operations. The final overall cost of this spill will not only be measured in dollars, but also in the tragic loss of life, environmental damage to coastal wetlands and damage to the psyche of many of the local residents who once regarded the oil industry simply as a means to prosperity. Although the environment will likely eventually recover, the outrage, hardship and economic impact on local communities cannot be overlooked. Fortunately spills of this nature and magnitude are rare occurrences. Companies involved in the oil industry mitigate the chance for accidents by requiring proper personnel training, daily regular safety and toolbox meetings and regular equipment maintenance. There are standard operating procedures that must be followed for most operations on drilling platforms, tankers and fueling depots which are designed specifically to prevent the accidental discharge of oil. Still, regardless of the quality of training, equipment and procedures, some accidents will still occasionally occur. Some of these accidents will rarely, but inevitably, result in oil being discharged into the environment. Working at sea is a challenging and potentially dangerous occupation where the at sea environment can make even simple tasks difficult and hazardous. Being prepared to act on an oil spill is critical in being able to mitigate the potential impacts. Many of the people who were working on the Deepwater Horizon platform were not yet born in 1979 when the last big blowout occurred in Mexico's Bay of Campeche in the Gulf of Mexico. Some were too young to remember the Exxon Valdez disaster in 1989 and the enormity of the costs involved in cleaning it up. Events such as these led the United States government to pass the 1990 Federal Oil Pollution Act, which allowed the government and its agencies to take control of cleanup operations during an oil spill and recoup all expenses from the responsible party. This in turn led to the Texas government passing the Texas Oil Spill Prevention and Response Act in 1991. Because of the potentially large environmental and socioeconomic impact of any size spill that reaches the coast, there is a great need for timely knowledge and understanding about the environment in which the spill occurred. This is why in 1994, the Texas General Land Office (TGLO) contracted the Geochemical and Environmental Research Group (GERG) of Texas A&M University (TAMU) to develop the Texas Automated Buoy System (TABS). It is the only state funded ocean observation system in the country whose primary mandate is to provide oceanographic and meteorological data for the purpose of modeling oil spill trajectories. With nine permanent locations on the Texas shelf, the TABS system provides spill response managers in Texas with the real time data necessary to accurately predict the trajectory of an offshore oil spill so the environmental and economic impacts of the spill can be minimized. In sixteen years of operation, TABS has been used for decision making purposes in over forty events. The first few minutes after a spill has been detected are critical to determine how to treat the spill, how and where to intercept it and to determine what resources are required. The TABS system provides that vital information to allow response managers to act and mitigate the potential impact from an oil spill.
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