scholarly journals CLEVECO UNDERWATER OIL RECOVERY: REMOVING A 50-YEAR-OLD THREAT1

1997 ◽  
Vol 1997 (1) ◽  
pp. 783-788
Author(s):  
Commander John J. Davin ◽  
John A. Witte

ABSTRACT In the late summer of 1995, the U.S. Coast Guard supervised the successful removal of over 340,000 gallons of no. 6 oil from the sunken wreck of the tank barge Cleveco on the bottom of Lake Erie near Cleveland, Ohio. Many challenges were faced in trying to determine the amount of oil in a barge that had sunk 50 years before and was lying upside down and nearly completely buried in 70 feet of water. The salvage contractor and the U.S. Coast Guard overcame many technical problems in developing an effective and low-risk method of oil removal. The solution included the use of a hot-tap drill and phased pumping system to maximize the amount of oil recovered. The underwater operation required many divers and a total force of 55 personnel working together for the 33-day duration. This was the largest operation of its kind in the Great Lakes and offers valuable lessons to others who may encounter similar situations.

1983 ◽  
Vol 1983 (1) ◽  
pp. 73-79
Author(s):  
Steven Cohen ◽  
Stephen Dalton

ABSTRACT The U.S. Coast Guard's success with the high seas skimming barrier prompted the development of a smaller, half-scale version for use in protected bays and harbors. The smaller version (SCOOP) enables more rapid deployment with significantly fewer people. Individual components of the system include a 65-foot section of skimming barrier with redesigned skimming struts, 200 feet of containment boom, two 30-foot work boats for storage, transport, and operation of the system, trailers to carry the boats to the scene, and an oil recovery system including double-acting diaphragm pump, gravity-type oil-water separator, and 750-gallon collapsible storage bags. In tests at the Environmental Protection Agency's Oil and Hazardous Materials Simulated Environmental Test Tank (OHMSETT) facility, the SCOOP exhibited recovery efficiencies between 30 percent and 60 percent over a speed range of 0.5 to 1.75 knots. The oil recovery rate was between 30 and 70 gallons per minute over the same speed range. At speeds below 0.9 knots there were no losses of oil from the boom. The system has been delivered to the Coast Guard Gulf Strike Team in Bay St. Louis, Mississippi, where it is being evaluated through use in routine spill response operations and exercises.


2003 ◽  
Vol 2003 (1) ◽  
pp. 447-452
Author(s):  
Commander Michael Drieu ◽  
Ron MacKay ◽  
Flemming Hvidbak ◽  
Lieutenant Commander Peter Nourse ◽  
David Cooper

ABSTRACT Over the past nine years, the U.S. Coast Guard has incorporated the Prevention Through People (PTP) philosophy as a “human factors” approach to learn how maritime operations can be regulated safer and be more efficient by evaluating training, management policies, operational procedures, and establishing partnerships with the maritime industry. One of the key elements of applying a PTP approach is identifying and incorporating lessons learned from major marine casualties and pollution incidents. Since 1997, the U.S. Coast Guard National Strike Force (NSF) has responded to three major oil spills involving foreign freight vessels grounding, which included the removal of highly viscous oil using various lightering equipment and systems. An informal workgroup consisting of the U.S. Coast Guard, U.S. Navy Supervisor of Salvage (NAVSUPSALV), and various representatives from oil pollution clean-up companies met at the following facilities: the Chevron Asphalt Facility in Edmonds, WA (September 1999), the Oil and Hazardous Materials Simulated Environmental Test Tank (OHMSETT) testing facility in Leonardo, New Jersey (November 1999 and March 2000), the Alaska Clean Seas (ACS) warehouse annex in Prudhoe Bay, AK (October 2000), and Cenac Towing Company facility in Houma, LA (May 2002). The group shared ideas and techniques, and tested different pumps and hose lengths with viscous oil. It was during the early tests that the first quantitative results showed just how efficient lubricated transport of heavy oil product could be, and broadened the knowledge of such methods to the entire industry. Although this technology had existed for many years in the oil production and handling industry, its use had never been investigated in a laboratory setting with regard to salvage response lightering systems. The lubrication of heavy oil product was first applied in the tests in the form of Annular Water Injection (AWI) by means of an, Annular Water Injection Flange (AWIF). This idea had been developed many years ago by the oil industry to improve oil output production, but was first applied to salvage response using the flange concept by the Frank Mohn Company of Norway. In concept, the flange applies water to the viscous product discharge of a pump by means of its unique geometry. The initial tests resulted in developing the use of AWI on the discharge side of the pump. This technique was further refined and applied to existing U.S. Coast Guard lightering systems in the form of the Viscous Oil Pumping System (VOPS) package, which has been issued to each of the three USCG Strike Teams of the National Strike Force (NSF). Latest improvements include using AWI on the suction side of the pump with hot water or steam. For this suction application, a different device used to deliver water lubrication was also tested concurrently with the discharge AWIF. Other significant improvements, which achieved one of the goals set in 2000, was to seek global partnership with other companies or agencies from other countries. In 2002, the Canadian Coast Guard formally joined the U.S. VOPS workgroup to form the Joint Viscous Oil Pumping System (JVOPS) Workgroup.


1981 ◽  
Vol 1981 (1) ◽  
pp. 243-247 ◽  
Author(s):  
A. E. Tanos

ABSTRACT Rising waters on the Illinois River during April 1979 caused breaks in the levee near Meredosia, Illinois. The swollen river flooded 10,000 acres of farmland, as well as the asphalt storage tank farm of the Meredosia Oil Terminal. The 35 tanks within the terminal included several multimillion gallon tanks of hot asphalt, as well as those containing the diesel fuel for the heating system. The floodwater reached a depth of 12 feet and the hydrostatic pressure of the rising waters lifted the diesel fuel tanks and toppled them. Thousands of gallons of oil spilled from the vents at the top of the tanks, or from the broken pipelines at their bases. A westerly wind moved the oil out over the flooded farmland. The terminal operator's resources were depleted after long efforts to prevent the levee breaks. The spill-ctonainment dike around the tank farm was underwater, so several thousand feet of floating containment boom was brought in to surround the tank farm. A Marco Class self-propelled skimmer was flown in by the U.S. Coast Guard Strike Force. However, inspections on the second day revealed that much of the oil had diffused out over the floodwater and did not appear to be recoverable. Response forces concentrated on the spilled oil within the tank farm and the potential of teh toppled and floating tanks. After 3 days of cleanup, a brief, violent storm blew oily debris back to the terminal from across the lake. Now a massive debris recovery effort was begun in addition to the oil recovery. Cleanup efforts continued for 51 days, until by June 4, 1979, the floodwaters had dropped below the tank farm's spill-containment dike.


1981 ◽  
Vol 1981 (1) ◽  
pp. 661-666
Author(s):  
John S. Farlow ◽  
Richard A. Griffiths

ABSTRACT This paper presents an overview of the 1979–1980 work performed at the OHMSETT spill research facility of the U.S. Environmental Protection Agency (EPA). The experiences of these 2 years are discussed in the light of the purpose and objectives of OHMSETT, as is the probable direction of research there during the coming years. Foremost among the objectives has been the evaluation and advancement of the state of the art for spill response. The bulk of the effort at OHMSETT, therefore, has been toward testing and investigating ways to improve equipment. This paper briefly summarizes the results of 12 equipment performance evaluations, 2 new equipment development programs, and an experimental oil weathering program. The equipment evaluated was the U.S. Coast Guard high speed “zero relative velocity” skimmer prototype; the Sapiens Sirene skimming system; the Hydrovac System sweeper arm; the Soviet harbor oil/debris skimmer; the Oil Mop remote skimmer prototype; the Versatile Bennett Arctic skimmer prototype; the Petro-Fiber, Oljesanering, AB Sorbent Distribution/Recovery System; the Global Oil Recovery (DiPerna) skimmer; the Clean Atlantic Associates Fast Response Open Sea Skimming System; the University of Lowell oil gelation system; the Peabody Meyers Corp. Vactor air conveyor; and a Coleman Environmental Pollution Control Equipment Co. vacuum truck. The equipment developed was the Johnson sampler for stratified liquids and the Johnson high speed skimmer. Several new areas of work are anticipated for the near future. These include evaluation of cleanup equipment in the presence of ice, increased emphasis on testing at spills-of-opportunity, a study of some of the problems associated with high viscosity water-in-oil emulsions, testing separators and pumps for spill response, increased emphasis on smaller skimmers, and further testing with hazardous materials.


1977 ◽  
Vol 1977 (1) ◽  
pp. 375-379 ◽  
Author(s):  
Jerome H. Milgram ◽  
Richard A. Griffiths

ABSTRACT This paper describes the development of an oil recovery system to be used in conjunction with the U.S. Coast Guard's high seas oil containment barriers. The system was tested at the EPA's OHMSETT facility in 1975. Its oil recovery capability was shown to be good, with promise for yet better recovery when used on a large spill. Operational practicality was demonstrated in sea trials during May 1976, when the barrier was string towed, catenary towed, and moored in a tidal current. Because of the difficulty of handling large or complicated equipment in offshore conditions, a major design criterion was that the system be as simple as possible. Weir skimmers are particularly simple, but collection of more oil than water or air requires that the weirs follow the vertical motion of the waves. Simplicity and efficiency were achieved by utilizing the wave-following ability of the Coast Guard barrier design. Weirs were built into six struts at the center of a length of barrier, so that barrier deployment results in simultaneous skimmer deployment. To recover oil, it is only necessary to attach pump hoses to the barrier. Three double-acting diaphragm pumps are used. These self-priming pumps were specifically designed to pass any debris that can enter through the three-inch diameter suction hoses. Hydraulic drive was chosen so the pumps could be powered by the Coast Guard's ADAPTS diesel-engine-driven hydraulic power units.


2021 ◽  
Vol 2021 (1) ◽  
pp. 684710
Author(s):  
Jim Elliott

Abstract The marine salvage industry plays a vital role in protecting the marine environment. Governments, industry and the public, worldwide, now place environmental protection as the driving objective, second only to the safety of life, during a marine casualty response operation. Recognizing over 20 years after the passage of the Oil Pollution Act of 1990 that the effectiveness of mechanical on-water oil recovery remains at only about 10 to 25 percent while the international salvage industry annually prevents over a million tons of pollutants from reaching the world's oceans, ten years ago the United States began implementing a series of comprehensive salvage and marine firefighting regulations in an effort to improve the nation's environmental protection regime. These regulations specify desired response timeframes for emergency salvage services, contractual requirements, and criteria for evaluating the adequacy of a salvage and marine firefighting service provider. In addition to this effort to prevent surface oil spills, in 2016, the U.S. Coast Guard also recognized the salvage industries advancements in removing oil from sunken ships and recovering submerged pollutants, issuing Oil Spill Removal Organization (OSRO) classification standards for companies that have the capabilities to effectively respond to non-floating oils. Ten years after the implementation of the U.S. salvage and marine firefighting regulatory framework, this paper will review the implementation of the U.S. salvage and marine firefighting regulations and non-floating oil detection and recovery requirements; analyze the impacts and effectiveness of these new policies; and present several case studies and recommendations to further enhance salvage and oil spill response effectiveness.


1973 ◽  
Vol 1973 (1) ◽  
pp. 351-360 ◽  
Author(s):  
James T. Leigh

ABSTRACT Two prototype oil recovery systems currently under construction are described. Design goals for the systems include air transportability, recovery of a complete range of oil types at 2000 gpm in a sea state 4, use with a Coast Guard developed boom and Coast Guard boats and ships. One system utilizes a rotating disc-drum for oil removal. The drum is mounted in a unique catamaran which utilizes inflatable pontoon hull sections. Oil recovery rate is dependent on viscosity, slick thickness, current and wave conditions. In all conditions efficiency is expected to approach 100 percent. The second system utilizes a wave conforming weirbasin. Oil recovery rate is primarily dependent on slick thickness and current. Efficiency is expected to approach 100 percent for all conditions.


2017 ◽  
Vol 2017 (1) ◽  
pp. 478-497
Author(s):  
Jim Elliott

Abstract: In December 2015, operations were successfully completed in the recovery of a highly toxic cargo from the sunken tank barge ARGO in Lake Erie. The ARGO, constructed in 1911, sank in 1937 with a cargo of benzol that contained a high percentage of the carcinogen benzene. The ARGO was previously listed as the highest environmental risk in the Great Lakes by the National Oceanic and Atmospheric Administration’s Remediation of Underwater Legacy Environmental Threats (RULET) study. To recover the cargo, salvors designed a diver directed hot-tapping and pumping system to pump the remaining high benzene cargo from the sunken barge at a depth of approximately 50-feet below the lake’s surface. The cargo off-load system included pumping the cargo to a series of storage tanks onboard a barge equipped with designed-for-purpose inert gas and vapor recovery systems to ensure the safety of the public and responders. Working in a Unified Command that included the Coast Guard, U.S. and Ohio Environmental Protection Agencies and National Oceanic Atmospheric Administration, the salvage crew achieved all operational objectives – from safely conducting around-the-clock cold-water contaminated water diving operations to collecting environmental and barge hull samples for further analysis. The ARGO case study will provide lessons learned to assist future responders in safely performing subsea oil removal operations. Additionally, the case study will frame the discussion of current submerged oil recovery regulations and guidance, including the 2016 American Petroleum Institute (API) sunken oil detection and recovery guidance and the U.S. Coast Guard’s guidance on the classification of Oil Spill Removal Organizations (OSRO) that perform non-floating oil detection and recovery operations.


2019 ◽  
Vol 2 (3) ◽  
pp. 1-17
Author(s):  
Alina M. Zapalska ◽  
Ben Wroblewski

This paper illustrates the information literacy (IL) strategy in an undergraduate Management program at U.S. Coast Guard Academy. The paper exemplifies a sequential approach that improves students’ capabilities to evaluate and apply information in a specifically designed learning environment while generating new knowledge in undergraduate business coursework. The paper also emphasizes how IL can be developed within management coursework through a six-step process, including defining, locating, selecting, organizing, presenting, and assessing.  This specially designed framework of IL learning can be applied across all relevant courses using specially designed assignments in the Management major.


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