Mobile Treatment and Rehabilitation Enclosure (MTRE) for small pinnipeds

2014 ◽  
Vol 2014 (1) ◽  
pp. 300054
Author(s):  
Brett Long ◽  
Chip Arnold ◽  
Carrie Goertz ◽  
Lee Majors

The North Slope of Alaska is a demanding and harsh environment. Being prepared for an oil spill involving wildlife in this region requires training, innovation, and partnerships. For the past three years animal care groups, industry oil spill response organizations, and federal agencies have been collaborating to prepare for such an event. Protocol development is an essential and initial process to accomplish response goals. In 2011, protocols were developed for the care of oiled affected phocid seals in Alaska, focusing on the need for remote, deployable operations in the arctic. While developing these protocols, authors drew from their experiences caring for pinnipeds at their facility as well as from involvement in the statewide marine mammal stranding network. As the only institution authorized to rehabilitate stranded marine mammals in Alaska, we are uniquely positioned to assist in mitigating risks associated with possible oil exposure to these animals. Finding resources to treat oiled wildlife is a challenge on the North Slope, especially for medium to long term care. With that in mind, we designed and developed a Mobile Treatment and Rehabilitation Enclosure (MTRE). This deployable enclosure and pool with a life support system meets Animal Welfare Act holding specifications for small pinnipeds including harbor seals, spotted seals, ringed seals, and ribbon seals. The enclosure is designed to be assembled by 2 to 4 individuals and ready for use within 12 hours. While it is purpose built for small pinnipeds it would also be appropriate for short term, triage care of other marine mammals such as walrus calves, polar bear cubs, and sea otters. As a test of our oiled pinniped protocols and the MTRE this system was deployed during the mutual aid drill on the North Slope in August of 2013.

2014 ◽  
Vol 2014 (1) ◽  
pp. 281407
Author(s):  
Jim White

The ability to exchange critical information across a broad spectrum of users is the success of a response. Communicating on the North Slope of Alaska is a technical challenge. One of the most critical elements supporting any Contingency Response is telecommunications (telecom). Telecom, as an issue rears its head after almost every exercise or real world response situation. It never seems to matter what type of event the response is supporting, the location of the response or weather that is occurring. Telecom continues to come up as a 'lessons learned'. Recent technological advances (Last 15–20 Years) have resolved some older, yet lingering issues, (e.g. SATCOM, Fiber Optics, Digitization, and the Internet). That said, trying to communicate over an area covering tens-of-thousands of square miles in some of the harshest, most remote regions on the planet is at the very least - demanding. Technically, in many regions, telecom issues can be fairly easy to resolve. In the Arctic, several factors as well as weather play a major part in our ability to respond to an incident. Many areas are not accessible on a road system. Ice roads provide seasonal, temporary access. When ice roads are not available then various aircraft can be utilized. Some sites may only be accessible via specialized vehicles treading lightly on the tundra or that displace the tons of equipment over a broad area for frozen pond, lake and river crossings, minimizing environmental impact. To meet the challenge of Spill Response on the North Slope of Alaska, Alaska Clean Seas and its member companies have developed and employ a network of Very High Frequency (VHF), Ultra-High Frequency (UHF), Cellular, Microwave, and SATellite COMmunications (SATCOM) Systems. A recent Federal Communications Commission directive to reduce bandwidth usage forced the modernization of Alaska's Oil Spill Response Network. The nationwide requirement enables the same number of users to occupy half the frequency spectrum. Alaska is unique in that the entire State's Oil Spill Response Network shares the same frequencies and compatible equipment. This enables the cooperatives to seamlessly support each another. One of the obvious reasons that telecom becomes an issue is non-standardized exchange of ideas, recommendations, or commands. User unfamiliarity with telecom devices (radios, speaker microphones) also contributes to communication barriers. Use of jargon, ten codes and often cultural references can inhibit needed messages from being received as expected. This can easily be improved through Incident Command System training


2018 ◽  
Vol 18 (2) ◽  
pp. 555-570 ◽  
Author(s):  
Jessie M. Creamean ◽  
Maximilian Maahn ◽  
Gijs de Boer ◽  
Allison McComiskey ◽  
Arthur J. Sedlacek ◽  
...  

Abstract. The Arctic is warming at an alarming rate, yet the processes that contribute to the enhanced warming are not well understood. Arctic aerosols have been targeted in studies for decades due to their consequential impacts on the energy budget, both directly and indirectly through their ability to modulate cloud microphysics. Even with the breadth of knowledge afforded from these previous studies, aerosols and their effects remain poorly quantified, especially in the rapidly changing Arctic. Additionally, many previous studies involved use of ground-based measurements, and due to the frequent stratified nature of the Arctic atmosphere, brings into question the representativeness of these datasets aloft. Here, we report on airborne observations from the US Department of Energy Atmospheric Radiation Measurement (ARM) program's Fifth Airborne Carbon Measurements (ACME-V) field campaign along the North Slope of Alaska during the summer of 2015. Contrary to previous evidence that the Alaskan Arctic summertime air is relatively pristine, we show how local oil extraction activities, 2015's central Alaskan wildfires, and, to a lesser extent, long-range transport introduce aerosols and trace gases higher in concentration than previously reported in Arctic haze measurements to the North Slope. Although these sources were either episodic or localized, they serve as abundant aerosol sources that have the potential to impact a larger spatial scale after emission.


2020 ◽  
Author(s):  
Kaare Sikuaq Erickson ◽  
Donatella Zona ◽  
Marco Montemayor ◽  
Walter Oechel ◽  
Terenzio Zenone

<p>The Alaskan Ukpeaġvik Iñupiat Corporation (UIC) is promoting and financilally supporting, with the contribution of the US National Science Foundation (NSF) and local organizations, outreach and dissemination events, in the form of science fair for the local communities in North Slope of Alaska. The science fair is part of a larger effort by UIC Science to bring coordination and collaboration to science outreach and engagement efforts across Arctic Alaska. The purpose is to provide a positive space for Arctic researchers and Arctic residents to meet, eat with each other, spend time, and to inspire the youth of the Arctic by providing fun and educational activities that are based in science and traditional knowledge. The Science Fair 2019 hosted by the Barrow Arctic Research Center (BARC) included three days of youth and family-friendly activities related to “Inupiat Knowledge about Plants” led by the College Inupiat Studies Department, “Eco-chains Activity” hosted by the North Slope Borough Office of Emergency Management, “Big Little World: Bugs Plants, and Microscopes” hosted by the National Ecological Observatory Network, “Microplastics in the Arctic” hosted by the North Slope Borough Department of Wildlife Management, “BARC Scavenger Hunt” hosted by UIC Science, “Our Role in the Carbon and Methane Cycle” hosted by the University of Texas El Paso (UTEP) and San Diego State University, and “How Permafrost Works” hosted by the University of Alaska, Fairbanks, Geophysical Institute. Each day hundreds of students, from both the local community and the science community came together to take part in mutually beneficial engagement: students from Utqiaġvik were excited about science and now know of the realistic and fulfilling careers in research that takes place in their backyard. The Utqiaġvik community members and elders now have a better idea of the breadth of research that takes place in and near their home. The locals, especially the elders, are very concerned about the drastic changes in our environment: scientists share these concerns, and the discussions during the fair was a chance to recognize this common ground. Breaking the ice between Arctic researchers and residents can lead to endless opportunities for collaboration, sharing ideas, and even lifelong friendships.</p><p> </p><p> </p>


1999 ◽  
Vol 1999 (1) ◽  
pp. 1163-1166
Author(s):  
Michael Bronson ◽  
Thomas Chappie ◽  
Larry Dietrick ◽  
Ronald Hocking ◽  
James McHale

ABSTRACT In anticipation of the Beaufort Sea's first two offshore production islands, Alaska's North Slope oil producers recently expanded their oil spill recovery tactical plans and equipment. To seek regulatory approval for offshore oil production, industry responders joined agency regulators and made plans to clean up as much as 225,000 barrels of oil from potential blowouts over 15 days. Response technicians are configuring new and existing skimmers, vessels, and barges on the North Slope to implement those planning standards. This paper outlines the oil spill tactical plans and equipment that Alaska's North Slope oil industry recently assembled in seeking regulatory approval for the first offshore production islands in the Arctic. The operators of North America's largest oil fields are beginning the first production from oil wells separated from roads and most spill response vessels. For example, the new Badami production pad lies on the Arctic coast more than 25 miles from the Prudhoe Bay facilities, across river courses and roadless tundra. Eight miles of ice-infested sea will separate the proposed Northstar and Liberty production islands from response vessel berths. The new fields regularly experience waves, cold, and ice invasions that constrain oil recovery efforts. Yet regulatory approval to begin oil production requires that the industry have plans and equipment to clean up all the oil that may enter open water, even from the largest spills, within 72 hours.


1994 ◽  
Vol 10 (2) ◽  
pp. 95-108
Author(s):  
Lawrence C. Trostle ◽  
John E. Angell

2008 ◽  
Vol 2008 (1) ◽  
pp. 689-693
Author(s):  
Lee Majors ◽  
Fred McAdams

ABSTRACT Alaska Clean Seas (ACS) is the Oil Spill Recovery Organization (OSRO) for the North Slope of Alaska. ACS responds to all spill events for member companies operating on the North Slope. In 2006 ACS responded to over 350 reportable spill events. These spills consist of materials utilized in oil field production activities and include crude oil, produced water, drag reducing agents, freeze protection material, and even sewage The spills occur on frozen tundra in and under snow and ice, and in summer conditions. This paper outlines some of the spills in past years, the conditions encountered, tactics utilized, and lessons learned.


2017 ◽  
Author(s):  
Jessie M. Creamean ◽  
Maximilian Maahn ◽  
Gijs de Boer ◽  
Allison McComiskey ◽  
Arthur J. Sedlacek ◽  
...  

Abstract. The Arctic is warming at an alarming rate, yet the processes that contribute to enhanced warming are not well understood. Arctic aerosols have been targeted in studies for decades due to their consequential impacts on the energy budget directly and indirectly through their ability to modulate cloud microphysics. Even with the breadth of knowledge afforded from these previous studies, aerosols and their effects remain poorly quantified, especially in the rapidly-changing Arctic. Additionally, many previous studies involved use of ground-based measurements, and due to the frequent stratified nature of the Arctic atmosphere, brings into question the representativeness of these datasets aloft. Here, we report on airborne observations from the U.S. Department of Energy Atmospheric Radiation Measurement (ARM) program's Fifth Airborne Carbon Measurements (ACME-V) campaign along the North Slope of Alaska during the summer of 2015. Contrary to previous evidence that the Alaskan Arctic summertime air is relatively pristine, we show how local oil extraction activities, 2015’s central Alaskan wildfires, and to a lesser extent, long-range transport introduce aerosols and trace gases higher in concentration than previously reported in Arctic haze measurements to the North Slope. Although these sources were either episodic or localized, they serve as abundant aerosol sources that have the potential to impact a larger spatial scale after emission.


2021 ◽  
Vol 13 (13) ◽  
pp. 2539
Author(s):  
Helena Bergstedt ◽  
Benjamin M. Jones ◽  
Kenneth Hinkel ◽  
Louise Farquharson ◽  
Benjamin V. Gaglioti ◽  
...  

Lake formation and drainage are pervasive phenomena in permafrost regions. Drained lake basins (DLBs) are often the most common landforms in lowland permafrost regions in the Arctic (50% to 75% of the landscape). However, detailed assessments of DLB distribution and abundance are limited. In this study, we present a novel and scalable remote sensing-based approach to identifying DLBs in lowland permafrost regions, using the North Slope of Alaska as a case study. We validated this first North Slope-wide DLB data product against several previously published sub-regional scale datasets and manually classified points. The study area covered >71,000 km2, including a >39,000 km2 area not previously covered in existing DLB datasets. Our approach used Landsat-8 multispectral imagery and ArcticDEM data to derive a pixel-by-pixel statistical assessment of likelihood of DLB occurrence in sub-regions with different permafrost and periglacial landscape conditions, as well as to quantify aerial coverage of DLBs on the North Slope of Alaska. The results were consistent with previously published regional DLB datasets (up to 87% agreement) and showed high agreement with manually classified random points (64.4–95.5% for DLB and 83.2–95.4% for non-DLB areas). Validation of the remote sensing-based statistical approach on the North Slope of Alaska indicated that it may be possible to extend this methodology to conduct a comprehensive assessment of DLBs in pan-Arctic lowland permafrost regions. Better resolution of the spatial distribution of DLBs in lowland permafrost regions is important for quantitative studies on landscape diversity, wildlife habitat, permafrost, hydrology, geotechnical conditions, and high-latitude carbon cycling.


2014 ◽  
Vol 2014 (1) ◽  
pp. 299530 ◽  
Author(s):  
Lee Majors ◽  
Susanne Miller ◽  
Shannon Jensen

Oil spill response in the Alaska Arctic can be difficult. Responding to marine mammals which inhabit this area is even more challenging. One of these marine mammals is the polar bear which was listed as a threatened species in 2008. Recognizing the need for improved capabilities, the U.S. Fish and Wildlife Service, the Alaska Zoo, and Alaska Clean Seas have been working together to improve the capabilities in Alaska. U.S. Fish and Wildlife Service has developed the Oil Spill Response Plan for Polar Bears in Alaska which identifies the resources available and response strategies. The Alaska Zoo led an experiment to determine the best method to remove oil from a polar bear hide and conducted a limited test on one of the polar bears at the zoo. Agreements and contracts have been put in place and equipment designed, constructed, and staged on the Alaska North Slope for polar bear response. During the annual North Slope Mutual Aid Drill in 2013, Alaska Clean Seas developed a short scenario to test these capabilities and identify additional improvements. The poster will describe these efforts for continued improvements for oil spill response in the Alaska Arctic.


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