scholarly journals Founding Principles for Cooperation & Success for Oil Spill Preparedness & Response

Author(s):  
Andrew Nicoll ◽  
Patricia Charlebois

Abstract Thirty years ago, a diplomatic conference held in Paris recognised the importance of cooperation in helping countries better prepare for and respond to oil pollution incidents. The Oil Pollution Preparedness, Response and Cooperation Convention (OPRC 90) was thus conceived and shortly afterwards, the International Maritime Organization (IMO) and IPIECA jointly developed a program to help nations implement the provisions of the Convention with practical assistance and technical cooperation as the central offering. This programme, which was launched in Cape Town and became known as the Global Initiative (GI), is still growing, developing and evolving some 24 year later. A key fundamental concept is the principle of regionality. Often countries in a specific region share similar geographical features and cultures, and face similar risks associated with the extraction and transportation of oil, which transcend the needs of national sovereignty and independence. The GI program focuses on these shared values of marine environmental protection and draws strength, not only from the collective will of national governments to protect the marine environment, but also on the needs of industry to work collaboratively with regulators and authorities to achieve a common goal for society. A regional approach also “raises the bar” in terms of national preparedness, ensuring a regional level playing field. It also underscores the need for regional collaboration noting that a catastrophic oil spill may exceed the capacity for any single country to respond. To that end, the GI program has further developed to be in a position to accommodate the growing range of needs of countries implementing OPRC 90, from offering support on core concepts (on topics such as implementing legislation, designating authority in charge etc.), to facilitating training on more technical topics (e.g. sensitivity mapping and how to implement a shoreline clean-up program). For a quarter of a century, the GI model has progressed into a series of regional programs which now encompass a third of all maritime coastal states. In this session we will hear more of these regional manifestations of GI, their challenges and opportunities which will provide us with a truly global perspective on what GI has achieved and has still to achieve in a world where the risks of oil spills continue to evolve. This paper will explore the concept of regionality and other key elements that continue to make the program relevant and adaptable to the oil spill risks that society faces today.

2005 ◽  
Vol 2005 (1) ◽  
pp. 161-165
Author(s):  
Carl Jochums ◽  
Glen Watabyashi ◽  
Heather Parker-Hall

ABSTRACT California has initiated a new approach to create an objective standard and regulate best achievable protection (BAP) for sensitive shoreline protection from vessel spills. The Oil Pollution Act (OPA 90) and California's Lempert-Keene-Seastrand Oil Spill Prevention and Response Act (SB 2040) mandate BAP as the standard for preparedness and response. BAP poses the critical response planning questions: “How much response resources should industry provide?” and “In what timeframes should those resources be deployed?” Prior California regulations intended to achieve BAP by relying on vessels to identify hazards, trajectories, environmental consequences, and response resource plans, produced less than optimal results in many instances. Though effective in theory, this approach resulted in fuzzy consequences and vague arrangements for adequate response. Because it was neither clear what sites would be protected (and what response resources would be required) nor at what time, and because it was consequentially not clear what response resources would be engaged to execute protection, drilling C-plans became obtuse. This in turn fostered “paper tiger” OSROs and resulted in an uneven playing field for business competitors. In Californias new approach, OSPR used many of the original concepts to identify BAP by using the NOAA GNOME oil spill model for generic vessel risk threats for California ports and along the California coast. This paper explains the theory, steps, and details. As a result of this process, BAP has been defined in terms of specific site deployments at specific time intervals and presented in tables in regulation. This new approach provides a number of benefits and solutions to the difficult issues in the former approach, including a standard for BAP.


Author(s):  
Emilie Canova ◽  
Julien Favier ◽  
Nai Ming Lee ◽  
Peter Taylor

Abstract Governments and industry have been cooperating in the development of oil spill preparedness for more than 30 years. This has included support to the ratification and implementation of instruments such as the International Convention on Oil Pollution Preparedness, Response and Co-operation (OPRC 90), which provides the basis for collaborative efforts between governments and industry to prepare for and respond to marine oil pollutions. Joint activities implemented in this framework represent a major investment and it is important to measure and track the extent to which they have led to sustained improvements. This paper examines the challenges of measuring progress in oil spill preparedness that have emerged over time, leading to the development of different tools and systems to monitor long-term developments. It will first review the metrics and tools used to assess the key elements of preparedness, focused on regions where the International Maritime Organization (IMO) - industry Global Initiative has been active since 1996. The challenges of ascribing and assessing the indicators will be highlighted. Whilst a quantitative method, such as the IPIECA Global Risk Analysis, is useful regarding technical aspects and to compare progress in time and between different regions, it does have a number of caveats, including the verification of data and the need to ensure that preparedness frameworks described in national strategy are translated into credible response capability. There is thus a need for more refined metrics and a complementary qualitative approach. Moreover, the difficulty to catalyse lasting change without sustained efforts was recognized. This paper will discuss why the measures should apply both for evaluation and decision-making and explain why it is key to build more comprehensive (from legal basis to implementation processes and equipment) and sustainable national preparedness systems. The indicators cover a range of aspects of oil spill readiness and should enable a picture of both national and regional preparedness to be constructed, which inform decisions on future actions and activities. The benefits of a step based approach and the potential for tools such as the Readiness Evaluation Tool for Oil Spills (RETOSTM) to underpin broader evaluations will be highlighted. The need for an enhanced methodology to measure progress in preparedness and its consistency with the risk exposure is finally discussed.


Oceanography ◽  
2021 ◽  
Vol 34 (1) ◽  
pp. 112-123
Author(s):  
Kenneth Halanych ◽  
◽  
David Westerholm

From the outset of the Deepwater Horizon (DWH) oil spill, scientists from many different sectors (e.g., government, industry, academia, independent) sprang into action to establish appropriate experimental procedures, collect essential samples, and gather meaningful data. The scale of the spill and the unprecedented use of dispersants challenged scientists familiar with oil spill research, but also drew in many scientists new to hydrocarbon studies. The response to DWH, as with other oil spills, was centered on environmental and human safety concerns as mandated by the US Clean Water Act, the Oil Pollution Act of 1990, and the National Contingency Plan, which defines roles and responsibilities of multiple parties. These roles, however, are usually carried out by government, industry, or government-contracted researchers and until DWH have included limited input from academic investigators. In studying the DWH spill, most researchers also had to navigate the logistics and liability issues that can be associated with an oil spill event, including the formal government response processes that can be unfamiliar to academic researchers. In particular, biological researchers had to rapidly educate themselves on the nuances and complexity of the hydrocarbons and dispersants throughout the water column. Nonetheless, biological studies were hampered by the lack of controls or challenges with employing experimental approaches in the field. DWH spill research also highlighted challenges and opportunities that arose due to the interactions of researchers from the academic, government, and industry sectors. The objective of this document is to provide some perspective and to highlight issues that researchers new to the area should consider when approaching oil spill and dispersant studies.


1999 ◽  
Vol 1999 (1) ◽  
pp. 333-337
Author(s):  
Sophie Depraz ◽  
Peter Mark Taylor ◽  
James A. Thornborough ◽  
Malamine Thiam

ABSTRACT The Global Initiative (GI) is defined as an umbrella for various mechanisms by which the International Maritime Organization (IMO) and industry, through the International Petroleum Industry Environment Conservation Association (IPIECA), co-operate to support national and regional implementation of the International Convention on Oil Pollution Preparedness, Response, and Co-operation 1990 (OPRC Convention) and to enhance oil spill preparedness and response capacity through the mobilisation of external assistance and industry support at the national level. The overall aim of GI is to improve and sustain the capability of developing countries to protect their marine and coastal resources at risk from an oil spill incident from any sources, through the implementation of the OPRC Convention. A key feature of the project is the emphasis on promoting industry/government co-operation through the mobilisation of existing and planned industry marine environmental protection expertise and resources. As initially envisaged the project has a global orientation: it directly encourages the ratification of the OPRC Convention and the relevant international liability and compensation conventions and promotes their effective implementation; project activities are undertaken at nationall regional levels to ensure that the weaknesses and gaps peculiar to a certain region are taken care of by moulding the package of training and resource building to address national and regional needs.


Author(s):  
Emilio D’Ugo ◽  
Milena Bruno ◽  
Arghya Mukherjee ◽  
Dhrubajyoti Chattopadhyay ◽  
Roberto Giuseppetti ◽  
...  

AbstractMicrobiomes of freshwater basins intended for human use remain poorly studied, with very little known about the microbial response to in situ oil spills. Lake Pertusillo is an artificial freshwater reservoir in Basilicata, Italy, and serves as the primary source of drinking water for more than one and a half million people in the region. Notably, it is located in close proximity to one of the largest oil extraction plants in Europe. The lake suffered a major oil spill in 2017, where approximately 400 tons of crude oil spilled into the lake; importantly, the pollution event provided a rare opportunity to study how the lacustrine microbiome responds to petroleum hydrocarbon contamination. Water samples were collected from Lake Pertusillo 10 months prior to and 3 months after the accident. The presence of hydrocarbons was verified and the taxonomic and functional aspects of the lake microbiome were assessed. The analysis revealed specialized successional patterns of lake microbial communities that were potentially capable of degrading complex, recalcitrant hydrocarbons, including aromatic, chloroaromatic, nitroaromatic, and sulfur containing aromatic hydrocarbons. Our findings indicated that changes in the freshwater microbial community were associated with the oil pollution event, where microbial patterns identified in the lacustrine microbiome 3 months after the oil spill were representative of its hydrocarbonoclastic potential and may serve as effective proxies for lacustrine oil pollution.


1978 ◽  
Vol 35 (5) ◽  
pp. 510-520 ◽  
Author(s):  
John M. Teal ◽  
Kathryn Burns ◽  
John Farrington

We have analyzed the two- and three-ring aromatic hydrocarbons from the Wild Harbor oil spill in September 1969 and the Winsor Cove oil spill in October 1974, in intertidal marsh sediments, using glass capillary gas-chromatographic and mass-fragmentographic analyses. Naphthalenes with 0–3 alkyl substitutions and phenanthrenes with 0–2 substitutions decreased in concentration with time in surface sediments. The more substituted aromatics decreased relatively less and in some cases actually increased in absolute concentration. The changes in composition of the aromatic fraction have potential consequences for the ecosystem and provide insight into geochemical processes of oil weathering. Key words: oil pollution, aromatic hydrocarbons; gas chromatography; gas chromatography–mass spectrometry; geochemistry; marsh; sediments; oil spills


2019 ◽  
Vol 91 (4) ◽  
pp. 648-653
Author(s):  
Aleksandrs Urbahs ◽  
Vladislavs Zavtkevics

Purpose This paper aims to analyze the application of remotely piloted aircraft (RPA) for remote oil spill sensing. Design/methodology/approach This paper is an analysis of RPA strong points. Findings To increase the accuracy and eliminate potentially false contamination detection, which can be caused by external factors, an oil thickness measurement algorithm is used with the help of the multispectral imaging that provides high accuracy and is versatile for any areas of water and various meteorological and atmospheric conditions. Research limitations/implications SWOT analysis of implementation of RPA for remote sensing of oil spills. Practical implications The use of RPA will improve the remote sensing of oil spills. Social implications The concept of oil spills monitoring needs to be developed for quality data collection, oil pollution control and emergency response. Originality/value The research covers the development of a method and design of a device intended for taking samples and determining the presence of oil contamination in an aquatorium area; the procedure includes taking a sample from the water surface, preparing it for transportation and delivering the sample to a designated location by using the RPA. The objective is to carry out the analysis of remote oil spill sensing using RPA. The RPA provides a reliable sensing of oil pollution with significant advantages over other existing methods. The objective is to analyze the use of RPA employing all of their strong points. In this paper, technical aspects of sensors are analyzed, as well as their advantages and limitations.


1993 ◽  
Vol 1993 (1) ◽  
pp. 273-275 ◽  
Author(s):  
Lt. Alvin M. Crickard ◽  
Donald S. Jensen

ABSTRACT The Oil Pollution Act of 1990 (OPA 90) has resulted in an overall restructuring and enhancement of the national strike force. The OPA 90 legislation amended the Federal Water Pollution Control Act of 1972 (FWPCA), which first gave the Coast Guard a role in marine environmental protection. The FWPCA led to the establishment of the national response system (NRS) and the establishment of “special forces” which would be available for pollution response. These special forces included the Coast Guard manned strike teams (collectively, the national strike force, or NSF) and the public information assist team (PIAT). OPA 90 legislation affected the NSF by requiring the Coast Guard to establish a national response unit (NRU) located at Elizabeth City, North Carolina. The NRU, now renamed the National Strike Force Coordination Center (NSFCC), would provide overall management of the strike teams and PIAT and in addition, perform several new functions in consulting, exercise management, coordination of spill response, and logistics and maintenance of worldwide resource inventories. This paper examines all OPA 90 initiatives affecting the national strike force. It concludes that the overall impact on the national response system is quite positive and should result in significant improvement in response to both major and catastrophic oil spills.


1989 ◽  
Vol 1989 (1) ◽  
pp. 265-271
Author(s):  
Klaus Schroh

ABSTRACT Prevention and control of oil spills in the Federal Republic of Germany are based on an agreement between the federal government and the four coastal states. Comprehensive procurement and reconstruction programs for oil pollution personnel and equipment are realized and finalized within two years. The Federal Minister for Research and Technology contributed substantially toward using advanced oil spill response techniques at sea and for shoreline cleanup. Since the particular ecological conditions of the Wadden Sea on the German coastline greatly limit dispersant application, main emphasis was given to developing recovery systems meeting the following requirements:An extended scope of mechanical application at sea, for wave heights exceeding 1.2 m (4 feet)New types of recovery vessels with multiple functions, like bunkering services and floating reception facilitiesOil recovery with self-driven vessels for shallow waters close to the coastline and embankmentsDesign of an amphibious chain-driven vehicle for oil recovery in Wadden Sea areas. With the integration of these new types of oil recovery vessels or systems the German recovery fleet now consists of 6 high-sea-going vessels and 14 recovery vessel devices for shoreline cleanup.


1969 ◽  
Vol 1969 (1) ◽  
pp. 5-6 ◽  
Author(s):  
K.E. Biglane

Abstract This paper summarizes some of the major oil spills of recent years and discusses some of the causes of these spills and their effects on the environment. Information is presented on research needed to control oil spills and on domestic and international legislation needed to provide compensation for oil pollution damage.


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