Dispersant-Related Oil Spill Response Communication Tools: Toward an Enhanced Approach to Conveying Complex Topics in an Approachable Manner

2014 ◽  
Vol 2014 (1) ◽  
pp. 1163-1171
Author(s):  
Thomas Coolbaugh ◽  
Erik DeMicco ◽  
Emily Kennedy

ABSTRACT During the response to the Macondo Well release in the Gulf of Mexico in 2010, it became evident fairly quickly that there was a potential disconnect between existing scientifically-based information relating to the use of oil spill dispersants and the information that was readily available to the general public, the media, and government officials. At best, both sets of information were aligned and provided a valuable perspective to those who sought an increased understanding of the workings of oil spill response tools. At worst, there was a large misalignment and the information that was available to the public did not accurately reflect the known science of what dispersants have been designed to achieve. In this latter case, conclusions about dispersant use may have been formed incorrectly, providing a backdrop upon which individuals were not able to develop an informed opinion regarding the use of dispersants. In the case where incomplete and potentially unbalanced information is used to inform the public, it is possible that negative effects will result, i.e., opinions may be formed based on fear of the unknown, causing a delayed or less than optimal decision making process. While it is recognized that decisions made during a spill response may be challenging and may involve an environmental trade-off, an informed public can be a valuable asset during the stages of an emergency response when the pros and cons of the specific response options are being debated. To assist with an informed dialog, it is important to have materials available that accurately reflect the scientific principles upon which they are based, but without requiring extensive study of their details for a general understanding of their primary assumptions and conclusions. This paper summarizes recent efforts to develop readily available materials that can provide a better understanding of the use of dispersants during an offshore oil spill response. These efforts have been focused on developing simple yet effective tools which describe dispersants within the framework of an oil spill response tool box and the scenarios in which these tools may be used for the most positive environmental effect.

Marine Policy ◽  
2018 ◽  
Vol 88 ◽  
pp. 242-247 ◽  
Author(s):  
Se-Jun Jin ◽  
Seul-Ye Lim ◽  
Seung-Hoon Yoo

1997 ◽  
Vol 1997 (1) ◽  
pp. 513-515
Author(s):  
John H. Giesen ◽  
Jon D. MacArthur

ABSTRACT Faced with training and travel dollar constraints, California's Department of Fish and Game and the 11th U.S. Coast Guard District worked to form a multiorganizational partnership designed to leverage required resources to conduct a premier operational-level oil spill response training program in the state. The partnership included no less than six major organizations from both the public and private sectors, each playing critical roles in planning and conducting the training. Major hurdles overcome were curriculum development and operational support. Both of these challenges were resolved through a unified management approach in which the ultimate objective became success of the course. The lessons learned from the program provide guidance and rationale for future such efforts.


2017 ◽  
Vol 2017 (1) ◽  
pp. 2561-2580
Author(s):  
Angeline Morrow ◽  
Christopher Pfeifer ◽  
Victoria Broje ◽  
Rachel Grunberg

ABSTRACT #2017-204: There is a growing recognition of the role science plays in supporting oil spill response coupled with increasing reliance on data-driven management and decision-making approaches. Collecting samples for analysis of hydrocarbons and other chemicals potentially used during oil spill response (e.g., dispersants) has become common place on many spills. While the rationale and approaches for oil spill sampling may be well known to experienced chemists and environmental scientists, the response community is still gaining experience in integrating sampling programs into dynamic oil spill response and decision-making. This paper reviews common sampling objectives for three key aspects of spill response: operational decision-support, environmental impact assessment (including natural resource damage assessment), and source identification. These broad categories span a range of interrelated sub-topics including, among others, public/worker health and safety; understanding how physical and chemical properties of oil influence selection of response options; monitoring cleanup effectiveness, especially for alternative response technologies such as dispersants; identifying and differentiating between spill and non-spill pollution sources; and evaluating potential impacts to resources at risk. Methods for achieving sampling objectives, including development of Sampling and Analysis Plans, are discussed with the goal of increasing awareness among response managers and improving response capability among staff who may be tasked with sampling support during training exercises or actual incidents. Relevant considerations for study design, collection methods, and analytical parameters are also reviewed.


Author(s):  
Per Johan Brandvik ◽  
Jørgen Skancke ◽  
Ragnhild Daae ◽  
Kristin Sørheim ◽  
Per S. Daling ◽  
...  

Abstract The low oil recovery rates reported during Macondo (3–5% of the released oil) have caused discussions regarding the efficiency of mechanical recovery compared to other oil spill response options. These low recovery rates have unfortunately been used as reference recovery rates in several later modelling studies and oil spill response analysis. Multiple factors could explain these low rates, such as operational priorities, where dispersants and/or in situ burning are given priority before mechanical recovery; extended safety zones; availability of adequate equipment and storage capacity of collected oil; the number of units available; the level of training and the available remote sensing support to guide operations. This study uses the OSCAR oil spill model to simulate a deep-water oil release to evaluate the effect of different response options both separately and in combination. The evaluated response options are subsea dispersant injection, mechanical recovery, and a combination of these. As expected, Subsea Dispersant Injection (SSDI) was highly effective and resulted in a significant reduction in residual surface oil (8% of released oil volume, versus 28% for the non-response option, NR). However, using large offshore oil recovery systems also reduced residual surface oil with a similar amount (9% of released oil volume). These results deviate significantly from the efficiency numbers reported after the Macondo incident and from later modelling studies scaled after the Macondo recovery rates. The increased efficiency of mechanical reported in this study is mainly due to inclusion of updated descriptions of response capabilities, reduced exclusion zone, a more realistic representation of surface oil distribution and modelling of response units' interactions with oil, (efficient oil recovery only on thick parts of the oil slick). The response capabilities and efficiency numbers for the different response options used in this study are based on equipment specifications from multiple response providers and authorities (Norwegian Clean Seas organisation (NOFO), Oil Spill Response (OSRL), Norwegian Coastal Administration (NCA), US Bureau of Safety and Environmental Enforcement (BSEE) and others). These capabilities are justified by well-established contingency plans, offshore exercises and annual equipment performance testing with oil.


1997 ◽  
Vol 1997 (1) ◽  
pp. 493-497
Author(s):  
Scott L. McCreery

ABSTRACT Automated spill response management systems (ASRMSs) represent a significant step forward in oil spill response management. They combine a group of computer software tools that allow members of the spill management team to gather and share data and assimilate information more efficiently and effectively, automating information management within the framework of the response organizational structure. They also allow a broad range of electronic information to be depicted graphically in a geo-referenced mapping system so as to display a clear picture of the incident situation to the unified commanders and the public. However, efforts by the software development industry to introduce ASRMSs to the spill response community have been marked by defeat. The author, who has been involved in the development of several ASRMSs, sees this as a function of reluctance on the part of the oil industry and the oil spill response industry to accept new ways of managing a spill response. The author also views these failures as resulting from the temptation of software developers to build big, expensive ASRMSs that attempt to be all things to all people.


1999 ◽  
Vol 1999 (1) ◽  
pp. 985-987 ◽  
Author(s):  
Tim Wadsworth ◽  
Brian Dicks ◽  
Clément Lavigne

ABSTRACT Oil spills may contaminate both mariculture facilities and livestock. Prevention of oiling should therefore be afforded a high priority. Given appropriate conditions, this may be achieved by the traditional spill response measures. However, a number of self-help response options are open to mariculturalists, that may avoid or limit the effects of spilled oil. These include the relocation of cages, transfer of stock, and early harvest, although such measures are only likely to be successful if a well-prepared contingency plan exists. The advantages and drawbacks of each of these approaches in the context of oil spill response are discussed.


1997 ◽  
Vol 1997 (1) ◽  
pp. 881-885 ◽  
Author(s):  
Scott B. Robertson ◽  
Alexis Steen ◽  
Robert Pavia ◽  
LCDR David Skewes ◽  
Ann Hayward Walker

ABSTRACT When planning response activities for an oil spill, decision makers must react to a wide range of circumstances. Decisions will vary depending on the type of petroleum product spilled and the nature of the impacted habitat. Response decisions will be based on tradeoffs dealing with the environmental consequences of the spilled oil and the response method selected, as well as the efficiency and effectiveness of the method. A new manual, Marine Oil Spill Response Options for Minimizing Environmental Impacts, is being jointly produced by industry and government to facilitate decision making for both prespill planning and incident response. Guidance will be provided through matrix tables indicating the relative environmental consequences of the different response options used for various categories of oil in open water and shoreline habitats. This paper describes the contents of the new manual.


2005 ◽  
Vol 2005 (1) ◽  
pp. 349-352
Author(s):  
Curt Clumpner

ABSTRACT When an oil spill impacts wildlife, the success of the wildlife response often depends on the quality of the preplanning and the responders ability to manage the factors that they can control. While factors such as season and weather, seasonal behavior and lifecycle stages of wildlife cannot be controlled, training of personal, equipment caches and pre-identifying facilities can have a huge influence on the success or failure or a wildlife response. Effective planning prior to the event is the only way to assure maximum preparedness and effective response. Wildlife response planning has become a key component of oil spill preparedness and response. With the recent publication of the IPIECA Report: A Guide to Oiled Wildlife Response Planning, planning for wildlife response has become an accepted and expected component of any oil spill contingency plan. Depending on available resources, appropriate response strategies may include any of a variety of tools: assessing impacts, use of dispersants, protective booming, hazing, wildlife rehabilitation and euthanasia. A good wildlife plan should address each of these issues and provide the information and guidance to necessary for responders to make appropriate and timely decisions that will maximize the success execution of the plan and the objectives of the specific response. This paper will outline the components necessary in a good wildlife plan within a framework that should be familiar to oil spill response planners. It will include a strategy section, an action section and a data section. As with every other phase of the response there are a variety of factors that affect the success of the wildlife plan. These include efficient management of all resources including the human resources, equipment and facilities. Quick initiation of the operations is critical to minimize the time between oiling of animals when they are collected and rehabilitation initiated. This paper will provide a framework for planners or responders with little or no wildlife experience to assist them in planning for the wildlife component within the overall response.


1999 ◽  
Vol 71 (1) ◽  
pp. 5-16 ◽  
Author(s):  
Atle B. Nordvik

This paper presents an integrated scientific and engineering strategy to improve and bring planning and decision-making for marine oil spill response to a higher level of knowledge. The most efficient, environmentally preferred, and cost effective spill response is dependent on the following factors: chemistry of the spilled product, quantity, location, response time, environmental conditions, and effectiveness of available response technologies at various degrees of oil weathering.Time windows is a highly targeted process, in which the selection of response technologies will be more efficient, cost effective, technically correct, and environmentally sensitive and appropriate. The strategy integrates dynamic oil weathering data and performance effectiveness data for oil spill response technologies derived from laboratory, mesoscale, and experimental field studies. Performance data has been developed from a wide range of viscosities of different weathering stages of transported oils into a dynamic oil weathering database to identify and estimate time periods, called "technology windows-of-opportunity." In these windows, specific response methods, technologies, equipment, or products are more effective during clean-up operations for specific oils. The data bases represent the state of the art for response technologies and research in oil spill response.The strategy provides a standard foundation for rapid and cost effective oil spill response decision-making, and is intended for use by local, state, federal agencies, response planners, clean up organizations (responders), insurance companies, tanker owners, and transporters. It provides policy, planners and decision-makers with a scientifically based and documented "tool" in oil spill response that has not been available before.


2001 ◽  
Vol 2001 (2) ◽  
pp. 883-890 ◽  
Author(s):  
Christopher H. Barker ◽  
William P. Healy

ABSTRACT The U.S. Navy is in the process of re-evaluating its oil spill response preparedness. As part of that effort, the Navy and the National Oceanic and Atmospheric Administration (NOAA) have teamed up to continue development of a tool designed to help planners assess their response effectiveness: the Trajectory Analysis Planner (TAP). TAP is an interface to a database of thousands of modeled oil spill trajectories, an ensemble of trajectories that represent the population of all possible spills. The TAP interface helps response planners understand characteristics of the possible oil spills in a given region. With this understanding, they can not only plan for one or a few possible high-impact events, but can determine the best overall plan for many events, across a large spectrum of probabilities and levels of impact. This paper is the result of the joint NOAA-Navy project to extend the capabilities of TAP. The capabilities and interface of the current version of the program (TAP II) are presented, along with some of its limitations. The need and direction of the development of a new version (TAP III) that will address some of these limitations is discussed. This future approach will allow planners to assess how different response options are likely to influence the ultimate impact of an oil spill in a region.


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