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AuthorAgency, Organization, Company or InstitutionTitleYearCommunityDOI/URL
Ager, T.A. Late Quaternary vegetation and climate history of the central Bering Land Bridge from St. Michael Island, western Alaska 2003 Saint Michael  
Review: This paper presents a pollen record from a sediment core obtained from Zagoskin Lake on St. Michael Island, western Alaska. Pollen record for the past 30,000 years was examined for terrestrial indicators.
BibTeX:
@article{Ager2003,
  author = {Ager, Thomas A.},
  title = {Late Quaternary vegetation and climate history of the central Bering Land Bridge from St. Michael Island, western Alaska},
  journal = {Quaternary Research},
  year = {2003},
  volume = {60},
  pages = {19-32},
  community = {Saint Michael}
Aguirre, A. Patterns and controls of erosion along the Barrow Environmental Observatory coastline, northwestern Alaska 2011 Barrow  
Review: Study documenting the erosional patterns of the coastal bluffs near the Barrow Environmental Observatory between 2003 and 2009. Thesis includes an in-depth discussion of dominant erosional processes and the predominant coastal setting.
BibTeX:
@mastersthesis{Aguirre2011,
  author = {Aguirre, Adrian},
  title = {Patterns and controls of erosion along the Barrow Environmental Observatory coastline, northwestern Alaska},
  school = {University of Texas at El Paso},
  year = {2011},
  pages = {86},
  community = {Barrow}
Alaska Village Electric Cooperative Shaktoolik, Alaska Wind Generation Construction Application for renewable energy fund grant, Alaska Energy Authority—Shaktoolik, Alaska, wind generation construction 2008 Shaktoolik  
Review: This application to the Alaska Energy Authority for two Northwind 100kW wind turbines. During 2007 at the Shaktoolik power plant, 809,700 kWh of energy was generated using 58,600 gallons of diesel fuel. Shaktoolik is considered to have a high-value, Class 4 wind generation potential. The two generators would supply more than 540,000 kWh of electricity each year, which would supply half the power currently used in the community.
BibTeX:
@techreport{Shaktoolik2008,
  author = {Alaska Village Electric Cooperative},
  title = {Application for renewable energy fund grant, Alaska Energy Authority—Shaktoolik, Alaska, wind generation construction},
  publisher = {Alaska Energy Authority},
  year = {2008},
  community = {Shaktoolik}
Alix, C. Deciphering the impact of change on the driftwood cycle: contribution to the study of human use of wood in the Arctic 2005 Hooper Bay, Scammon Bay  
Review: In this article, the author describes the quantity, quality, and geographic distribution of driftwood associated with specific climatic and ecological conditions in arctic Alaska. The conditions favorable to driftwood production are linked to the abundance of building materials available for use by indigenous populations. The environmental factors involved in driftwood travel include flooding, storm patterns, ocean surface currents, wind, and ice, all of which may undergo changes linked to global climate patterns. The author discusses regional variables affecting driftwood travel as well as the availability of this material on beaches throughout the entire arctic. Radiocarbon dating of driftwood and recorded interviews with elders were used to document driftwood distribution and composition within the study area.
BibTeX:
@article{Alix2005,
  author = {Alix, Claire},
  title = {Deciphering the impact of change on the driftwood cycle: contribution to the study of human use of wood in the Arctic},
  journal = {Global and Planetary Change},
  year = {2005},
  volume = {47},
  pages = {83-98},
  community = {Hooper Bay, Scammon Bay}
Antioquia, C., Stephens, W. and Longley, G. U.S. Bureau of Indian Affairs (BIA) Gambell, its history, population and economy 1977 Gambell  
Review: This study was done to provide the people of Gambell with the analytical and planning information required for the economic development of St. Lawrence Island resources. Information from the U.S. Census report was used to determine the human resource characteristics. The history of the communities housing, transportation, and communication, governmental and interrelated community entities/organizations, and natural resources are described in detail.
BibTeX:
@techreport{Antioquia1977,
  author = {Antioquia, C. and Stephens, W.E. and Longley, G.},
  title = {Gambell, its history, population and economy},
  year = {1977},
  pages = {255},
  community = {Gambell}
Arctic Climate Impact Assessment Arctic climate impact assessment 2005 Statewide URL 
Review: Statewide or general reference. See foreword.
BibTeX:
@book{Symon2005,
  author = {Arctic Climate Impact Assessment},
  title = {Arctic climate impact assessment},
  publisher = {Cambridge University Press},
  year = {2005},
  pages = {1092},
  url = {http://www.acia.uaf.edu},
  community = {Statewide}
Armstrong, S.B. U.S. District Court for the Northern District of California Oakland Division Native Village of Kivalina, and City of Kivalina vs. ExxonMobil Corporation, et al. 2009 Kivalina  
Review: The Native Village of Kivalina and City of Kivalina (plaintiff) filed a complaint alleging that the Arctic sea ice that protects the Kivalina coast from winter storms has diminished as a result of global warming, and that subsequent erosion will require the relocation of Kivalina’s residents. The plantiff named 24 oil, energy, and utility companies from whom they seek damages under a federal commonlaw claim of nuisance, based on alleged contribution to excess emissions of carbon dioxide and other greenhouse gases, which the plaintiff claims have led to global warming. The court granted the defendants’ motions to dismiss for lack of jurisdiction and found the matter suitable for resolution without oral argument.
BibTeX:
@misc{Armstrong2009,
  author = {Armstrong, Saundra Brown},
  title = {Native Village of Kivalina, and City of Kivalina vs. ExxonMobil Corporation, et al.},
  year = {2009},
  number = {Case4:08-cv-01138-SBA Document194},
  pages = {24},
  note = {Case no. C 08-1138 SBA},
  community = {Kivalina}
Arp, C.D., Jones, B.J., Schmutz, J.A., Urban, F.E. and Jorgenson, M.T. Two mechanisms of aquatic and terrestrial habitat change along an Alaskan Arctic coastline 2010 Barrow, Kaktovik  
Review: Scientific abstract: “Arctic habitats at the interface between land and sea are particularly vulnerable to climate change. The northern Teshekpuk Lake Special Area (N–TLSA), a coastal plain ecosystem along the Beaufort Sea in northern Alaska, provides habitat for migratory waterbirds, caribou, and, potentially, denning polar bears. The 60 km coastline of N–TLSA is experiencing increasing rates of coastline erosion and storm surge flooding far inland, resulting in lake drainage and conversion of freshwater lakes to estuaries. These physical mechanisms are affecting upland tundra as well. To better understand how these processes are affecting habitat, we analyzed long-term observational records coupled with recent short-term monitoring. Nearly the entire coastline has accelerating rates of erosion ranging from 6 m/year from 1955 to 1979 and most recently peaking at 17 m/year from 2007 to 2009, yet an intensive monitoring site along a higher bluff (3–6 masl) suggested high interannual variability. The frequency and magnitude of storm events appears to be increasing along this coastline and these patterns correspond to a greater number of lake tapping and flooding events since 2000. For the entire N–TLSA, we estimate that 6% of the landscape consists of salt-burned tundra, while 41% is prone to storm-surge flooding. This offset may indicate the relative frequency of low-magnitude flood events along the coastal fringe. Monitoring of coastline lakes confirms that moderate westerly storms create extensive flooding, while easterly storms have negligible effects on lakes and low-lying tundra. This study of two interacting physical mechanisms, coastal erosion and storm-surge flooding, provides an important example of the complexities and data needs for predicting habitat change and biological responses along Arctic land–ocean interfaces.”
BibTeX:
@article{Arp2010,
  author = {Arp, Christopher D. and Jones, Benjamin J. and Schmutz, Joel A. and Urban, Frank E. and Jorgenson, M. Torre},
  title = {Two mechanisms of aquatic and terrestrial habitat change along an Alaskan Arctic coastline},
  journal = {Polar Biology},
  year = {2010},
  volume = {33},
  pages = {1629-1640},
  community = {Barrow, Kaktovik}
ASCG Incorporated of Alaska ASCG Incorporated of Alaska Kivalina, Alaska, evacuation/relocation road feasibility study 2005 Kivalina  
Review: The Northwest Arctic Borough contracted with ASCG Inc. in 2005 to produce a feasibility study for an evacuation road. The study found that an evacuation road is needed because it may be 15–20 years before the village is relocated. ASCG evaluated six routes using criteria that included: Evacuation to a site with an elevation of 25 feet asl, potential for other uses for the route, maintenance requirements, land ownership, and environmental concerns. The report recommended construction of a 24-foot wide gravel road using national and state design standards for a road that could support a semi-trailer for use in relocating the village.
Of the eight alternatives evaluated, ASCG selected Alternative 6 as the preferred option. This route begins in the center of Kivalina and crosses the lagoon using a 0.5-mile earthen causeway and 60-foot-long bridge. It would continue across the tundra 3.6 miles, terminating at the Simiq village relocation site. The cost for this route in 2005 dollars was estimated to be $21.3 million.
The environmental analysis in the document states that a causeway will be less expensive than a long bridge, but there may be concerns raised about damage to fish habitat and effects of sediment transport to the lagoon.
BibTeX:
@techreport{ASCG2005,
  author = {ASCG Incorporated of Alaska},
  title = {Kivalina, Alaska, evacuation/relocation road feasibility study},
  publisher = {ASCG Incorporated of Alaska},
  year = {2005},
  pages = {97},
  community = {Kivalina}
Azelton, M. U.S. Army Corps of Engineers, Hydraulics Hydrology Section Memorandum for the record—Trip report, site investigation at Shaktoolik, Alaska, 27 July 2010 2010 Shaktoolik  
Review: This memorandum states that the purpose of the Corps’ July 2010 visit to Shaktoolik, Alaska, was to become familiarized with the area to facilitate completion of a flood inundation study for the community. Observations were made and noted in this document, pertaining to general physical characteristics of the shoreline. The tidal datum will be available based on benchmarks placed by John Oswald and Associates. Photographs of the site are included in the memorandum.
BibTeX:
@unpublished{Azelton2010,
  author = {Azelton, Mary},
  title = {Memorandum for the record—Trip report, site investigation at Shaktoolik, Alaska, 27 July 2010},
  year = {2010},
  pages = {7},
  community = {Shaktoolik}
Barber, T.L. Alaska Department of Transportation & Public Facilities (DOT&PF) Geotechnical report Kwigillingok airport 1995 Kwigillingok  
Review: This project includes the plans for expansion of the existing runway at Kwigillingok airport, using subsurface exploration test borings. The Yukon–Kuskokwim Delta is underlain primarily by poorly drained, interbedded marine and terrestrial deltaic and eolian deposits, with typical soils including surface organics over layered organics, organic silts, and silts. Generally higher ground in the area is frozen and lower thawed. The vegetation is generally sphagnum moss over frozen ground and sedge grass in the lower thawed and drained areas. Water level in the slough is dependent on the changes in tidal action and seasonal variations of precipitation. Surface water was encountered within 2 feet of the ground surface. Details of soils in the bore sites by location are available in this report.
BibTeX:
@techreport{Barber1995,
  author = {Barber, Terry L.},
  title = {Geotechnical report Kwigillingok airport},
  year = {1995},
  number = {AIP 3-02-0165-01/60118},
  pages = {32},
  community = {Kwigillingok}
Becker, S., Richter, L.W., Sampson, R.W. and White, J.D. Natural Resource Conservation Service (NRCS) Preliminary natural resources assessment of relocation and emergency evacuation sites discussion paper 2002 Shishmaref  
Review: This is a brief report of a field reconnaissance trip taken by the NRCS to analyze environmental conditions of potential relocation sites for the village of Shishmaref. The locations evaluated were based on the Shishmaref Erosion Control and Relocation Coalition’s priorities, which were voted on by the community. This assessment favors relocation to the southwestern side of Shishmaref Inlet, and offers further exploratory analysis to be com¬pleted by the NRCS.
BibTeX:
@techreport{Becker2002,
  author = {Becker, Steven and Richter, Lori W. and Sampson, Robert W. and White, Joe D.},
  title = {Preliminary natural resources assessment of relocation and emergency evacuation sites discussion paper},
  publisher = {Natural Resource Conservation Service, U.S. Department of Agriculture},
  year = {2002},
  pages = {10},
  community = {Shishmaref}
Blier, W., Keefe, S., Shaffer, W.A. and Kim, S.C. Storm surges in the region of western Alaska 1997 Unalakleet, Shaktoolik, Golovin, Saint Michael, Savoonga, Gambell, Hooper Bay, Scammon Bay, Nunam Iqua (Sheldon Point), Kotlik  
Review: The authors describe the relationship between storm surges in Alaska and extratropical cyclones. They have identified Norton Sound and the Bering Sea as the two regions most vulnerable to cyclone-linked coastal flooding. A statistical storm surge model was developed to provide advanced warning to coastal villages, however, the author highlights that a more accurate model would be necessary to utilize this warning system as a hazard mitigation strategy. The installation of storm surge gauges would also be required for this warning system to be used successfully.
BibTeX:
@article{Blier1997,
  author = {Blier, Warren and Keefe, Stanley and Shaffer, Wilson A. and Kim, Sung C.},
  title = {Storm surges in the region of western Alaska},
  journal = {Monthly Weather Review},
  year = {1997},
  volume = {125},
  pages = {3094-3108},
  community = {Unalakleet, Shaktoolik, Golovin, Saint Michael, Savoonga, Gambell, Hooper Bay, Scammon Bay, Nunam Iqua (Sheldon Point), Kotlik}
Brabets, T.P., Wang, B. and Meade, R.H. U.S. Geological Survey (USGS) Environmental and hydrologic overview of the Yukon River Basin, Alaska and Canada 2000 Hooper Bay, Kotlik  
Review: This compilation report of the environmental and hydrological conditions of the Yukon River basin includes summaries of the following characteristics by region: physiography, climate, geology, land cover, soils, permafrost, surface water, sediment, and water quality. The focus of the report is on surface water characteristics only and it was produced to facilitate the design of an improved water quality sampling program. The report contents are limited by the number of available recording stations with consistent historical data.
BibTeX:
@techreport{Brabets2000,
  author = {Brabets, Timothy P. and Wang, Bronwen and Meade, Robert H.},
  title = {Environmental and hydrologic overview of the Yukon River Basin, Alaska and Canada},
  year = {2000},
  number = {Water-Resources Investigations Report 99-4204},
  pages = {114},
  community = {Hooper Bay, Kotlik}
Bradner, T. State, federal agencies work to get a handle on coastal erosion 2008 Unalakleet  
Review: This popular-press article discusses basic actions taken by Newtok in an effort to relocate. They have built three houses and a dock (with federal funds), and are now considering a road from the current location to the new one. Community members of Unalakleet have begun to build houses on high ground, about a half mile from the town’s current location. Mike Black, deputy state commerce officer, suggested that priority for state and federal funding be developing evacuation routes, safe houses, and then relocation infrastructure. This article also gives refer¬ence to the Immediate Action Workgroup (IAWG) as a further source of information.
BibTeX:
@periodical{Bradner2008,
  author = {Bradner, Tim},
  title = {State, federal agencies work to get a handle on coastal erosion},
  year = {2008},
  number = {Accession Number 2W62W62903157211},
  pages = {4},
  note = {Anchorage, AK},
  community = {Unalakleet}
Brazo, G.M. Alaska Department of Transportation & Public Facilities (DOT&PF) Geotechnical report, Shaktoolik airport runway relocation 1996 Shaktoolik  
Review: This is the geotechnical report for the proposed relocation of the Shaktoolik airport to the north end of the Shaktoolik spit. The report consists of recommendations and soils testing reports for the area of interest.
BibTeX:
@techreport{Brazo1996,
  author = {Brazo, Gary M.},
  title = {Geotechnical report, Shaktoolik airport runway relocation},
  publisher = {Alaska Department of Transportation and Public Facilities (ADOT&PF)},
  year = {1996},
  number = {state project no. 64759},
  pages = {43},
  community = {Shaktoolik}
Brazo, G.M. Alaska Department of Transportation & Public Facilities (DOT&PF) Geotechnical report, Shaktoolik airport 1992 Shaktoolik  
Review: This is the geotechnical report for suggested improvements to the Shaktoolik airport, located adjacent to the local fish plant. This report describes the fieldwork completed to add technical information to the 1980 geotechnical report and to document the anticipation of any problems with proposed repair designs, the laboratory testing done post fieldwork, and all geotechnical recommendations to the project.
BibTeX:
@techreport{Brazo1992,
  author = {Brazo, Gary M.},
  title = {Geotechnical report, Shaktoolik airport},
  publisher = {Alaska Department of Transportation and Public Facilities (ADOT&PF),},
  year = {1992},
  number = {State Project Number 64759},
  pages = {30},
  community = {Shaktoolik}
Brigham-Grette, J. and Hopkins, D.M. Emergent marine record and paleoclimate of the last interglaciation along the northwest Alaskan coast 1995 Savoonga, Gambell, Teller, Point Lay  
Review: This paper describes the stratigraphy of deposits from the last interglaciation in the Beringian region of Alaska and summarizes biostratigraphic information used to infer past water-mass and sea-ice conditions in the Bering Strait and southern Arctic Ocean.
BibTeX:
@article{Brigham1995,
  author = {Brigham-Grette, Julie and Hopkins, David M.},
  title = {Emergent marine record and paleoclimate of the last interglaciation along the northwest Alaskan coast},
  journal = {Quaternary Research},
  year = {1995},
  volume = {43},
  pages = {159-173},
  community = {Savoonga, Gambell, Teller, Point Lay}
Brooks, G. U.S. Coast Guard Arctic journal 2011 Teller URL 
Review: This journal entry discusses sea ice retrieval in the Arctic. For Teller, Alaska, the Sound normally would freeze by the beginning of October, but did not freeze until December 18th. This article discusses the challenges to the development of the Bering Strait as a large-scale shipping checkpoint, because of the lack of existing infrastruc¬ture. Environmental concerns such as coastal erosion and subsistence animal migration are also addressed. The Coast Guard will be a part of the effort to manage these issues, and are looking at ways in which their goals align with management.
BibTeX:
@electronic{Brooks2011,
  author = {Brooks, Gene},
  title = {Arctic journal},
  year = {2011},
  url = {http://www.uscgalaska.com/go/doc/780/230836/},
  community = {Teller}
Brower, W.J., Baldwin, R., Williams, R., Wise, J. and Leslie, L. National Oceanic and Atmospheric Administration (NOAA), U.S. Department of the Interior Minerals Management Service, U.S. Department of Defense Naval Oceanography Command Detachment Climatic atlas of the outer continental shelf waters and coastal regions of Alaska 1988 Shaktoolik  
Review: Storm surges consist of waves that can last from a few minutes to a few days, resulting from atmospheric weather conditions. The height of the storm surge depends on characteristics of a storm (wind speed, direction, length of fetch, latitude direction, and speed of storm) as well as topography of shore and bathymetry offshore. Shallow water bodies experience greater ranges of surges. Height of storm surge is less if the sea floor has a steep rather than shallow slope.
Waters of the Bering Sea provide a long fetch for development of storm waves. With exception of the Shaktoolik River mouth, which is low relief and marshy, east Norton Sound is generally rugged due to proximity to the Nulato Hills. Norton Sound is shallow with a gently sloping sea floor that is very favorable to development of storm surges. Wind directions that develop storm surges are limited to west–southwest to west. A 1985 model showed that the November 1974 storm produced the highest surge in Norton Bay (more than 3 meters). Eleven of 12 storm surges in Unalakleet were in the fall. Sea ice and shorefast ice limit development of storm surges.
BibTeX:
@techreport{Brower1988,
  author = {Brower, W.A. Jr. and Baldwin, R.G. and Williams, R.G. and Wise, J.L. and Leslie, L.D.},
  title = {Climatic atlas of the outer continental shelf waters and coastal regions of Alaska},
  year = {1988},
  pages = {519},
  community = {Shaktoolik}
Brown, J., Jorgenson, M.T., Smith, O.P. and Lee, W. U.S. National Science Foundation (NSF) Long-term rates of coastal erosion and carbon input, Elson Lagoon, Barrow, Alaska 2003 Barrow  
Review: This report presents historical and recent observations of erosion with associated estimates of sediment and organic carbon inputs into the Elson Lagoon near Barrow, Alaska. This project is a part of the international Arctic Coastal Dynamics (ACD) program. Overall coastal erosion rates at Elson Lagoon were found to be 1.27 meters per year based on photogrammetric analysis of aerial imagery. The primary shoreline process observed to contribute to the erosion is undercutting of coastal bluffs by thermo-erosional notching.
BibTeX:
@unpublished{Brown2003,
  author = {Brown, Jerry and Jorgenson, M. Torre and Smith, Orson P. and Lee, William},
  title = {Long-term rates of coastal erosion and carbon input, Elson Lagoon, Barrow, Alaska},
  year = {2003},
  pages = {6},
  community = {Barrow}
Brubaker, M., Berner, J., Chavan, R. and Warren, J. Climate change and health effects in Northwest Alaska 2011 Kivalina DOI  
Review: From overview: “This article provides examples of adverse health effects, including weather-related injury, food insecurity, mental health issues, and water infrastructure damage, and the responses to these effects that are currently being applied in two Northwest Alaska communities. The health impact assessment process is effective in raising awareness, encouraging discussion, engaging partners, and implementing adaptation planning. With community-specific information, local leaders are applying health protective adaptation measures.”
BibTeX:
@techreport{Brubaker2011a,
  author = {Brubaker, Michael and Berner, James and Chavan, Raj and Warren, John},
  title = {Climate change and health effects in Northwest Alaska},
  publisher = {Global Health Action},
  year = {2011},
  number = {vol. 4},
  pages = {6},
  doi = {http://dx.doi.org/10.3402/gha.v4i0.8445},
  community = {Kivalina}
Brubaker, M., Berner James, Bell, J. and Warren, J. Alaska Native Tribal Health Consortium (ANTHC), Center for Climate and Health Climate change in Kivalina, Alaska strategies for community health 2011 Kivalina URL 
Review: Rural arctic communitites are vulnerable to climate change and seek adaptation strategies that will protect health and health infrastructure. This report describes climate change impacts on Kivalina, a small Inupiat Eskimo community located on the coast of the Chukchi Sea. Data sources included the observations of local residents, reports from local regional government officials and health professionals, and scientific evidence gathered from published sources. Recommendations include:
•The lack of adequate sanitation is the most immediate health threat in Kivalina.
•Reducing the risk of climate related mental stress, injury, and disease is another priority in Kivalina.
•The community water system is vulnerable to climate impacts.
•Enhancement of the community environmental monitoring infrastructure is also needed to better understand climate change impacts.
•Unusual and unpredictable weather, snow, ice, and water conditions have made travel more hazardous.
•Climate change is affecting subsistence activities, and may result in changes to harvest and diet.
BibTeX:
@techreport{Brubaker2011,
  author = {Brubaker, Michael and Berner, James, and Bell, Jacob and Warren, John},
  title = {Climate change in Kivalina, Alaska strategies for community health},
  year = {2011},
  pages = {66},
  note = {Funded by Indian Health Service Cooperative Agreement No. AN 08-X59},
  url = {http://www.anthc.org/chs/ces/climate/upload/Climate-Change-in-Kivalina-Alaska-Strategies-for-Community-Health-2.pdf},
  community = {Kivalina}
Brunner, R.D., Lynch, A.H., Pardikes, J.C., Cassano, E.N., Lestak, L.R. and Vogel, J.M. An arctic disaster and its policy implications 2004 Barrow  
Review: Scientific abstract: “The purpose of the research reported here is to help the community in Barrow, Alaska, clarify its vulnerability to extreme weather events, and devise better-informed policies for reducing that vulnerability and adapting to climate variability and change. We examine the worst disaster on record there—a storm that struck on 3 October 1963—from different disciplinary perspectives and in the context of other severe storms. The major policy responses to date have been a beach nourishment program, a feasibility study of additional means of erosion control, and an emergency management plan. Additional possible responses have been identified in the community’s cumulative experience of these storms, but have not yet been fully explored or implemented. Meanwhile, given inherent uncertainties, it is clear that sound policies will allow for corrective action if and when expectations based on the best available knowledge and information turn out to be mistaken. It is also clear that the people of Barrow are in the best position to understand the evolving situation and to decide what to do about it.”
BibTeX:
@article{Brunner2004,
  author = {Brunner, Ronald D. and Lynch, Amanda H. and Pardikes, Jon C. and Cassano, Elizabeth N. and Lestak, Leanne R. and Vogel, Jason M.},
  title = {An arctic disaster and its policy implications},
  journal = {Arctic},
  year = {2004},
  volume = {57},
  number = {4},
  pages = {336-346},
  community = {Barrow}
Burke, J. Savoonga power outages blamed on lack of sea ice 2011 Savoonga URL 
Review: This popular press article describes the circumstances surrounding a power outage in Savoonga during a 2011 winter storm. In an interview, Meera Kohler, CEO for Alaska Village Electric Cooperative Inc., explained that AVEC had never seen a problem like the one in Savoonga, and attributed abnormal sea spray buildup to the lack of protective sea ice.
BibTeX:
@periodical{Burke2011,
  author = {Burke, Jill},
  title = {Savoonga power outages blamed on lack of sea ice},
  year = {2011},
  url = {http://www.alaskadispatch.com/article/savoonga-power-outages-blamed-lack-sea-ice},
  community = {Savoonga}
Cacchione, D.A. and Drake, D.E. U.S. Geological Survey (USGS) Sediment transport in Norton Sound, Alaska 1979 Unalakleet, Shaktoolik, Golovin, Saint Michael, Scammon Bay, Nunam Iqua (Sheldon Point), Kotlik  
Review: This report is an investigation of sediment dynamics in Norton Sound and the northern Bering Sea. The major topic of the research was sediment movement and hydrodynamic stresses that occur in the Sound and their relationship to Bering Sea ocean dynamics. Other studies have found sediment accumulation from the Yukon River inconsistent with the rate of supply. The modes of transport for this loss of materials are discussed in the report. This study attempts to provide a description of the bottom transport of sediments, pollutants, nutrients, and other particulate matter, as well as identify hazardous sea floor conditions in Norton Sound.
BibTeX:
@techreport{Cacchione1979,
  author = {Cacchione, David A. and Drake, David E.},
  title = {Sediment transport in Norton Sound, Alaska},
  year = {1979},
  number = {Open-File Report 79-1555},
  pages = {88},
  community = {Unalakleet, Shaktoolik, Golovin, Saint Michael, Scammon Bay, Nunam Iqua (Sheldon Point), Kotlik}
Chapman Raymond, S., Kim Sung-Chan and Mark, D.J. U.S. Army Corps of Engineers, Alaska District Storm damage and flooding evaluation, storm-induced water level prediction study for the western coast of Alaska 2009 Unalakleet, Kivalina, Shaktoolik, Golovin, Saint Michael, Shishmaref, Hooper Bay  
Review: Technical assistance was provided by the U.S. Army Engineer Research and Development Center, Coastal & Hydraulics Laboratory in assessing storm-generated regional water levels and currents at selected sites of ongoing and potential COE projects along the western coast of Alaska. The purpose of this study was to develop frequency-of-occurrence relationships for storm-generated water levels at 17 communities along the western coast of Alaska. Storm wind, pressure, ice, and surge data were generated for each of the areas, and the bathymetry was updated. Fifty-two storm event simulations were performed and a database of water levels versus return period was developed for each site.

Kivalina; This study estimated the 100-year storm surge level to be 7.7 feet above MLLW.

BibTeX:
@techreport{Chapman2009,
  author = {Chapman, Raymond, S. and Kim, Sung-Chan, and Mark, David J.},
  title = {Storm damage and flooding evaluation, storm-induced water level prediction study for the western coast of Alaska},
  publisher = {U.S. Army Corps of Engineers, Coastal and Hydraulics Laboratory},
  year = {2009},
  pages = {92},
  community = {Unalakleet, Kivalina, Shaktoolik, Golovin, Saint Michael, Shishmaref, Hooper Bay}
Chikita, K.A., Kemnitz, R. and Kumai, R. Characteristics of sediment discharge in the subarctic Yukon River, Alaska 2002 Hooper Bay, Scammon Bay, Nunam Iqua (Sheldon Point), Kotlik  
Review: The authors describe the construction of a physical model of sediment discharge from the Yukon River. The study uses the results of observations made in 1999 to characterize temporal patterns in the volume of sediment discharged by the Yukon River. The results of this study reveal that peak sediment discharge did not coincide with peak water discharge. The peak sediment discharge was linked to glacier-melt from summer to autumn, while peak water discharge was linked to snowmelt in the spring.
BibTeX:
@article{Chikita2002,
  author = {Chikita, Kazuhisa A. and Kemnitz, Richard and Kumai, Ryuji},
  title = {Characteristics of sediment discharge in the subarctic Yukon River, Alaska},
  journal = {Catena},
  year = {2002},
  volume = {48},
  pages = {235-253},
  community = {Hooper Bay, Scammon Bay, Nunam Iqua (Sheldon Point), Kotlik}
Combellick, R. Alaska Department of Natural Resources, Division of Geological and Geophysical Surveys (DGGS) Memorandum to Randy Bates, Director DCOM: Kivalina hazard area designation 2007 Kivalina  
Review: This memorandum requested a temporary natural hazards designation for an Alaska Coastal Management Program review of the COE rock revetment project in Kivalina. The DGGS deputy director compared aerial photos taken in 1966, 1997, 2000, and 2007 and found:
•Between 1966 and 2000, there was no measurable erosion of the vegetated backshore, but there was evidence of erosion on the older, vegetated crest along the northern one-third of the town and part of the airstrip.

•“The irregular character of the berm in 1966 suggests it has undergone, and is possibly still undergoing, thermal erosion of frozen soil.” Subsequent aerial photographs show that the beach has accreted and that the berm has become vegetated.
•The 2007 aerial photographs showed that portions of the vegetated berm along the southern one-third of town had receded several feet. They also showed erosion has taken place along the southern one-third of town on the lagoon side, probably resulting from flow from the Wulik and Kivalina rivers.
•The Signauk Entrance to the lagoon migrates back and forth over time, and it closes periodically.
•In 1997, the inlet was located considerably south of where it was in 2007. In 1997, the spit near the entrance extended about 1,200 feet, but by 2000 half of it had eroded, and it completely disappeared by 2007. The beach at the southern end of the island accreted by 200–300 feet by 2007.
The author recommended that the effects to natural accretion and erosion of any proposed development or mitigation measures be fully explored.

BibTeX:
@unpublished{Combellick2007,
  author = {Combellick, Rod},
  title = {Memorandum to Randy Bates, Director DCOM: Kivalina hazard area designation},
  year = {2007},
  pages = {2},
  community = {Kivalina}
D'Souza A. Bandopadhyay, S., Naidu, S., Ganguli, R. and Misra, D. Exploration and estimation of gravel resource potential in southeast Chukchi Sea continental shelf off Kivalina, Alaska 2009 Kivalina DOI  
Review: This study examined the gravel resources of the Chukchi Sea near Kivalina, Alaska, for potential beach nourishment projects along the coast. The study included a seismic survey, collection of grab samples, sediment cores, and grain-size analysis.
BibTeX:
@article{DSouza2009,
  author = {D'Souza, A. Bandopadhyay, S. and Naidu, S. and Ganguli, R. and Misra, D.},
  title = {Exploration and estimation of gravel resource potential in southeast Chukchi Sea continental shelf off Kivalina, Alaska},
  journal = {Marine Georesources and Geotechnology},
  publisher = {Taylor & Francis},
  year = {2009},
  volume = {27},
  pages = {255-272},
  doi = {http://dx.doi.org/10.1080/10641190903108044},
  community = {Kivalina}
Danielson, S. and Kowalik, Z. Tidal currents in the St. Lawrence Island region 2005 Savoonga, Gambell DOI  
Review: Historical and newly available nearshore and offshore current meter data from the vicinity of St. Lawrence Island are used to more fully describe the spatial and temporal variability associated with tidal currents around the island.
BibTeX:
@article{Danielson2005,
  author = {Danielson, Seth and Kowalik, Zygmunt},
  title = {Tidal currents in the St. Lawrence Island region},
  journal = {Journal of Geophysical Research},
  year = {2005},
  volume = {110},
  number = {C10004},
  pages = {18},
  doi = {http://dx.doi.org/10.1029/2004JC002463},
  community = {Savoonga, Gambell}
DeSimone, H. Alaska Department of Transportation & Public Facilities (DOT&PF), Division of Aviation Final environmental impact statement airport project at Scammon Bay, Alaska 1971 Scammon Bay  
Review: This statement addresses the environmental impact of the proposed construction of a new landing strip, a new parking apron, a connecting taxiway, and incidental items including rudimentary access roads, wind cone, and segmented circle for the Scammon Bay airport. The environmental impact is expected to be low, with considerations of additional ambient noise being the biggest concern. Any possible pollution is low relative to the community heating systems.
BibTeX:
@techreport{DeSimone1971,
  author = {DeSimone, H.F.},
  title = {Final environmental impact statement airport project at Scammon Bay, Alaska},
  year = {1971},
  number = {PB-202 306-F},
  pages = {14},
  community = {Scammon Bay}
Dorava, J.M. U.S. Geological Survey (USGS) Overview of environmental and hydrogeologic conditions at Unalakleet, Alaska 1995 Unalakleet  
Review: This report was produced for the Federal Aviation Administration (FAA) to determine if environmentally hazardous materials have been spilled or disposed of in Unalakleet. To complete this study, information about the area’s geology and hydrology were collected.
Mean, mean maximum, and mean minimum temperatures are presented from records between 1941 and 1987. The local vegetation is also described. Polygonal ice wedges occur along the coast, however, test bores ranging from 4.6 to 15.2 m resulted in no permafrost within 10 m below the surface. Soils that predominate the area are silt loams developed on alluvium and colluvium. The Unalakleet River drainage basin is about 5,300 km2 in size with a contribution of 0.26 m3/s/km2 of water in August, and between 0.0 and 0.003 m3/s/km2 of water during March. Major flooding events in Unalakleet occurred in 1965, 1968, 1971, and 1974, usually caused by storm-driven waves. Based on regional flood characteristics, estimates of the 2-year and 50-year flood discharges for the Unalakleet River are 600 and 1,240 m3/s at the mouth. Groundwater may be subject to seasonal intrusion of sea water. Groundwater recharge is mostly confined to areas near the banks of the Unalakleet River, because of the variable permafrost and consolidated earth material. Well logs are provided with formation descriptions based on drill logs from 1962 to 1977.
BibTeX:
@techreport{Dorava1995,
  author = {Dorava, Joseph M.},
  title = {Overview of environmental and hydrogeologic conditions at Unalakleet, Alaska},
  year = {1995},
  number = {open file report no. 95-347},
  pages = {8},
  community = {Unalakleet}
Douglas, D. U.S. Geological Survey (USGS) Arctic sea ice decline: Projected changes in timing and extent of sea ice in the Bering and Chukchi Seas 2010 Statewide  
Review: Statewide or general reference. See foreword.
BibTeX:
@techreport{Douglas2010,
  author = {Douglas, D.C.},
  title = {Arctic sea ice decline: Projected changes in timing and extent of sea ice in the Bering and Chukchi Seas},
  publisher = {U.S. Geological Survey},
  year = {2010},
  number = {2010-1176},
  pages = {32},
  community = {Statewide}
Drake, D., Cacchione, D., Muench, R. and Nelson, C. Sediment transport in Norton Sound, Alaska 1980 Unalakleet, Shaktoolik, Golovin, Saint Michael, Scammon Bay, Nunam Iqua (Sheldon Point), Kotlik  
Review: This study examines the suspended sediment and ocean circulation of the northeastern part of the Bering Sea shelf. The authors describe the fate of sediment delivered by the Yukon River to the southwestern corner of Norton Sound and the importance of storm events in Norton Sound associated with erosion and sediment transport. Landsat images were also used to inspect the distribution of sediments and regional circulation in the Sound.
BibTeX:
@article{Drake1980,
  author = {Drake, D.E. and Cacchione, D.A. and Muench, R.D. and Nelson, C.H.},
  title = {Sediment transport in Norton Sound, Alaska},
  journal = {Marine Geology},
  year = {1980},
  volume = {36},
  pages = {97-126},
  community = {Unalakleet, Shaktoolik, Golovin, Saint Michael, Scammon Bay, Nunam Iqua (Sheldon Point), Kotlik}
Drew, J. A pedological study of arctic coastal plain soils near Point Barrow, Alaska 1957 Barrow  
Review: This dissertation presents one of the first studies of soil-forming processes in Alaskan Arctic soils. A previous lack of specific information about the region resulted in soil groups being defined on the Great Soil Group level as Tundra soils. This study was designed to improve the existing knowledge of soil genesis and classification in the area of Point Barrow.
BibTeX:
@phdthesis{Drew1957,
  author = {Drew, J.V.},
  title = {A pedological study of arctic coastal plain soils near Point Barrow, Alaska},
  school = {Rutgers University, State University of New Jersey},
  year = {1957},
  pages = {117},
  community = {Barrow}
Drobot, S. Long-range statistical forecasting of ice severity in the Beaufort-Chukchi Sea 2003 Barrow  
Review: This dissertation presents one of the first studies of soil-forming processes in Alaskan Arctic soils. A previous lack of specific information about the region resulted in soil groups being defined on the Great Soil Group level as Tundra soils. This study was designed to improve the existing knowledge of soil genesis and classification in the area of Point Barrow.
BibTeX:
@article{Drobot2003,
  author = {Drobot, Sheldon},
  title = {Long-range statistical forecasting of ice severity in the Beaufort-Chukchi Sea},
  journal = {American Meteorological Society},
  year = {2003},
  volume = {18},
  pages = {1161-1176},
  community = {Barrow}
Druckenmiller, M.L., Eicken, H., Johnson, M.A., Pringle, D.J. and Williams, C.C. Toward an integrated coastal sea-ice observatory: System components and a case study at Barrow, Alaska 2009 Barrow  
Review: Scientific abstract: “The morphology, stability and duration of seasonal landfast sea ice in Alaska's coastal zone is changing alongside large-scale ice thinning and retreat. The extent and complexity of change at the local level requires an integrated observing approach to assess implications of such change for coastal ecosystems and communities that rely on or make use of the sea-ice cover. Barrow, Alaska is an example of a community that experiences and utilizes a broad range of sea-ice types and conditions. The local population is increasingly forced to adapt to less stable sea ice, loss of multiyear ice and a shorter ice season. We are working toward an integrated coastal ice observatory to monitor landfast and adjacent pack ice and to maximize the usefulness of information to the community. The observatory includes: (1) satellite remote-sensing datasets distributed in near real-time; (2) a coastal sea-ice radar and webcam that monitor ice movement and evolution; (3) a mass-balance site that provides temperature profiles and thickness information for ice and snow; (4) sea-level measurements; (5) periodic ice thickness surveys using direct drilling and electromagnetic induction sounding; and (6) a program of regular, undirected observations by Iñupiat sea-ice experts. We examine two significant landfast ice breakout events off Barrow in spring of 2007. During these events, Barrow's subsistence whaling community partook in a successful hunting season observing and responding to these breakout events and their impacts on ice stability. Using local expert knowledge to parse geophysical datasets obtained from the observatory has provided deeper insight into different approaches for assessing ice stability, and integrating information on ice growth, origin, morphology, and dynamics, as well as winds, weather, and currents.”
BibTeX:
@article{Druckenmiller2009,
  author = {Druckenmiller, Matthew L. and Eicken, Hajo and Johnson, Mark A. and Pringle, Daniel J. and Williams, Christina C.},
  title = {Toward an integrated coastal sea-ice observatory: System components and a case study at Barrow, Alaska},
  journal = {Cold Regions Science and Technology},
  year = {2009},
  volume = {56},
  pages = {61-72},
  community = {Barrow}
Ecology and Environment, Inc. Continuity of operations plan: Shaktoolik, Alaska 2010 Shaktoolik  
Review: The Continuity of Operations Plan addresses how the community will provide essential services to Shaktoolik residents during response to severe weather, natural or manmade hazards, or malevolent attack. This plan covers all facilities, vehicles, and buildings operated by the city, tribe, or the Shaktoolik Native Corporation. The plan lists essential functions, responsible persons, and actions that will be taken to maintain these functions. Three scenarios are covered by the plan: A single building, a catastrophic event that affects the entire community, and a pandemic influenza outbreak. The youth camp, located 8 miles across the Tagoomenik River, has been designated as an alternate facility with five permanent structures that could be used for shelter.
BibTeX:
@techreport{EcologyInc2010,
  author = {Ecology and Environment, Inc.},
  title = {Continuity of operations plan: Shaktoolik, Alaska},
  year = {2010},
  note = {the City of Shaktoolik and the Native Village of Shaktoolik IRA Council and the Alaska Department of Military and Veterans Affairs, Division of Homeland Security and Emergency Management},
  community = {Shaktoolik}
Eisner Wendy R.and Cuomo, C.J., Hinkel, K.M., Jones, B.M. and Brower Ronald H., S. Advancing landscape change research through the incorporation of Iñupiaq knowledge 2009 Barrow  
Review: Scientific abstract: “Indigenous knowledge is a valuable but under-used source of information relevant to landscape change research. We interviewed Iñupiat elders, hunters, and other knowledge-holders in the villages of Barrow and Atqasuk on the western Arctic Coastal Plain of northern Alaska to gain further insight into the processes governing the ubiquitous lakes and the dynamics of landscape change in this region of continuous permafrost. The interviews provided a suite of information related to lakes and associated drained lake basins, as well as knowledge on landforms, environmental change, human events, and other phenomena. We were able to corroborate many observations independently and verify the timing of several large and significant lake drainage events using either aerial photography or remotely sensed time series. Data collected have been incorporated into a geodatabase to develop a multi-layer Geographic Information System that will be useful for local and scientific communities. This research demonstrates that indigenous knowledge can reveal a new understanding of landscape changes on the Arctic Coastal Plain in general and on lake processes in particular. We advocate ongoing, community-oriented research throughout the Arctic as a means of assessing and responding to the consequences of rapid environmental change.”
BibTeX:
@article{Eisner2009,
  author = {Eisner, Wendy R.and Cuomo, Chris J. and Hinkel, Kenneth M. and Jones, Benjamin M. and Brower, Ronald H., Sr.},
  title = {Advancing landscape change research through the incorporation of Iñupiaq knowledge},
  journal = {Arctic},
  year = {2009},
  volume = {62},
  number = {4},
  pages = {429-442},
  community = {Barrow}
Elswick, V.L. Seismic interpretation and structural evaluation of the Hope Basin, Alaska 2003 Deering, Selawik, Shishmaref  
Review: This MS thesis was submitted to the Eberly College of Arts and Sciences at West Virginia University. The content outlines the geologic setting and history for the Hope Basin, in the Chukchi Sea off the northwestern coast of Alaska. The lithology of Hope Basin was inferred from data collected in two wells drilled at Nimiuk Point on the Seward Peninsula and Cape Espenberg in the Selawik Basin, as well as from seismic data collected by the U.S. Geological Survey in 1977–1980. Four stratigraphic units are described for the area and a structural hypothesis for basin development is presented.
BibTeX:
@mastersthesis{Elswick2003,
  author = {Elswick, Virginia L.},
  title = {Seismic interpretation and structural evaluation of the Hope Basin, Alaska},
  school = {West Virginia University Department of Geology and Geography},
  year = {2003},
  pages = {21},
  community = {Deering, Selawik, Shishmaref}
Engineering and Environmental Internet Solutions, LLC Alaska Department of Transportation & Public Facilities (DOT&PF) Nunam Iqua ADOT&PF Sheldon Point airport weather station 2011 Nunam Iqua (Sheldon Point) URL 
Review: This website provides information on the installation, operation, and maintenance of a meteorological station for collection of hourly wind speed and direction data from the Sheldon Point airport. The project website reports data in near-real time (no more than 24-hour delay).
BibTeX:
@electronic{ADOT2011,
  author = {Engineering and Environmental Internet Solutions, LLC},
  title = {Nunam Iqua ADOT&PF Sheldon Point airport weather station},
  year = {2011},
  url = {http://www.yukon-watershed.org/Nunam_Iqua/nunamiqua.html},
  community = {Nunam Iqua (Sheldon Point)}
Fair, S.W. Inupiat naming and community history, the Tapqaq and Saniniq Coasts near Shishmaref, Alaska 1997 Deering  
Review: This publication focuses on the geography and traditional place names in the Shishmaref and Deering area. Included in this work is a description of the regional context with extensive documentation of local knowledge and Inupiat words for common coastal terms such as ‘tapqaq’ (sandy strand) and ‘undani’ (downcoast).
BibTeX:
@article{Fair1997,
  author = {Fair, Susan W.},
  title = {Inupiat naming and community history, the Tapqaq and Saniniq Coasts near Shishmaref, Alaska},
  journal = {Professional Geographer},
  year = {1997},
  volume = {49},
  number = {4},
  pages = {466-480},
  community = {Deering}
George, J.C., Huntington, H.P., Brewster, K., Eicken, H., Norton, D.W. and Glenn, R. Observations on shorefast ice dynamics in arctic Alaska and the responses of the Inupiat hunting community 2004 Barrow  
Review: This study focuses on two nearshore ice hazard events in 1957 and 1997 that threatened the lives and confidence of whale hunters in Barrow. Each event is examined in terms of the mechanics of shore fast ice and described in detail. The factors considered in the events were the relationship of the hunters with the ice, natural causes of the failures, technological advancements for prediction of failures, ice behavior, and long term effects of global climate change. The authors identify people’s uses of sea ice as a necessary factor when assessing risks and benefits of developing sea ice technology.
BibTeX:
@article{George2004,
  author = {George, John C. and Huntington, Henry P. and Brewster, Karen and Eicken, Hajo and Norton, David W. and Glenn, Richard},
  title = {Observations on shorefast ice dynamics in arctic Alaska and the responses of the Inupiat hunting community},
  journal = {Arctic},
  year = {2004},
  volume = {57},
  number = {4},
  pages = {363-374},
  community = {Barrow}
Giddings, J.L. The archeology of Cape Denbigh 1964 Shaktoolik  
Review: This book is the compilation of the excavations of archaeological sites on Cape Denbigh, Alaska. The excava-tion sites are explained in great detail, including diagrams and photographs of items collected. Three major cultural phases of the western Arctic are defined, including the Denbigh Flint complex, the Norton culture, and the Nukleet culture. This book supports the theory of continuity in cultures of the Bering Strait region.
BibTeX:
@book{Giddings1964,
  author = {Giddings, James Louis},
  title = {The archeology of Cape Denbigh},
  publisher = {Providence: Brown University Press},
  year = {1964},
  pages = {331},
  note = {73 plates},
  community = {Shaktoolik}
Glenn Gray and Associates Alaska Department of Commerce, Community & Economic Development, Division of Community & Regional Affairs (DCRA) Kivalina consensus building project, final report 2010 Kivalina  
Review: This report is designed to serve as a foundation for community planning in Kivalina, Alaska. The project was funded by a two-part community planning grant from the Alaska State Legislature. The report includes the summary of findings from a door-to-door survey conducted in 2009 as well as an analysis of previous reports pertaining to natural hazards and relocation options.
BibTeX:
@techreport{Gray2010,
  author = {Glenn Gray and Associates},
  title = {Kivalina consensus building project, final report},
  year = {2010},
  pages = {16},
  note = {Funded by Alaska Climate Change Impact Mitigation Program},
  community = {Kivalina}
Golder Associates U.S. Army Corps of Engineers, Alaska District Geophysical groundwater source investigation, Kivalina, Alaska 1998 Kivalina  
Review: This study investigated groundwater supplies and site geology for potential relocation sites. The study involved use of two different techniques to determine the best location for test wells. It investigated the following sites: Imnakuk, Kuugruaq, and Igrugaivik sites. The study states that the current water occasionally runs dry, and residents must haul ice for a water supply in the winter. Wells drilled near the school produced saltwater. Frozen ground was reported from 6 to 137 feet.
BibTeX:
@techreport{COE1998,
  author = {Golder Associates},
  title = {Geophysical groundwater source investigation, Kivalina, Alaska},
  year = {1998},
  pages = {28},
  note = {Reprinted in Appendix B, Community Improvement Feasibility Report, April 1998},
  community = {Kivalina}
Gologergen, S. Kawerak Inc. Trip report, travel to Shaktoolik March 17-18, 2009 2009 Shaktoolik  
Review: The purpose of travel was to talk to the 2009 Annual Membership Meeting for the IRA, requested by IRA Presi-dent Simon Bekoalak. An update was given regarding the community’s efforts with erosion/mitigation issues. A report of work done at the local level by the Shaktoolik Mitigation/Erosion Committee was also provided. The community still needs to decide whether or not they are willing to relocate. Meeting notes are provided.
BibTeX:
@unpublished{Gologergen2009,
  author = {Gologergen, Sterling},
  title = {Trip report, travel to Shaktoolik March 17-18, 2009},
  year = {2009},
  pages = {1},
  community = {Shaktoolik}
Gorokhovich, Y. and Leiserowiz, A. Historical and future coastal changes in Northwest Alaska 2011 Kivalina, Deering, Selawik  
Review: This article presents research sponsored by the National Oceanic and Atmospheric Administration (NOAA) in support of coastal vulnerability mapping for Kotzebue Sound, Alaska. The authors used the digital shoreline analysis system (DSAS) to quantify rates of erosion and accretion from orthorectified aerial imagery that spans a 53 year period (1950–2003). By combining the results of this work with modeled projections of sea level rise in the arctic, the authors estimate mean regional erosion rates of -0.12 to -0.08 m/yr from 1950–2003, and an increase to 0.6–1.65 m/yr from 2000–2100.
BibTeX:
@article{Gorokhovich2011,
  author = {Gorokhovich, Yuri and Leiserowiz, Anthony},
  title = {Historical and future coastal changes in Northwest Alaska},
  journal = {Journal of Coastal Research},
  year = {2011},
  volume = {28},
  number = {1A},
  pages = {174-186},
  community = {Kivalina, Deering, Selawik}
Gray, G. Glenn Gray and Associates in Association with Kawerak, Inc. Shaktoolik planning project situation assessment—Public review draft 2011 Shaktoolik  
Review: This report is an assessment of current natural hazards, and evacuation and emergency options and alterna-tives for the village of Shaktoolik, Alaska. Coastal storms and flooding are identified as threats to the community. This report provides a compilation of recommendations regarding the threats, including additional investiga¬tion by the U.S. Army Corps of Engineers. The investigation would include design analysis for structural pro¬tection, which could include, but is not limited to, an articulated concrete mat for protection of the community’s oil tanks. Other erosion control techniques might include beach nourishment, berm construction, or beach grass planting. Also mentioned is Shaktoolik’s consideration for emergency evacuation plans, which will include an evacuation road and shelter for use during high-water events. Relocation has been discussed as an alternative, but has not been studied formally.
BibTeX:
@techreport{Gray2011,
  author = {Gray, Glenn},
  title = {Shaktoolik planning project situation assessment—Public review draft},
  publisher = {Glenn Gray and Associates},
  year = {2011},
  pages = {55},
  community = {Shaktoolik}
Gray, G. Kawerak Inc. Summary of door-to-door survey 2010 Shaktoolik  
Review: As part of the Shaktoolik planning process, Glenn Gray & Associates conducted a door-to-door survey of Shaktoolik residents to obtain input about the growing concern about the threats of natural hazards. Kawerak, Inc., funded the Shaktoolik Planning Project in coordination with a series of natural hazard studies that will be completed by the U.S. Army Corps of Engineers. Survey participants provided information about natural hazards, environmental changes, and suggestions for short- and long-term actions the community should take. Sixty-three people, from 55 of the estimated 59 occupied housing units, participated in the survey.
Major Issues: The survey began with an open-ended question about the major problems facing Shaktoolik. Most of the responses to this question identified fall storms, erosion, and the difficulties evacuating the community as the most pressing issues. Some people identified unemployment and improvements to housing and community infrastructure as important issues.
Natural Hazards: The second part of the survey asked participants about natural hazards. Many residents said storm intensity and surges have increased during the past 5–7 years. They said storms have pushed the line of driftwood close to the homes, and the flats on the east side of the village have flooded in recent years as far as one can see.
Regarding erosion, most people indicated the old village site was eroding the most, especially near the airstrip and the area of the Tagoomenik River locally known as “first bend.” Survey participants also indicated erosion was occurring at the current village site and up the rivers.
One person believed erosion of a point between the old village and the foothills may have increased erosive forces at the old and new village sites.
Sediments eroded in one area will be deposited (accreted) in another. While most of the people interviewed did not know of areas of accretion, a few people indicated that coastal processes are constantly changing and that sediments have accreted near the mouth of the Shaktoolik River and appear to be deposited in the marine waters directly offshore of the community.
Many of those surveyed were not aware of areas with melting permafrost, but a number of residents related detailed observations. Specific areas identified include the shoreline on the north side of Cape Denbigh, areas of the tundra, and riverbanks. A number of people said that lakes have been drying up because thawing soils have allowed them to drain.
Responses to Hazards: Most of the residents surveyed had suggestions for short- and long-term responses to natural hazards. People identified evacuation planning as a short-term priority as well as construction of an evacuation road. In addition, some residents recommended the community complete a planning process to evaluate future options.

Many people recommended erosion protection efforts for the community, including construction of a seawall or strategic efforts to protect the fuel tanks and the school. Seventeen people said they would prefer to remain in the community, but some of them believed remaining at the current site was not a realistic long-term solution.
More than half of the survey participants said they believed relocation would be necessary in the long run. Many people identified the foothills as a preferred relocation site, and some said it would be possible to construct a boat harbor using local rock. Others, however, did not support a move to the foothills, citing a lack of a boat harbor and distance from fish and wildlife resources. A few people recommended relocation to a site upriver or to a location towards Cape Denbigh.
Environmental Changes: The last survey question asked residents about what environmental changes they have observed. While some residents could not think of anything, others provided a wide variety of details about environmental changes, including increased severity of storms, flooding in the flats, later and milder winters, earlier springs, and melting permafrost.
In addition to climate-change-related observations, many residents noted new species have arrived in the area, and changes have occurred to the numbers and distribution of existing species. Residents reported observing fewer ducks and geese and reduced numbers of certain fish such as herring, chum salmon, and king salmon. Increased numbers of crows, ravens, and seagulls were reported. New species observed in the area include killer whales, blow fish, and insects. A number of people reported changes in the condition of species, such as reduced blubber in seals, thinner fish, and deformed birds.

BibTeX:
@techreport{Gray2010a,
  author = {Gray, Glenn},
  title = {Summary of door-to-door survey},
  year = {2010},
  note = {Prepared by Glenn Gray and 
Associates in Association with Kawerak Inc. for the Community of Shaktoolik}, community = {Shaktoolik}
Hamilton, T.D. and Brigham-Grette, J. The last interglaciation in Alaska: stratigraphy and paleoecology of potential sites 1991 Deering, Barrow  
Review: The authors of this paper identify 20 sites in Alaska where deposits from the last interglacial maximum have been reported. The sites represent a wide range of geologic environments from throughout the state. Barrow is included as a location where fossiliferous Pelukian deposits have been consistently observed at approximately 10 meters ASL over a distance of 600 kilometers.
BibTeX:
@article{Hamilton1991,
  author = {Hamilton, Thomas D. and Brigham-Grette, Julie},
  title = {The last interglaciation in Alaska: stratigraphy and paleoecology of potential sites},
  journal = {Quaternary International},
  publisher = {Elsevier},
  year = {1991},
  volume = {10-12},
  pages = {49-71},
  community = {Deering, Barrow}
Harper, J.R. The physical processes affecting the stability of tundra cliff coasts 1978 Barrow, Point Lay  
Review: Barrow; According to Dr. Harper, “the single most significant point of the research is how excess pore ice in the tundra contributes to coastal stability. [P]eriglacial process[es] tend to concentrate ice in the upper surface of the tundra so there is excess ice, often 70% by volume near the surface of the tundra. [T]his makes tundra or permafrost coasts (especially low coasts) fundamentally different than non-permafrost coasts. When that ice melts, there is going to be supersaturated sediments and the actual volume of minerals in an eroded cubic meter of cliff may be quite small.”

Point Lay; Underlying causes of rapid tundra cliff retreat are uncertain and there is little information on how this rapid cliff retreat interacts with the nearshore sediment budget. The purpose of this study is to further delineate the controlling processes of tundra cliff erosion on the North Slope, including Point Lay, Alaska. Specifically, the purpose is to determine the primary causes of the widespread and rapid coastal retreat, determine seasonal variation of retreat rates and erosional processes, determine the relation of these processes to seasonal variation of thaw and surface heat fluxes, assess the direct and indirect effects of permafrost on coastal retreat, develop a tundra cliff sediment budget to assess the contribution of subaerial processes and paths of sediment movement, and evaluate seawater effects on the thermal degradation of permafrost and the subsequent influence on tundra cliff erosion.

BibTeX:
@phdthesis{Harper1978,
  author = {Harper, John R.},
  title = {The physical processes affecting the stability of tundra cliff coasts},
  school = {Louisiana State University, Department of Marine Sciences},
  year = {1978},
  pages = {212},
  community = {Barrow, Point Lay}
Harper, J.R. Coastal erosion rates along the Chukchi Sea coast near Barrow, Alaska 1978 Barrow  
Review: Coastal erosion rates between Peard Bay and Barrow are described as highly variable over a 21-year period (1948-1969) suggesting that the temporal variations in erosion rates are related to the passage of intense storms and that spatial variation is related to the presence of offshore bars and borrow pits.
BibTeX:
@article{Harper1978a,
  author = {Harper, John R.},
  title = {Coastal erosion rates along the Chukchi Sea coast near Barrow, Alaska},
  journal = {Arctic},
  year = {1978},
  volume = {31},
  pages = {428-433},
  community = {Barrow}
Hartig, L. Alaska Department of Environmental Conservation (ADEC),Governor's Climate Change Sub-Cabinet State of Alaska and State/Federal executive roundtable activities regarding the Arctic 2010 Kivalina, Deering, Selawik, Unalakleet, Shaktoolik, Golovin, Saint Michael, Shishmaref, Teller, Kwigillingok, Clark's Point & Ekuk, Kotlik, Barrow URL 
Review: This is a powerpoint presentation about the state and federal executive roundtable activities regarding the Arctic. The discussion includes hazards associated with declining Arctic sea ice extent, melting of permafrost, storm surges, and coastal erosion. Thirty-one villages are identified as imminently threatened: Barrow, Kivalina, Selawik, Allakaket, Hughes, Huslia, Shishmaref, Deering, Teller, Koyukuk, Nulato, Golovin, Shaktoolik, Unalakleet, Saint Michael, Kotlik, McGrath, Emmonak, Alakanuk, Chevak, Newtok, Nunapitchuk, Lime Village, Eyak (Cordova), Napakiak, Akiak, Chefornak, Kwigillingok, Dillingham, Clark’s Point, and Port Heiden. Specific photos and engineering initiatives for four communities are discussed, including: Kivalina, Shishmaref, Unalakleet, and Newtok.
BibTeX:
@unpublished{Hartig2010,
  author = {Hartig, Larry},
  title = {State of Alaska and State/Federal executive roundtable activities regarding the Arctic},
  year = {2010},
  pages = {53},
  note = {Northern Waters Task Force},
  url = {http://www.climatechange.alaska.gov/},
  community = {Kivalina, Deering, Selawik, Unalakleet, Shaktoolik, Golovin, Saint Michael, Shishmaref, Teller, Kwigillingok, Clark's Point & Ekuk, Kotlik, Barrow}
Hinkel, K., Nelson, F., Shur, Y., Brown, J. and Everett, K. Temporal changes in moisture content of the active layer and near-surface permafrost at Barrow, Alaska, U.S.A.: 1962-1994 1996 Barrow  
Review: This paper addresses the movement of water between the active layer and permafrost at annual and multidecadal time scales, through sequential and replicate analysis of frozen soil cores from Barrow, Alaska. During the long term (30 year) analysis of difference in soil cores, average water enrichment increases by 5%. In the short term (1 year) analysis, an average of 3% depletion was reported. These results suggest that the migration of water by vaporization or liquid flowing on an annual cycle occurs after November in Barrow.
BibTeX:
@article{Hinkel1996,
  author = {Hinkel, K.M. and Nelson, F.E. and Shur, Y. and Brown, Jerry and Everett, K.R.},
  title = {Temporal changes in moisture content of the active layer and near-surface permafrost at Barrow, Alaska, U.S.A.: 1962-1994},
  journal = {Arctic and Alpine Research},
  year = {1996},
  volume = {28},
  number = {3},
  pages = {300-310},
  community = {Barrow}
Hopkins, D. and MacNeil, F. A marine fauna probably of late Pliocene age near Kivalina, Alaska 1960 Kivalina  
Review: This article is a description of the stratigraphic sediment in Kivalina Lagoon, determined by analyzing the fauna present in the clay mud layers.
BibTeX:
@article{Hopkins1960,
  author = {Hopkins, D.M. and MacNeil, F.S.},
  title = {A marine fauna probably of late Pliocene age near Kivalina, Alaska},
  journal = {Geological Survey Research},
  year = {1960},
  volume = {157},
  pages = {B339-B342},
  community = {Kivalina}
Hopkins, D., Rowland, R., Echols, R. and Valentine, P. An Anvilian (early Pleistocene) marine fauna from western Seward Peninsula, Alaska 1974 Teller  
Review: This study uses the examinations of fossiliferous sediments surrounding Teller and Brevig Mission, Alaska, to determine the margin of the Anvilian transgression. The observations at these sites give insight into the history of sea level at this location.
BibTeX:
@article{Hopkins1974,
  author = {Hopkins, D.M. and Rowland, R.W. and Echols, R.E. and Valentine, P.C.},
  title = {An Anvilian (early Pleistocene) marine fauna from western Seward Peninsula, Alaska},
  journal = {Quaternary Research},
  year = {1974},
  volume = {4},
  pages = {441-470},
  community = {Teller}
Hopkins, D.M. U.S. Geological Survey (USGS) Coastal processes and coastal erosional hazards to the Cape Krusenstern archaeological site 1977 Kivalina  
Review: This report describes the depositional environment at Cape Krusenstern, Alaska. The sediment sources and longshore drift have been analyzed and used to determine potential changes in the natural system, if a harbor or jetty were constructed at Kivalina.
BibTeX:
@techreport{Hopkins1977,
  author = {Hopkins, David M.},
  title = {Coastal processes and coastal erosional hazards to the Cape Krusenstern archaeological site},
  year = {1977},
  number = {77-32},
  pages = {18},
  note = {15},
  community = {Kivalina}
Hopkins, D.M., Nelson, C., Perry, R. and Alpha, T.R. U.S. Geological Survey (USGS), National Ocean Survey, and National Oceanographic and Atmospheric Administration(NOAA) Physiographic subdivisions of the Chirikov Basin, northern Bering Sea 1976 Savoonga, Gambell  
Review: This northern Bering Sea study is the result of a collaboration between the United States Geological Survey (USGS) and the National Oceanic and Atmospheric Administration (NOAA). Bathymetric complexities are compared to extensive sedimentological and geophysical studies to provide critical insights into the Cenozoic history of the Chirikov Basin. Physiographic units are described stemming from a discussion of the Quaternary tectonic, erosional, and depositional history of the northern Bering Sea.
BibTeX:
@techreport{Hopkins1976,
  author = {Hopkins, David M. and Nelson, C.H. and Perry, R.B. and Alpha, Tau Rho},
  title = {Physiographic subdivisions of the Chirikov Basin, northern Bering Sea},
  publisher = {U.S. Government Printing Office},
  year = {1976},
  number = {Professional Paper 759-B},
  pages = {12},
  community = {Savoonga, Gambell}
Hopkins, D.M., Rowland, R.W. and Patton William W., J. Middle Pleistocene mollusks from St. Lawrence Island and their significance for the paleo-oceanography of the Bering Sea 1972 Savoonga, Gambell  
Review: This report discusses how the fossiliferous marine beds of St. Lawrence Island provide insight into former ocean current circulation patterns in the northern Bering Sea region and how the glacial drift that covers these beds provides evidence of former glaciations in the vicinity of Anadyr Strait. The species of molluscan fauna observed within each profile on St. Lawrence Island were characterized and compared to documented collections from the region in order to develop an understanding of the patterns mentioned above.
BibTeX:
@article{Hopkins1972,
  author = {Hopkins, David M. and Rowland, Robert W. and Patton, William W., Jr.},
  title = {Middle Pleistocene mollusks from St. Lawrence Island and their significance for the paleo-oceanography of the Bering Sea},
  journal = {Quaternary Research},
  year = {1972},
  volume = {2},
  pages = {119-134},
  community = {Savoonga, Gambell}
Hopkins David M. and Giddings James Louis, J. Geological background of the Iyatayet archeological site, Cape Denbigh, Alaska 1953 Shaktoolik  
Review: This report is a geological review of the Iyatayet Valley on the northwest coast of Cape Denbigh. The report includes reference to archeological occupations throughout the proposed geological sequences correlated with climatic fluctuations throughout the region.
BibTeX:
@techreport{Hopkins1953,
  author = {Hopkins, David M., and Giddings, James Louis, Jr.},
  title = {Geological background of the Iyatayet archeological site, Cape Denbigh, Alaska},
  publisher = {U.S. Geological Survey (USGS) and University of Pennsylvania},
  year = {1953},
  number = {Volume 121 Number 11},
  pages = {33},
  note = {Smithsonian Miscellaneous Collections},
  community = {Shaktoolik}
Hufford Gary and Partain, J. National Weather Service (NWS) Climate change and short-term forecasting for Alaskan northern coasts 2004 Statewide  
Review: Summary: “Records of increasing temperatures, thawing permafrost, rising sea level, and reduction in sea ice extent and thickness are all physical evidence of warming in Alaska. In the north these rising temperatures are causing the protective nearshore ice to form later in the year and melt sooner, leaving the coastal villages vulnerable to greater impacts from the waves and surges associated with Fall storms.
In order to provide sufficient time for villages to take disaster mitigation prior to storms there is a greater need than ever for high quality, consistent numerical model guidance such as that which was provided to forecasters during the storm of 18–19 October, 2004. Since these numerical models rely on observational data, there is also a need for increased number and quality of arctic atmospheric and oceanic observations, both in situ and remotely sensed. The challenge for the forecaster will be to recognize the increasing number of extreme events under changing climatic conditions so that he/she can issue accurate forecasts and warnings with sufficient lead time to arctic coastal communities.”
BibTeX:
@techreport{Hufford2004,
  author = {Hufford, Gary, and Partain, James},
  title = {Climate change and short-term forecasting for Alaskan northern coasts},
  year = {2004},
  community = {Statewide}
Hughes, R. U.S. Department of the Interior (DOI) Unalakleet National Wild River final environmental statement 1974 Unalakleet  
Review: This document provides descriptions of Unalakleet River water quality and geology. Maximum river flow occurs in late May and early June, with short periods of high water in late July or early August. Winter freeze-up occurs in November or December. The Unalakleet River is a non-glacial river, maintaining its clear character, except the slight turbidity or brownish appearance like similar arctic/boreal areas with acidic soil. The river follows the major trend of the Kaltag fault. The ridges in the north of the drainage area contain Cretaceous mudstone, shale, graywacke, sandstone, and conglomerates. The southern portion contains Cretaceous sediments invaded by a variety of small intrusive bodies of volcanic rock.
BibTeX:
@techreport{Hughes1974,
  author = {Hughes, R.},
  title = {Unalakleet National Wild River final environmental statement},
  year = {1974},
  pages = {386},
  community = {Unalakleet}
Hume, J.D. and Schalk, M. Shoreline processes near Barrow, Alaska: A comparison of the normal and the catastrophic 1967 Barrow  
Review: This is a study of shoreline processes in Barrow, Alaska. The authors discuss surveys from 1948 to 1962 that provide evidence for annual longshore transport rates of ~10,000 cubic yards to the northeast, west of Point Barrow and ~9,500 cubic yards to the southeast, east of Point Barrow. Detailed observations of the coastal response to the 1963 storm reveal volumes of sediment transport equivalent to 20 years of typical transport over the course of hours. The report includes maps of shoreline position based on air photo interpretation, grain size analysis of beach sediments, and an hourly account of the 1963 storm. Maps and coastal profiles showing the coastal response to this event are estimated to be a 200 year storm.
BibTeX:
@article{Hume1967,
  author = {Hume, James D. and Schalk, Marshall},
  title = {Shoreline processes near Barrow, Alaska: A comparison of the normal and the catastrophic},
  journal = {Arctic},
  year = {1967},
  volume = {20},
  pages = {86-103},
  community = {Barrow}
Hume, J.D., Schalk, M. and Hume, P.W. Short-term climate changes and coastal erosion, Barrow, Alaska 1972 Barrow  
Review: In this report, beach sedimentation for Barrow, Alaska, is described based on the Gubik Formation sediment and ice action. The effects of construction have been measured to show removal of about 30,000 m3 of beach sediment in 1961, causing shoreline retreat of 3.2 m. Storms are shown to be the most critical factor in both bluff erosion and retreat of the shoreline. High sea level in combination with storms also speeds melting of bluffs by exposing new frozen ground. Rainfall is another factor melting ice and transporting sediment; howeve,r sediment would also be transported by gravity alone in this case. In the future, erosion will depend on meteorological data, which is uncertain for the area, because of incomplete ice data.
BibTeX:
@article{Hume1972,
  author = {Hume, James D. and Schalk, Marshall and Hume, Patricia W.},
  title = {Short-term climate changes and coastal erosion, Barrow, Alaska},
  journal = {Arctic},
  year = {1972},
  volume = {25},
  pages = {272-278},
  community = {Barrow}
Immediate Action Workgroup (IAWG) State of Alaska (SOA) Recommendations to the Governor's Subcabinet on climate change 2009 Kivalina, Deering, Selawik, Unalakleet, Shaktoolik, Golovin, Saint Michael, Gambell, Shishmaref, Teller, Hooper Bay, Scammon Bay, Kwigillingok, Clark's Point & Ekuk, Quinhagak, Nunam Iqua (Sheldon Point), Kotlik, Barrow, Kaktovik  
Review: The Immediate Action Workgroup was established to address known threats to Alaskan communities caused by coastal erosion, thawing permafrost, flooding, and fires. This report is a follow-up to the recommendations made in April 2008 and provides recommendations of actions and policies to be implemented in 2009 and 2010 regarding these matters.

Barrow; The community of Barrow has been recognized as receiving agency actions from the US Army Corps of Engineers (COE) and the Alaska Department of Transportation and Public Facilities (ADOT&PF). One ADOT&PF project in Barrow relocated the Arctic Research Center access road due to erosion.

Clark's Point Ekuk; Clark’s Point has been identified as receiving agency actions from the U.S. Army Corps of Engineers (COE) and the Division of Emergency Management (EM). A flooding event is also reported for Clark’s Point during 2005.

Gambell; This report is a follow-up to the recommendations made in April 2008 (in which Gambell was not mentioned), and provides recommendations for actions and policies to be implemented in 2009 and 2010.
The community of Gambell has been recognized as receiving agency actions from the Alaska Department of Transportation & Public Facilities. The status of the Gambell evacuation road is also mentioned in this report.

Golovin; The community of Golovin has been recognized as receiving agency actions from four of the five main supporting agencies. Documented dates of flood disasters in Golovin are also compiled.

Hooper Bay; Hooper Bay has been recognized as receiving agency activity for a variety of community projects from the Alaska Department of Commerce, Community and Economic Development (DCCED), the Division of Emergency Management (DEM), and the Department of Transportation & Public Facilities (DOT&PF). The airport at Hooper Bay has undergone one major project in the past 15 years and several smaller projects within the last 5 years, both funded by the Airport Improvement Program (AIP) and the Alaska General Fund (GF). Between 1978 and 2008 the document identifies two floods affecting Hooper Bay that have resulted in the declaration of a state disaster, one in 1979 and the other in 2004.

Kivalina; The Immediate Action Workgroup was established to address known threats to Alaskan communities caused by coastal erosion, thawing permafrost, flooding, and fires. This report is a follow-up to the recommendations made in April 2008, and provides recommendations for actions and policies to be implemented in 2009 and 2010. Information from the report pertaining to Kivalina is summarized below:
•“Planning: Community planning efforts need to work through issues given that its preferred relocation site has been deemed inadequate by the Corps due to permafrost soils.
•Revetment: $3.3 million from the State to the NWAB has leveraged $12.5 million from Corps for the revetment and another $500,000 for design work.
•Mapping: Complete geologic and hazard mapping to identify sites acceptable for evacuation road and relocation sites ($180,000).
•Plans: Complete Emergency Operations, Community Evacuation, and Hazard Mitigation plans. Complete training and drills.
•Community Mitigation and Relocation Planning and Coordination: DCRA/DCCED is working with the City and Tribe to develop a proposal for a community planning grant.
•Leverage Resources: Reduce state capital budget expenditures by leveraging other resources.
•DOTPF Preliminary Engineering: Coordinate state efforts with Corps for design of shoreline protection measures. The estimate for erosion control near airport is considerably higher than estimates from FEMA, and DOTPF is working with FEMA to request additional funding.”

Kotlik; Kotlik was identified as receiving agency actions from the U.S. Army Corps of Engineers (COE) and the Department of Commerce, Community, & Economic Development (DCCED).

Kwigillingok; Kwigillingok was mentioned as receiving agency actions from the Department of Commerce, Community, & Economic Development and the Division of Emergency Management for a variety of community projects. Recorded events of flooding for the community were during 1979 and 1990.

Nunam Iqua; Nunam Iqua has been recognized as receiving agency actions from the U.S. Army Corps of Engineers, Department of Commerce, Community, & Economic Development, Division of Emergency Management, and the Alaska Department of Transportation & Public Facilities. There has been one flood, in 1979, defined as a disaster event. Other events have caused damage to the airport boardwalks; projects have been pursued by the FAA to eliminate the boardwalks and construct a road for access.

Quinhagak; The community of Quinhagak has been recognized as receiving agency actions from the Division of Emergency Management. Flooding events for Quinhagak are also documented for 1979 and 2005.

Saint Michael; The community of Saint Michael has been recognized as receiving agency actions from two of the six agencies working to respond to community needs.

Scammon Bay; Scammon Bay has a reported flood in 1979, and is identified as receiving agency actions from the Division of Emergency Management.

Selawik; The community of Selawik has been recognized as receiving agency actions from the U.S. Army Corps of Engineers.

Shaktoolik; This report provides 2009 recommendations from the Immediate Action Workgroup (IAWG) to the Alaska Gover¬nor’s Subcabinet on Climate Change. Information presented in the report for Shaktoolik is summarized below.
•Priority Communities: Shaktoolik was included in the list of “communities in peril” that were the focus of the report, along with Newtok, Shishmaref, Kivalina, Koyukuk, and Unalakleet.
•Community Planning: The report recommended community planning be conducted to address threats from storm surges, erosion, and battering of logs against structures during storms.
•Emergency Planning: State funding ($400,000) and federal funding ($125,000) were provided to prepare Emergency Operations, Community Evacuation, and Hazard Mitigation plans and for training. The community identified cabins along the evacuation route that could be used in an emergency.
•Evacuation Road: The community requested $500,000 from the State of Alaska for road design. Kawerak, Inc., and the Denali Commission completed a reconnaissance study.
•Shelter: Shaktoolik is investigating the feasibility of developing an emergency shelter in the community.
•Funding: The report recommends Shaktoolik request Congress add it to the Section 117 Alaska Coastal Erosion Program. The report states Shaktoolik has been allocated $16.6 million between 1988 and 2012 for public infrastructure. Shaktoolik is eligible for funds from the Alaska Climate Change Impact Mitigation Program.
•Mapping: The DNR Division of Geological & Geophysical Surveys has funding to complete hazards mapping.
•Coordination: The Alaska Department of Transportation & Public Facilities received state funding to work with the Army Corps of Engineers and the Department of Commerce, Community & Economic Development to identify existing data and missing information. Site surveys, material source investigations, hazard mapping, geotechnical and environmental studies, and permitting studies need to be completed. The IAG recommended a phased and coordinated approach among the communities of Shishmaref, Kivalina, Shaktoolik, and Unalakleet.
•Obstacles: The report found that because there is no definite timeline or authorities for erosion control and relocation, it is difficult to coordinate and focus resources.

Shishmaref; Shishmaref is identified as needing a community plan to coordinate the various organizations involved in the responses and mitigation of flooding and erosion hazards. Flooding and erosion projects are outlined from 2009 to 2010, and additional projects necessary to mitigate these hazards are suggested.

Teller; Teller was identified as receiving agency actions from the Department of Community, Commerce & Economic Develop¬ment (DCCED) and the Division of Emergency Management (EM). A flooding event was recorded for 1990.

Unalakleet; Unalakleet has been identified as one of the communities facing imminent threats such as loss of life, loss of infrastructure, loss of public and private property, or health epidemics.
Community planning for Unalakleet is supported by Kawerak, DOT&PF, and USACE projects. Therefore the workgroup suggests the planning needs are less critical than those of the other five communities being considered. In FY2009, $5 million in state funds was appropriated to Unalakleet to leverage an additional $18.5 million from USACE to build necessary revetment structures. Coordination with DOT&PF has saved on mobilization and demobilization costs by using heavy equipment already in the community. The old high school gym has been scheduled to be torn down, and could be rebuilt on higher ground to serve as an emergency evacuation building and community center. Unalakleet has requested $1 million for this project, but submitted the request after the deadline.

Kaktovik; Kaktovik was recognized as receiving agency action from the Division of Emergency Management. A storm event is reported for Kaktovik during 2008.

BibTeX:
@techreport{IAWG2009,
  author = {Immediate Action Workgroup (IAWG)},
  title = {Recommendations to the Governor's Subcabinet on climate change},
  year = {2009},
  pages = {162},
  community = {Kivalina, Deering, Selawik, Unalakleet, Shaktoolik, Golovin, Saint Michael, Gambell, Shishmaref, Teller, Hooper Bay, Scammon Bay, Kwigillingok, Clark's Point & Ekuk, Quinhagak, Nunam Iqua (Sheldon Point), Kotlik, Barrow, Kaktovik}
Immediate Action Workgroup (IAWG) State of Alaska (SOA) Recommendations report to the Governor's Subcabinet on climate change 2008 Unalakleet, Shaktoolik, Golovin, Shishmaref, Kaktovik, Kivalina  
Review: This report provides recommendations to the Alaska Governor's Subcabinet on Climate Change by the Immediate Action Workgroup (IAWG). Community statements are provided for Golovin discussing the community’s vulnerability to storm surge hazards.

Kivalina; This report provides recommendations to the Alaska Governor’s Subcabinet on Climate Change. The Immediate Action Workgroup (IAWG) reports to this subcabinet. This report includes community profiles and immediate actions. Kivalina projects are summarized below.
•Revetment: The erosion control project involves construction of 2,000 feet on the ocean side ($16 million) and 1,300 feet of revetment on the lagoon side ($26 million).
•Third Party Review: State of Alaska will serve as third party review of geologic aspects of Corps relocation reports ($12,000). Outcome of this review is critical to moving forward on the relocation.
•Relocation Feasibility Study: The Department of Natural Resources DGGS will serve as lead for geologic mapping using CIAP funds ($180,000).

•Emergency Plans: Complete Emergency Operations Plan, Revise Community Evacuation Plan based on drills, and complete Hazard Mitigation Plan ($75,000–$100,000).
•Evacuation Road: The Denali Commission and NWAB are the lead on the feasibility study.
•Relocation Plan: The City, tribe, school, Borough and NANA need to form a local planning committee. Funding will be needed to hire a contractor to work with the community to develop the plan. Need a “how to” guide for steps needed for a relocation plan.

Shaktoolik; This report provides recommendations to the Alaska Governor’s Subcabinet on Climate Change. The Immediate Action Workgroup (IAW) reports to this subcabinet. This report includes community profiles and immediate actions. The report identified immediate priorities for Shaktoolik including a preliminary relocation site assess¬ment, an evacuation road, geologic mapping, and completion of emergency plans and training. Five specific projects were identified in the report:
1.Emergency Plans: Completion of training and Emergency Operations, Community Evacuation, and Hazard Mitigation Plans.
2.Evacuation Road: Completion of a reconnaissance study for an evacuation road.
3.Cabins: Identify cabins that should be built along the evacuation road for emergency housing and a 30kw generator.
4.Relocation Site: Completion of a preliminary site relocation assessment.
5.Relocation Plan: Form a local planning committee to complete a relocation plan (tribe, city, school, village corporation, and Kawerak).

Shishmaref; Shishmaref was one of six communities addressed in this report as needing immediate action from the state regarding threats to erosion and flooding.
To protect the washeteria and lagoon in Shishmaref, the subcabinet recommends the construction of an extension on the Army Corps revetment already under contract. The cost for this project, estimated at $25 million, would be shared between the Corps and the State. The contents of this report also advise Shishmaref residents to begin plan¬ning and training for a suite of emergency operations that will prepare the community for emergency evacuation.
According to this report, a local planning committee has formed with the intent of developing a relocation plan. Relocation siting and reconnaissance assessments need to be conducted for a relocation road, new airport, and new community location. At the time of publication, the Corps of Engineers had been approved to begin a relocation feasibility study but funds were not yet appropriated.

Unalakleet; This report provides recommendations to the Alaska Governor’s Subcabinet on Climate Change by the Immediate Action Workgroup (IAWG). Unalakleet has been identified as susceptible to erosion damages. Another potential threat is the presence of logs from the Yukon River, which can be destructive during storm surges. The recom¬mended $12.8 million erosion mitigation project is a 1,500-foot-long rock revetment, which would be construc¬ted along an existing gabion revetment. Projects to address imminent threats are the development of emergency plans and training/drills, revetment design/construction, and local street rehabilitation projects.

Kaktovik; Kaktovik was mentioned as one of nine communities under examination of the nature of imminent threats from flooding and erosion.

BibTeX:
@techreport{Black2008,
  author = {Immediate Action Workgroup (IAWG)},
  title = {Recommendations report to the Governor's Subcabinet on climate change},
  year = {2008},
  pages = {86},
  community = {Unalakleet, Shaktoolik, Golovin, Shishmaref, Kaktovik, Kivalina}
Interior Rivers RC&D Council Alaska Department of Commerce, Community & Economic Development, Division of Community Advocacy Kwigillingok airport improvements historic test hole locations 2004 Kwigillingok  
Review: This map is an orthophoto that shows test hole locations for soils around the Kwigillingok airport. The comments on the map are based on 1994 drilling results from holes drilled to a 10 foot depth.
BibTeX:
@map{Council2004,
  author = {Interior Rivers RC&D Council},
  title = {Kwigillingok airport improvements historic test hole locations},
  year = {2004},
  pages = {1},
  community = {Kwigillingok}
Ivanoff, H. Alaska Department of Commerce, Community & Economic Development, Division of Community & Regional Affairs (DCRA) Total project snapshot report, Unalakleet—Erosion control 2011 Unalakleet  
Review: This capital budget report describes the state funding necessary for erosion control measures in Unalakleet. The project objectives are completion of a U.S. Army Corps of Engineers funded seawall, development of a Hazard Mitigation Plan, and selection of a site for an emergency evacuation shelter. Unalakleet has requested $4,550,000 to extend the project and ensure timely completion of a rock revetment that extends around the mouth of the river. The state approved $1,741,000 of funding for the start of summer 2011.
BibTeX:
@techreport{Ivanoff2011,
  author = {Ivanoff, Herbert},
  title = {Total project snapshot report, Unalakleet—Erosion control},
  year = {2011},
  number = {TPS report 54091v1},
  pages = {6},
  community = {Unalakleet}
Johnson, W.R. and Kowalik, Z. Modeling of storm surges in the Bering Sea and Norton Sound 1986 Unalakleet, Shaktoolik, Golovin, Saint Michael, Savoonga, Gambell  
Review: Based on the results of a numerical model used to examine sea level, currents, and ice distribution during Bering Sea storm events, the authors suggest that the presence of land-fast ice in Norton Sound has a measurable effect on the size and onshore arrival time of storm surge events. Both land-fast and pack ice are included as parameters in the model runs. The model is validated using observations and measurements from the February 1982, March 1982, and November 1974 storm events and reproduces observations of sea ice redistribution during these storm events.
BibTeX:
@article{Johnson1986,
  author = {Johnson, Walter R. and Kowalik, Zygmunt},
  title = {Modeling of storm surges in the Bering Sea and Norton Sound},
  journal = {Journal of Geophysical Research},
  year = {1986},
  volume = {91},
  number = {C4},
  pages = {5119-5128},
  community = {Unalakleet, Shaktoolik, Golovin, Saint Michael, Savoonga, Gambell}
Jones, B.M., Hinkel, K.M., Arp, C.D. and Eisner, W.R. Modern erosion rates and loss of coastal features and sides, Beaufort Sea coastline, Alaska 2008 Kaktovik  
Review: Scientific abstract: “This study presents modern erosion rate measurements based upon vertical aerial photography captured in 1955, 1979, and 2002 for a 100 km segment of the Beaufort Sea coastline. Annual erosion rates from 1955 to 2002 averaged 5.6 m a-1. However, mean erosion rates increased from 5.0 m a-1 in 1955–79 to 6.2 m a-1 in 1979–2002. Furthermore, from the first period to the second, erosion rates increased at 60% (598) of the 992 sites analyzed, decreased at 31% (307), and changed less than ±30 cm at 9% (87). Historical observations and quantitative studies over the past 175 years allowed us to place our erosion rate measurements into a longer-term context. Several of the coastal features along this stretch of coastline received Western place names during the Dease and Simpson expedition in 1837, and the majority of those features had been lost by the early 1900s as a result of coastline erosion, suggesting that erosion has been active over at least the historical record. Incorporation of historical and modern observations also allowed us to detect the loss of both cultural and historical sites and modern infrastructure. U.S. Geological Survey topographic maps reveal a number of known cultural and historical sites, as well as sites with modern infrastructure constructed as recently as the 1950s, that had disappeared by the early 2000s as a result of coastal erosion. We were also able to identify sites that are currently being threatened by an encroaching coastline. Our modern erosion rate measurements can potentially be used to predict when a historical site or modern infrastructure will be affected if such erosion rates persist.”
BibTeX:
@article{Jones2008,
  author = {Jones, Benjamin M. and Hinkel, Kenneth M. and Arp, Christopher D. and Eisner, Wendy R.},
  title = {Modern erosion rates and loss of coastal features and sides, Beaufort Sea coastline, Alaska},
  journal = {Arctic},
  year = {2008},
  volume = {61},
  pages = {361-372},
  community = {Kaktovik}
Jordan, J. and Mason, O. A 5000 year record of intertidal peat stratigraphy and sea level change from northwest Alaska 1999 Shishmaref DOI URL 
Review: This study presents data to suggest a regional sequence of sea-level variation in the Chukchi Sea. Radiocarbon dates from marsh peat sequences along the northwest portion of the Seward Peninsula provide information about the timing of eustatic and storm-controlled changes in sea level during the late Holocene. The location under investigation included areas adjacent to Shishmaref, along the barrier island system of the peninsula.
BibTeX:
@article{Jordan1999,
  author = {Jordan, J.W. and Mason, O.K.},
  title = {A 5000 year record of intertidal peat stratigraphy and sea level change from northwest Alaska},
  journal = {Quaternary International},
  year = {1999},
  volume = {60},
  pages = {37 - 47},
  url = {http://www.sciencedirect.com/science/article/B6VGS-3Y9X895-3/2/b00fc06641a513a07ae93d8ed1afec33},
  doi = {DOI: 10.1016/S1040-6182(99)00005-1},
  community = {Shishmaref}
Jorgenson M.T. and Brown, J. Classification of the Alaskan Beaufort Sea coast and estimation of carbon and sediment inputs from coastal erosion 2005 Kaktovik  
Review: Scientific abstract: “A regional classification of shoreline segments along the Alaskan Beaufort Sea Coast was developed as the basis for quantifying coastal morphology, lithology, and carbon and mineral sediment fluxes. We delineated 48 mainland segments totaling 1,957 km, as well as 1,334 km of spits and islands. Mainland coasts were grouped into five broad classes: exposed bluffs (313 km), bays and inlets (235 km), lagoons with barrier islands (546 km), tapped basins (171 km), and deltas (691 km). Sediments are mostly silts and sands, with occasional gravel, and bank heights generally are low (2–4 m), especially for deltas (<1 m). Mean annual erosion rates (MAER) by coastline type vary from 0.7 m/year (maximum 10.4 m/year) for lagoons to 2.4 m/year for exposed bluffs (maximum 16.7 m/year). MAERs are much higher in silty soils (3.2 m/year) than in sandy (1.2 m/ year) to gravelly (0.3 m/year) soils. Soil organic carbon along eroding shorelines (deltas excluded) range from 12 to 153 kg/m2 of bank surface down to the water line. We assume carbon flux out from depositional delta sediments is negligible. Across the entire Alaskan Beaufort Sea Coast, estimated annual carbon input from eroding shorelines ranges from -47 to 818 Mg/km/year (Metric tons/km/year) across the 48 segments, average 149 Mg/ km/year (for 34 nondeltaic segments), and total 1.8 to-105 Mg/year. Annual mineral input from eroding shorelines ranges from 1,863 (accreting) to 15,752 Mg/ km/year, average 2,743 Mg/km/year, and totals 3.3-106 Mg/year.”
BibTeX:
@article{Jorgenson2005,
  author = {Jorgenson, M.T., and Brown, J.},
  title = {Classification of the Alaskan Beaufort Sea coast and estimation of carbon and sediment inputs from coastal erosion},
  journal = {Geo-Marine Letters},
  year = {2005},
  volume = {25},
  pages = {69-80},
  community = {Kaktovik}
Jorgenson, T. and Ely, C. Topography and flooding of coastal ecosystems on the Yukon-Kuskokwim Delta, Alaska: Implications for sea-level rise 2001 Hooper Bay, Scammon Bay  
Review: This study includes the comparison of vegetation, sedimentation, and annual peak flooding conditions at varying elevations within coastal ecosystems on the Yukon–Kuskokwinm Delta. These relationships were then used to evaluate which coastal ecosystems are most susceptible to tidal inundation from sea-level rise. The study site was located along the Kashunuk River and Angyoyaravak Bay, directly southeast of Hooper Bay.
BibTeX:
@article{Jorgenson2001,
  author = {Jorgenson, Torre and Ely, Craig},
  title = {Topography and flooding of coastal ecosystems on the Yukon-Kuskokwim Delta, Alaska: Implications for sea-level rise},
  journal = {Journal of Coastal Research},
  year = {2001},
  volume = {17},
  number = {1},
  pages = {124-136},
  community = {Hooper Bay, Scammon Bay}
Kapsch, M.-L., Eicken, H. and Robards, M. Siku: Knowing Our Ice: Springer Science Business Media B.V. 2010 Savoonga, Gambell DOI  
Review: In this chapter from the Sea Ice Knowledge and Use project, the authors correlate reported weather and ice conditions with favorable walrus hunting conditions in the vicinity of Gambell and Savoonga, Alaska. Since walrus are dependent upon sea ice distribution and abundance, the ability of indigenous people to hunt the animal reflects surface climatology locally and regionally. The study focus is from 2006–2008, during a significantly low minimum summer ice extent in the Pacific.
BibTeX:
@book{Kapsch2010,
  author = {Kapsch, Marie-Luise and Eicken, Hajo and Robards, Martin},
  title = {Siku: Knowing Our Ice: Springer Science Business Media B.V.},
  publisher = {Springer},
  year = {2010},
  volume = {Chapter 5 Sea ice distribution and ice use by indigenous walrus hunters on St. Lawrence Island, Alaska},
  pages = {115-144},
  doi = {http://dx.doi.org/10.1007/978-90-481-8587-0_1},
  community = {Savoonga, Gambell}
Kaufman, D.S., Forman, S.L., Lea, P.D. and Wobus, C.W. Age of pre-late-Wisconsin glacial-estuarine sedimentation, Bristol Bay, Alaska 1996 Clark's Point & Ekuk  
Review: In this study, Pleistocene glacial–estuarine sediments from an intertidal environment in northeastern Bristol Bay, Alaska, were dated using multiple methods to determine the age of the mud in the tidal flats. These dates were representative of the Nushagak Formation and Halfmoon Bay drift, which were found to be consistent with other geochronological data to indicate pre–late-Wisconsin deposition.
BibTeX:
@article{Kaufman1996,
  author = {Kaufman, Darrell S. and Forman, Steven L. and Lea, Peter D. and Wobus, Cameron W.},
  title = {Age of pre-late-Wisconsin glacial-estuarine sedimentation, Bristol Bay, Alaska},
  journal = {Quaternary Research},
  year = {1996},
  volume = {45},
  number = {0006},
  pages = {59-72},
  community = {Clark's Point & Ekuk}
Kaufman, D.S., Manley, W.F., Wolfe, A.P., Hu, F.S., Preece, S.J., Westgate, J.A. and Forman, S.L. The last interglacial to glacial transition, Togiak Bay southwestern Alaska 2001 Clark's Point & Ekuk DOI  
Review: This article includes a description for the maximum extent of late Pleistocene glaciers in the northwestern Bristol Bay region of Alaska. The author used examinations of the physical stratigraphy and paleoecology of the coastal bluff environment in Togiak Bay to determine the last interglacial to glacial transition of the area.
BibTeX:
@article{Kaufman2001,
  author = {Kaufman, Darrell S. and Manley, William F. and Wolfe, Alexander P. and Hu, Feng Sheng and Preece, Shari J. and Westgate, John A. and Forman, Steve L.},
  title = {The last interglacial to glacial transition, Togiak Bay southwestern Alaska},
  journal = {Quaternary Research},
  year = {2001},
  volume = {55},
  pages = {190-202},
  doi = {http://dx.doi.org/10.1006/gres.2001.2214},
  community = {Clark's Point & Ekuk}
Kinney, T.C. Shannon & Wilson, Inc. Summary of geotechnical recommendations for proposed runway and access road stabilization Shaktoolik, Alaska 1981 Shaktoolik  
Review: This is the original geotechnical report for improvements to the Shaktoolik airport located adjacent to the local fish plant. The suggested improvements included lengthening the runway, building a taxiway and parking apron, and reconstructing the airport access road. Many of the subsurface materials explorations consisted of clean sands or rounded aggregates, which are unsuitable for airport traffic, because of the ease of slipping and rutting. Materials would have to be mixed from multiple sites and crushed to become suitable. This report was based on a materials investigation by the State of Alaska; the author did not visit the site or examine samples.
BibTeX:
@techreport{Kinney1981,
  author = {Kinney, Thomas C.},
  title = {Summary of geotechnical recommendations for proposed runway and access road stabilization Shaktoolik, Alaska},
  year = {1981},
  pages = {12},
  community = {Shaktoolik}
Klein, J., Scott, M. and Sterin, B.B. U.S. Bureau of Land Management (BLM) Unalakleet National Wild River, Alaska—Resource values and in-stream flow assessment 2000 Unalakleet  
Review: The primary objective of the work summarized in this report was to determine the quality and amount of habitat available to Unalakleet River salmon. This report contains synthetic monthly stream discharge data, developed using varying gauges information to simulate flow in the Unalakleet River between 1976 and 1994. Sediment characteristics are reported indirectly as habitat indications.
BibTeX:
@techreport{Klein2000,
  author = {Klein, Joe and Scott, Mike and Sterin, Bunny B.G.},
  title = {Unalakleet National Wild River, Alaska—Resource values and in-stream flow assessment},
  year = {2000},
  pages = {37},
  community = {Unalakleet}
Kneeland, P., Phillips, C. and Jerolmack, D. Coastal erosion on the Baldwin Peninsula in arctic Alaska 2011 Kivalina, Deering, Selawik URL 
Review: This is a poster available online describing coastal erosion research conducted on the Baldwin Peninsula in Kotzebue Sound. Individual erosion hot spots, surveyed in 2009, are analyzed for possible modes of erosion. The potential impacts of erosion within the region are briefly discussed and the trends are interpreted through the context of global climate change.
BibTeX:
@electronic{Pennsylvania2011,
  author = {Kneeland, Patrick and Phillips, Colin and Jerolmack, Doug},
  title = {Coastal erosion on the Baldwin Peninsula in arctic Alaska},
  year = {2011},
  url = {http://www.sas.upenn.edu/earth/PatrickKneeland.jpg},
  community = {Kivalina, Deering, Selawik}
Kowalik, Z. Storm surges in the Beaufort and Chukchi Seas 1984 Barrow, Point Lay  
Review: This article describes a numerical model designed to determine storm surge characteristics including sea level, mean currents and ice motion on the Beaufort and Chukchi Seas. The equations employed by the model proved to be effective in predicting sea ice edge locations during three modeled storm surge events. Velocity was shown to parallel sea level contours in both the Beaufort and Chukchi Seas, generating gyres around offshore storm surge bulges.
BibTeX:
@article{Kowalik1984,
  author = {Kowalik, Z.},
  title = {Storm surges in the Beaufort and Chukchi Seas},
  journal = {Journal of Geophysical Research},
  year = {1984},
  volume = {89},
  number = {C6},
  pages = {10,570-10,578},
  community = {Barrow, Point Lay}
Krupnik, I., Apangalook Leanard, S. and Apangalook, P. Siku: Knowing Our Ice: Springer Science Business Media B.V. 2010 Savoonga, Gambell DOI  
Review: In this chapter from the Sea Ice Knowledge and Use project, the authors discuss the outcome of an observational study of ice and weather conditions in Gambell, Alaska. In an effort to develop a systematic way of recording daily ice and weather patterns, indigenous community members were recruited to collect data for incorporation into scientific studies. This chapter describes the history and scope of documented observations in Gambell over a 33-month period from 2006–2009. Observations include descriptions of seasonal ice and weather variation, as well as a record of subsistence hunting activities.
BibTeX:
@book{Krupnik2010,
  author = {Krupnik, Igor and Apangalook, Leanard, Sr. and Apangalook, Paul},
  title = {Siku: Knowing Our Ice: Springer Science Business Media B.V.},
  publisher = {Springer},
  year = {2010},
  volume = {Chapter 4 "Its cold, but not cold enough": observing ice and climate change in Gambell, Alaska, in IPY 2007-2008 and beyond},
  pages = {81-114},
  doi = {http://dx.doi.org/10.1007/978-90-481-8587-0_1},
  community = {Savoonga, Gambell}
Lantuit, H. and Pollard, W. Fifty years of coastal erosion and retrogressive thaw slump activity on Herschel Island, southern Beaufort Sea, Yukon Territory, Canada 2008 Kaktovik DOI  
Review: The aim of this study is to assess patterns and rates of coastal erosion an ice-rich coast over a period of 48 yrs at Herschel Island, which is southeast of Kaktovik, Alaska. The authors identify thermal-mechanical processes of thawing permafrost, melting ground ice, and wave action as determining factors of erosion rates. Erosion rates were determined using orthorectified airphoto imagery from 1952 and 1970 and Ikonos images from 2000. The total area of retrogressive thaw slumps was found to increase by 125% and 160% for 1952 and 2000.
BibTeX:
@article{Lantuit2008,
  author = {Lantuit, H. and Pollard, W.H.},
  title = {Fifty years of coastal erosion and retrogressive thaw slump activity on Herschel Island, southern Beaufort Sea, Yukon Territory, Canada},
  journal = {Geomorphology},
  year = {2008},
  volume = {95},
  pages = {84-102},
  doi = {http://dx.doi.org/10.1016/j.geomorph.2006.07.040},
  community = {Kaktovik}
Lau, D. U.S. Army Corps of Engineers, Pacific Ocean Division Regional integration team spearheads development of guidance critical to Alaska coastal erosion program 2010 Kivalina, Unalakleet  
Review: This release announces that the Secretary of the Army has been authorized to carry out structural and non-structural projects for storm damage prevention and reduction, coastal erosion, and ice and glacial damage in Alaska under the Energy and Water Development Appropriations Act of 2010. This allows for the continuation of projects in Unalakleet, Kivalina, Shishmaref, and Newtok.
BibTeX:
@unpublished{Lau2010,
  author = {Lau, David},
  title = {Regional integration team spearheads development of guidance critical to Alaska coastal erosion program},
  year = {2010},
  pages = {2},
  note = {Fort Shafter, HI},
  community = {Kivalina, Unalakleet}
Lea, P.D. Pleistocene glacial tectonism and sedimentation on a macrotidal piedmont coast, Ekuk, Bluffs, southwestern Alaska 1990 Clark's Point & Ekuk  
Review: This paper is meant to simplify glacial histories in the Nushagak lowland of Bristol Bay, Alaska. The glacially deformed features at Ekuk are described in detail; however, an analysis of the mechanics of the forming events could not be completed because of the nature of the eroded environment.
BibTeX:
@article{Lea1990,
  author = {Lea, Peter D.},
  title = {Pleistocene glacial tectonism and sedimentation on a macrotidal piedmont coast, Ekuk, Bluffs, southwestern Alaska},
  journal = {Geological Society of America Bulletin},
  year = {1990},
  volume = {102},
  pages = {1230-1245},
  community = {Clark's Point & Ekuk}
Lea, P.D., Elias, S.A. and Short, S.K. Stratigraphy and paleoenvironments of Pleistocene nonglacial deposits in the southern Nushagak Lowland, southwestern Alaska, U.S.A. 1991 Clark's Point & Ekuk  
Review: This article includes results of a study on pollen and beetle analyses of Pleistocene sediments in the Nushagak lowland of Bristol Bay, Alaska. The main focus of the study was to determine the record of Pleistocene nonglacial events predating the last glaciations. The authors found an indication of two Pleistocene nonglacial units and describe their composition.
BibTeX:
@article{Lea1991,
  author = {Lea, Peter D. and Elias, Scott A. and Short, Susan K.},
  title = {Stratigraphy and paleoenvironments of Pleistocene nonglacial deposits in the southern Nushagak Lowland, southwestern Alaska, U.S.A.},
  journal = {Arctic and Alpine Research},
  year = {1991},
  volume = {23},
  number = {4},
  pages = {375-391},
  community = {Clark's Point & Ekuk}
Lynch, A., Curry, J., Brunner, R. and Maslanik, J. Toward an integrated assessment of the impacts of extreme wind events on Barrow, Alaska 2004 Barrow  
Review: A project is presented in this paper that aims to improve local understanding of climate variability in Barrow in order to improve local decision making regarding marine and coastal resource management. Included is an overview of the oceanic setting of Barrow on the North Slope. There are several insets that expand on topics, including the ways in which climate change, mineral resource extraction and political issues threaten subsistence lifestyles and how perceptions of local residents corroborate scientific measurements of a changing climate. Central to this article is an overview of meteorological patterns, including shifting winds and reduced snow cover duration, which have been associated with climate change and may have direct impacts on the residents of Barrow.
The authors describe policy research that is being organized and coordinated through continuing discussion seminars that bring together residents and project personnel. In these meetings the primary goals are analysis (what is happening), synthesis (what are the regional impacts) and communication. The project is designed to assess the quality and practical use of various information sources, to create a record of how communities have been responding to natural disaster events and to tap into local knowledge that can guide future research.
BibTeX:
@article{Lynch2004,
  author = {Lynch, A.H. and Curry, J.A. and Brunner, R.D. and Maslanik, J.A.},
  title = {Toward an integrated assessment of the impacts of extreme wind events on Barrow, Alaska},
  journal = {American Meteorological Society},
  year = {2004},
  volume = {85},
  number = {2},
  pages = {209-221},
  community = {Barrow}
Lynch, A.H. and Brunner, R.D. Context and climate change: an integrated assessment for Barrow, Alaska 2007 Barrow DOI  
Review: The purpose of this study is to examine the vulnerability of the community of Barrow to flooding and erosion problems through the lens of social conditions and priorities. The authors highlight that sound science cannot reduce the uncertainty associated with natural hazard events, they merely clarify underlying dynamics. The ideas held by local community members about climate change are reported as contributors to the human interaction with the natural world. Traditional knowledge is identified as the main basis for decision and policy making within the community.
BibTeX:
@article{Lynch2007,
  author = {Lynch, Amanda H. and Brunner, Ronald D.},
  title = {Context and climate change: an integrated assessment for Barrow, Alaska},
  journal = {Climate Change},
  year = {2007},
  volume = {82},
  pages = {93-111},
  doi = {http://dx.doi.org/10.1007/s10584-006-9165-8},
  community = {Barrow}
Lynch, A.H., Cassano, E.N., Cassano, J.J. and Lestak, L.R. Case studies of high wind events in Barrow, Alaska—Climatological contexts and development processes 2003 Barrow  
Review: Scientific abstract: “The Beaufort–Chukchi cyclones of October 1963 and August 2000 produced the highest winds ever recorded in Barrow, Alaska. In both cases, winds of 25 m/s were observed with gusts unofficially reported at 33 m/s. The October 1963 storm caused significant flooding, contaminated drinking water, and interrupted power supplies. The August 2000 storm caused the wreck of a $6 million dredge, and removed roofs from 40 buildings. Both storms were unusual in that they tracked eastward from the East Siberian Sea into the Chukchi and Beaufort Seas, rather than following a more typical northward track into the Arctic Ocean. This paper addresses, through modeling and analysis, the development processes of these two storms. The October 1963 system was a long-lived, warm core, zonally elongated cyclone that traversed around the Arctic basin through the Canadian Archipelago. The August 2000 system was an open-wave cyclone that dissipated rapidly into a weak, cold core eddy in the Alaskan sector of the Beaufort Sea. Approximating the contributions to development using terms in a quasigeostrophic omega equation, it was found that both storms were characterized by the increasing importance of the convergence of the Q vector (representing differential vorticity advection and thermal advection) in the midtroposphere, at the expense of forcing by the turbulent fluxes of heat, moisture, and momentum in the boundary layer. However, the influence of surface turbulent fluxes in the early stages of development was important, particularly for the August 2000 cyclone, which passed over an extensive coastal lead in the East Siberian Sea. This study concludes that the observed retreat in western Arctic ice cover is unlikely to be an important contributor to increasing cyclonic activity in the region, but that ice retreat north of Eurasia could have an impact.”
BibTeX:
@article{Lynch2003,
  author = {Lynch, Amanda H. and Cassano, Elisabeth N. and Cassano, John J. and Lestak, Leanne R.},
  title = {Case studies of high wind events in Barrow, Alaska—Climatological contexts and development processes},
  journal = {Monthly Weather Review},
  year = {2003},
  volume = {131},
  pages = {719-732},
  community = {Barrow}
Lynch, A.H., Lestak, L.R., Uotila, P., Cassano, E.N. and Xie, L. A factorial analysis of storm surge flooding in Barrow, Alaska 2008 Barrow DOI  
Review: The intent of this study is to test a methodology that may be used to fill the predictive gap between forecasted weather and flood inducing storms. Return periods for high wind events are associated with intense cyclones; however, the return periods for these cyclones are changing in a non-linear way. Simulation of events were modeled as a mesoscale atmospheric model and a storm surge model. The atmospheric model exhibited high simulation quality and compared well to available data at the Barrow National Weather Service site. The storm surge model performed well, but has not previously been used in this type of setting before. Using these two models allows for a method of analysis linking forecast weather to likelihood of a flood. The most significant correlation revealed that forecasts of strong (30 mph) sustained (20h+) winds are the most reliable predictor of severe flood events in the Barrow area.
BibTeX:
@article{Lynch2008,
  author = {Lynch, Amanda H. and Lestak, Leanne R. and Uotila, Petteri and Cassano, Elizabeth N. and Xie, Lian},
  title = {A factorial analysis of storm surge flooding in Barrow, Alaska},
  journal = {Monthly Weather Review},
  year = {2008},
  volume = {136},
  pages = {898-912},
  doi = {http://dx.doi.org/10.1175/2007MWR2121.1},
  community = {Barrow}
Lynn, K. and Donoghue, E. University of Oregon Climate change--Realities for Alaska Native Vvllages 2011 Kivalina, Shishmaref  
Review: This summary was produced as part of the Tribal Climate Change Profile Project to increase knowledge among tribal and non-tribal organizations through the illustration of innovative approaches to addressing climate change challenges. Included is a brief summary of the issues involved with village relocation in Alaska and the history behind village dependence on federal funding. The residents of Shishmaref began exploring relocation in 2001. There are worldwide research efforts focused on collecting perspectives on relocation and resettlement in the circumpolar north including Kivalina, Shishmaref, and Koyukuk. This document contains a useful table of publications, websites, video resources, and news articles on the topic of village relocation.
BibTeX:
@unpublished{Lynn2011,
  author = {Lynn, Kathy and Donoghue, Ellen},
  title = {Climate change--Realities for Alaska Native Vvllages},
  year = {2011},
  pages = {5},
  note = {Tribal Climate Change Project},
  community = {Kivalina, Shishmaref}
Magdanz, J.S., Tahbone, S., Ahmasuk, A., Koster, D.S. and Davis, B.L. Alaska Department of Fish and Game, Division of Subsistence (DOS) Customary trade and barter in fish in the Seward Peninsula area, Alaska 2007 Shaktoolik  
Review: This regional field study, conducted in 2005, includes a section on Shaktoolik. Only three of the 13 households that attended a public meeting agreed to participate in the survey. In response, the study was expanded to include a focus group of elders. The participants in this study discussed trade for fish throughout their lifetimes.
BibTeX:
@techreport{Magdanz2007,
  author = {Magdanz, James S. and Tahbone, Sandra and Ahmasuk, Austin and Koster, David S. and Davis, Brian L.},
  title = {Customary trade and barter in fish in the Seward Peninsula area, Alaska},
  publisher = {Alaska Department of Fish and Game (ADF&G)},
  year = {2007},
  number = {Technical Paper No. 328},
  pages = {126},
  community = {Shaktoolik}
Mahoney, A., Eicken, H., Graves, A., Shapiro, L. and Cotter, P. Landfast sea ice extent and variability in the Alaskan arctic derived from SAR imagery 2004 Barrow, Point Lay, Kaktovik  
Review: This is a report that explains the use and reliability of a new technique using synthetic aperture radar (SAR) to derive seaward landfast ice edge positions as they migrate. The presented data spans the Alaskan Arctic coast, from east of Point Lay to the Mackenzie Delta.
BibTeX:
@proceedings{Mahoney2004,
  author = {Mahoney, Andy and Eicken, Hajo and Graves, Allison and Shapiro, Lew and Cotter, Patrick},
  title = {Landfast sea ice extent and variability in the Alaskan arctic derived from SAR imagery},
  journal = {Geoscience and Remote Sensing Symposium, IGARSS '04 Proceedings, IEEE International},
  year = {2004},
  volume = {3},
  pages = {2146-2149},
  community = {Barrow, Point Lay, Kaktovik}
Mahoney, A., Eicken, H. and Shapiro, L. How fast is sea ice? A study of the attachment and detachment of nearshore ice at Barrow, Alaska 2007 Barrow  
Review: This is a report that explains the use and reliability of a new technique using synthetic aperture radar (SAR) to derive seaward landfast ice edge positions as they migrate. The presented data spans the Alaskan Arctic coast, from east of Point Lay to the Mackenzie Delta.
BibTeX:
@article{Mahoney2007,
  author = {Mahoney, Andrew and Eicken, Hajo and Shapiro, Lewis},
  title = {How fast is sea ice? A study of the attachment and detachment of nearshore ice at Barrow, Alaska},
  journal = {Cold Regions Science and Technology},
  year = {2007},
  volume = {47},
  pages = {233-255},
  community = {Barrow}
Manley, W., Jordan, J., Lestak, L., Mason, O., Parrish, E. and Sanzone, D. University of Colorado at Boulder Coastal erosion since 1950 along the southeast Chukchi Sea, Alaska, based on both GIS and field measurements 2007 Kivalina  
Review: This is an abstract for a poster presentation on the measured changes in the nearshore coastal environment in Northwest Alaska. Field measurements of the region included repeat photography, mapping of sediments and landforms, and ground-truth measurements of coastal profiles. Erosion rates were determined using the USGS DSAS extension to ArcGIS, and attributed to coastal sensitivity the increased “frequency and intensity of storm events, increasing temperatures, permafrost melting, sea-level rise, and the increasing length of summer ice-free season.” The erosion rates were found to change temporally and spatially throughout the region, but an average of 0–3 m/yr of erosion was experienced from Wales to Kivalina over the last five decades.
BibTeX:
@proceedings{Manley2007,
  author = {Manley, W.F. and Jordan, J.W. and Lestak, L.R. and Mason, O.K. and Parrish, E.G. and Sanzone, D.M.},
  title = {Coastal erosion since 1950 along the southeast Chukchi Sea, Alaska, based on both GIS and field measurements},
  booktitle = {38th International Arctic Workshop},
  year = {2007},
  pages = {90–92},
  community = {Kivalina}
Mark, D. U.S. Army Corps of Engineers, Research and Development Center Reformulation of Water-surface elevation frequency-of-occurence relationships for Kivalina, Alaska 2003 Kivalina  
Review: This study used a methodology similar to Scheffner and Miller’s (1998) study using computer-generated wind fields more representative of storms that impact Kivalina. This study did not incorporate the effects of tides or the sea ice extents. No calibration or verification of the model was performed and the calculations resulted in an estimate that the 100-year flood is 16.3 feet above MLLW in Kivalina.
BibTeX:
@unpublished{Mark2003,
  author = {Mark, D.},
  title = {Reformulation of Water-surface elevation frequency-of-occurence relationships for Kivalina, Alaska},
  year = {2003},
  note = {Vicksburg, MS},
  community = {Kivalina}
Mars J.C. and Houseknecht, D. Quantitative remote sensing study indicates doubling of coastal erosion rate in past 50 yr along a segment of the Arctic coast of Alaska 2007 Barrow, Kaktovik  
Review: Scientific abstract: “A new quantitative coastal land gained-and-lost method uses image analysis of topographic maps and Landsat thematic mapper short-wave infrared data to document accelerated coastal land loss and thermokarst lake expansion and drainage. The data span 1955–2005 along the Beaufort Sea coast north of Teshekpuk Lake in the National Petroleum Reserve in Alaska. Some areas have undergone as much as 0.9 km of coastal erosion in the past 50 yr. Land loss attributed to coastal erosion more than doubled, from 0.48 km2/yr during 1955–1985 to 1.08 km2/yr during 1985–2005. Coastal erosion has breached thermokarst lakes, causing initial draining of the lakes followed by marine flooding. Although inland thermokarst lakes show some uniform expansion, lakes breached by coastal erosion display lake expansion several orders of magnitude greater than inland lakes.”
BibTeX:
@article{Mars2007,
  author = {Mars, J.C., and Houseknecht, D.W.},
  title = {Quantitative remote sensing study indicates doubling of coastal erosion rate in past 50 yr along a segment of the Arctic coast of Alaska},
  journal = {Geology},
  year = {2007},
  volume = {35},
  number = {7},
  pages = {583-586},
  community = {Barrow, Kaktovik}
Martinson, M.A. Alaska Department of Transportation & Public Facilities (DOT&PF) Engineering geology and soils report Kivalina Airport 1984 Kivalina  
Review: This report summarizes findings from a field trip to Kivalina for airport improvements. The authors found that the island is composed of primarily medium sand, but locally sandy gravel is present. Major storms have generated waves that cross the island. Beach grass provides stability and is the primary reason the island has not washed away. Local destruction of grass by dogs, 4-wheelers, and foot traffic has resulted in some erosion from storms. The document states that “it would be imprudent to borrow material from seaward side of the island because it would magnify the effects from erosion.” It also warns that no obstructions should be placed on the beach due to the possibility of turbulence scouring beach materials.
BibTeX:
@techreport{Martinson1984,
  author = {Martinson, Mark A.},
  title = {Engineering geology and soils report Kivalina Airport},
  year = {1984},
  number = {Poject Number: D21332},
  pages = {18},
  community = {Kivalina}
Mason, O., Neal, W.J. and Pilkey, O.H. Living with the coast of Alaska 1998 Statewide  
Review: Statewide or general reference. See foreword.
BibTeX:
@book{Mason1998,
  author = {Mason, Owen and Neal, William J. and Pilkey, Orrin H.},
  title = {Living with the coast of Alaska},
  publisher = {Duke University Press},
  year = {1998},
  pages = {348},
  community = {Statewide}
Mason, O.K. Alaska Department of Natural Resources, Division of Geological and Geophysical Surveys (DGGS) Geological and anthropological considerations in relocating Shishmaref, Alaska 1996 Shishmaref  
Review: This is a reconnaissance study of the surficial geology and engineering properties of geologic materials at pos¬sible relocation sites suggested by the City of Shishmaref. The sites include Ear Mountain, Tin Creek, and Nunatak Bluff. The report provides a background on the threats the community faces due to erosion at its current location, and also contains a geologic map of the area.
BibTeX:
@techreport{Mason1996,
  author = {Mason, Owen K.},
  title = {Geological and anthropological considerations in relocating Shishmaref, Alaska},
  year = {1996},
  number = {96-7},
  pages = {18},
  community = {Shishmaref}
Mason, O.K. and Jordan, J.W. Minimal late Holocene sea level rise in the Chukchi Sea--arctic insensitivity to global change? 2002 Kivalina, Deering, Selawik, Unalakleet, Shaktoolik, Golovin, Saint Michael, Savoonga, Gambell, Shishmaref, Teller, Point Lay  
Review: In this article, Mason and Jordan outline the apparent disconnect between late Holocene global sea level rise and the moderate sea level rise observed in Northwest Alaska. Radiocarbon ages taken from peat and storm deposits in Seward Peninsula lagoons allowed for the reconstruction of a sea level curve spanning the last 6,000 years. The results indicate that sea level in northwestern Alaska has risen an average 0.3 mm per year compared to the global average of 1–2 mm per year. The authors suggest several hypotheses for these differing rates including cold sea surface temperatures (limited steric expansion), geoid variation and/or the development of permafrost. Although observed rates of sea level rise are moderate for the Chukchi Sea, the article cautions that the response of northern Alaska’s coasts to future global climate change remains uncertain and requires continued investigation.
BibTeX:
@article{Mason2002,
  author = {Mason, Owen K. and Jordan, James W.},
  title = {Minimal late Holocene sea level rise in the Chukchi Sea--arctic insensitivity to global change?},
  journal = {Global and Planetary Change},
  publisher = {Elsevier},
  year = {2002},
  volume = {32},
  pages = {13-23},
  community = {Kivalina, Deering, Selawik, Unalakleet, Shaktoolik, Golovin, Saint Michael, Savoonga, Gambell, Shishmaref, Teller, Point Lay}
Matthews J.V., J. Quaternary environments at Cape Deceit (Seward Peninsula, Alaska): evolution of a tundra ecosystem 1974 Deering  
Review: This paper discusses the Quaternary environment of Cape Deceit, Alaska, adjacent to the community of Deering. Analyses were conducted based on exposed, unconsolidated sediments containing pollen and biotic fossils. By interpreting samples from the stratigraphy, a chronology of tundra evolution was constructed. The chronology suggests that since the last glaciation the area has undergone former periods of warmer climate with less tree cover.
BibTeX:
@article{Matthews1974,
  author = {Matthews, J.V., Jr.},
  title = {Quaternary environments at Cape Deceit (Seward Peninsula, Alaska): evolution of a tundra ecosystem},
  journal = {Geological Society of America Bulletin},
  publisher = {Geological Society of America},
  year = {1974},
  volume = {85},
  number = {9},
  pages = {1353-1384},
  community = {Deering}
Maynard and Partch Alaska Department of Commerce, Community & Economic Development, Division of Community & Regional Affairs (DCRA) Capital Improvements Program briefing paper: Yukon Kuskokwim needs assessment and regional plan 1984 Hooper Bay, Scammon Bay, Kwigillingok, Clark's Point & Ekuk, Quinhagak, Nunam Iqua (Sheldon Point), Kotlik  
Review: This report identifies the multi-year capital improvement needs for 50 communities in the Yukon–Kuskokwim Region. The region was chosen for study because of the rapid change from subsistence to cash-based economy. The capital improvements are summarized in tables for each community and are at a scale that will bring substantial benefits to the region.
BibTeX:
@techreport{Maynard1984,
  author = {Maynard and Partch},
  title = {Capital Improvements Program briefing paper: Yukon Kuskokwim needs assessment and regional plan},
  year = {1984},
  pages = {79},
  community = {Hooper Bay, Scammon Bay, Kwigillingok, Clark's Point & Ekuk, Quinhagak, Nunam Iqua (Sheldon Point), Kotlik}
McCulloch, D.S., Taylor, D.W. and Rubin, M. Stratigraphy, non-marine mollusks, and radiometric dates from Quaternary deposits in the Kotzebue Sound area, western Alaska 1965 Kivalina, Deering, Selawik  
Review: This article provides detailed information and ages of Quaternary stratigraphic units in Kotzebue Sound spanning multiple marine transgressions and glaciations. The defined units are based on analysis of fossil assemblages exposed in the coastal bluff environment that are consistently observed in the regional stratigraphy. Units were assigned ages based on mollusk samples collected from the Baldwin Peninsula and Kobuk River.
BibTeX:
@article{McCulloch1965,
  author = {McCulloch, David S. and Taylor, Dwight W. and Rubin, Meyer},
  title = {Stratigraphy, non-marine mollusks, and radiometric dates from Quaternary deposits in the Kotzebue Sound area, western Alaska},
  journal = {The Journal of Geology},
  publisher = {JSTOR},
  year = {1965},
  volume = {73},
  pages = {442-453},
  community = {Kivalina, Deering, Selawik}
McKinnon, M. Denali Commission Draft proposal transportation system analysis community sites in proximity to the Delong Mountain terminal 2008 Kivalina  
Review: McKinnon, M., March 2008, Draft proposal, transportation system analysis, community sites in proximity to the Delong Mountain terminal: Denali Commission.
The Denali Commission developed this draft proposal to conduct a transportation-based analysis of relocating Kivalina to a site near the Red Dog Mine port. The study would investigate areas north and south of the port that would not be exposed to the elevated natural hazard risks at the current village site. The proposed study would accomplish the following:

•Investigate cost savings for fuel, power, and freight,
•Investigate opportunities for gravel and rock,
•Evaluate the pros and cons of using existing aviation services while a new airport is constructed,
•Look into costs for a road to river resources if the location is north of the port, and
•Investigate funding partnerships among government agencies.

BibTeX:
@techreport{McKinnon2008,
  author = {McKinnon, M.},
  title = {Draft proposal transportation system analysis community sites in proximity to the Delong Mountain terminal},
  year = {2008},
  community = {Kivalina}
Mikulski, P. Kawerak Inc. Golovin local economic development plan 2009-2013 2009 Golovin  
Review: Mikulski, Pearl, of Kawerak, Inc., for the Chinik Eskimo Community, the City of Golovin, and the Bering Strait Development Council, June 2009, Golovin local economic development plan 2009–2013: Kawerak, Inc., 77 p.
This document is required by AS 29.40.030 to define policy statements, goals, and standards for the physical, social, and economic development of Golovin. The ten economic development priorities include:
1.Water and sewer with a year-round water source.
2.Relocation of generator building with the addition of alternative energy options.
3.Rock quarry development and heavy equipment purchasing.
4.Erosion control due to a lack of a breakwater barrier.
5.Roads that include access to subsistence areas.
6.Building a new community store.
7.Building a small boat harbor.
8. Community zip code and new post office.
9. Building a recreational and daycare facility.
10.Crosswind runway meeting minimum FAA standards.
BibTeX:
@techreport{Mikulski2009,
  author = {Mikulski, Pearl},
  title = {Golovin local economic development plan 2009-2013},
  year = {2009},
  pages = {77},
  community = {Golovin}
Mikulski, P. Kawerak Inc. Savoonga local economic development plan 2009-2013 2009 Savoonga  
Review: AS 29.40.030 requires Savoonga to adopt a comprehensive plan to define policy statements, goals, and standards for the physical, social, and economic development of the community.
This plan provides the community with a complete inventory of existing demographics, social conditions and services, economic conditions and activities, public services, and public and private facilities. This inventory was compiled in an effort to equip the community with basic informational tools for local planning.
One of the top 12 economic development priorities of this plan is to develop a Hazard Mitigation Plan for the community. Savoonga is subject to coastal erosion and flooding during the storm season. Beaches have historically been susceptible to damage and erosion due to storm conditions, tidal surges, and sea ice conditions. The coastal erosion from storms in 2003, 2004 and 2005 caused elevated concern in the community.
Other economic development priorities directly impacting the coastal zone include buying new search and rescue vehicles, building storage facilities for those vehicles, and constructing a new harbor, dock, and causeway.
BibTeX:
@techreport{Mikulski2009a,
  author = {Mikulski, Pearl},
  title = {Savoonga local economic development plan 2009-2013},
  publisher = {Kawerak, Inc.},
  year = {2009},
  pages = {84},
  community = {Savoonga}
Mikulski, P. Kawerak Inc. Local economic development plan Saint Michael 2005-2010 2004 Saint Michael  
Review: This plan was completed to facilitate and consolidate efforts to implement development strategies to
subsequently increase cultural heritage, local employment opportunities, decrease dependency, and reduce
duplication of efforts in various projects and programs. The planning process is based on the methods
developed by the Institute of Cultural Affairs and the Denali Commission–USDA–RD–Alaska Humanities
Forum Community Strategic Plan Guide and Form. The top 10 overall community development projects
include:
1. More housing—The community is growing, and big families are in small houses, causing overcrowding.
Also, old houses need to be fixed.
2. Improve roads—Improvements are needed to control dust, erosion, fix potholes, widen roads, and fill
sunken areas in the community.
3. Build a public safety building—The current building is too small and not equipped with the necessary tools
to operate. The town has is no extra office space available. There are inadequate holding cells with no
running water, no beds, no bathrooms or showers, no kitchen, no supplies, and no lights.
4. Record traditional dances, songs, and stories from St. Michael and other villages—There is a need to
revive dances and songs, and getting the youth, elders, and surrounding villages involved. The dances and
stories should be documented for the future.
5. Make a community comprehensive plan with our entities and Stebbins—Better services are needed to
ensure that everyone works together. This involves enhancing communication among all ages. Support is
needed between one another on common ground.
6. Build shelter cabins along the winter trails and summer waterways—Hunters and travelers need shelters
for inclement weather, to provide protection to those who break down or for emergency purposes like bad
weather and sunken vehicles.
7. Develop a public information system that includes television, radio, newspaper, and local postings.
8. Extend the road access from Clear Lake to the canal river and build a small safe boat harbor—needed for
subsistence gathering and hunting, berry picking, wood gathering, safe access, and viewing.
9. Build a new teen center—The building is needed for fun activities, dances, and a drug-free place for all
ages. This will be a place to have teen meetings, youth group activities, and family parties.
10. Build a dock on St. Michael Bay—This would be to reduce the cost of living and to increase economic
growth.
BibTeX:
@techreport{Mikulski2004,
  author = {Mikulski, Pearl},
  title = {Local economic development plan Saint Michael 2005-2010},
  publisher = {Kawerak, Inc.},
  year = {2004},
  pages = {62},
  community = {Saint Michael}
Miller, T.P., Elliott, R.L., Finch, W.I. and Brooks, R.A. U.S. Geological Survey (USGS) Preliminary report on uranium-, thorium-, and rare-earth bearing rocks near Golovin, Alaska 1976 Golovin  
Review: The USGS found considerable concentrations of uranium-, thorium-, and rare-earth-bearing rocks about 15 miles northeast of Golovin. These deposits are associated with alkaline dikes, and with allanite, which covers at least 250 square km, and which is of great economic interest. This report was a brief study of alteration and/or mineralization associated with these dikes and their relation to similar dikes and rocks that occur elsewhere in the province.
BibTeX:
@techreport{Miller1976,
  author = {Miller, Thomas P. and Elliott, Raymond L. and Finch, Warren I. and Brooks, Robert A.},
  title = {Preliminary report on uranium-, thorium-, and rare-earth bearing rocks near Golovin, Alaska},
  year = {1976},
  number = {Open-file report 76-71},
  pages = {13},
  community = {Golovin}
Missal, LLC Rural Alaska Mitigation Planning (RAMP) and Northwest Arctic Borough Northwest Arctic Borough multi-jurisdictional all-hazard mitigation plan 2009 Deering, Selawik  
Review: This plan was developed to help the Northwest Arctic Borough make decisions regarding natural hazards affecting its communities and to fulfill requirements of the Disaster Mitigation Act and the National Flood Insurance Reform Act for future grant funding. The region is separated by community and delineated for hazard type and hazard probability.

Deering; The main hazards identified and described for Deering are erosion, flooding, and severe weather.

Selawik; The main hazards identified and described for Selawik are flooding and erosion, with moderate risks associated with severe weather.

BibTeX:
@techreport{RAMP2009,
  author = {Missal, LLC},
  title = {Northwest Arctic Borough multi-jurisdictional all-hazard mitigation plan},
  year = {2009},
  pages = {166},
  community = {Deering, Selawik}
Mofjeld, H.O. Observed tides on the northeastern Bering Sea Shelf 1986 Savoonga, Gambell  
Review: The author uses measurements from a bottom-pressure gauge array deployed between 1981 and 1982 on the Bering Sea shelf to examine the relationship between observed and modeled tidal fluctuations. The presented results include an improved identification of amphidromic node locations and a discussion of the influence of sea ice on tidal predictions in this region. The author emphasizes that considerable work is still necessary to account for spatial and seasonal departures of tidal observations from modeled predictions in this sparsely instrumented region.
BibTeX:
@article{Mofjeld1986,
  author = {Mofjeld, Harold O.},
  title = {Observed tides on the northeastern Bering Sea Shelf},
  journal = {Journal of Geophysical Research},
  year = {1986},
  volume = {91},
  number = {C2},
  pages = {2593-2606},
  community = {Savoonga, Gambell}
Muhs, D.R., Ager A., T., Been Josh, Bradbury, J.P. and Dean, W.E. A late Quaternary record of eolian silt deposition in a maar lake, St. Michael Island western Alaska 2003 Saint Michael  
Review: Wind-blown sediments are sensitive to overall moisture balance, land-surface stability, and degree of vegetation cover, making eolian sediments one of the most important terrestrial records of climate change. Investigators have demonstrated that it is possible to obtain long and detailed eolian records from lake sediments. Zagoskin Lake, on St. Michael Island, western Alaska, was chosen to test to see whether an eolian record, particularly for the late Wisconsin period, could be obtained.
BibTeX:
@article{Muhs2003,
  author = {Muhs, Daniel R. and Ager A., Thomas and Been, Josh, and Bradbury, J. Platt and Dean, Walter E.},
  title = {A late Quaternary record of eolian silt deposition in a maar lake, St. Michael Island western Alaska},
  journal = {Quaternary Research},
  year = {2003},
  volume = {60},
  pages = {110-122},
  note = {U.S. Geological Survey},
  community = {Saint Michael}
Munter, J.A. Alaska Department of Natural Resources, Division of Water, Alaska Hydrologic Survey Evaluation of ground water at a proposed wastewater disposal site, Gambell, Alaska 1994 Gambell  
Review: The goals of this investigation were to identify ground-water flow systems and quality beneath the proposed lagoon site at Gambell, and determine the probable effect of the percolation lagoon on those systems. The design may be susceptible to damage from the presence of highly permeable beach gravels throughout the area, irregular occurrences of permafrost, and storm-driven fluctuations in ground-water levels.
BibTeX:
@techreport{Munter1994,
  author = {Munter, James A.},
  title = {Evaluation of ground water at a proposed wastewater disposal site, Gambell, Alaska},
  publisher = {Alaska Division of Geological and Geophysical Surveys(DGGS)},
  year = {1994},
  number = {Public Data File 94-28},
  pages = {74},
  community = {Gambell}
Nakao, K., Chikita, K., Nakaya, S., Urakami, K. and Ishii, Y. Palaeoenvironment in St. Lawrence Island, Alaska 1986 Gambell, Savoonga  
Review: To validate hypotheses about ice sheet expansion in the northern hemisphere during Ice Ages, the authors collected quantitative paleorecords of precipitation and atmospheric temperatures from the sedimentary record on St. Lawrence Island. The objective of this study was to investigate the climatic effects of ocean-derived moisture during the construction of ice sheets. Sedimentary structures and permafrost base depths were inferred from electrical depth soundings at six sites and from two lake sediment cores (core logs are included in text). A chemical analysis of inland water and core sediments revealed the quantity and extent of salts derived from marine sources, showing spikes during the most recent marine transgressions.
BibTeX:
@article{Nakao1986,
  author = {Nakao, Kinshiro and Chikita, Kazuhisa and Nakaya, Shyu and Urakami, Koichi and Ishii, Yoshiyuki},
  title = {Palaeoenvironment in St. Lawrence Island, Alaska},
  journal = {Journal of the Faculty of Science, Hokkaido University},
  year = {1986},
  volume = {8},
  number = {1},
  pages = {15-27},
  note = {series 7},
  community = {Gambell, Savoonga}
Nielson, J.M. North Slope Borough Planning Department Kaktovik, Alaska—An overview of relocations 1977 Kaktovik  
Review: Kaktovik has served as a barter station between Barrow and Canadian Eskimos on their way to Neglik on the Colville River, or Nunamiut journeying to Herschel Island. Kaktovik remained un-westernized until Western culture and economics were introduced by military activities.

The first relocation of Kaktovik in 1952 was induced by the building of an Air Force air strip in the village. All structures were hauled 1,650 yards up the beach to the northwest. The new village site was along a slowly-eroding section of beach and in the landing pattern of the airfield. Because of changes in the DEW line, the village was relocated again in 1953. The new village was moved in the same manner as the first relocation, planting the village further to the west and a little further back from the beach. The village remained at this location until 1964, when the village was again moved to accommodate expanding Air Force facilities. Unlike other moves, the village actively participated in this move. The new village site was located on the east shore of the island facing Kaktovik Lagoon, on 280.29 acres. The site is on silty soils with a complete absence of gravel.
This study was an attempt to assess the past and present relationships between the U.S. Navy, the U.S. Air Force and the northern Eskimo village of Kaktovik, Alaska, specifically how land withdrawals were established,the priorities involved, and their impact on this village.

BibTeX:
@techreport{Nielson1977,
  author = {Nielson, Jon M.},
  title = {Kaktovik, Alaska—An overview of relocations},
  year = {1977},
  pages = {26},
  note = {for City of Kaktovik and North Slope Borough Commission on History and Culture},
  community = {Kaktovik}
Okleasik, T. Northwest Planning and Grants Development Community strategic development plan for Gambell 2004-2009 2003 Gambell  
Review: This is an extension and evaluation of the previous local economic development plan for Gambell, Alaska. These plans analyze local conditions, identify problems and opportunities, and develop goals, strategies, and outcomes to address community issues. Planning processes are based on methods developed by the Institute of Cultural Affairs, and the Denali Commission–USDA-RD–Alaska Humanities Forum Community Strategic Plan Guide and Form. The community development project priority related to coastal hazards has been identified as the construction of a boat harbor. The harbor would help to ensure safe landing for visitors, hunters, barges, fishermen, cruise ships, and would help to export mining and other products.
BibTeX:
@techreport{Okleasik2003,
  author = {Okleasik, Tom},
  title = {Community strategic development plan for Gambell 2004-2009},
  publisher = {Northwest Planning and Grants Development},
  year = {2003},
  pages = {48},
  community = {Gambell}
Olson, N.F. and Crosby, B.T. Digital mapping of coastal erosion on the Baldwin Peninsula, NW Alaska--Past rates, current processes, future implications 2007 Kivalina, Deering, Selawik URL 
Review: This poster presents research conducted on the Baldwin Peninsula, Alaska. High-resolution topographic surveys, field observations, and interpretation of aerial imagery were used to determine erosion rates and mechanisms at the narrowest point on the peninsula and to provide a baseline for future measurements. The motivation for conducting this research was to address concern about a potential breach of a narrow (700 m) portion of the peninsula, which would have significant navigation and ecological implications for the area.
BibTeX:
@misc{Olson2007,
  author = {Olson, Neil F. and Crosby, Ben T.},
  title = {Digital mapping of coastal erosion on the Baldwin Peninsula, NW Alaska--Past rates, current processes, future implications},
  year = {2007},
  note = {vol.88, no. 52 Abstract GC33A-0962},
  url = {http://geology.isu.edu/~crosby/research/pubs_posters/Olson_Crosby_Baldwiin_Peninsula_Erosion_AGU_2007.pdf},
  community = {Kivalina, Deering, Selawik}
Oozeva, C., Noongwook, C., Noongwook, G., Alowa, C. and Krupnik, I. Watching ice and weather our way, sikumengllu eslamengllu esghapalleghput 2004 Savoonga, Gambell  
Review: This book was the result of a four-year partnership between Alaska Native hunters from two Yupik Eskimo communities on St. Lawrence Island, and sea ice experts. The authors documented and evaluated the changes noted by residents in order to observe environmental change using traditional ecological knowledge.
Included in the book are translations for 99 different types of sea ice with illustrated examples. There are also specific observations/stories of weather-related phenomena that include ice formation, hunting practices, and storms.
BibTeX:
@book{Oozeva2004,
  author = {Oozeva, Conrad and Noongwook, Chester and Noongwook, George and Alowa, Christina and Krupnik, Igor},
  title = {Watching ice and weather our way, sikumengllu eslamengllu esghapalleghput},
  publisher = {Arctic Studies Center, National Museum of Natural History, Smithsonian Institution, Washington DC},
  year = {2004},
  pages = {207},
  community = {Savoonga, Gambell}
Oswalt, W. The origin of driftwood at Hooper Bay, Alaska 1951 Hooper Bay  
Review: The author of this study sought to identify the origin of spruce trees deposited on the coastline adjacent to the village of Hooper Bay. Fourteen samples were compared to wood samples from around the region and other possible source locations. The origins of each of the trees are discussed, all that could be identified based on tree ring sequences were associated with regions within Alaska. The author suggests that similar driftwood origin studies may supply information about ocean current force, speed, and direction.
BibTeX:
@article{Oswalt1951,
  author = {Oswalt, Wendell},
  title = {The origin of driftwood at Hooper Bay, Alaska},
  journal = {Tree Ring Bulletin},
  year = {1951},
  volume = {18},
  number = {1},
  pages = {6-8},
  note = {University of Alaska, College, Alaska},
  community = {Hooper Bay}
Overland, J. and Raoch, A. Northward flow in the Bering and Chukchi Seas 1987 Savoonga, Gambell, Point Lay  
Review: The Bering Strait is the only avenue for the exchange of ice, water, heat, and nutrients between the Pacific and Arctic Oceans. The authors use a two-dimensional, barotropic numerical model for the Bering Sea and Chukchi Sea shelves to investigate the relationship between sea levels and regional transport patterns. This provides additional evidence that Bering Strait transport and regional circulation patterns are driven by Pacific Ocean–Arctic Ocean sea level difference. The authors also use the model to qualitatively critique previous subregional observation-based studies.
BibTeX:
@article{Overland1987,
  author = {Overland, J.E. and Raoch, A.T.},
  title = {Northward flow in the Bering and Chukchi Seas},
  journal = {Journal of Geophysical Research},
  year = {1987},
  volume = {92},
  number = {C7},
  pages = {7097-7105},
  community = {Savoonga, Gambell, Point Lay}
Owens, E. and Harper, J. Coastal Studies Institute, Louisiana State University Frost-table and thaw depths in the littoral zone near Peard Bay, Alaska 1977 Barrow  
Review: The objective of this study was to determine how rates of thaw in the littoral zone on the coast of Peard Bay compare to previously reported thaw rates, whether any variations exist in depth of thaw across the beach, and whether any alongshore variations exist in the depth of thaw. The major factors found to lower the level of the frost-table and increase depth of thaw were increasing temperature and net radiation, decreasing snow cover, and the presence of open water in the nearshore zone.
BibTeX:
@techreport{Owens1977,
  author = {Owens, E.H. and Harper, J.r.},
  title = {Frost-table and thaw depths in the littoral zone near Peard Bay, Alaska},
  publisher = {Geography Programs, Office of Naval Research},
  year = {1977},
  pages = {155-168},
  community = {Barrow}
Petrie, B. Alaska Village Electric Cooperative (AVEC) Application for renewable energy fund grant Alaska Energy Authority, Teller, Alaska wind feasibility analysis and conceptual design project 2008 Teller  
Review: This is the application for grant funding for the Renewable Energy Fund Grant from the Alaska Energy Authority for Teller, Alaska. According to the AEA Alaska high-resolution wind resource map, Teller is indicated as being a potential source of wind for energy needs (class 6 wind regime). The application asks for $117,610 for the determination of wind-resource suitability. The estimated possible displacement of diesel fuel for the communi¬ties of Teller and Brevig Mission amounts to $255,664 annually. This would provide energy for the 87 homes of Teller and the 76 homes of Brevig Mission.
BibTeX:
@techreport{Petrie2008,
  author = {Petrie, Brent},
  title = {Application for renewable energy fund grant Alaska Energy Authority, Teller, Alaska wind feasibility analysis and conceptual design project},
  year = {2008},
  pages = {47},
  community = {Teller}
Pewe, T.L., Hopkins, D.M. and Lachenbruch, A.H. U.S. Geological Survey (USGS) Engineering geology bearing on harbor site selection along the northwest coast of Alaska from Nome to Point Barrow 1958 Kivalina, Deering, Selawik, Shishmaref, Teller, Barrow, Point Lay  
Review: This report provides geologic and oceanographic information from previous investigations, aerial imagery, and reconnaissance field work regarding the optimal location of a deep-water harbor. The harbor was to be constructed with the use of modern nuclear explosives and located at a point along the northwest coast of Alaska between Nome and Point Barrow. The project was not undertaken.
BibTeX:
@techreport{Pewe1958,
  author = {Pewe, Troy L. and Hopkins, David M. and Lachenbruch, Arthur H.},
  title = {Engineering geology bearing on harbor site selection along the northwest coast of Alaska from Nome to Point Barrow},
  year = {1958},
  number = {678},
  pages = {57},
  community = {Kivalina, Deering, Selawik, Shishmaref, Teller, Barrow, Point Lay}
Pilkey, O., Neal, W., Cooper, J. and Kelley, J. The world's beaches: A global guide to the science of the shoreline 2011 Statewide  
Review: Statewide or general reference. See foreword.
BibTeX:
@book{Pilkey2011,
  author = {Pilkey, O.H. and Neal, W.J. and Cooper, J.A.G. and Kelley, J.T.},
  title = {The world's beaches: A global guide to the science of the shoreline},
  publisher = {University of California Press},
  year = {2011},
  pages = {283},
  community = {Statewide}
Pungowiyi, C. Marine Mammal Commission Native observations of change in the marine environment of the Bering Strait region 2000 Deering URL 
Review: The purpose of the Marine Mammal Commission Workshop was to bring together scientists and indigenous experts to discuss the changes in mammalian populations throughout Alaska. Observed fluctuations in sea ice and other environmental parameters were reported throughout all of Kotzebue Sound. In Deering, changes in ice thickness have limited the community’s ability to hunt for bearded seal. There were also reported sightings of never-before-seen species of whales and dolphins near Deering. Changes in terrestrial mammal populations are also discussed in this document.
BibTeX:
@proceedings{Pungowiyi2000,
  author = {Pungowiyi, Caleb},
  title = {Native observations of change in the marine environment of the Bering Strait region},
  booktitle = {Impacts of Changes in Sea Ice and Other Environmental Parameters in the Arctic, Final Report of the Marine Mammal Commission Workshop, Girdwood, Alaska, 15-17 February 2000.},
  year = {2000},
  pages = {26-29},
  url = {http://www.mmc.gov/reports/workshop/pdf/seaicereport.pdf},
  community = {Deering}
Pushkar, V.S., Roof, S.R., Cherepanova, M.V., Hopkins, D.M. and Brigham-Grette, J. Paleogeographic and paleoclimatic significance of diatoms from Middle Pleistocene marine and glaciomarine deposits on Baldwin Peninsula, northwestern Alaska 1999 Selawik  
Review: The authors explain the use of diatom flora to date the stratigraphy of the Baldwin Peninsula, thus yielding new information about oceanographic conditions in Kotzebue Sound during the middle Pleistocene. Quaternary units are described for Hotham Inlet and Selawik Lake. The age, characteristics, and depositional environments of marine deposits in this region provide evidence of increased high-latitude glacier accumulation during interglacial periods. The glaciers are the result of elevated inland moisture levels caused by limited sea ice extents and shallow, warm seas.
BibTeX:
@article{Pushkar1999,
  author = {Pushkar, Vladimir S. and Roof, Steven R. and Cherepanova, Marina V. and Hopkins, David M. and Brigham-Grette, Julie},
  title = {Paleogeographic and paleoclimatic significance of diatoms from Middle Pleistocene marine and glaciomarine deposits on Baldwin Peninsula, northwestern Alaska},
  journal = {Palaeogeography, Palaeoclimatology, Palaeoecology},
  year = {1999},
  volume = {152},
  pages = {67-85},
  community = {Selawik}
Ray, D.J. The Eskimos of the Bering Straits 1650-1898 1975 Shaktoolik  
Review: The author summarizes research from early voyages to the Bering Strait and Norton Sound region of Alaska, and other written sources. Shaktoolik and the Cape Denbigh area are mentioned occasionally. Captain Cook made contact with indigenous people at Cape Denbigh on September 11, 1778. The Unalit people occupied the area before the Malemiut people migrated to the area from Kotzebue Sound, primarily from the Kobuk River and Buckland River areas.
The author speculates that the migration of the Malemiut had not begun by 1782 because written references to the pronunciation of Shaktoolik used the Unaluk rather than the Malemiut pronunciation. During 1839, Shak¬toolik was the only Malemiut village in Norton Sound, but by the 1840s Malemiut people were habitated in Unalakleet and St. Michael. The author states that it was likely Shaktoolik was abandoned by the time it was occupied by the Malemiuts. The Russian fort in St. Michael was established in 1833, and a supply post at the mouth of the Unalakleet River was established in 1838. A smallpox epidemic reached Norton Sound in 1838. The author reports that berry picking began the first week of August near Shaktoolik, and the best cranberry and blackberry grounds were located near the ocean.
BibTeX:
@book{Ray1975,
  author = {Ray, Dorothy Jean},
  title = {The Eskimos of the Bering Straits 1650-1898},
  publisher = {University of Washington Press},
  year = {1975},
  pages = {305},
  community = {Shaktoolik}
Reimnitz Erk and Maurer, D.K. Effects of storm surges on the Beaufort Sea coast, northern Alaska 1979 Barrow, Kaktovik  
Review: Scientific abstract: “In 1970, a major storm surge caused by gale-force westerly winds inundated low-lying tundra plains and deltas as far as 5000 m inland and left a driftwood line as much as 3.4 m above normal sea level along the Beaufort Sea coast of Alaska. The height of the surge followed a predictable pattern and was highest along windward-facing shorelines. Coastal retreat and thermoerosion are greatly accelerated on such west-facing shores with eastward sediment transport opposite to normal littoral drift. Evidence suggests an approximate 100-year recurrence interval for similar surges, with potential for damaging the developing oil fields on the North Slope.”
BibTeX:
@article{Reimnitz1979,
  author = {Reimnitz, Erk, and Maurer, Douglas K.},
  title = {Effects of storm surges on the Beaufort Sea coast, northern Alaska},
  journal = {Arctic},
  year = {1979},
  volume = {32},
  number = {4},
  pages = {329-344},
  community = {Barrow, Kaktovik}
Replogle, C. University of Alaska, Anchorage, Institute of Social and Economic Research Annual report of the U.S. public school for Natives of Kivalina 1911 Kivalina URL 
Review: This report includes the following passage, which is partially illegible:

“Kivalina is situated on an island in front of Corwin Lagoon, and is very beautifully situated when the weather is nice and calm, but when the wind blows from the south it raises the water in the ocean until it sometimes almost comes over the banks. It washed . . . of the south. East end of the Island . . . and the natives are beginning to talk of moving. We believe that to move would be the wiser if not the safer plan. We experienced some uneasiness last fall, as the beach is only about 100 feet from the schoolhouse and comes closer every year. The water was splashing up over the bank in places for we had a heavy south wind and it lasted for three or four days causing the rise. We believe that if it could be satisfactorily arranged, to consolidate Kivalina and Noatak villages somewhere on the Noatak river, would be a great place.”

BibTeX:
@techreport{Replogle1911,
  author = {Replogle, Clinton},
  title = {Annual report of the U.S. public school for Natives of Kivalina},
  year = {1911},
  pages = {1},
  url = {http://alaskool.org/native_ed/historicdocs/kivalina/ki900011.htm},
  community = {Kivalina}
Rodney P. Kinney Associates, Inc. Kawerak Inc., Transportation Program Shaktoolik evacuation road project route reconnaissance report 2008 Shaktoolik  
Review: The Denali Commission, Bureau of Indian Affairs (BIA) Indian Reservation Roads (IRR) Program and Kawerak, Inc., allocated funds to work on this project. The evacuation road would cost an estimated $33,398,822. It would be 14 feet wide with turnouts and extend from the village south to the foothills. The party responsible for main¬taining the evacuation road will be either the City of Shaktoolik or the Native Village of Shaktoolik.
As a result of meetings with the IRA, the new proposed route differs from the routes evaluated in the 2007 scoping report completed by the same author. The main purpose of the road is to provide an evacuation route during an emergency, but it would also be used for access to a gravel source and for subsistence hunting and fishing. The reconnaissance report splits the road into the following segments.
•Segment 1 (4.2 miles): From north of the school to the south of the former village site where the Tagoomenik River is close to Norton Sound. Raise the first 4.1 miles of the road, straighten alignment, install culverts, repair washed-out sections, resurface with crushed aggregate, install armoring, and apply dust treatment. An estimated 2,000 feet of road will need to be armored with riprap, and some of this segment will need to be raised.
•Segment 2 (5.7 miles): From Segment 1, this segment heads southeast for 2.7 miles and then south along Beeson Slough for another 3 miles. Culverts will need to be placed in this section.
•Segment 3 (4.7 miles): From Segment 2, this segment follows higher ground along Beeson Slough for 3.3 miles where it travels west to end at an existing gravel source at Norton Sound. Culverts will need to be installed in this section.
Right-of-way easements would be needed for all three segments except the in-town portion of Segment 1. Shak¬toolik’s spit is composed of course, granular sand and gravel, and its elevation ranges from sea level to about 30 feet above sea level.
Additional investigations will be needed to determine if there are areas of permafrost, what sections will need to be armored, wetlands delineations, archeological field investigations, an environmental site assessment, investigation to the extent of the material source, and where culverts need to be placed. None of the segments are anticipated to have high environmental impacts, and the costs for constructing each segment are assumed to be equal.
BibTeX:
@techreport{Kawerak2008,
  author = {Rodney P. Kinney Associates, Inc.},
  title = {Shaktoolik evacuation road project route reconnaissance report},
  year = {2008},
  pages = {15},
  community = {Shaktoolik}
Rodney P. Kinney Associates, Inc. Kawerak Inc., Transportation Program and Chinik Eskimo Community Golovin long range transportation plan 2007 Golovin  
Review: This plan outlines transportation priorities for the community of Golovin and its surrounding boundaries. The prioritized list of projects includes:
1.Upgrading the community streets in the City of Golovin with the appropriate surface material and dust control additive (total estimate of $2 million).
2.Constructing community streets in the City of Golovin with appropriate surface material and dust control additive (total estimate of $14 million).
3.Constructing proposed subsistence and economic routes (total estimate of $715 million).
4.Improving landfill road to dump (total estimate $2 million).
5.Constructing a one-lane bridge over Chinik Creek (total estimate $5 million).
6.Constructing new gravel source road (total estimate $4 million).
7.Clearing, grubbing, and flagging of existing routes encroached by willows and shrubs (total estimate $10,000 per acre).
8.Construct berm road in town (total estimate $680,000).
9.Construct water access road (total estimate $4 million).
10.Construction and upgrades to marine facilities such as boat landings, harbors, ports, barge landings, and breakwater structures (total estimate $7 million).
11.Providing route staking, navigational upgrades, and signage to inventory routes to improve safety during winter travel, prevent disorientation, and aid in rescue operations (total estimate $100,000 per mile).
This inventory of updated roads projects the need of the community over the next 20 years.
BibTeX:
@techreport{Kawerak2007,
  author = {Rodney P. Kinney Associates, Inc.},
  title = {Golovin long range transportation plan},
  year = {2007},
  number = {Indian Reservation Roads Program Number: E04177-GOLOVIN},
  pages = {14},
  community = {Golovin}
Rodney P. Kinney Associates, Inc. Kawerak Inc., Transportation Program Saint Michael long range transportation plan 2007 Saint Michael  
Review: This plan outlines transportation priorities within the community of Saint Michael and its surrounding boundaries. A prioritized list of long-term transportation road projects is listed below:
1.Upgrade the community streets in the City of Saint Michael with the appropriate surface material and dust control additive (total estimate $5 million).
2.Construct proposed community streets within the City of Saint Michael with the appropriate surface material and dust control additive (total estimate $8 million).
3.Construct proposed subsistence and economic routes (total estimate $479 million).
4.Construct boardwalks from the east end of Standard Oil Road south to Pioneer Road (total estimate $24,000).
5.Upgrade the Saint Michael–Stebbins Highway (total estimate $20 million).
6.Provide boardwalk access over utilidors (total estimate $150,000 per mile).
7.Construction and upgrades to marine facilities such as boat landings, harbors, ports, barge landings, and breakwater structures (total estimate $7 million).
8.Provide route staking, navigational upgrades, and signage to inventory routes to improve safety during winter travel, prevent disorientation, and aid in rescue operations (total estimate $100,000 per mile).
The updated list of inventory roads that the community feels are needed are for the next 20 years. The routes suggested are necessary to connect communities, allow residents access to their lands and resources for economic growth, cultural development, subsistence activities, and for public safety.
BibTeX:
@techreport{Kawerak2007a,
  author = {Rodney P. Kinney Associates, Inc.},
  title = {Saint Michael long range transportation plan},
  publisher = {Saint Michael IRA Council},
  year = {2007},
  pages = {16},
  community = {Saint Michael}
Rodney P. Kinney Associates, Inc. Kawerak Inc., Transportation Program and Indian Reservation Roads Program Unalakleet long-range transportation plan 2007 Unalakleet  
Review: This plan describes transportation priorities for Unalakleet including funding priorities of the Bureau of Indian Affairs (BIA) Indian Reservation Roads (IRR) Program. When this plan was written, the IRR program included 28.5 miles of road with about 193.2 miles of road planned to be submitted. The plan prioritized six projects:
1.Upgrade community streets ($9 million)
2.Elevate beachfront roads and construct community streets with pavement and proper drainage ($2 million)
3.Construct subsistence and economic routes ($754 million)
4.Replace North River bridge and provide erosion protection ($2 million)
5.Construction and upgrades to marine facilities ($14 million)
6.Provide route stakings, navigational upgrades, and signs to improve winter travel safety ($100,000/mile)
This list represents the community’s needs over the next 20 years for better economic growth and access to resources. The current road inventory can be viewed in table 4.1.
BibTeX:
@techreport{Kawerak2007b,
  author = {Rodney P. Kinney Associates, Inc.},
  title = {Unalakleet long-range transportation plan},
  year = {2007},
  number = {E04509-UNALAKLEET},
  pages = {81},
  community = {Unalakleet}
Rodney P. Kinney Associates, Inc. Kawerak Inc., Transportation Program and Teller Traditional Council Teller long range transportation plan 2007 Teller  
Review: This plan outlines transportation priorities for the community of Teller and its surrounding boundaries, as well as the planning for using funding from Tribal Shares monies allocated by the Bureau of Indian Affairs Indian Reservation Roads Program. The prioritized list of long-term transportation road projects is as follows:
1.Upgrade the community streets of Teller with the appropriate surface material and dust control additive (total estimate of $5 million).
2.Construct proposed community streets in Teller with the appropriate surface material and dust control additive (total estimate of $3 million).
3.Construct proposed subsistence and economic routes (total estimate $373 million).
4.Upgrade already inventoried community streets: Lakeside Drive (estimated $660,000), Landfill Road (estimated $920,000), and Bypass Road (estimated $860,000).
5.Upgrade already inventoried streets in Coyote Creek Subdivision: BIA Route 62, Ptarmigan Street, Koweluk Street, Moose Street, and Rabbit Street (total estimate of $2 million).
6.Construction upgrades to marine facilities such as boat landings, harbors, ports, barge landings, and break¬water structures, both at the original village site and the new housing location (total estimate $14 million).
7.Construct snow fencing along community routes to protect routes and reduce maintenance (total estimate $200,000 per mile).
8.Provide route staking, navigational upgrades, and signage to inventory routes to improve safety during winter travel, prevent disorientation, and aid in rescue operations (total estimate $100,000 per mile).
This list was developed for community needs over the next 20 years. The goal of this transportation plan is to ensure that the improvements and development of roads allow convenient and safe movement throughout Teller’s road system.
BibTeX:
@techreport{Kawerak2007d,
  author = {Rodney P. Kinney Associates, Inc.},
  title = {Teller long range transportation plan},
  year = {2007},
  number = {Indian Reservation Roads Program Number: E04480-TELLER},
  pages = {18},
  community = {Teller}
Rodney P. Kinney Associates, Inc. Kawerak Inc., Transportation Program Gambell long-range transportation plan 2007 Gambell  
Review: This report is a collaborative effort to evaluate the village road system, identify transportation needs, discuss alternatives, and prioritize projects for the transportation system for the City of Gambell, Alaska. The prioritized list of long term transportation road projects is as follows:
1.Construct proposed community streets in the City of Gambell (total estimated cost of $26 million).
2.Construct proposed subsistence and economic routes (total estimated cost of $570 million).
3.Construct upgrades to marine facilities such as boat landings, harbors, ports, barge landings, and breakwater structures (total estimated cost $7 million).
4.Provide route staking and navigational upgrades to inventory routes to improve safety during winter travel ($100,000 per mile of road).
5.Construct shelter cabins at the end of the evacuation route (total estimated cost $800,000).
The list of inventory roads are completed for the needs of the next 20 years, and allow for the connection of communities, residential access to their lands and resources for economic growth, cultural development, subsistence activities, and enhancing public safety.
BibTeX:
@techreport{Kawerak2007f,
  author = {Rodney P. Kinney Associates, Inc.},
  title = {Gambell long-range transportation plan},
  publisher = {Gambell IRA Council},
  year = {2007},
  number = {indian reservation roads program number: E04167-GAMBELL},
  pages = {15},
  community = {Gambell}
Rosales, J. Shaktoolik's very existence is in jeopardy 2011 Shaktoolik URL 
Review: This article discusses the potential disasters to Shaktoolik and reasons for current controversy over legislation. Historic knowledge of this area was of predictable and calm waters, which was a reason for settlement; however, in recent years, storms have become more intense and sea ice less extensive. Although the American Clean Energy and Securty Act of 2009 passed, some senators contiue to argue that climate protection is too expensive, will affect employment, and otherwise hurt the economy.
BibTeX:
@electronic{Rosales2011,
  author = {Rosales, Jon},
  title = {Shaktoolik's very existence is in jeopardy},
  year = {2011},
  url = {http://www.alaskadispatch.com/article/shaktooliks-very-existence-jeopardy},
  community = {Shaktoolik}
Rowland, J. Alaska Department of Transportation & Public Facilities (DOT&PF) Geotechnical data report, Shishmaref relocation road 2009 Shishmaref  
Review: This geotechnical report is the result of three data collection visits to the areas surrounding Shishmaref, Alaska. This report is meant to aid in development of either of two coastal materials sites, a potential access road to Ear Mountain, and a village relocation site for Shishmaref. Samples consisted of drilled core of 26–39 foot depths across the areas of interest. Detailed sieve analysis, Los Angeles abrasion testing, degradation, sodium sulfate soundness, and other analyses were completed by the Northern Region Materials Laboratory and included in this report.
BibTeX:
@techreport{Rowland2009,
  author = {Rowland, Julie},
  title = {Geotechnical data report, Shishmaref relocation road},
  publisher = {Alaska Department of Transportation and Public Facilities (ADOT&PF)},
  year = {2009},
  number = {AKSAS: 76776},
  pages = {111},
  community = {Shishmaref}
Russell Cox, S. Alaska Department of Commerce, Community & Economic Development, Division of Community & Regional Affairs (DCRA) Alaska climate change impact mitigation program 2011 Unalakleet, Shaktoolik, Shishmaref, Quinhagak  
Review: This is a powerpoint presentation about the Alaska Climate Change Impact Mitigation Program (ACCIMP) presented by Sally Cox, a planner with the Alaska Department of Commerce, Community & Regional Development. Communities that have been identified for community planning grants under this program are Kivalina, Shishmaref, Koyukuk, Unalakleet, Shaktoolik, and Newtok. Communities identified as receiving hazard-impact assessment grants are Atmautluak, Kipnuk, Elim, Nightmute, Nelson Lagoon, and Quinhagak.
BibTeX:
@techreport{Cox2011,
  author = {Russell Cox, Sally},
  title = {Alaska climate change impact mitigation program},
  year = {2011},
  pages = {28},
  community = {Unalakleet, Shaktoolik, Shishmaref, Quinhagak}
Sallenger, A. U.S. Geological Survey (USGS) Measurements of debris-line elevations and beach profiles following a major storm: Northern Bering Sea 1983 Shaktoolik, Golovin, Kotlik, Saint Michael, Teller, Unalakleet  
Review: From introduction: “During November 1974, a severe storm occurred in the Bering Sea; winds gusted to greater than 100 km/hr and barometric pressure dropped 34 mb. Combined storm surge and wave runup reached as high as 5 m along the northern Bering Sea coast of Alaska. Shortly after the storm, the northern Bering Sea froze. Following breakup in 1975 and during the ice-free season of 1976, we surveyed beach profiles and elevations of debris-lines at stations around the northern Bering Sea coast of Alaska. In this open-file report, these data are used to show the approximate magnitude of combined storm surge and wave runup in the study area.”

Shaktoolik; This report involved field surveys in Norton Sound of the debris line caused by the 1974 storm. The debris line is the result of the highest storm surge (still water level during a storm) and wave run-up. Two of the survey locations are near the existing and former Shaktoolik village site. The report found that the highest debris line in Norton Sound (5 meters) was in eastern Norton Sound, and the lowest debris line was in Norton Bay.

BibTeX:
@techreport{Sallenger1983,
  author = {Sallenger, A.H.},
  title = {Measurements of debris-line elevations and beach profiles following a major storm: Northern Bering Sea},
  year = {1983},
  number = {open file report 83-394},
  note = {Menlo Park, California},
  community = {Shaktoolik, Golovin, Kotlik, Saint Michael, Teller, Unalakleet}
Sallenger Asbury H., J. and Dingler, J.R. U.S. Geological Survey (USGS) Coastal processes and morphology of the Bering Sea coast of Alaska 1978 Nome, Unalakleet, Golovin, Kotlik, Saint Michael, Shaktoolik, Teller  
Review: The purpose of the research outlined in this paper was to characterize the regional physical environment of the Bering Sea coast of Alaska to prepare for potential oil and gas development and subsequent hazards to infrastructure and environment. The net direction of longshore transport, coastal morphology, and reconnaissance-based beach morphology and sediment characteristics were used as indicators. Measurements were taken along the Bering Sea coast of debris-line elevations that were reached during the 1974 Bering Sea storm. Coastal change was measured near Nome using nearshore coastal profiling and aerial photography during 1976 and 1977. Wave characteristics and sea level variations were also measured to check the validity of the wave model used. The specific objective of the research was to develop a coastal setback line beyond which petroleum development would not occur.
BibTeX:
@techreport{Sallenger1978,
  author = {Sallenger, Asbury H., Jr., and Dingler, John R.},
  title = {Coastal processes and morphology of the Bering Sea coast of Alaska},
  publisher = {U.S. Geological Survey},
  year = {1978},
  number = {Research Unit No. 431},
  pages = {66},
  community = {Nome, Unalakleet, Golovin, Kotlik, Saint Michael, Shaktoolik, Teller}
Schalk, M. Smith College, Department of Geology Study of near-shore bottom profiles east and southwest of Point Barrow, Alaska; comparison of profiles and the barrier islands in the Point Lay and Plover Islands areas 1963 Barrow, Point Lay  
Review: This report includes nearshore bottom profiles and sediment sample descriptions of coastal locations at Barrow, Wainwright, and Point Lay, Alaska. Repeat coastal surveys were conducted 1954-1962. Offshore of Barrow, a submerged bar that was relatively stable in the 1950s is shown to broaden and move inland in the 1962 survey data. A more complex bar system was observed in the 1950’s surveys, believed to have developed following a large storm in 1954. Surveys of the barrier islands a Point Lay highlight areas of stability and instability in the barrier island system.
BibTeX:
@techreport{Schalk1963,
  author = {Schalk, Marshall},
  title = {Study of near-shore bottom profiles east and southwest of Point Barrow, Alaska; comparison of profiles and the barrier islands in the Point Lay and Plover Islands areas},
  year = {1963},
  pages = {16},
  community = {Barrow, Point Lay}
Scheffner, N. and Miller, M. U.S. Army Corps of Engineers, Coastal and Hydraulic Laboratory Development of water surface elevation frequency-of-occurence relationships for Kivalina, Alaska 1998 Kivalina  
Review: This report states that the maximum height of the island is 9.8 feet above MLLW. The study involved use of two different models to predict the level of storm surges, including one based on storm wind fields from the North Slope. The methodology is not as accurate as computer-generated models, and did not include effects of sea ice extents, air–sea temperature differences, or the inverted barometer set-up. Actual data from 30 storms between 1954 and 1984 were used in the models. The models showed that 16 of these storms produced storm surges at Kivalina. The study estimated the 100-year storm surge to be 10.6 feet. The study found that the maximum wave runup would be about 2 meters (6.56 feet).
BibTeX:
@techreport{Scheffner1998,
  author = {Scheffner, N.W. and Miller, M.C.},
  title = {Development of water surface elevation frequency-of-occurence relationships for Kivalina, Alaska},
  year = {1998},
  community = {Kivalina}
Schmid, T. and Douthit, H.M. Alaska Department of Transportation & Public Facilities (DOT&PF) Hooper Bay airport improvements reconnaissance study 2005 Hooper Bay  
Review: In this report, the airport at Hooper Bay is considered likely to experience a major failure within the next 7–10 years; the report explores alternatives for improvements to the Hooper Bay Airport. The estimated cost of airport relocation is $24,319,274, which would move the airport facilities to higher ground, outside the floodplain. The specific design requirements are included, as well as current geological/geotechnical information.
Sediment transport along the beachfront of the airport is described as being dominated by southern movement. At the time of this report, the northern end of the runway was functioning as a groin, trapping this along-shore movement. Aerial photography from 1951 to 1994 was used to estimate beach erosion rates at an average of 3 feet per year; 2 feet per year after 1968, and 8 feet per year after 1968. These rates suggest that the airport in its current location has a 10-year lifespan. In order to ensure a 50-year lifespan for the structure, the report states that the airport would need to be relocated.
BibTeX:
@techreport{Schmid2005,
  author = {Schmid, Thomas and Douthit, Harvey M.},
  title = {Hooper Bay airport improvements reconnaissance study},
  year = {2005},
  number = {Project No. 57419},
  pages = {33},
  community = {Hooper Bay}
Scott, M. U.S. Bureau of Land Management (BLM) Photography assessment of riparian areas in the Unalakleet drainage, Alaska 2000 Unalakleet  
Review: The BLM Riparian-Wetland Initiative for the 1990s outlines policy, regulations, and guidance for the identifica¬tion, protection, restoration, and maintenance of riparian-wetland areas for BLM lands. Alaska has been identi¬fied as a “special situation” in that only a small proportion of wetlands have been disturbed. Because of the magnitude and remoteness of riverine riparian areas, a landscape-scale approach using aerial photography was used to evaluate wetland health.
The most current statewide aerial photography was flown in the 1980s at 1:60,000 and 1:40,000 scales. In this study, interpreters used a portable light table in the field to help them review reaches before and after field verification. Although most aerial photography in Alaska is old, this method was found to be 95% accurate for assessing proper functioning conditions of riparian-wetland areas in the Unalakleet Basin by the Natural Resource Conservation Service.
BibTeX:
@techreport{Scott2000,
  author = {Scott, Michael},
  title = {Photography assessment of riparian areas in the Unalakleet drainage, Alaska},
  year = {2000},
  number = {Open File Report 81},
  pages = {23},
  community = {Unalakleet}
Short, A. and Wiseman, W.J. Coastal Studies Institute, Louisiana State University Freezup processes on arctic beaches 1972 Point Lay  
Review: This paper discusses the processes observed that modified beach topography at Point Lay and Pingok Island on the North Slope of Alaska during the freeze-up period. The sequence of events observed in 1972 were:
1.Solidification of the upper beach face.
2.Formation of snow cover.
3.Deposition of ice cakes (single pieces of sea ice smaller than 10 m in diameter) on the beach.
4.Formation of ice slush in the lagoons.
5.Deposition of ice slush berms on the beach face.
6.Formation of interbedded layers of sediment and ice.
7.Formation of ice-foot features.
BibTeX:
@techreport{Short1972,
  author = {Short, A.D. and Wiseman, W.M.J. Jr.},
  title = {Freezup processes on arctic beaches},
  year = {1972},
  pages = {215-224},
  community = {Point Lay}
Simon, A. Alaska Native Tribal Health Consortium (ANTHC) and U.S. Environmental Protection Agency (EPA) Hooper Bay flood risks to human health 2010 Hooper Bay  
Review: This pamphlet provides an overview of a project designed to evaluate the level of threat that frequent flooding poses to human health in Hooper Bay. A flood risk map is under development to improve future planning efforts for the community. The researchers indicated that further information is necessary for evaluation of flood hazards in this community, including measurements of the speed and extent of erosion being inflicted on the barrier dunes protecting the village. This project was funded by the Alaska Native Tribal Health Consortium (ANTHC) through the Community Environmental Demonstration Grant Program and the Alaska Tribal Multi-Media Grant from the United States Environmental Protection Agency (EPA).
BibTeX:
@unpublished{Simon2010,
  author = {Simon, Albert},
  title = {Hooper Bay flood risks to human health},
  year = {2010},
  pages = {2},
  note = {Community Environmental Demonstration Grant Program and Alaska Tribal Multi-Media Grant},
  community = {Hooper Bay}
Simpson, J. Alaska Department of Transportation & Public Facilities (DOT&PF) Final report, task force on erosion control 1984 Kivalina, Deering, Selawik, Unalakleet, Golovin, Saint Michael, Gambell, Shishmaref, Teller, Kwigillingok, Clark's Point & Ekuk, Kotlik, Barrow  
Review: The Erosion Control Task Force was appointed to investigate and inventory potential erosion problems on a statewide basis, to prioritize the erosion problem sites by severity and need, and to provide preliminary design plans where immediate remedial action is required. Sites were rated based on public safety, public property, private property, time of projected loss, ability to move, approximate replacement value, and economic value. Projected costs of erosion protection measures were analyzed totaling $16,802,300 for all projects. This report outlines specific engineering projects to reduce the effects of coastal and riverine erosion for communities throughout Alaska.

Barrow; Erosion at Barrow is summarized in this report as being initiated by thermal erosion; the eroded material is later carried away by wave transport processes. Previous engineering measures have been taken to curtail rates of erosion in this area, but are considered short term projects. The authors of this report conclude that an in-depth analysis of erosion at Barrow would be a duplication of work being done by the North Slope Borough, and they refer the reader to recommendations made in that report.

Clark's Point Ekuk; Erosion at Clark’s Point is dominated by shoreline erosion and coastal flooding from the tides of Bristol Bay. Public and private buildings are expected to be impacted by erosion within 25 years based on current rates of erosion. A net northerly longshore transport rate was determined to be 73,000 cubic yards per year. To mitigate the erosion, either a rip rap seawall or a precast concrete and steel bulkhead retaining wall is recommended for 2600 feet of the shoreline fronting the village.

Deering; The destruction of beach grass in Deering makes the use of fuel drums, gabion baskets, or coarse rock a poor method of preventing erosion. The report suggests using natural material from the area in the original beach slope angle for erosion protection. The sand spit, however, will remain vulnerable to flooding during major storms of about ten year frequency.

Gambell; Erosion at Gambell was documented as occurring at the sand point on the edge of the airport. Because of the steep sandy beach, a rock wall was not recommended. Instead the recommendation was made to monitor the rate of erosion for changes, and to push sand onto the beach off the taxiway after storm surges.

Golovin; The erosion problem in Golovin has been identified by beach mining at the sediment source to the current village site. This report suggests using a beach fill in front of the community to stabilize the natural slope and for the community to stop all beach mining operations.

Kivalina; Erosion at Kivalina is predominantly at the north end of the airport and alongside the lagoon. For the erosion at the lagoon side, sand bags and gabion baskets are suggested along with backfill and replanting of beach grass. At the airport, gabion baskets are also suggested, but at a steeper angle. Because of the low grade slope of the beach, structures that would increase turbulence should not be used.

Kotlik; Erosion at Kotlik was shown to have affected about 3,000 feet of riverbank next to the community. Public and private buildings are expected to be impacted by erosion within 10 years based on current rates of erosion. The suggested was made to build two 250 feet concrete mats and 1,150 feet of pile and fascine revetment to reduce threats to erosion in the community.

Kwigillingok; Kwigillingok was found to have 1750 ft of the community subject to 1.4 ft of erosion per year. The community is set back from the riverside so is estimated to have erosion problems within 25 years. Storm surge, however, brings potential flooding hazards to the community. This report suggests constructing a gravel berm with a seeding to control for this hazard.

Saint Michael; The erosion at Saint Michael is occurring at the end of the airport runway. The coastal bluff that makes up the end of the runway is subject to thermal erosion and wave undercutting. The suggested solution would be to construct a riprap rock wall at the end of the runway, and fill with peat for insulation. The rock source to be used is 2 miles from the construction site.

Selawik; The mayor of Selawik was quoted as saying, “The erosion problem that existed resulted from boat-generated waves washing away the silt riverbanks”. To address this concern, the recommendation was made to use spruce logs to construct log crib walls in the few areas needing revetments.

Shishmaref; The report describes erosion at Shishmaref as being driven by storms from the Chukchi Sea. Increased water levels and wave run-up during these storm events actively undercut the banks of the island. The authors of this report suggested erosion protection in the form of 1,000 feet of rip rap or grout-filled fabric bags on the seaward side of the island.

Teller; Erosion at Teller has been dominated by storm tides on the side of Port Clarence, threatening the sewage lagoon. The sheet piled and barrel walls currently in place has been pulled toward the beach by wave action. The recom¬mendation is made to use infilling of the existing wall, and to extend the sheet pile wall to connect with the barrel walls. Materials used should be the same size as the existing beach, as to avoid eddying and undercutting.

Unalakleet; Unalakleet was identified as having a persistent erosion problem at the end of the sand spit, making buildings in town vulnerable to flooding and erosion damage. This report recommends that Unalakleet build a rock revet¬ment at the very southern tip of the spit with rock materials non-native to the area.

BibTeX:
@techreport{Simpson1984,
  author = {Simpson, J.J.},
  title = {Final report, task force on erosion control},
  year = {1984},
  number = {project no. R-30023},
  pages = {101},
  community = {Kivalina, Deering, Selawik, Unalakleet, Golovin, Saint Michael, Gambell, Shishmaref, Teller, Kwigillingok, Clark's Point & Ekuk, Kotlik, Barrow}
Sloan, C.E., Kernodle, D.R. and Huntsinger, R. U.S. Geological Survey (USGS) with U.S. Bureau of Land Management Hydrologic reconnaissance of the Unalakleet River Basin, Alaska, 1982-83 1986 Unalakleet  
Review: This report includes a record of average monthly snowfall and precipitation from 1941–1979, landcover distri¬bution for the Unalakleet basin, streamflow and runoff values, mineral concentration in water, and previous flood and fluvial erosion information.
BibTeX:
@techreport{Sloan1986,
  author = {Sloan, Charles E. and Kernodle, Donald R. and Huntsinger, Ronald},
  title = {Hydrologic reconnaissance of the Unalakleet River Basin, Alaska, 1982-83},
  year = {1986},
  number = {Report 86-4089},
  pages = {18},
  community = {Unalakleet}
Sprenke, J., Gill, S., Kent, J. and Zieserl, M. National Oceanic and Atmospheric Administration (NOAA) Tides under the ice: measuring water levels at Barrow, Alaska 2008-2010 2011 Barrow  
Review: Because of the difficulty of maintaining ocean water level sensors in the Arctic, NOAA developed a method to use the Seabird SBE26+ tide gauge in a specialized metal mount. The testing of this sensor is discussed in this paper, and long term hourly and monthly tide information is provided for Barrow, Alaska. The pressure sensor was released far enough offshore to avoid destruction from sea ice pressure ridges, but near enough to ensure retrieval of the data throughout the collection period and recovery of the gauge at the end of each year. Along with tidal elevations, water conductivity and temperature were also collected.
BibTeX:
@techreport{Sprenke2011,
  author = {Sprenke, James and Gill, Stephen and Kent, Jena and Zieserl, Mike},
  title = {Tides under the ice: measuring water levels at Barrow, Alaska 2008-2010},
  publisher = {National Oceanic and Atmospheric Administration (NOAA)},
  year = {2011},
  number = {technical report no. NOS CO-OPS 062},
  pages = {29},
  community = {Barrow}
Stankiewicz, J. The North Slope Borough Risk Management Division City of Kaktovik local all hazard mitigation plan 2005 Kaktovik  
Review: This plan was meant to fulfill the requirements to make Kaktovik eligible for disaster relief and emergency assistance from FEMA. The plan identifies hazards, establishes community goals/objectives, and outlines mitigation strategies for the natural hazards that could threaten Kaktovik. Seven hazards are identified, including coastal storm surges, erosion, and flooding.
Flooding in Kaktovik occurs from coastal storm surges that develop in the area due to the low lying topography, gradually sloping bathymetry near shore, and a long fetch. A brief storm history is provided in the report. Storm surges also cause dramatic coastal erosion at Kaktovik, but can be hindered by bottomfast ice during the winter. During the 1980s, erosion along the lagoon at Kaktovik forced the North Slope Borough to build a seawall to prevent further damage. The fall storms continue to threaten the airport runway with both flooding and erosion.
BibTeX:
@techreport{Stankiewicz2005,
  author = {Stankiewicz, Joe},
  title = {City of Kaktovik local all hazard mitigation plan},
  year = {2005},
  pages = {26},
  community = {Kaktovik}
Stevenson, T. Natural Resource Conservation Service (NRCS), Idaho Trip report Shishmaref relocation study, Shishmaref, AK September 8-12 2003 Shishmaref  
Review: This is a memorandum to Rob Sampson of SCE regarding the geology of a potential relocation site at Shishmaref, Alaska. The NRCS conducted a reconnaissance field excursion to observe the geological, river, and ground¬water processes around the Tin Creek relocation site. This memorandum summarizes results from the trip and provides potential construction uses of materials found on Ear Mountain. Materials mining procedures are suggested for large and small rocks as well as groundwater as a drinking water source.
BibTeX:
@techreport{Stevenson2003,
  author = {Stevenson, Terril},
  title = {Trip report Shishmaref relocation study, Shishmaref, AK September 8-12},
  publisher = {Natural Resource Conservation Service, U.S. Department of Agriculture},
  year = {2003},
  pages = {6},
  community = {Shishmaref}
Stickney, A. Alaska Department of Fish and Game, Division of Subsistence (DOS) Coastal ecology and wild resource use in the central Bering Sea area: Hooper Bay and Kwigillingok 1984 Hooper Bay, Kwigillingok  
Review: This report contains descriptive accounts of hunting, fishing, trapping, and gathering of wild resources in two coastal communities of the Yukon–Kuskokwim Delta. The report examines the effects of ecological and environmental conditions on subsistence activities.

Hooper Bay; Hooper Bay is one of the two communities described in terms of its climate, topography, ocean currents and sea ice, and community setting. Subsistence practices and environmental constraints are described in detail and mapped for each season.

Kwigillingok; The report examines the effects of ecological and environmental conditions on subsistence activities. Kwigillingok is a coastal plain community situated on generally low and flat land. The myriad lakes and ponds in this area are drained by rivers and sloughs that are short and shallow. The coastline is bordered by extensive tidal flats and dotted by a few sandbar islands.

BibTeX:
@techreport{Stickney1984,
  author = {Stickney, A.},
  title = {Coastal ecology and wild resource use in the central Bering Sea area: Hooper Bay and Kwigillingok},
  year = {1984},
  number = {Technical Paper No. 85},
  pages = {370},
  community = {Hooper Bay, Kwigillingok}
Stierle, A.P. and Eicken, H. Sediment inclusions in Alaskan coastal sea ice: spatial distribution, interannual variability, and entrainment requirements 2002 Barrow  
Review: The authors argue that reduction in sea ice and increased rates of erosion in the Arctic raise interest in the transport processes of sedimentation by sea ice. The numerous mechanisms for the incorporation of sediments into sea ice include: eolian deposition, river discharge onto ice, bottom adfreezing, anchor ice formation, and suspension freezing. In Elson Lagoon, near Barrow, Alaska, ice core sediment appeared diffusely distributed and fine grained, possibly due to the long fetch during freeze up. The observers noted significant natural variability, both spatially and temporally within the sea-ice cover. The results of the study strengthen the argument that environmental conditions at the time of fall freeze-up are a primary control on total sediment load and its spatial distribution within the ice.
BibTeX:
@article{Stierle2002,
  author = {Stierle, Arron P. and Eicken, Hajo},
  title = {Sediment inclusions in Alaskan coastal sea ice: spatial distribution, interannual variability, and entrainment requirements},
  journal = {Arctic, Antarctic, and Alpine Research},
  year = {2002},
  volume = {34},
  number = {4},
  pages = {465-476},
  community = {Barrow}
Taylor, R.J. Shoreline vegetation of the arctic Alaska coast 1981 Deering, Barrow, Kaktovik  
Review: This study was administered by the Outer Continental Shelf Environmental Assessment Program (OCSEAP). The primary objective of this work is to provide descriptions and definitions of vascular beach plants along the arctic coast of Alaska in order to better predict the effects of oil spills on the region’s ecosystems.

Barrow; Point Barrow was used as a research station representative of a salt marsh habitat. Vegetation in this environment is controlled by mean high water level. Tidal storms were found to influence vegetation growth because of salt burn, represented by varying degrees of plant tissue death.

Deering; Deering was used as a research station representative of a coastal-bluff-dominated habitat. This environment was associated with high rates of coastal erosion, low vegetative cover, and a poorly defined plant community assemblage.

Kaktovik; Barter Island, on which Kaktovik is located, was used as a research station representative of the salt marsh habitat. The vegetation of this environment was controlled by mean high water level. Tidal storms were found to influence vegetal growth because of salt burn, represented by varying degrees of necrosis.

BibTeX:
@article{Taylor1981,
  author = {Taylor, Ronald J.},
  title = {Shoreline vegetation of the arctic Alaska coast},
  journal = {Arctic},
  year = {1981},
  volume = {34},
  number = {1},
  pages = {37-42},
  community = {Deering, Barrow, Kaktovik}
Tetra Tech, Inc. U.S. Army Corps of Engineers, Alaska District Shishmaref relocation and collocation study Shishmaref, Alaska, preliminary costs of alternatives 2004 Shishmaref  
Review: This report is an evaluation of the projected costs of four alternative courses of action being considered in res¬ponse to the ongoing erosion of Sarichef Island. The first alternative would be for the community of Shishmaref to remain in its present location on Sarichef Island, requiring the installation and periodic maintenance of engi¬neered coastal structures to slow erosion rates (total preliminary cost $42,277,500+). The second alternative would include relocating south across the saltwater lagoon to an area on the mainland called the Tin Creek site (total cost $179,320,500). For the third alternative, the residents of Shishmaref would move to the City of Nome (total cost $93,208,350). For the fourth alternative, the residents of Shishmaref would move to the City of Kotzebue (total cost $140,626,350). The calculation of each of these preliminary cost projections is described in detail in the report.
BibTeX:
@techreport{TetraTech2004,
  author = {Tetra Tech, Inc.},
  title = {Shishmaref relocation and collocation study Shishmaref, Alaska, preliminary costs of alternatives},
  publisher = {Tetra Tech, Inc.},
  year = {2004},
  pages = {133},
  community = {Shishmaref}
Thomas, D. Alaska Department of Fish and Game, Division of Subsistence (DOS) The role of local fish and wildlife resources in the community of Shaktoolik, Alaska 1982 Shaktoolik  
Review: The Alaska Department of Fish & Game completed this study in anticipation of state and federal oil and gas leasing in Norton Sound. Prior to this study, little data existed on subsistence use by the community. The City Council approved this research project, although they had concerns that information could attract sport hunters and that documentation of illegal harvests could be used against residents. The author conducted the research for the study September–December 1980. The methodology included informal discussions, formal interviews, observations, diet calendars, mapping, and a literature review. While the author had subsistence users indicate where they obtained resources on maps, those maps were not included in the final study. The study found that most residents followed a yearly cycle of subsistence activities and that sharing of subsistence foods was impor¬tant. Most subsistence activities occur in the spring, summer, and fall, and commercial fishing is the dominant activity in the summer for most households. Species harvested include beluga whales, seals (ugruk, ringed, and spotted), birds (ducks, geese, and cranes), eggs (seagull, waterfowl, and murres), salmon (king, dog, pink, and silver salmon), other fish (trout, herring, herring eggs, tomcod, lingcod, wolf fish, rockfish, cigarfish), and shellfish (crabs, mussels, and clams). The study also includes information about flooding and ice hazards.
BibTeX:
@techreport{Thomas1982,
  author = {Thomas, D.},
  title = {The role of local fish and wildlife resources in the community of Shaktoolik, Alaska},
  year = {1982},
  community = {Shaktoolik}
Thorsteinson, L.K., Becker, P.R. and Hale, D.A. National Oceanic and Atmospheric Administration (NOAA) The Yukon Delta a synthesis of information 1989 Unalakleet, Hooper Bay, Scammon Bay, Nunam Iqua (Sheldon Point), Kotlik  
Review: This document contains a synthesis of physical and ecological information about the Yukon–Kuskokwim River Delta. “[Since 1974], the Outer Continental Shelf Environmental Assessment Program has administered oceanographic research to characterize the environmental components and processes of the Alaskan Outer Continental Shelf.” This research, once primarily based on oil and gas exploration, has provoked interest about the importance of the physical and biological habitats of the delta.

The physical environment is described in terms of geomorphology, hydrology, bathymetry, sedimentology, coastal circulation, hydrography, and environmental sensitivity mapping. The biological environment is described in terms of primary productivity, invertebrates, fisheries, avifauna, and mammals.
Areas of research highlighted as in need of further exploration are ice-edge effects, prevailing sea ice movements to the southwest, and subsurface northwesterly transport of Norton Sound water masses. If oil and gas exploration develops, more work must be conducted to determine the effects that this activity would have on the estuarine habitat.

Unalakleet; Mean monthly wind statistics from Unalakleet were used to illustrate the large-scale wind field affecting the Yukon Delta. This included the average wind speed and direction during specific seasons.

BibTeX:
@techreport{Thorsteinson1989,
  author = {Thorsteinson, Lyman K. and Becker, Paul R. and Hale, David A.},
  title = {The Yukon Delta a synthesis of information},
  year = {1989},
  number = {OCS Study, MMS 89-0081},
  pages = {89},
  community = {Unalakleet, Hooper Bay, Scammon Bay, Nunam Iqua (Sheldon Point), Kotlik}
U.S. Army Corps of Engineers, Alaska District Request for proposals, coastal erosion control, Unalakleet, Alaska 2008 Unalakleet  
Review: This document contains site plans and survey control for the coastal erosion control project in Unalakleet, including revetment section schematics.
BibTeX:
@misc{COE2008,
  author = {U.S. Army Corps of Engineers, Alaska District},
  title = {Request for proposals, coastal erosion control, Unalakleet, Alaska},
  year = {2008},
  pages = {12},
  community = {Unalakleet}
Unalakleet Planning Organization Kawerak Inc., Community Planning and Development Program Unalakleet local economic development plan 2009-2013 2009 Unalakleet  
Review: AS 29.40.030 requires that Unalakleet adopt a comprehensive plan to “define policy statements, goals, and standards for the physical, social, and economic development of the community.” This plan is a part of the “ongoing effort to improve community conditions and well-being of its members.” The plan outlines ten economic development priorities for Unalakleet. These include priorities related to coastal hazards such as erosion con¬trol, development of a hazard mitigation plan, building/designing an emergency shelter, and protecting water transmission lines along the coast.
Other priorities include new waterline construction and a new water tank/source, building an elder assisted-living facility, energy-waste heat installation/connection for community buildings, new housing, a new public safety building/jail, fixing/building snow fences, fixing/installing street lights, building a new maintenance shop, creating more local job training, and supplying satellite internet for community buildings.
BibTeX:
@techreport{Unalakleet2009,
  author = {Unalakleet Planning Organization},
  title = {Unalakleet local economic development plan 2009-2013},
  year = {2009},
  pages = {83},
  community = {Unalakleet}
Van Horn, S. State of Alaska (SOA) Memorandum to Danial D. Urbach, P.E., Shaktoolik airport rield reconnaissance 1980 Shaktoolik  
Review: This memorandum explains a reconnaissance trip to the Shaktoolik Airport taken by Steve Van Horn, Airport Engineer, on July 31, 1980. The condition of the site is explained for preparation for fieldwork later that year.
BibTeX:
@unpublished{VanHorn1980,
  author = {Van Horn, Steve},
  title = {Memorandum to Danial D. Urbach, P.E., Shaktoolik airport rield reconnaissance},
  year = {1980},
  pages = {3},
  community = {Shaktoolik}
Van Horn, S. State of Alaska (SOA) Memorandum to Dan Pavey, Shaktoolik materials investigation 1980 Shaktoolik  
Review: This memorandum explains, in detail, the fieldwork completed by Steve Van Horn, Airport Engineer, from Septem¬ber 15–18, 1980, for the Shaktoolik airport materials investigation. The results from the fieldwork are discussed as well as all activities required to complete the work.
BibTeX:
@unpublished{VanHorn1980a,
  author = {Van Horn, Steve},
  title = {Memorandum to Dan Pavey, Shaktoolik materials investigation},
  year = {1980},
  pages = {4},
  community = {Shaktoolik}
Vaught, D. Shaktoolik, Alaska wind resource report 2008 Shaktoolik  
Review: This study found that Shaktoolik has good potential for development of wind energy. The community is rated as a high Class 4 category for wind generation. Wind speed data were collected over a one-year period.
BibTeX:
@techreport{Vaught2008,
  author = {Vaught, Douglas},
  title = {Shaktoolik, Alaska wind resource report},
  publisher = {V3 Energy, LLC},
  year = {2008},
  pages = {20},
  community = {Shaktoolik}
Vaught, D. V3 Energy LLC Quinhagak, Alaska wind resource report 2006 Quinhagak  
Review: This report outlines the parameters for wind resources at Quinhagak, Alaska. Data was collected from five sensors, three 40 anemometers, one 200P wind vane, and one 110S Temp C. Data were analyzed from 2005–2006 and interpolated for gaps due to icing of sensors. Winds were determined to be directional from the north and south with lesser south to southeast wind components. The power-producing winds were more strongly oriented southeast and, to a lesser extent, northwest. Quinhagak was determined to be Class 3 category for wind generation, with a Channel 1 average wind speed of 6.41 m/s (at 30 meters).
BibTeX:
@techreport{Vaught2006,
  author = {Vaught, Douglas},
  title = {Quinhagak, Alaska wind resource report},
  year = {2006},
  pages = {22},
  community = {Quinhagak}
Waller, R.M. Alaska Department of Health Section of Sanitation and Engineering (DHSSE) Ground-water reconnaissance of Koyuk and Shaktoolik villages, Alaska 1958 Shaktoolik  
Review: This document is a report on ground-water potential as drinking water for the communities of Koyuk and Shaktoolik, Alaska. A geologic review is also included for the region. The ground-water potential is examined based on physical characteristics of the general area.
BibTeX:
@techreport{Waller1958,
  author = {Waller, Roger M.},
  title = {Ground-water reconnaissance of Koyuk and Shaktoolik villages, Alaska},
  year = {1958},
  number = {No. 7},
  pages = {10},
  community = {Shaktoolik}
Waller, R.M. U.S. Geological Survey (USGS) Water-resources reconnaissance of Gambell and Savoonga villages St. Lawrence Island, Alaska 1958 Savoonga, Gambell  
Review: This is part of a three-part report on groundwater conditions for rural Alaska villages. Gambell and Savoonga were visited in July and August 1957 to determine the possibility of securing a reliable groundwater supply.

Gambell; Gambell is located on a gravel spit at the northwest end of St. Lawrence Island, about 35 ft amsl. Troutman Lake is a large body of fresh water 4 ft amsl, bounded by the gravel spit. The gravel spit containes loose, well-rounded, medium-coarse granitic sand and gravel. The material is mostly erosional from the Savoukuk Mountain, deposited outward by wave action. Permafrost has been reported at a depth of 22 feet below the ANS school, and a depth of 8 feet elsewhere.

Savoonga; Savoonga is on the north shore of St. Lawrence Island, on a low, broad point, exposed almost continuously to winds from the Bering Sea. The Savoonga area is described as being underlain by olivine basalt lava flows from the Kookooligit Mountains. The presence of marine mud overlying the basalt is provided as evidence of sea-level regression in the area. Permafrost was reportedly encountered at a depth of 5 feet. Detailed chemical analysis of water samples taken from Savoonga wells, Troutman Lake, and Savoonga Creek are included in the report.

BibTeX:
@techreport{Waller1958a,
  author = {Waller, Roger M.},
  title = {Water-resources reconnaissance of Gambell and Savoonga villages St. Lawrence Island, Alaska},
  year = {1958},
  pages = {14},
  community = {Savoonga, Gambell}
Waller, R.M. Alaska Department of Health Section of Sanitation and Engineering (DHSSE) Ground-water reconnaissance in five Eskimo villages in the lower Kuskokwim-Yukon River area, Alaska 1955 Hooper Bay, Kwigillingok  
Review: This is a report on a reconnaissance study outlining the feasibility of obtaining ground-water supplies for Kwethluk, Hooper Bay, Chevak, Tununak, and Kwigillingok. At the time of publication, there had been no development of ground water in the areas of these communities. The findings are summarized by community and are based on a brief field investigation of surficial geology and the topography of each village. Included are summaries of existing water resources, permafrost extents, community accounts of any attempted well drillings, and cautions against areas of saltwater intrusion.
BibTeX:
@techreport{Waller1955,
  author = {Waller, Roger M.},
  title = {Ground-water reconnaissance in five Eskimo villages in the lower Kuskokwim-Yukon River area, Alaska},
  year = {1955},
  pages = {11},
  community = {Hooper Bay, Kwigillingok}
Walters, L. and Cushing, M. Alaska Department of Commerce, Community & Economic Development, Division of Community & Regional Affairs (DCRA) Community profile--Saint Michael 1995 Saint Michael  
Review: This profile includes information on the community’s status in the following areas: Facilities, U.S. Census, economy and employment, schools, rural businesses, contacts, municipal officials, municipal finances, rural grants, and ANCSA land status.
BibTeX:
@techreport{Walters1995,
  author = {Walters, L. and Cushing, M.},
  title = {Community profile--Saint Michael},
  year = {1995},
  pages = {16},
  community = {Saint Michael}
Walters, L. and Cushing, M. Alaska Department of Commerce, Community & Economic Development, Division of Community & Regional Affairs (DCRA) Community profile--Hooper Bay 1995 Hooper Bay  
Review: This profile includes information on the community’s status in the following areas: Facilities, U.S. Census, economy and employment, schools, rural businesses, contacts, municipal officials, municipal finances, rural grants, and ANCSA land status.
BibTeX:
@techreport{Walters1995a,
  author = {Walters, L. and Cushing, M.},
  title = {Community profile--Hooper Bay},
  year = {1995},
  pages = {19},
  community = {Hooper Bay}
Walters, L. and Cushing, M. Alaska Department of Commerce, Community & Economic Development, Division of Community & Regional Affairs (DCRA) Community profile--Scammon Bay 1995 Scammon Bay  
Review: This profile includes information on the community’s status in the following areas: Facilities, U.S. Census, economy and employment, schools, rural businesses, contacts, municipal officials, municipal finances, rural grants, and ANCSA land status.
BibTeX:
@techreport{Walters1995b,
  author = {Walters, L. and Cushing, M.},
  title = {Community profile--Scammon Bay},
  year = {1995},
  pages = {19},
  community = {Scammon Bay}
Walters, L. and Cushing, M. Alaska Department of Commerce, Community & Economic Development, Division of Community & Regional Affairs (DCRA) Community profile--Sheldon Point 1995 Nunam Iqua (Sheldon Point)  
Review: This profile includes information on the community’s status in the following areas: Facilities, U.S. Census, economy and employment, schools, rural businesses, contacts, municipal officials, municipal finances, rural grants, and ANCSA land status.
BibTeX:
@techreport{Walters1995c,
  author = {Walters, L. and Cushing, M.},
  title = {Community profile--Sheldon Point},
  year = {1995},
  pages = {19},
  community = {Nunam Iqua (Sheldon Point)}
Walters, L. and Cushing, M. Alaska Department of Commerce, Community & Economic Development, Division of Community & Regional Affairs (DCRA) Community profile--Kotlik 1995 Kotlik  
Review: This profile includes information on the community’s status in the following areas: Facilities, U.S. Census, economy and employment, schools, rural businesses, contacts, municipal officials, municipal finances, rural grants, and ANCSA land status.
BibTeX:
@techreport{Walters1995d,
  author = {Walters, L. and Cushing, M.},
  title = {Community profile--Kotlik},
  year = {1995},
  pages = {15},
  community = {Kotlik}
Walton, F., Perry, R. and Greene, H. U.S. Department of Commerce, Environmental Science Services Administration Seismic reflection profiles northern Bering Sea 1969 Savoonga, Gambell  
Review: As part of a general continental shelf survey for Norton Sound, a series of seismic reflection profiles were collected aboard the USC&GSS SURVEYOR. The survey included bathymetric, gravity, and magnetic data at a 1 mile trackline spacing. This report contains the seismic trackline graphs along with the operations log for the cruise.
BibTeX:
@techreport{Walton1969,
  author = {Walton, F.W. and Perry, R.B. and Greene, H.G.},
  title = {Seismic reflection profiles northern Bering Sea},
  year = {1969},
  number = {Operational Data Report C&GS DR-8},
  pages = {17},
  community = {Savoonga, Gambell}
Weeks, J.B. Alaska Department of Natural Resources, Division of Geological and Geophysical Surveys (DGGS) Water-resources reconnaissance of the Golovin area, Alaska 1970 Golovin  
Review: This is a reconnaissance investigation of Golovin, Alaska, involving an inventory of existing sources of water, including water quality, and a report of the principal findings. This study was done by request of the Rural Alaska Community Action Program (RurAlCAP), to develop adequate water supply for the village of Golovin. The recommendations of this investigation suggest that Golovin either develop a ground-water supply below the spring, construct a gallery well near the pond, or develop a water supply from Chennik Creek. Regardless of the alternative pursued, the water obtained will require treatment to reduce pollution hazard.
BibTeX:
@techreport{Weeks1970,
  author = {Weeks, John B.},
  title = {Water-resources reconnaissance of the Golovin area, Alaska},
  year = {1970},
  number = {Open-file report no. 449},
  pages = {4},
  community = {Golovin}
Whaley, F.H. Anchorage Museum at Rasmuson Center Aerial view of Deering, Alaska 1960 Deering URL 
Review: This is an archived image in the Anchorage Museum of History and Art, which shows the village of Deering, Alaska. The image allegedly dates from between 1960–1969.
BibTeX:
@electronic{Anchorage1960,
  author = {Whaley, Frank H.},
  title = {Aerial view of Deering, Alaska},
  year = {1960},
  url = {http://vilda.alaska.edu/cdm4/item_viewer.php?CISOROOT=/cdmg2&CISOPTR=4371&REC=20},
  community = {Deering}
WHPacific, Inc. and Bechtol Planning and Development City of Unalakleet City of Unalakleet, Alaska local hazards mitigation plan 2008 Unalakleet  
Review: This plan identifies natural hazards for Unalakleet and includes information to assist the city government and residents with planning to avoid potential disaster losses. The plan is required to be updated every five years by the Department of Homeland Security (DHS) and the Division of Emergency Management (EM). The prioritized list of hazards includes risks due to flooding and erosion in Unalakleet; these hazards arise from changing sea level, offshore ice pack retreats, early melting and late formation of sea ice, storm surge, ice jams, snowmelt, and rainfall. The highest flood on record is the 1965 flood, which reached 18 feet above MSL. The City of Unala¬kleet is looking to participate in the National Flood Insurance Program (NFIP) to provide flood insurance to homes and businesses, but must first regulate new development and improvement to existing structures.
BibTeX:
@techreport{Unalakleet2008,
  author = {WHPacific, Inc. and Bechtol Planning and Development},
  title = {City of Unalakleet, Alaska local hazards mitigation plan},
  year = {2008},
  pages = {70},
  community = {Unalakleet}
WHPacific and Bechtol Planning and Development Native Village and City of Shaktoolik Community of Shaktoolik, Alaska local multi-hazard mitigation plan 2009 Shaktoolik  
Review: This plan characterizes risks of hazards to the community and recommends mitigation efforts to reduce or eliminate long-term risk to human life and property from hazards. It must be updated every 5 years and resubmitted to FEMA. The plan includes a community overview, a capability assessment, a risk assessment, and a mitigation strategy. Hazards present in the community include flooding (high), erosion (medium), severe weather (high), wildfire (low), and earthquakes (medium). Coastal flooding occurs in late summer and fall, and large western storms can cause wave run-up as high as 30 feet. Storm surges result from strong winds and low atmospheric pressure. The report notes that state disaster declarations included the community in 2004 and 2005. The mitigation strategy includes the following recommendations: Complete evacuation road design and engineering (high), request Congress add the community to the Alaska Control Erosion Program (high), complete hazard mapping (high), elevate or relocate flood-prone structures (medium), investigate benefits of joining the national flood insurance program (high), shoreline protection projects to protect tank farms and utilities (high), protect water source (high), mark navigable waterways for evacuation (high), public education (high), implement “storm-ready” program (high), conduct weather awareness activities (high), public awareness about NOAA weather radio (high), encourage weather-resistant buildings (medium), promote Fire Wise building design (high), join Alaska Fire Wise program (high), develop local building codes for fire safety (medium), enhance awareness of fire risk (high), encourage mitigation measures around buildings (high), identify critical buildings for earthquake hazards (high), assess vulnerabilities for buildings (medium), and implement nonstructural mitigation projects for earthquakes (high).
BibTeX:
@techreport{Shaktoolik2009,
  author = {WHPacific and Bechtol Planning and Development},
  title = {Community of Shaktoolik, Alaska local multi-hazard mitigation plan},
  publisher = {Shaktoolik IRA Council and the City of Shaktoolik, Alaska},
  year = {2009},
  pages = {84},
  community = {Shaktoolik}
Wise, J.L., Comiskey, A.L. and Becker, R. University of Alaska, Anchorage, Arctic Environmental Information and Data Center Storm surge climatology and forecasting in Alaska 1981 Statewide, Kivalina, Deering, Unalakleet, Shaktoolik, Golovin, Saint Michael, Gambell, Shishmaref, Teller, Hooper Bay, Scammon Bay, Kwigillingok, Clark's Point & Ekuk, Quinhagak, Nunam Iqua (Sheldon Point), Kotlik, Barrow, Point Lay, Kaktovik  
Review: The objective of this study was to improve the quality of life and the security of property in coastal areas susceptible to flooding by enhancing the decision-making process for human activities and development. This study compiles historical climatological data to develop a surge forecast regression equation.

Barrow; Storm profiles specific to Barrow are recorded for 1963, 1968, 1970, 1977, and 1978.

Clark's Point Ekuk; Storm profiles specific to Clark’s Point are recorded for 1964, 1978, and 1980. Storm profiles are also provided for Ekuk for 1969 and 1980.

Deering; Storm profiles specific to Deering are recorded for 1974 and 1963.

Gambell; Four storms were documented for Gambell, occurring in 1946, 1969, 1972, and 1978.

Golovin; Two storms, in 1974 and 1977, were documented for Golovin and used for this study.

Hooper Bay; The offshore shape of the sea floor in the lower Kuskokwim and Bristol Bay area is identified as conducive to the formation and enhancement of storm surges. Storm profiles specific to Hooper Bay are recorded for 1978 and 1979.

Kaktovik; This study compiles historical climatological data to develop a surge forecast regression equation. One storm profile specific to Kaktovik, from 1972, was used in this report.

Kivalina; The Seward Peninsula, Norton Sound, and Lower Yukon area are identified as having the greatest frequency of reported storms. One storm, from 1976, was documented for Kivalina and used for this study; it was reported to have flooded 20–30% of the community and the water level was 1 foot below the lowest home. This study estimated the 100-year flood level in Kivalina to be 8.3 feet above MLLW.

Kotlik; Storm profiles specific to Kotlik are recorded for 1978 and 1980.

Kwigillingok; The offshore shape of the sea floor in the lower Kuskokwim and Bristol Bay area is identified as conducive to the formation and enhancement of storm surges. One storm surge, in 1979, was recorded for Kwigillingok.

Nunam Iqua; One storm surge, in 1974, was recorded for Sheldon Point and used in this report.

Point Lay; Storm profiles specific to Point Lay are recorded for 1963 and 1972.

Quinhagak; The offshore shape of the sea floor in the lower Kuskokwim and Bristol Bay area is identified as conducive to the formation and enhancement of storm surges. One storm profile, recorded during 1979, is specific to Quinhagak.

Saint Michael; The Seward Peninsula, Norton Sound, and Lower Yukon areas are identified as having the greatest frequency of reported coastal storms in Alaska. Norton Sound exhibits shallow waters offshore, combined with the open waters of the Bering Sea, allowing for a long fetch for storm wave development. The range of wind directions for the development of storm surges is limited to west–southwest to west; however, flooding is experienced due to rising water levels throughout the Sound. Three storms, in 1913, 1973, and 1974, were documented for Saint Michael and used for this study.

Scammon Bay; The offshore shape of the sea floor in the lower Kuskokwim and Bristol Bay area is identified as conducive to the formation and enhancement of storm surges. Storm profiles specific to Scammon Bay are recorded for 1974 and 1979.

Shaktoolik; This project investigated the climatology of storm surges and refined procedures for storm-surge forecasting. Storm data for 90 storms since 1954 were used in the study. Intense atmospheric low-pressure systems with strong winds onshore or along the shore create storm surges. Winds can develop over several hundred miles of open water (fetch). Gently sloping nearshore areas and sufficient fetch are needed for storm surges. The study found that ice cover generally dampens waves, but 3-foot storm surges have occurred when there were 3 feet of ice. The upper limit of storm surges is generally 12 feet.
The Chukchi Sea is one of the areas in Alaska conducive to storm surges. Most storm surges in this area occur in the autumn. The study estimated that a 10.6 foot storm surge could be expected once every 100 years.

Shishmaref; The Seward Peninsula, Norton Sound, and Lower Yukon area are identified as having the greatest frequency of reported storms. Storm profiles specific to Shishmaref are recorded for 1973, 1974, and 1979.

Teller; The Seward Peninsula, Norton Sound, and Lower Yukon area is identified as having the greatest frequency of reported storms. Four storms were documented for Teller and used for this study during the dates of 1973, 1974, 1975, and 1978.

Unalakleet; The objective of this study was to improve the quality of life and the security of property in coastal areas suscep¬tible to flooding by enhancing the decision-making process for human activities and development. This study compiles historical climatological data to develop a surge forecast regression equation.
The Seward Peninsula, Norton Sound, and Lower Yukon areas are identified as having the greatest frequency of reported coastal storms in Alaska. Norton Sound exhibits shallow waters offshore, combined with the open waters of the Bering Sea, allowing for a long fetch for storm-wave development. The range of wind directions for the development of storm surges is limited to west–southwest to west; however, flooding is experienced due to rising water levels throughout the Sound.
Nine of the ten storm-surge cases described in detail for Unalakleet occurred in the fall, the other in July. A storm in October 1963 was responsible for $100,000 in damages.

BibTeX:
@techreport{Wise1981,
  author = {Wise, James L. and Comiskey, Albert L. and Becker, Richard},
  title = {Storm surge climatology and forecasting in Alaska},
  publisher = {Arctic Environmental Information and Data Center, University of Alaska},
  year = {1981},
  pages = {26},
  note = {Research funded by the Alaska Council on Science and Technology as a part of Alaskan Natural Hazards Research, Includes appendices},
  community = {Statewide, Kivalina, Deering, Unalakleet, Shaktoolik, Golovin, Saint Michael, Gambell, Shishmaref, Teller, Hooper Bay, Scammon Bay, Kwigillingok, Clark's Point & Ekuk, Quinhagak, Nunam Iqua (Sheldon Point), Kotlik, Barrow, Point Lay, Kaktovik}
Wise, J.L., Leslie, L.D. and Labelle, J.C. U.S. Department of Transportation (DOT), U.S. Coast Guard Office of Engineering and Development An oceanographic and climatological atlas of Bristol Bay 1987 Kwigillingok, Clark's Point & Ekuk, Quinhagak  
Review: This report was written in the case that an oil spill would occur in Bristol Bay, Alaska. Detailed sections are included for oceanography, meteorology, climatology, and ice information. The environmental conditions summarized are meant to help on the scene emergency coordinators with possible direction and magnitude to which an oil spill would flow, if one were to occur.
BibTeX:
@techreport{Wise1987,
  author = {Wise, James L. and Leslie, Lynn D. and Labelle, Joseph C.},
  title = {An oceanographic and climatological atlas of Bristol Bay},
  publisher = {Arctic Environmental Information and Data Center, University of Alaska},
  year = {1987},
  number = {Report No. CG-D-13-88},
  pages = {185},
  community = {Kwigillingok, Clark's Point & Ekuk, Quinhagak}
Wiseman J., J., Coleman, J.M., Gregory, A., Shish-Ang, H. and Short, A. Coastal Studies Institute, Louisiana State University Alaskan arctic coastal processes and morphology 1973 Point Lay  
Review: This study was designed to examine the variability of coastal process environments and morphology along the entire Alaskan Arctic Coast (Point Hope to Demarcation Point), and to investigate specific nearshore processes and beach responses at two field sites, Point Lay and Pingok Island. The first phase of the study involved acquisition, generation, synthesis, and analysis of existing data from the North Slope. Aerial field reconnaissance trips were also made, along the coast during breakup, in open-water conditions, and during freezeup in 1971 and 1972. The study was broken up into the following processes:
Atmospheric Processes: Meteorological records were taken from Alaska’s Distant Early Warning (DEW) Line stations, but many records weren’t consistent or continuous. Two objectives were used to study the surface boundary-layer wind structure at Point Lay. One, to determine mean values of the aerodynamic roughness length and wind stress drag coefficient over varying surfaces, and two, to determine the effect of a sea-ice pressure ridge or hummock on the two-dimensional wind structure as the wind flows over the ridge.
Nearshore Hydrodynamic Processes: Four hydrodynamic phenomena were selected for study in the nearshore zone: Sea level variations from periods of a few hours to a few days; wave motion, both local wind-generated waves and swell; mesoscale currents; and mesoscale water-mass variability. Current literature was found to be insufficient for characterizing these phenomena, so the goals of the study were to describe the mesoscale variability of sea level, nearshore currents, wave characteristics, and water-mass characteristics at the two field sites and to determine possible causative mechanisms.
Alaskan Arctic Coast Morphology: The 1,441 km of arctic coast consists of 805 km of recent barrier islands and associated inlets backed by lagoons of various widths; 381 km of tundra bluffs fronted by narrow beaches, 135 km of delta shorelines, and 120 km of rock cliffs. Coastal geomorphic characteristics and variability were determined using hydrographic and topographic maps, aerial photographs, and several aerial photographic and reconnaissance flights. From this data, shoreline parameters were determined: coastline trend length, shoreline length, open water, ratio of shoreline length to open water, coastline crenulation, average shoreline crenulation, barrier length, barrier width, and barrier length/chord. Lagoon shape values determined were: Length, width, length/width, area, perimeter, alpha crenulation, and gamma crenulation.
Beach Process–Response Interactions: The results of this study are presented in the context of breakup, open water, and freezeup.
The results are separated between the two study areas because of variability.This study required input from and investigations by scientists in multiple fields including meteorology, nearshore hydrodynamics, wave mechanics, morphodynamics, beach dynamics, and geomorphology.
BibTeX:
@techreport{Wiseman1973,
  author = {Wiseman, J., Jr. and Coleman, James M. and Gregory, Anthony and Shish-Ang, Hsu and Short, Andrew},
  title = {Alaskan arctic coastal processes and morphology},
  year = {1973},
  number = {Technical Report No. 149},
  pages = {171},
  community = {Point Lay}
Worth, J. A slow earthquake 2009 Kaktovik  
Review: This popular press article discusess political and climate changes occurring in Kaktovik, Alaska, and the Arctic National Wildlife Refuge. Personal stories and perspectives of residents of the village are portrayed in a story of struggle for the community of Kaktovik and the entire Arctic region.
BibTeX:
@periodical{Worth2009,
  author = {Worth, Jess},
  title = {A slow earthquake},
  year = {2009},
  pages = {4-7},
  community = {Kaktovik}
Wright, S.J. and Czapla, P.K. Alaska Department of Natural Resources, Plant Materials Center, Division of Agriculture Alaska coastal revegetation and erosion control guide 2010 Statewide URL 
Review: Statewide or general reference. See foreword.
BibTeX:
@techreport{Wright2010,
  author = {Wright, Stoney J. and Czapla, Philip K.},
  title = {Alaska coastal revegetation and erosion control guide},
  publisher = {State of Alaska Plant Materials Center, Division of Agriculture, Department of Natural Resources},
  year = {2010},
  pages = {236},
  url = {http://plants.alaska.gov/reveg/},
  community = {Statewide}
Young, C. and Lewis, C. University of Alaska Faribanks Shaktoolik feasibility study for a fish and reindeer processing facility 1996 Shaktoolik  
Review: This study was conducted to determine the feasibility of constructing a fish and reindeer processing facility. An up¬graded facility would cost between $1.5 and $1.8 million with an annual estimated operating cost of $588,000. The report concluded that the facility would not be feasible as planned and engineered. The facility could be profit¬able, however, if grants were available to reduce start-up costs and if a value-added product was developed in addition to processing fish and reindeer. Regarding natural hazards, the report states that the fall of 1993 storm damaged the overhead rail, dock, and diking of the existing processing plant. The embankment in front of the facility was repaired to prevent further erosion.
BibTeX:
@techreport{Young1996,
  author = {Young, C. and Lewis, C.},
  title = {Shaktoolik feasibility study for a fish and reindeer processing facility},
  year = {1996},
  community = {Shaktoolik}
Zenkovitch, V.P. Processes of coastal development 1967 Statewide  
Review: Statewide or general reference. See foreword.
BibTeX:
@book{Zenkovitch1967,
  author = {Zenkovitch, Vsevolod P.},
  title = {Processes of coastal development},
  publisher = {Oliver and Boyd},
  year = {1967},
  pages = {738},
  community = {Statewide}
Alaska Department of Transportation & Public Facilities (DOT&PF) Shaktoolik airport 2005 Bering Sea storm permanent repairs 2008 Shaktoolik  
Review: This report summarizes the restoration project to the Shaktoolik airport after storm surge damage in 2005. Construction designs and directions include expected delineating borrow sites, and repairing airport access roads and the airport.
BibTeX:
@techreport{Bloom2008,,
  title = {Shaktoolik airport 2005 Bering Sea storm permanent repairs},
  year = {2008},
  number = {A.K.S.A.S. No. 62932},
  pages = {8},
  community = {Shaktoolik}
U.S. Army Corps of Engineers, Alaska District Memorandum for Commander, U.S. Army Engineer Division, Pacific Ocean Division: Barrow storm damage reduction project, Barrow, Alaska 2001 Barrow  
Review: This is a memorandum outlining the Project Management Plan and Feasibility Cost Sharing Agreement developed for storm damage reduction in Barrow, Alaska. The solution presented to best mitigate erosion problems in Barrow was a partially-hardened, armor-protected shoreline combined with a beach nourishment program. However, economic and source material problems are identified as barriers to project completion.
BibTeX:
@unpublished{Boardman2001,,
  title = {Memorandum for Commander, U.S. Army Engineer Division, Pacific Ocean Division: Barrow storm damage reduction project, Barrow, Alaska},
  year = {2001},
  pages = {20},
  community = {Barrow}
Eroding Alaska town sues 24 oil and energy companies for destruction caused by global warming 2008 Kivalina  
Review: A lawsuit was filed on behalf of the Village of Kivalina, against industrial corporations that emit large quantities of greenhouse gases. The suit claims damages due to contributions to global warming that invoke the federal common law of public nuisance. This article explains the lawsuit from an Alaska Native perspective.
BibTeX:
@periodical{Carlyle2008,,
  title = {Eroding Alaska town sues 24 oil and energy companies for destruction caused by global warming},
  year = {2008},
  volume = {33},
  number = {1},
  pages = {4},
  community = {Kivalina}
LCMF, Inc. 1999 Barrow beach nourishment post-season report 2000 Barrow  
Review: This report presents the overall expenditures, purchases, operations and production of the 1999 Beach Nourishment Project in Barrow, Alaska, conducted by LCMF Inc. The total cost of the project amounted to $4,984,814 for a 1,800 foot length of beach. This was the first full season of active beach nourishment in Barrow. Detailed descriptions are provided regarding the dredge and application process.
BibTeX:
@techreport{Chronic2000,,
  title = {1999 Barrow beach nourishment post-season report},
  year = {2000},
  pages = {3},
  community = {Barrow}
Shishmaref Erosion and Relocation Coalition Testimony of the Shishmaref erosion and relocation coalition before the Committee on Appropriations of the United States Senate 2004 Shishmaref  
Review: This is the testimony of Luci Eningowuk, a Shishmaref Erosion and Relocation Coalition chairperson. In her testimony to the United States Senate Committee on Appropriations she addresses erosion issues for Shishmaref. The four points in this testimony include the relocation of the existing community to the mainland, ongoing beach erosion and efforts to minimize its impact, lack of funding for immediate infrastructure needs, and the demand for state and federal multi-agency coordination. Photographs and documentation of the ongoing process of home relocation in the community are also presented.
BibTeX:
@proceedings{Eningowuk2004,,
  title = {Testimony of the Shishmaref erosion and relocation coalition before the Committee on Appropriations of the United States Senate},
  year = {2004},
  pages = {12},
  community = {Shishmaref}
International Permafrost Association, International Arctic Science Committee, Land-Ocean Interactions in the Coastal Zone, Arctic Monitoring and Assessment Programme State of the arctic coast 2010 – scientific review and outlook 2011 Statewide URL 
Review: Statewide or general reference. See foreword.
BibTeX:
@techreport{Forbes2011,,
  title = {State of the arctic coast 2010 – scientific review and outlook},
  publisher = {Helmholtz-Zentrum},
  year = {2011},
  pages = {178},
  url = {http://arcticcoasts.org},
  community = {Statewide}
U.S. Army Corps of Engineers, Alaska District Alaska village erosion technical assistance program: an examination of erosion issues in the communities of Bethel, Dillingham, Kaktovik, Kivalina, Newtok, Shishmaref, and Unalakleet. 2006 Kivalina, Unalakleet, Shishmaref, Kaktovik  
Review: Kaktovik; This report documents an investigation of issues surrounding erosion at several Alaska Native villages. It contains an examination of erosion rates and control, potential relocation sites, and impacts to Alaska Native culture and tradition. Kaktovik is identified as requiring $40 million for future erosion protection, or $20–40 million for relocation. There have been no erosion control measures implemented in Kaktovik, and no funding by state and federal agencies. Minor erosion has been reported in Kaktovik Lagoon, but no threats from coastal storm surge have been identified for this community, with the exception of the airport and cultural resources. Threats to the community are not projected for at least 100 years.

Kivalina; This report addresses three questions posed by Congress for seven communities in Alaska, including Kivalina:
1.What is the ongoing cost of erosion?
2.What would the cost be to relocate or co-locate these communities? and
3.How long do these communities have left until there is complete failure of land?
The study found that it would cost approximately $15 million to construct erosion protection for Kivalina; it would cost between $95 million and $125 million to relocate, and the community has between 10 and 15 years at its current location.
The report states the following criteria would be used for selection of a new site:Iit would not be in a flood zone, it would have room for community expansion, it would have an accessible water supply, and it would be near important subsistence resources. There would be some costs associated with decommissioning the old site, but some families would likely maintain structures for subsistence use. An estimated 15–20 years would be needed for community relocation. In calculating the cost of relocation, this report assumed the villages would be relocated using similar utilities and services as they have presently.
Kivalina receives cyclic erosion and accretion. As a result of global climate change, there is a longer period of open water, which leads to increased damage from fall storms. Erosion control efforts by the state between 1985 and 2002 cost $477,000, and efforts during the last 2 years cost $850,000.
Cost of relocating Kivalina to a new site is estimated to be $125 million. This estimate assumes a minimal level of housing, water, and sanitation facilities. Co-location of the community to Kotzebue would cost an estimated $95 million.

Shishmaref; This report documents an investigation of issues surrounding erosion at several Alaska Native villages. It includes an examination of erosion rates and controls, potential relocation sites, and impacts to Alaska Native culture and tradition. Erosion protection of Shishmaref, estimated at a cost of $16 million, is projected to provide 10–15 years of community site stability. This report includes different options for project locations with cost and benefit analyses.

Unalakleet; Unalakleet is identified as requiring $30 million for future erosion protection, and was not identi¬fied as in need of immediate relocation efforts because the community location is described as stable on a 100-year timescale. The project to mitigate erosion is the construction of a riprap revetment. The loss of residential, commercial, and public buildings and infrastructure due to erosion is more than $105 million for the 50-year project horizon if no action is taken.

BibTeX:
@techreport{COE2006,,
  title = {Alaska village erosion technical assistance program: an examination of erosion issues in the communities of Bethel, Dillingham, Kaktovik, Kivalina, Newtok, Shishmaref, and Unalakleet.},
  year = {2006},
  pages = {44},
  community = {Kivalina, Unalakleet, Shishmaref, Kaktovik}
Alaska Department of Transportation & Public Facilities (DOT&PF) and Federal Aviation Administration (FAA) Environmental assessment Scammon Bay airport improvements 1991 Scammon Bay  
Review: This report discusses the environmental impact of lengthening the runway safety area and constructing two sections of haul road at the Scammon Bay airport. Because Scammon Bay is located mountainside, it is rated low for flood hazard according to the Corps of Engineers. No significant impacts are of concern for the construction project. Included in the report are maps of the project site and gravel borrow area.
BibTeX:
@techreport{Hathaway1991,,
  title = {Environmental assessment Scammon Bay airport improvements},
  year = {1991},
  number = {Project No. 57981},
  pages = {41},
  community = {Scammon Bay}
U.S. Army Corps of Engineers, Alaska District Relocation planning project master plan, Kivalina, Alaska 2006 Kivalina  
Review: This document provides preliminary facility designs, costs, schedule, and decision matrix for the relocation of Kivalina. It compares eight alternatives including no action, remaining at the existing site, and relocation to six different sites. The Master Plan found that all options would be technically feasible, but it recommends against further consideration of all options other than Tachim Isua and Imnakuk Bluffs. The appendices include detailed information about relocation costs, proposed schedules, geotechnical reports, a site development plan, and a community layout design selected by Kivalina in 2001.
Natural Hazards review:
•Erosion: The authors reviewed aerial photos taken since the 1980s and found a loss of beach from the Singauk Entrance to the airport. Storms have undercut the vegetative mat on the ocean side of the island.
•Storm Severity: Since the 1980s, ocean ice has diminished, and the open-water period has increased from 3 to 5 months. The lack of ice cover leads to longer distances of exposed water (fetches) where winds can generate larger waves that may lead to increased erosion.

•Storm Surges: The report references different 100-year storm surge estimates, including an estimate of a 10.5 foot surge resulting in a 6 foot flood. A 2003 working draft report prepared for the U.S. Army Corps of Engineers reports that 1970 “storm of record” had a 13.57 foot surge that inundated part of the community. This draft report estimated the 100-year storm surge would reach an elevation of 16.1 feet.
•Sea Level Rise: This study projects sea level rise to be 1–2 feet over the next 100 years.
•Permafrost: Accelerated permafrost melting will likely result in subsidence and erosion in the region. This may not be an issue for the current townsite because of sandy soils that are not ice-rich. Soils are permanently frozen except in the active layer and active beach zones.
Existing Townsite Conditions: The report summarizes the current situation in Kivalina. The report states that social conditions include overcrowding, lack of infrastructure, loss of traditional cultural knowledge, and poor living conditions that have led to feelings of hopelessness.
•Water: The current water collection and distribution system is inadequate. Tanks can only be replenished during part of the year, and the storage capacity is insufficient, resulting in periodic water shortages. The only buildings with piped water are the washeteria, school, and clinic.
•Human Waste: Residents use 5 gallon “honey buckets” lined with plastic bags and must transport the waste to a 60 × 60 × 8 metal containment basin adjacent to the dump. This system presents a health hazard due to accidental spills during collection and storage and possible leaching from the containment basin.
•Solid Waste: The dump site, built in 1996, is too close to the airport and there is a concern about bird strikes. It occupies a 3.4-acre parcel.
•Transportation: The airstrip is subject to heavy snow drifting because it is perpendicular to prevailing winds. High speed 4-wheeler traffic has displaced gravel from community roads.
•Housing: There is no room for future growth, and families have moved away from the village. A new site with adequate room for expansion would likely lead to a doubling of the population in 20 years.
Oceanography: The report acknowledges that the ocean currents involve complex dynamics associated with flows between the Bering and Chukchi seas.
•Winds from the south to southwest generate waves that expend their full energy on Kivalina’s beach.
•Sediments remain offshore and are available for rebuilding the beach under the action of smaller waves.
•Waves from the south to southeast are not as large as those from the southwest because of the shorter fetch. Waves from this direction are more destructive when combined with a storm surge.
Summary of option to remain at current site (cost: $196.2 million): The report found the “do nothing” option unacceptable. Remaining at the current site would require certain improvements:
•Installation of gravel fill to a level of 16.5 feet for flood protection.
•Structurally-sound buildings would need to be moved and raised, and other buildings replaced.
•Installation of 4,285 feet of armor around the community.
•Construction of a filtration system at the Wulik River for year-round water.
•Development of a package treatment plant for wastewater with a buried drain field.
•Possible addition of 24 new homes.
•Addition of a buried utility system.
•The solid waste system would need to be brought up to DEC regulations.
•The current power generation system would need to be upgraded in about 8 years.
The report recommended no further investigation of this site because of risks of erosion. While gravel fill would not be needed for protection of the permafrost, 6.5 feet of fill would be needed for protection from the 100-year storm surge.
Summary of Simiq relocation option (cost: $251.5 million): This site is 4 miles northeast of Kivalina. Gravel fill would need to be placed to a height of 9 feet. The report discusses options for transportation and utilities. Subsistence access would be by a road to the lagoon. The report recommended against further consideration of this site because of unstable, ice-rich, permafrost soils.
Summary of Imnakuk Bluff relocation option (cost: $248.7 million): This site is 5.5 miles northeast of the community, above the Kivalina River. Extreme winds at this site provide a severe constraint. Ice-rich permafrost at the site would require 9 feet of fill. The report discusses options for transportation and utilities. Subsistence access would be difficult due to shallow channels in the Kivalina River. The report recommended further investigation of this site because there was no known flooding or erosion.
Summary of Tachim Isua relocation option (cost: $154.9 million): This site is 9 miles north of the community. Fill would only be needed in areas of poor soils. The report discusses options for transportation, and utilities would be buried below ground. A 1.5-mile road would lead to the Chukchi Sea to provide access for marine-based subsistence activities. The site is close enough to the sea to allow subsistence users to watch for whales. The nearby lagoon is too shallow for boats. The report recommended further investigation of this site because it is out of the floodplain, does not have ice-rich permafrost, it would not need gravel fill, and it has no known erosion.
Summary of Kiniktuuraq relocation option (cost: $248.2 million): This site is on the coast about 1 mile south of the community at the southern edge of Kivalina Lagoon. The community selected Kiniktuuraq as the preferred site for relocation in a 2000 election. This site would have similar access to subsistence resources as the current site, and boats could be moored in the lagoon. The report recommended this site not be investigated further because the site is sinking, it is subject to erosion and flooding, and the ice-rich permafrost soils are not suitable (mud and ice). A water system similar to that of Kivalina would be needed due to the lack of nearby surface water or groundwater sources. An underground distribution system would not be feasible due to ice wedges in the soil.
Summary of Igrugaivik relocation option (cost: $246.1 million): This site is adjacent to the Kiniktuuraq site about 2 miles east of Kivalina. No visits to the site were made for this report. The report assumes a 9 foot gravel pad would need to be constructed, and armoring would be needed along the Wulik River. The soils are thaw-unstable and ice-rich. The report outlines options for water, wastewater disposal, and other utilities. A road would be constructed through the Kiniktuuraq site to the ocean. The sand spit would likely need to be armored on all sides for protection against erosion. The report recommended this site not be investigated further because ice-rich permafrost soils are not suitable for construction.
Summary of Kuugruaq relocation option (cost: $245.6 million): This site is directly north of the Igrugaivik site about 2 miles east of Kivalina. No visits to the site were made for this report. The report assumes a 9 foot gravel pad and, similar to Igrugaivik, armoring would be needed along the Wulik River. Previous reports found that limited parts of the site have thaw-stable soils. The report recommended this option not be investigated further because the area floods in the spring and because of ice-rich permafrost soils.
The authors rated each option using 31 siting criteria grouped under four categories: Physical environment, construction and utilities, social and access, and cost. These criteria included risks from natural hazards, suitability of soils, and access to subsistence resources. Tatchim Isua received the highest ranking followed by Imnakuk Bluff. All of the sites other than Tatchim Isua and Kivalina have ice-rich soils. None of the other options were recommended for further investigation.
Due to challenges with all of the options considered in this study, the report states that it may be appropriate to consider additional sites, including a higher rocky area behind the Simiq site and a location that could access both the Wulik River and the Red Dog road system.

BibTeX:
@techreport{Hayes2006,,
  title = {Relocation planning project master plan, Kivalina, Alaska},
  year = {2006},
  volume = {Contract No./Order No.: DACW85-03-D-0006-0003},
  number = {Contract No./Order No.: DACW85-03-D-0006-0003},
  pages = {108},
  community = {Kivalina}
State of Alaska (SOA) Kotlik erosion: state of Alaska capital project summary, municipal capital matching grants 2002 Kotlik  
Review: This an approved request form for renewal and replacement of erosion structures in Kotlik, Alaska, for $25,000.
BibTeX:
@unpublished{Henricksen2002,,
  title = {Kotlik erosion: state of Alaska capital project summary, municipal capital matching grants},
  year = {2002},
  note = {Reference No: 36101},
  community = {Kotlik}
Alaska Department of Transportation & Public Facilities (DOT&PF) Construction plans for Shaktoolik airport relocation 1998 Shaktoolik  
Review: This report is the construction design for the airport relocation project from the Shaktoolik airport on the east side of the Shaktoolik spit to the north middle region. The project was completed after four years in 2003 by Tidemark Corporation.
BibTeX:
@techreport{McCaleb1998,,
  title = {Construction plans for Shaktoolik airport relocation},
  year = {1998},
  number = {A.I.P. No. 3-02-0401-01/64759},
  pages = {22},
  community = {Shaktoolik}
City of Kivalina and ASCG Inc. of Alaska and Bechtol Planning and Development City of Kivalina, Alaska local hazards mitigation plan 2007 Kivalina  
Review: The local hazards mitigation plan includes a risk assessment that has three parts: Hazards identification, vulnerability assessment, and risk analysis. The assessment will make Kivalina eligible for FEMA hazard mitigation program funds.
Hazards identification: The plan identifies Kivalina as highly subject to flood hazards, severe weather hazards, and erosion hazards. The community was ranked similarly with regard to earthquake hazards. There are no tsunami or seiche hazards.
•Winds from the south to southwest generate waves that expend their full energy on Kivalina’s beaches.
•Flood hazards are almost exclusively from storm surges associated with south to southeasterly winds. Waves from this direction are more destructive because they can ride atop a storm surge (for example, October 2004 storm).
•Less common waves from the northwest can be larger and more destructive than waves from other directions.
•Later freezing of marine waters makes the community vulnerable to fall storms where winds can generate higher waves over longer fetches. Since the 1980s, the ice-free period has extended from three months to as much as five months.
•Estimates for recurrence of storms are as follows: A 4-foot elevation storm surge can be expected every year, a 6-foot storm surge less than every 5 years, and a 16.3-foot storm surge can be expected every 100 years. Prior to 2004, only two storms flooded portions of the village. FEMA requires elevation of structures above the 100-year flood levels.
•Significant beach erosion occurred during an October 2004 storm, requiring relocation of teacher housing.
•During 2005, two storms caused significant erosion. One storm had a storm surge estimated to be 8.5 feet above mean sea level.
Vulnerability Assessment: The plan identifies essential facilities, transportation systems, and utility systems and their vulnerability to the various hazards.
The mitigation plan identifies state and federal resources and funding opportunities by FEMA and other federal agencies that Kivalina may use to address impacts of natural hazards.
The plan includes mitigation goals and objectives, as well as recommended mitigation projects. These projects include relocation of the sewage treatment plant, relocation of fuel lines to the school, removal of sewage bunkers on the shoreline, replacement of damaged water tank skins, a lagoon erosion control project, an evacuation road, structure elevation, assessment of integrity of public buildings, and installation of a siren to warn of a disaster event or severe storm.
This document was meant to be reviewed annually for necessary updates, including additional sections on hazards related to economic, technical, and public health crises. Future revisions should include reports completed since 2006, and any changes needed to incorporate changes to risk as a result of construction of the rock revetment and new flood level estimates currently being developed by the U.S. Army Corps of Engineers.
A presentation by the Native Village of Kivalina to the Inuit Circumpolar Conference is attached as an appendix to the plan.
BibTeX:
@techreport{McCullough2007,,
  title = {City of Kivalina, Alaska local hazards mitigation plan},
  year = {2007},
  pages = {71},
  note = {Funded by: the Division of Homeland Security and the Federal Emergency Management Agency},
  community = {Kivalina}
Senate Committee on Commerce, Science and Transportation, Subcommittee on Disaster Prevention and Prediction Hearing on "Winter Storms" 2006 Shaktoolik URL 
Review: Testimony of Mayor Michaels addresses threats to western Alaska from winter storms. The hazards discussed include storm surges and ice override. The Great Bering Sea storm of 1974 resulted in a storm surge in Nome 12 feet above mean lower low water. An ice override event resulted in a pileup of 30–40 feet. Another ice over¬ride event in 1980 reached a height of 20–25 feet. An October 2002 storm resulted in 14 foot seas at high tide in Kivalina and Shishmaref. A September 2005 storm eroded 25–30 feet of beach in Kivalina. Winter storms are occurring more frequently, and because of a later freeze up, they are doing more damage.
BibTeX:
@proceedings{Michels2006,,
  title = {Hearing on "Winter Storms"},
  publisher = {American Geosciences Institute, Government Affairs Program},
  year = {2006},
  url = {http://www.agiweb.org/gap/legis109/wind_hearings.html},
  community = {Shaktoolik}
URS Corporation Hazard mitigation plan city of Kotlik, Alaska 2007 Kotlik  
Review: This plan was developed to plan for potential natural hazards to the City of Kotlik,, to meet the Federal Emergency Management Agency’s requirements of the Disaster Mitigation Act.
Erosion is identified as a hazard to Kotlik in three forms, coastal, riverine, and wind. The riverine erosion impinges the greatest impact on public and private infrastructure in Kotlik. The riverine erosion occurs through bank slumping (slab failure) with the fine bank material being carried away by river flow and wave action. Other natural and anthropogenic factors contribute to this form of erosion and are explained in further detail. Historical information was analyzed to define this hazard as a “Highly Likely” event. This means the event is probable to occur within the calendar year.
Flooding is identified as another hazard for Kotlik, caused by rainfall–runoff, snowmelt, and ice jams. Previous flood events are recorded for 1974, 1987, 1989, and 1992. Based on historical flooding events, Kotlik is considered likely to experience flooding (within the next 3 years).
Economic loss calculations are provided for each hazard based on economic and structural losses to a predicted percentage of the community.
BibTeX:
@techreport{Mike2007,,
  title = {Hazard mitigation plan city of Kotlik, Alaska},
  year = {2007},
  pages = {71},
  community = {Kotlik}
Kivalina City Council City of Kivalina, the only whaling community in the Northwest Arctic Borough region! 2012 Kivalina URL 
Review: The city of Kivalina maintains a website with pages that describe erosion, climate change, the rock revetment, and significant storms from a local perspective. The website is updated periodically and includes extensive local knowledge content, links to presentations made by residents of the community, and photographs.
BibTeX:
@electronic{Kivalina2012,,
  title = {City of Kivalina, the only whaling community in the Northwest Arctic Borough region!},
  year = {2012},
  url = {http://kivalinacity.com/},
  community = {Kivalina}
City of Golovin Hazard Mitigation Planning Team and URS The city of Golovin multi-hazard mitigation plan 2008 Golovin  
Review: This plan was developed to comply with FEMA regulations under the Repetitive Flood Claims Program. The City of Golovin does not currently participate in the National Flood Insurance program and is therefore ineligible for the National Flood Insurance Act Grant Programs. Participation in the NFIP has been identified as a high priority action as a result of this plan.
This hazard analysis includes the identification, screening, and profiling of 12 possible hazards to Golovin, eight of which are discussed in detail. These include:
1.Shoreline erosion
2.Earthquake from the Kigluaik–Bendeleben faults
3.Flooding events
4.Ice override (ivu)
5.Permafrost melting and instability
6.Severe weather
7.Wildland fire
8.Naturally-occurring uranium and resulting radon
BibTeX:
@techreport{Golovin2008,,
  title = {The city of Golovin multi-hazard mitigation plan},
  publisher = {The City of Golovin},
  year = {2008},
  pages = {96},
  community = {Golovin}
U.S. Army Corps of Engineers, Alaska District Invitation for Bid Coastal Erosion Control Unalakleet, Alaska 2008 Unalakleet  
Review: This document contains the contractual agreement between the U.S. Army Corp of Engineers and associated agencies for a coastal erosion control project in Unalakleet. The project will require the development of a rock source for a total of 49,000 cubic yards of three types of rock units required for the revetment. The total pro¬jected cost, including meeting all required land reclamation standards, is $31 million.
BibTeX:
@techreport{Opheen2008,,
  title = {Invitation for Bid Coastal Erosion Control Unalakleet, Alaska},
  year = {2008},
  number = {INV.NO. W911KB-08-B0008 UNK134508},
  pages = {229},
  community = {Unalakleet}
Intergovernmental Panel on Climate Change Climate change 2007: synthesis report, contribution of working groups I, II and III to the fourth assessment report (AR4) of the Intergovernmental Panel on Climate Change 2007 Statewide URL 
Review: Statewide or general reference. See foreword.
BibTeX:
@techreport{IPCC2007,,
  title = {Climate change 2007: synthesis report, contribution of working groups I, II and III to the fourth assessment report (AR4) of the Intergovernmental Panel on Climate Change},
  publisher = {Intergovernmental Panel on Climate Change},
  year = {2007},
  pages = {104},
  url = {http://www.ipcc.ch/publications_and_data/ar4/syr/en/contents.html},
  community = {Statewide}
Federal Aviation Administration (FAA), Alaska Region Department of Transportation Environmental assessment, Golovin airport, Golovin, Alaska 1986 Golovin  
Review: This document describes City of Golovin’s dependence on the local airport to meet year-round transportation needs. The current runway safety area is only 80 feet wide by 2,400 feet long, and must be enlarged to 150 feet wide by 4,800 feet long to meet community needs. The surface of the runway is 8 feet amsl, and 25.33 acres out of 54.87 acres of airport property are owned by the current airport sponsor. This report gives proposals for actions to alleviate these problems.
BibTeX:
@techreport{Pattison1986,,
  title = {Environmental assessment, Golovin airport, Golovin, Alaska},
  year = {1986},
  pages = {38},
  community = {Golovin}
Kawerak Inc. Shishmaref local economic development plan 2004-2009 2003 Shishmaref  
Review: This plan is a collection of strategies that are meant to increase cultural heritage and local employment oppor¬tunities, decrease dependency, and reduce duplication of efforts in various projects and programs for Shish¬maref, Alaska. Among the top 11 priorities, two are related to coastal hazard planning and include working together as a community through relocation plans and building roads in the new location.
BibTeX:
@techreport{Shishmaref2003,,
  title = {Shishmaref local economic development plan 2004-2009},
  publisher = {Kawerak Inc.},
  year = {2003},
  pages = {55},
  community = {Shishmaref}
U.S. Army Corps of Engineers, Alaska District Community improvement feasibility report, Kivalina Alaska 1998 Kivalina  
Review: This comprehensive study by the Corps evaluated two potential relocation sites as well as remaining at the present location. At a special election in February 1998, residents selected relocation to Igrugaivik on the Wulik River as their preferred option. The appendices included a groundwater source investigation, Wulik River flood risk analysis, water supply alternatives at the relocation sites, wastewater options at the sites, community layout alternatives, an implementation plan, and a summary of a model Native village in Quebec. The City of Kivalina and the Kivalina Relocation Committee participated in the development of the plan.
For the Igrugaivik site, the surface elevation of the lagoon waters had a greater impact than flooding from the Wulik River. The 100-year flood event for the lagoon was estimated to be 3.6 meters (11.8 feet).
The southeastern Chukchi Sea is shallow, with no areas that are deeper than 50 meters. Mean high tides are estimated to be the same as in Shishmaref, which is .975 meters (3.19 feet) above mean sea level. Ice cover dampens the effect of storm surges. Major storms enter the Chukchi Sea from the southwest. When winds shift to the west and northwest, Kivalina is relatively protected from large waves, but strong winds from these directions may lead to a shift in the predominantly northerly coastal current.
Current Site: The report found that the crowded housing conditions are “far below any acceptable standard” (p. 24). The lack of running water results in the inability to maintain healthy standards of cleanliness. The storage and transport of human waste in honey buckets results in spills inside and outside of homes. The long haul of garbage to the dump in winds results in the spread of garbage outside of the dump area. The report describes improvements that can be made to the water supply and wastewater disposal systems. It also included a proposal to expand the area for future growth by using part of the land owned by the State of Alaska for the airport and filling in part of the lagoon. This proposal would involve extending the runway by 185 meters (607 feet).
The report summarizes natural hazards at Kivalina. It states that elders do not recall any instances where a storm flooded the town. The storm-surge flooding risk completed for this report found that the village is not above the 100-year flood estimate. It estimated the 100-year storm surge to be 10.6 feet, including wave setup, and wave runup on a natural beach could be an additional 2 meters (6.5 feet). The sea ice at Kivalina forms a barrier to pressure ridges and ice ride-up. Erosion of the shore near Singauk Entrance is a concern since most of the water from the Kivalina and Wulik rivers flows through this opening. The point of convergence of the two rivers results in chronic erosion to the village.
The study found that there was a continuous sand bar about 300 meters (984 feet) offshore on the Chukchi Sea side of the village. The report states that dredging of offshore sand beyond 400 meters (1,313 feet) for beach nourishment would have no significant impacts. It recommends construction of beach fill topped with a sand dike.
Imnakuk Site: This site is 8 miles north of the current village on the Kivalina River. The report discusses community layout, water supply, wastewater disposal, and a road to the coast. A short road would be constructed to the Kivalina River to provide boat access upriver. Residents reported that winter winds from the north make this site undesirable.
Igrugaivik Site: This site is east of the existing townsite on the Wulik River. The report discusses risks of flood and erosion, water supply, waste disposal, community layout, and a road to the coast. The community selected this site as their preferred option in a 1998 election.
The 1994 DOWL study identified flooding concerns for this site, but surveys for this project helped create more accurate topographic maps. The 1998 study found that a substantial portion of the site would be above the 100-year flood. It found that the 100-year storm surge in the lagoon would have a greater effect on the site than the Wulik River flooding. The study recommended buildings be set back at least 100 feet from the river due to erosion concerns. The report notes that silty, ice-rich permafrost lies below a shallow layer of peat.
Appendix J provides a summary of a visit to the Ouje–Bougoumou village in Quebec. The report found that one of the keys to success of the village was continuous involvement of the villagers during every step of the planning process.
BibTeX:
@techreport{COE1998a,,
  title = {Community improvement feasibility report, Kivalina Alaska},
  year = {1998},
  pages = {164},
  community = {Kivalina}
Collapsing coastlines—How arctic shores are pulled a-sea 2011 Shishmaref, Kaktovik  
Review: This is a popular press article that describes rates of bluff erosion and mechanisms of coastal erosion in the Kaktovik area. The author highlights some of the issues associated with community responses to elevated rates of erosion, including challenges and costs associated with relocation solutions. Shishmaref is also highlighted as a community imperiled by accelerated erosion.
BibTeX:
@periodical{Strain2011,,
  title = {Collapsing coastlines—How arctic shores are pulled a-sea},
  year = {2011},
  community = {Shishmaref, Kaktovik}
Senate Committee on Homeland Security and Governmental Affairs, Subcommittee on Disaster Recovery Coastal erosion and storm damage in Alaska 2007 Shishmaref  
Review: This is the testimony of Tony Weyiouanna, Shishmaref Village Transportation Planner to the United States Congress. The testimony includes three main components that describe the current situation in Shishmaref.

1.Details of the relocation of the community to the mainland.
2.Projects completed to date and effectiveness.
3.Recommended projects to help move relocation forward.
Mr. Weyiouanna, on behalf of the Shishmaref Erosion and Relocation Coalition, requested appropriation of funds from the State of Alaska and Congress to the Coalition in the amount of $950,818 for the first year of funding and $1,100,000 per year after that until the completed relocation of the community.

BibTeX:
@proceedings{Weyiouanna2007,,
  title = {Coastal erosion and storm damage in Alaska},
  year = {2007},
  pages = {5},
  community = {Shishmaref}
U.S. Army Corps of Engineers, Alaska District Environmental assessment and finding of no significant impact, section 117 expedited erosion control project Kivalina, Alaska 2007 Kivalina  
Review: This document provides the environmental assessment required under the National Environmental Policy Act for an emergency rock revetment project. The assessment found that there would be no significant short- or long-term environmental impacts as a result of this project, but the revetment would result in a minor inconvenience in accessing the beach and could lead to changes to the shape of Singauk Entrance (due to altered sediment patterns, or “longshore drift”).
The report indicates that 25–30 feet of shoreline was eroded during 2004 and 2005 storms, and that a 2006 storm eroded 50 feet inland and exposed permafrost in some areas. The sand-filled gabion erosion protection installed in 2006 failed that same year, causing an accelerated rate of erosion. The document states that it would take up to 15 years to relocate the community.
The report assessed eight alternatives including no action, a sheet pile wall, sandbag revetment, rock revetment, gabion revetment, an offshore berm, an articulated concrete mat, and community relocation. The assessment led to the selection of the rock revetment alternative that involves construction of 3,100 feet of revetment south of the airstrip on both sides of the island.
The assessment acknowledges that the potential effects of disrupting the longshore drift are poorly understood and that the project could affect transport of sediments leading to changes in the morphology (structure and form) of Singauk Entrance. The report speculates that Singauk Entrance could move toward Kivalina. There would be fewer sediments moving south because of expected of expected “accretion on the upcurrent side of the structure and erosion on the downcurrent side of the structure” (p. 19).
BibTeX:
@techreport{COE2007,,
  title = {Environmental assessment and finding of no significant impact, section 117 expedited erosion control project Kivalina, Alaska},
  year = {2007},
  number = {PL 108-447},
  pages = {24},
  community = {Kivalina}
U.S. Army Corps of Engineers, Alaska District Civil works floodplain management services 2011 Kivalina, Deering, Selawik, Unalakleet, Shaktoolik, Golovin, Saint Michael, Savoonga, Gambell, Shishmaref, Teller, Hooper Bay, Scammon Bay, Kwigillingok, Clark's Point & Ekuk, Quinhagak, Nunam Iqua (Sheldon Point), Kotlik, Barrow, Point Lay, Kaktovik URL 
Review: This website provides flood hazard data for communities throughout Alaska. A link is provided to a flood hazard-specific bibliography, maintained by the U.S. Army Corps of Engineers.

Clark's Point Ekuk; The last flood event for Clark’s Point was reported in 1995, with the worst flood event being reported as the 1929 flood, of coastal origin. Recommendations for building elevations are 33.0 feet MLLW, with a 100-year flood elevation expected to be 32.0 feet MLLW. The last flood event for Ekuk was recorded during 1969 from coastal flooding. Comments are available discussing relative water levels around the community from the 1969 flood.

Deering; The most recent flood event reported for Deering was in 1990, caused by an ice jam and spring runoff. The worst flood event on record is listed as occurring in 1974 during a fall storm.

Gambell; The last flood event for Gambell was reported in 1977. Typical storm surge conditions are included from resident reports. Gambell does not participate in the National Flood Insurance Program.

Golovin; The worst flood event for Golovin was documented in 1913, in which the National Flood Insurance Program did not participate. Survey information is available for specific buildings that have been previously inundated by a flood event.

Hooper Bay; The last reported flood event in Hooper Bay occurred during November 1991 and the community is listed as not participating in the National Flood Insurance Program.

Kaktovik; The worst flood event on record for Kaktovik was recorded during 1964 from a coastal storm. Recommended building heights as well as comments from the 1964 flood are available at this site.

Kivalina; The 100-year storm surge height has been calculated as 10.6 feet MLLW for Kivalina. Kivalina has also been listed as not participating in the National Flood Insurance Program.

Kotlik; The last flood event for Kotlik was in 1987 from stream overflow, and the largest flood on record was in 1974 from a rainfall event. Survey information is available from the 1974 flood event given in elevations based on an arbitrary baseline.

Kwigillingok; The most recent flood event in Kwigillingok was recorded during November 1979, caused by storm surge in the Kuskokwim Bay.

Nunam Iqua; Survey information is provided for estimated flood heights for the 1972 flood in Sheldon Point. Notes are also provided on various areas throughout the community, which were affected by the flood.

Point Lay; Standard flood data are not available for Point Lay, but notes about the community are documented on this site.

Quinhagak; Standard flood data is not available for Quinhagak, but survey information of relative flooding elevations are available as of July 1994.

Saint Michael; The entire community of Saint Michael is above the 100-year floodplain, and there is no record on this site for previous flooding events. Saint Michael is not participating in the National Flood Insurance Program.

Savoonga; The report has recognized Savoonga as being subject to erosion issues; Savoonga was identified as one of 69 communities where the monitoring of erosion conditions is actively ongoing.

Scammon Bay; Standard flood data is not available for Scammon Bay, but comments regarding flooding events are available.

Selawik; Standard flood data are not available for Selawik, but personal stories from community members are documented on this site.

Shaktoolik; The flood record database states that wave run-up extends to 30 feet elevation on the Norton Sound side of Shaktoolik. Flooding is considerably less on the Shaktoolik River side.

Shishmaref; The last Shishmaref flood event was documented during 1989, with the largest flood on record, in 1973, caused by coastal flooding of the Bering Strait. Notes about the 1973 flood event are provided, with relative storm-surge elevations.

Teller; This website provides flood-hazard data for communities throughout Alaska. A link is provided to a flood-hazard-specific bibliography, maintained by the U.S. Army Corps of Engineers. The last flood event for Teller was reported in 1974. Comments about other flooding events and relative flood elevations are also on this site.

Unalakleet; The highest reported flood event in Unalakleet was 18 ft above MSL in 1965; a recommended minimum building elevation is set 19.0 ft above MSL.

BibTeX:
@electronic{COE2011,,
  title = {Civil works floodplain management services},
  year = {2011},
  url = {http://www.poa.usace.army.mil/en/cw/fld_haz/floodplain_index.htm},
  community = {Kivalina, Deering, Selawik, Unalakleet, Shaktoolik, Golovin, Saint Michael, Savoonga, Gambell, Shishmaref, Teller, Hooper Bay, Scammon Bay, Kwigillingok, Clark's Point & Ekuk, Quinhagak, Nunam Iqua (Sheldon Point), Kotlik, Barrow, Point Lay, Kaktovik}
U.S. Army Corps of Engineers, Alaska District Shaktoolik coastal flooding analysis 2011 Shaktoolik  
Review: From introduction: “The purpose of this report is to identify the likelihood and severity of coastal flooding, and to update the erosion map presented in the 2009 Alaska Baseline Erosion Study for the community of Shaktoolik, Alaska. Coastal flooding results from the combination of wave, surge, and runup. The ‘old site’, approximately 3 miles south of the current community site, endured several storms that resulted in flooding and damage to the community. The extent of erosion at the “old site” was one of the factors that prompted the community to relocate to its current site in 1974. This report has been prepared to assist the community of Shaktoolik in future planning, studies, and projects. The results of this report were reviewed by the U.S. Army Corps of Engineers, Alaska Dis¬trict, Coastal and Hydraulics Laboratory (CHL), residents of Shaktoolik, Kawerak Corporation, and the Denali Commission.”
BibTeX:
@techreport{COE2011a,,
  title = {Shaktoolik coastal flooding analysis},
  year = {2011},
  pages = {73},
  community = {Shaktoolik}
Alaska Department of Natural Resources, Division of Coastal and Ocean Management (DCOM) Alaska Coastal Management Program 2011 Unalakleet, Golovin, Saint Michael, Savoonga, Gambell, Shishmaref, Teller, Hooper Bay, Scammon Bay, Kwigillingok, Clark's Point & Ekuk, Quinhagak, Nunam Iqua (Sheldon Point), Kotlik, Barrow, Point Lay, Kaktovik URL 
Review: This website outlines the Alaska Coastal Management Plans for each coastal district. It provides stewardship plans “to ensure a healthy and vibrant Alaskan coast that efficiently sustains long-term economic and environmental productivity.”
BibTeX:
@electronic{DCOM2011,,
  title = {Alaska Coastal Management Program},
  year = {2011},
  url = {http://alaskacoast.state.ak.us/Explore/Tour.html},
  community = {Unalakleet, Golovin, Saint Michael, Savoonga, Gambell, Shishmaref, Teller, Hooper Bay, Scammon Bay, Kwigillingok, Clark's Point & Ekuk, Quinhagak, Nunam Iqua (Sheldon Point), Kotlik, Barrow, Point Lay, Kaktovik}
Alaska Department of Commerce, Community & Economic Development, Division of Community & Regional Affairs (DCRA) Alaska Division of Community & Regional Affairs Community Profiles 2011 Kivalina, Deering, Selawik, Unalakleet, Shaktoolik, Golovin, Saint Michael, Savoonga, Gambell, Shishmaref, Teller, Hooper Bay, Scammon Bay, Kwigillingok, Clark's Point & Ekuk, Quinhagak, Nunam Iqua (Sheldon Point), Kotlik, Barrow, Point Lay, Kaktovik URL 
Review: Barrow; This website provides access to community profile maps for community-based planning. The maps are available in 24" by 36" and 30" by 42" formats. The Barrow maps were created in 1978 based on land survey and/or interpretation of aerial imagery. Subsistence hunting grounds, habitat areas, community buildings and public facilities are delineated. Shoreline position and potential erosion zones are included in the map content. All maps have been sponsored by the Alaska Division of Community & Regional Affairs and contracted to local agencies for production.
BibTeX:
@electronic{DCRA2011,,
  title = {Alaska Division of Community & Regional Affairs Community Profiles},
  year = {2011},
  url = {http://www.commerce.state.ak.us/dca/profiles/profile-maps.htm},
  community = {Kivalina, Deering, Selawik, Unalakleet, Shaktoolik, Golovin, Saint Michael, Savoonga, Gambell, Shishmaref, Teller, Hooper Bay, Scammon Bay, Kwigillingok, Clark's Point & Ekuk, Quinhagak, Nunam Iqua (Sheldon Point), Kotlik, Barrow, Point Lay, Kaktovik}
Denali Commission Road and waterfront project selections fiscal year 2006-2011 2011 Unalakleet, Shaktoolik, Saint Michael, Gambell, Teller, Hooper Bay, Scammon Bay, Kwigillingok, Clark's Point & Ekuk, Nunam Iqua (Sheldon Point), Point Lay  
Review: This report contains an overview of all of the funding dispersed by the Denali Commission Transportation Program from 2006-2011. The document is organized by partner agency/project and includes a description of the project status.

Clark's Point Ekuk; Funding for road planning between Clark’s Point and Ekuk was given in the amount of $50,000 in 2008. The project has since been completed.

Gambell; $850,000 was awarded to Gambell for documentation and construction of an evacuation road in 2011.

Hooper Bay; Hooper Bay was awarded $32,925 in 2008 for subsistence ATV road planning. Between 2007 and 2008 $414,531 was awarded for an Alaska Village Electric Cooperative (AVEC) wind turbine access road. An additional $134,647 was awarded through the Association of Village Council Presidents in 2011 for community streets. As of March 2011, both the road planning and wind turbine access road projects have been completed, while the community streets project was under construction.

Kwigillingok; Kwigillingok was awarded $150,000 and $125,000 in 2009 and 2011 for the design and completion of an ATV trail.

Nunam Iqua; Nunam Iqua was given $172,363 in 2007 for road improvements and $1,000,000 in 2008 for new boardwalk construction; both projects were completed.

Point Lay; Point Lay was given $478,400 in 2011 for the construction of subdivision roads; this project is still under preliminary design.

Saint Michael; The village of Saint Michael was awarded $150,000 in 2011 for documentation and design for developing a port.

Scammon Bay; Scammon Bay was appropriated $1,689,134 for the rehabilitation of community streets in 2010; the project is currently in the design and construction stage.

Shaktoolik; Shaktoolik had funds of $1 million for the planned development of an evacuation route in 2009, but the funds were cancelled.

Teller; Teller was appropriated $75,000 in 2010 to complete a dust control project at the Teller airport. This project is currently in the design phase.

Unalakleet; Unalakleet was awarded $144,616 and $1,700,000 in FY2006 and FY2007 for street reconstruc¬tion projects, which are now complete.

BibTeX:
@techreport{Denali2011,,
  title = {Road and waterfront project selections fiscal year 2006-2011},
  year = {2011},
  pages = {9},
  community = {Unalakleet, Shaktoolik, Saint Michael, Gambell, Teller, Hooper Bay, Scammon Bay, Kwigillingok, Clark's Point & Ekuk, Nunam Iqua (Sheldon Point), Point Lay}
Alaska Department of Military and Veterans Affairs, Division of Homeland Security and Emergency Management State of Alaska hazard mitigation plan 2010 Statewide URL 
Review: Statewide or general reference. See foreword.
BibTeX:
@techreport{ADMVA2010,,
  title = {State of Alaska hazard mitigation plan},
  publisher = {Alaska Department of Military and Veterans Affairs},
  year = {2010},
  pages = {888},
  url = {http://ready.alaska.gov/plans/mitigationplan.htm},
  community = {Statewide}
Bristol Environmental & Engineering Services Corporation Shishmaref relocation plan update final, Shishmaref, Alaska 2010 Shishmaref  
Review: This report is an update to the Shishmaref Erosion and Relocation Coalition on previously evaluated relocation sites and necessary steps for future relocation planning. Relocation to the mainland has been identified as the popular choice of Shishmaref citizens, compared to collocation or not moving. Although the Tin Creek and West Tin Creek sites have been favored during certain public meetings, there is concern as to the site viability because of the ice-rich soils at both sites. Further examination of sites along the Ear Mountain access road are necessary as well as the West Nunatuq site before a decision is made. Collocation for both Nome and Kotzebue has been considered by the U.S. Army Corps of Engineers, as well as the feasibility of no action. Cost analyses are avail¬able for each of the potential options, as well as planning steps/requirements.
BibTeX:
@techreport{BristolCorp2010,,
  title = {Shishmaref relocation plan update final, Shishmaref, Alaska},
  publisher = {Bristol Environmental & Engineering Services Corporation},
  year = {2010},
  pages = {43},
  community = {Shishmaref}
Cold Climate Housing Research Center, Inc. Sustainable northern communitites 2010 Shaktoolik URL 
Review: The Cold Climate Housing Research Center is a nonprofit in Fairbanks with the goal of constructing energy-efficient, sustainable housing for rural Alaska. It is currently working with the communities of Anaktuvuk Pass, Newtok/Metarvik, Point Lay, and Nuiqsut.
The 2009 demonstration house project in Anaktuvuk Pass involved construction of an energy-efficient home. The home was constructed with a light steel frame sprayed with a soy-based polyurethane R-60 insulation and covered on the inside with a plywood skin. A sod roof and earth banking are used on the outside. Energy consumption is estimated to be 110 gallons of fuel oil per year, and the home uses both solar and wind power. The cost of the house, including shipping, was less than $150,000. Students from Illisagvik College in Barrow built the house in four weeks.
BibTeX:
@electronic{ColdClimateInc2010,,
  title = {Sustainable northern communitites},
  year = {2010},
  url = {http://www.cchrc.org/sustainable-northern-communities},
  community = {Shaktoolik}
Alaska Department of Natural Resources, Division of Coastal and Ocean Management (DCOM) State of Alaska Coastal Impact Assistance Program December 2010 Amendment 2010 Kivalina, Shaktoolik URL 
Review: Kivalina; The 2010 amendment to the State of Alaska Coastal Impact Assistance Plan describes the allocation of federal CIAP funds in the State of Alaska. The plan includes funding for a project called Geohazard Evaluation and Geologic Mapping for Coastal Communities. The Department of Natural Resources Division of Geological & Geophysical Surveys will complete the project. The project involves a geohazards evaluation and production of surficial and engineering-geologic/hazards maps. The project description specifically mentions Kivalina as a priority area for study.
BibTeX:
@techreport{DCOM2010,,
  title = {State of Alaska Coastal Impact Assistance Program December 2010 Amendment},
  year = {2010},
  pages = {40},
  url = {http://dnr.alaska.gov/commis/CIAP/ciap_Fall.htm},
  community = {Kivalina, Shaktoolik}
Ecology and Environment, Inc. Emergency operations plan: Shaktoolik, Alaska 2010 Shaktoolik  
Review: The Emergency Operations Plan describes how the city, IRA, and Native Corporation will cooperate to mange emergencies, including their participation in the incident command system. The plan describes procedures for mitigation and prevention, preparedness, response, and recovery. The plan outlines specific responsibilities of local, state, and federal agencies and organizations. Specific hazards that may result in an emergency include fires, adverse ice conditions, flooding and erosion, extreme weather, earthquakes, tsunamis, hazardous material releases, and terrorism. The plan specifies training that is needed for members of the incident command system and exercises the community should complete, including “tabletop” and full-scale exercises. Appendices include a memorandum of understanding to implement the plan, forms, and guides.
BibTeX:
@techreport{EcologyInc2010a,,
  title = {Emergency operations plan: Shaktoolik, Alaska},
  year = {2010},
  note = {the City of Shaktoolik and the Native Village of Shaktoolik IRA Council and the Alaska Department of Military and Veterans Affairs, Division of Homeland Security and Emergency Management},
  community = {Shaktoolik}
Ecology and Environment, Inc. Evacuation plan: Shaktoolik, Alaska 2010 Shaktoolik  
Review: A joint resolution by the City of Shaktoolik, the Native Village of Shaktoolik, and the Shaktoolik Native Corporation outline cooperation among the three entities to support the emergency evacuation plan. The City and IRA Council share responsibilities for emergency preparedness, administrative, response, and recovery responsibilities. The plan specifies that elderly, small children with at least one parent, and individuals with medical needs will be given priority for evacuation. The Incident Commander (Mayor), with guidance from the Unified Command (representatives of the city, tribe, and corporation) decides whether to issue a decision for residents to remain at home (shelter-in-place), evacuate residents to a location within the community, or evacuate residents to areas outside of Shaktoolik. Evacuations may apply to certain parts of the community or the entire village. Evacuation locations include the school (for elderly, families with small children, and people with special needs), the Youth Camp (for youth located outside the community; accessible by boat), and the National Guard Armory (for others). Evacuation orders will be given on the VHF radio, by telephone, through house-to-house notifications, and through television and radio announcements. The plan describes five levels of preparedness. Appendices include checklists, procedures, and a sample evacuation order.
BibTeX:
@techreport{EcologyInc2010b,,
  title = {Evacuation plan: Shaktoolik, Alaska},
  year = {2010},
  note = {prepared for the City of Shaktoolik and the Native Village of Shaktoolik IRA Council and the Alaska Department of Military and Veterans Affairs, Division of Homeland Security and Emergency Management},
  community = {Shaktoolik}
Tetra Tech, Inc. Imperiled community water resources analysis 2010 Deering, Selawik, Golovin, Saint Michael, Teller, Scammon Bay, Kwigillingok, Clark's Point & Ekuk, Quinhagak, Kotlik, Barrow  
Review: This report summarizes climate-related threats to water and wastewater infrastructure within Alaskan communities including those at risk to flooding, saltwater intrusion, loss of surface water supply, erosion, and sedimentation of the source region. The primary objectives of the analysis were to:
1.Identify and select study group communities whose water infrastructure is threatened
2.Collect information on the threatened water infrastructure for the study group communities
3.Analyze information to determine the climate-related impacts to study group community water infrastructure. (p. 2)

Barrow; A permafrost depth profile is provided for Barrow that extends 1,330 feet below the surface. The diagram is meant to show the effects of global climate change on soil temperature and active layer thickness. Barrow is described as being exposed to a long fetch, with a continuous 200° arc of exposure to the Arctic Ocean.

Clark's Point Ekuk; Clark’s Point is subject to threats to water infrastructure from flooding of Bristol Bay and the Nushagak River.

Deering; Deering is included in the study group as an example of a low-lying coastal community that is influenced by the “lack of sea ice and timing of sea ice” and the “increased effects of storm surges unbuffered by shorefast ice.” The water infrastructure identified as at risk includes the sewage lagoon and the main water line. Both are located near the shoreline and at risk to coastal and riverine erosion. A general community profile is available within the report that outlines the socioeconomic, geologic and climatic setting, provides an overview of the existing water resources and summarizes a brief history of documented historical impacts to existing water infrastructure.

Golovin; Golovin is identified as being susceptible to lack of sea ice, changed timing in sea ice formation, and increased effects of storm surges on the unbuffered shoreline. The community water storage tank and septic lines are identified as being at risk from melting permafrost, coastal and river erosion, and ivu. A general community profile is available in the report that outlines the socioeconomic, geologic, and climatic setting, provides an overview of the existing water resources in the community, and summarizes a brief history of documented historical impacts to existing water infrastructure.

Kotlik; For this study, Kotlik was examined for melting permafrost. It was reported that Kotlik had 60% of the community at risk from erosion and 100% susceptible to flooding from the Yukon River and coastal surge. The landfill was included as a critical facility at risk to these hazards and may affect water infrastructure if damaged.

Kwigillingok; The water infrastructure risks are unknown for Kwigillingok; however, there are potential risks to flooding from coastal storm surge. Kwigillingok was evaluated in less detail than the main communities of the report because of the need for additional information.

Quinhagak; A general community profile is available in the report that outlines the socioeconomic, geologic, and climatic setting, provides an overview of the existing water resources, and includes a brief history of documented historical impacts to existing water infrastructure in Quinhagak. Quinhagak was identified as one of 25 communities likely to face climate-change-related impacts to their water infrastructure. The local water pump is at risk from river channel migration. The water quality is changing because of the location of the community well infiltration pump. This has caused the need for a more extensive water filtration procedure.

Saint Michael; A general community profile is available in the report that outlines the socioeconomic, geologic, and climatic setting, provides an overview of the existing water resources in the community, and summarizes a brief history of documented historical impacts to existing water infrastructure.

Scammon Bay; Scammon Bay has not had erosion problems reported caused by the Kun River; however, erosion is occurring at sites built on substandard fill. The mode of erosion identified in this report is permafrost melting.

Selawik; The water infrastructure identified as at risk in Selawik includes the water lines and tanks that are exposed to erosion along the Selawik River, driven by melting permafrost and thermokarst. A general community profile is available in the report that outlines the socioeconomic, geologic, and climatic setting, provides an overview of the existing water resources and summarizes a brief history of documented historical impacts to existing water infrastructure.

Teller; Teller was one of 25 communities identified as likely to face climate-change-related impacts to water infrastruc¬ture. The sewage lagoon was reported as being at risk from coastal flooding. A general community profile is available in the report that outlines the socioeconomic, geologic, and climatic setting, provides an overview of the existing water resources in the community, and summarizes a brief history of documented historical impacts to existing water infrastructure.

BibTeX:
@techreport{TetraTech2010,,
  title = {Imperiled community water resources analysis},
  year = {2010},
  pages = {47},
  community = {Deering, Selawik, Golovin, Saint Michael, Teller, Scammon Bay, Kwigillingok, Clark's Point & Ekuk, Quinhagak, Kotlik, Barrow}
Alaska Department of Military and Veterans Affairs, Division of Homeland Security and Emergency Management 2009 Fall sea storm preparation guide 2009 Statewide  
Review: Statewide or general reference. See foreword.
BibTeX:
@techreport{ADMVA2009,,
  title = {2009 Fall sea storm preparation guide},
  publisher = {Division of Homeland Security and Emergency Management},
  year = {2009},
  pages = {43},
  community = {Statewide}
Alaska Department of Transportation & Public Facilities (DOT&PF) Infrastructure and erosion control: An overview of the Alaska Department of Transportation and Public Facilities Projects in the Northern Region 2009 Shishmaref  
Review: This powerpoint contains an overview of Alaska Department of Transportation & Public Facilities projects con¬cerning erosion control in their northern region. The projects in Shishmaref include changes to the airport master plan and reconnaissance study for a relocation road.
BibTeX:
@techreport{ADOT2009,,
  title = {Infrastructure and erosion control: An overview of the Alaska Department of Transportation and Public Facilities Projects in the Northern Region},
  year = {2009},
  pages = {58},
  community = {Shishmaref}
U.S. Army Corps of Engineers, Alaska District Study findings and technical report: Alaska baseline erosion assessment 2009 Kivalina, Deering, Selawik, Unalakleet, Shaktoolik, Golovin, Saint Michael, Savoonga, Gambell, Shishmaref, Teller, Hooper Bay, Kwigillingok, Clark's Point & Ekuk, Nunam Iqua (Sheldon Point), Kotlik, Barrow, Point Lay, Kaktovik URL 
Review: This statewide assessment was conducted by the U.S. Army Corps of Engineers to coordinate, plan, and prioritize responses to erosion throughout Alaska.

Clark's Point Ekuk; The report has designated 26 communities as priority action communities, including Clark’s Point. Erosion at Clark’s Point is identified as occurring along the Nushagak Bay and River. Flooding, spring breakup, high tides, and wind and wave activity perpetuate the erosion issues. The average long-term rate of erosion along the community has been reported as 2 to 4 feet per year. Ekuk is identified as one of 20 communities having erosion issues.

Deering; The report designated 26 communities, including Deering, as priority action communities. The Army Corps of Engineers identified Deering as susceptible to coastal and riverine erosion, primarily due to its location on a gravel spit. Erosion response in Deering included a State emergency erosion protection grant in 1995 with a total project cost of $500,000, as well as the completion of two COE revetments amounting to 1,400 feet of shore protection.

Gambell; The report has recognized Gambell as having erosion issues as well as being one of 69 communities where monitoring of conditions is taking place.

Golovin; The report has designated 26 communities as priority action communities, including Golovin. Golovin is subject to both coastal and riverine erosion, resulting in risk to community structures such as the retail store, road, boat launch, utility poles, and others. At the current status, damages are expected within 10 years. Detailed assessment of erosion is still necessary to develop potential solutions.

Hooper Bay; This report has recognized Hooper Bay as being subject to erosion issues; Hooper Bay was identified as one of 69 communities where the monitoring of erosion conditions is actively ongoing.

Kaktovik; This report has recognized Kaktovik as being subject to erosion issues; Kaktovik was identified as one of 69 communities where the monitoring of erosion conditions is actively ongoing.

Kivalina; The report designated 26 communities, including Kivalina, as priority action communities. The assessment summarizes earlier studies about the effects of coastal erosion on selected communities, including Kivalina. The document summarized the results of a 2006 COE study that found:
1.The costs of future erosion protection for Kivalina would be $15 million,
2.It would cost between $95 and $125 million to relocate the community, and
3.The community has 10–15 years left at its current site.
The document reported that 2006 legislation by Congress provided funds to implement erosion-control projects, and an estimated $30 million would be needed to complete erosion control projects in Kivalina. The report states that Kivalina had nine erosion control projects between 1992 and 2007 at a cost of $325,000. Most of the projects dealt with community and were funded by the Alaska Department of Commerce, Community & Economic Development.
Online access to this document includes a link to Erosion Information Papers specific to each community. These Alaska Village Erosion Technical Assistance (AVETA) program reports include a description of the community setting, erosion problem, and potential damages as well as historic/predicted shoreline position maps (based on approximated erosion rates) and community-provided photos of erosion.

Kotlik; The erosion at Kotlik, about 3 feet per year, is reported as riverine erosion. Several community structures as well as roads are at risk from erosion. Three erosion control projects have been completed in Kotlik, costing a total of about $83,000. All projects were capital matching grants funded by DCCED. It is recommended that Kotlik begin a detailed assessment identifying possible solutions to the erosion issues. The assessment would cost about $100,000.

Kwigillingok; This report has recognized Kwigillingok as one of 26 priority action communities having erosion issues.
The erosion at Kwigillingok has been identified as occurring primarily during fall storms. Permafrost thaw and increased soil pore pressure are responsible for saturating the soil, making it unstable and erodible. The erosion is affecting residential properties, the fishery structures, and the barge landing.

Nunam Iqua; This report has recognized Nunam Iqua as one of 178 communities identified as having erosion issues.

Point Lay; The report has designated 178 communities as having erosion issues, including Point Lay.

Saint Michael; The report has designated 26 communities as priority action communities, including Saint Michael.
The erosion at Saint Michael has been determined to be caused by high tides, storm surges, wind and waves, melting permafrost, and early melting sea ice. The average erosion rate is 3 feet per year in front of the community. Some community structures have been moved, but others are still vulnerable to erosion in the next 10 years. The Corps suggests a need for a detailed assessment of the erosion problem that would cost $100,000.

Savoonga; Savoonga was recognized as one of the 184 Alaska Native Villages affected by flooding and erosion.

Selawik; The report designated 26 communities, including Selawik, as priority action communities.
Online access to this document includes a link to Erosion Information Papers specific to each community. These Alaska Village Erosion Technical Assistance Program (AVETA) reports include a description of the community setting, erosion problem, and potential damages as well as historic/predicted shoreline position maps (based on approximated erosion rates) and community-provided photos of erosion.

Shaktoolik; This report presents the results of the Alaska Baseline Erosion Assessment, which found that Shaktoolik is one of 26 Alaska communities designated as Priority Action Communities. This designation indicates an immediate need for action, which includes either an evaluation of potential solutions or continuing efforts to manage erosion. Priority Action Communities have reported serious erosion that threatens community viability. Appendix F of this report includes a detailed erosion assessment for Shaktoolik. The assessment found that Shaktoolik experi¬ences both coastal erosion from Norton Sound and riverine erosion from the Tagoomenik River. It states the com¬munity is vulnerable to future storm damage in the next 10 years due to erosion of natural protection. Erosion could cause isolation of the community and loss of its water source if the spit erodes south of the village.
The report identified Shaktoolik as a target community for continuation of existing Corps of Engineers studies. The Corps is investigating erosion at Shaktoolik under funding from the Baseline Erosion Assessment, the Hurricane and Storm Damage Reduction program, and section 103 of the 1962 Rivers and Harbor Act. The report states that the community’s long-term goal is to relocate, and the next step is to complete planning and design efforts for a 14.6 mile road to the relocation site.
Appendix H of the assessment discusses three expedient coastal protection measures appropriate for Alaska considering locally available materials and the ability for a locally mobilized work force.
•Geotextile sandbags, composed of either polyester or polypropylene, filled with sand or gravel. These bags are placed on top of a filter fabric, overlapped and extended below MLLW. This alternative requires annual maintenance and may not be suitable to areas subject to damage from ice ride-up.
•Beach nourishment involves replacement of sediments eroded from a beach with material at least as coarse as the eroded materials. Materials can be placed from onshore sources or dredged from offshore sources. Wider beaches reduce damage from storms, and erosion of the new materials to areas offshore will reduce the number of large waves reaching shore. Beach nourishment efforts will need to be continued periodically, depending on the rate of erosion of the new material.
•Modified geotextile wrap-around revetments involve filling large sheets of fabric and wrapping them around into an enclosed structure. The layers are sewn together. While this technique has not been used in Alaska, it has had success in other areas.
This appendix describes coastal processes including sediment transport and water levels. The report identifies characteristics of a shoreline protection project: Strength (ability to withstand wave force), flexibility (ability to settle without failing), and protection from undermining of materials in front of the structure (toe protection) and along the sides of the structure. In most circumstances, structures with gentle slopes and high porosity (drainage) will receive less damage from toe scour. A beach or structure with a gentle slope and rough service will receive less run-up than a steep slope with a smooth surface.
The detailed erosion assessment for Shaktoolik (Appendix F) identifies storms coming from the south, storm surges, and sea-ice conditions as the major erosive forces. Major storms in 2003, 2004, and 2005 resulted in considerable coastal erosion, and the airport at the former village site to the south is “just a few hundred feet from erosion ad¬vancing from Tagoomenik River. It is reported that most of Shaktoolik lies within the 100-year floodplain” (p. 2).
The assessment identified six categories of damage: Land, residential structures, commercial structures, public structures, infrastructure, and environmental hazards. The erosion assessment estimates that Shaktoolik is losing about 0.88 acres (38,300 square feet) of land each year with a total expected loss of 44.84 acres during the next 50 years. The assessment estimated damage for three sections of the community:
•Section 1 (9,600 foot area fronting the community): This section is eroding at a rate of 2 feet per year. Next 50-year loss is estimated to be 23.42 acres.
•Section 2 (3,900 foot area south of section 1): This area is eroding at a rate of 1 foot per year. Next 50-year loss is estimated to be 3.86 acres.
•Section 3 (4,700 foot area south of section 2): This area is eroding at a rate of 3 feet per year. Next 50-year loss is estimated to be 17.56 acres.
The erosion assessment states that 14 outbuildings and 18 residences are at risk in the present community site including: Three commercial structures (two tank farms and retail store), four public buildings (including school and its septic system), 5,000 feet of roads, 1,400 feet of sewer lines, 275,000 gallons of bulk fuel storage capacity, 848,000 gallons of water storage and 10,000 feet of water lines, and the power plant. The southern tank farm would need decommissioning in the next 10 years, and the northern tank farm would need decommissioning in 11–30 years. Potential environmental consequences would occur from eroding sewer lines, and erosion of possible soil contamination at the tank farms. An estimated $23 million in future costs would result from damages stem¬ming from erosion.
The assessment identifies potential responses to continued erosion including structural and non-structural solu¬tions. Structural solutions include building a 4,500 foot revetment in front of the community ($29.2 million), con¬structing a 3,350 foot revetment near First Bend to protect the water supply ($18.6 million), constructing a “groin field” to trap sand on the beach ($30.8 million), and beach nourishment ($36.5 million). Nonstructural solutions include relocation of threatened buildings and infrastructure (including water intake area), construction of an evacuation road, and village relocation.

Shishmaref; A history of erosion projects in Shishmaref from 1992 to 2009 includes emergency tank relocation, erosion control, and shoreline protection projects.

Teller; The report has designated 178 communities as having erosion issues, including Teller.

Unalakleet; This statewide assessment was conducted by the U.S. Army Corps of Engineers to coordinate, plan, and priori-tize responses to erosion throughout Alaska. The report designated Unalakleet, along with 25 other communi-ties, as priority action communities. Section 117 of the 2005 Energy and Water Development Appropriations Act has initiated construction projects at Kivalina, Newtok, Shishmaref, and Unalakleet.
There have been two erosion projects completed since 2004 in Unalakleet. These projects, totaling $1.8 million, involved protecting roadways from erosion damage. At the time of this report, Unalakleet was in the preliminary stage of a $5 million erosion protection project funded by a legislative grant.
The Corps has proposed a revetment for a large portion of the frontage, but residential structures are still threatened and this report estimates that damage is expected to occur within 10 years. The designed revetment is a 1,500-foot rock structure to be emplaced over the existing gabion seawall and is projected to cost $28 million. With the repeal of Section 117, the funding for this project is uncertain.

BibTeX:
@techreport{COE2009,,
  title = {Study findings and technical report: Alaska baseline erosion assessment},
  year = {2009},
  pages = {68},
  url = {http://www.poa.usace.army.mil/AKE/Home.html},
  community = {Kivalina, Deering, Selawik, Unalakleet, Shaktoolik, Golovin, Saint Michael, Savoonga, Gambell, Shishmaref, Teller, Hooper Bay, Kwigillingok, Clark's Point & Ekuk, Nunam Iqua (Sheldon Point), Kotlik, Barrow, Point Lay, Kaktovik}
U.S. Army Corps of Engineers, Alaska District AVETA report summary- Unalakleet, Alaska 2009 Unalakleet  
Review: This report is a brief overview of projected costs due to erosion-driven infrastructure loss and the projected costs of necessary erosion control measures in Unalakleet, Alaska. The report includes historic and predicted shoreline position maps for Unalakleet, dependent on erosion rates determined to be 1 foot per year on the side of Norton Sound, and 2 feet per year on the portion of the sand spit in contact with the Unalakleet River.
BibTeX:
@techreport{COE2009a,,
  title = {AVETA report summary- Unalakleet, Alaska},
  year = {2009},
  pages = {4},
  community = {Unalakleet}
U.S. Army Corps of Engineers, Alaska District Community erosion assessment Kwigillingok, Alaska 2009 Kwigillingok  
Review: This report identifies erosion problems and gives solutions for Kwigillingok, Alaska. Kwigillingok is subject to episodic erosion by the Quillingok River, primarily during spring breakup and the fall storm season. Areas of concern regarding erosion are the airport, because of a rapidly changing drainage system, and locations along the river. Economic damages have been calculated for a 50-year period based on projected erosion interval lines. Expected damages have been split into six categories: land, residential, structures, commercial structures, public structures, infrastructure, and environmental hazards. Approximately 20 percent of the expected damages are expected to occur within the first 10 years of the 50-year projection period. Total erosion damages over the 50-year period amount to approximately $30.5 million. Potential solutions provided include construction of a riprap revetment in two bends of the river at a cost of $26.7 million.
BibTeX:
@techreport{COE2009b,,
  title = {Community erosion assessment Kwigillingok, Alaska},
  year = {2009},
  pages = {8},
  community = {Kwigillingok}
U.S. Army Corps of Engineers Continuing authorities project fact sheet [preliminary] 2009 Shaktoolik  
Review: This fact sheet was completed under authority of Section 103 of the Rivers and Harbors Act to investigate interest of the federal government in reducing storm-related damage to public facilities in Shaktoolik. The village was desig¬nated a priority action community in the March 2009 Alaska Baseline Erosion Assessment Study. Portions of the sand spit south of town flooded during storm surges in 2004 and 2005. The report identified the following concerns:
•The south tank farm operated by the Shaktoolik Native Corporation is threatened by erosion that could result in environmental damage.
•AVEC’s north tank farm is also threatened by erosion.
•The First Bend of the Tagoomenik River is threatened by erosion, which could breach the spit and make the community an island, preventing evacuation to high ground and access to subsistence resources.
•Erosion near First Bend would threaten the community’s fresh water source.
•The driftwood line in front of the community could cause structural damage during a storm.
•The septic tank for the school is subject to erosion.
•Sewer lines serving residences are also subject to erosion.
The fact sheet states that, typically, severe wave occurrences move sediments offshore and move them back to the beach during periods of calmer weather. In addition to storm surges, ice contributes to erosion. The report predicts that later sea ice formation will increase occurrence of high-energy waves that narrow and steepen the beach.
Using aerial photographs from 1980, 1994, and 2004, the Corps measured erosion rates in front of buildings in Shaktoolik and each 1,000 foot increment for the 5,000 feet northwest and the 9,000 feet to the southeast of the community. Between 1980 and 1994, the trend was for the beach to remain stable or grow in some areas. During the period 1994 and 2004, the beach eroded. While it is unknown whether the future trends will result in accretion or erosion, for the purpose of this analysis the Corps assumed that the recent rates of erosion will continue. The Corps divided the area around Shaktoolik into three sections, and it predicted that erosion rates will be between 1 and 3 feet per year (see explanation under the Alaska Baseline Erosion Assessment above for more details). The aerial photographs did not cover the First Bend area, so the Corps assumed the erosion rate would be 3 feet, the same as section 3. The fact sheet includes an estimate that future erosion damages would be $7.8 million for the next 15 years.
The study considered five alternatives for protecting Shaktoolik’s shoreline: Rock revetment, articulated concrete map, groin fields (jetties), beach nourishment, and relocation of structures. The Corps recommended 260 feet of articulated concrete mat (concrete blocks connected by cable) to protect the south fuel tank. The estimated cost of this option is $3.3 million (with an estimated life of 15 years), as opposed to a rock revetment, which would cost $6 million.

The fact sheet mentions the Corps was asked, at a public meeting in the community, to evaluate protection measures for First Bend. The fact sheet states that the current intake structure for the water supply could be relocated “at a substantial savings compared with structurally protecting the potential breach area” (p. 8).
The fact sheet ends by clarifying that the recommendations could be modified at higher levels and that a feasi-bility study would need to be conducted.

BibTeX:
@techreport{COE2009c,,
  title = {Continuing authorities project fact sheet [preliminary]},
  publisher = {U.S. Army Corps of Engineers, Alaska District},
  year = {2009},
  community = {Shaktoolik}
Alaska Department of Natural Resources, Division of Coastal and Ocean Management (DCOM) Amendment to the Alaska coastal impact assistance plan 2009 Shaktoolik URL 
Review: The 2010 Coastal Impact Assistance Program (CIAP) document is an amendment to the 2008 program document. The report outlines the CIAP funding distribution throughout Alaska. For 2010 Alaska received $37,085,568.48 and distributed the funds as follows: Municipality of Anchorage, 16.23%; Bristol Bay Borough, 0.08%; Kenai Peninsula Borough, 7.00%; Kodiak Island Borough, 8.62%; Lake and Peninsula Borough, 4.07%; Matanuska–Susitna Borough, 3.70%; North Slope Borough, 32.57%; and Northwest Arctic Borough, 27.73%. The goal of the CIAP plan is to protect Alaska’s coastal areas through wise management of resource development. This goal is to be accomplished through projects that will lead to development of effective mitigation strategies and efficient and responsible resource management, minimizing impacts of natural hazards on coastal areas, and funding projects that address the CIAP goal and meet immediate needs.
BibTeX:
@electronic{DCOM2009,,
  title = {Amendment to the Alaska coastal impact assistance plan},
  year = {2009},
  url = {http://dnr.alaska.gov/commis/CIAP/ciap.htm},
  community = {Shaktoolik}
U.S. Government Accountability Office (GAO) Report to congressional requestors--Alaska Native villages, limited progress has been made on relocating villages impacted by flooding and erosion 2009 Kivalina, Deering, Selawik, Unalakleet, Shaktoolik, Golovin, Saint Michael, Shishmaref, Teller, Hooper Bay, Kwigillingok, Clark's Point & Ekuk, Nunam Iqua (Sheldon Point), Kotlik, Barrow, Point Lay, Kaktovik, Statewide URL 
Review: This report is a follow-up to the 2003 GAO report on flooding and erosion in Alaska Native villages, and was completed to identify concerns due to climate change that have increased the urgency of federal and state efforts. The GAO developed recommendations for Congress that include:
1.A flooding assessment to augment the erosion assessment completed by the Army Corps of Engineers.
2.An amendment to federal legislation so that 64 more villages may be eligible for grants.
3.Designating a federal entity to oversee and coordinate village relocation efforts.

Clark's Point Ekuk; Clark’s Point is identified as one of 31 Alaska Native Villages imminently threatened by flooding and erosion.

Deering; This report recognizes Deering as one of 31 villages facing an imminent threat from flooding and erosion.

Golovin; The report has identified 31 villages as facing imminent flooding and erosion threats, including Golovin.

Hooper Bay; Hooper Bay is mentioned as one of 33 Alaska Native villages with a FEMA-approved disaster mitigation plan.

Kaktovik; Kaktovik is recognized as one of 33 communities with a FEMA-approved hazard mitigation plan.

Kivalina; The 2003 study identified four villages in immediate danger and in need of relocation, including Kivalina, Shaktoolik, Newtok, and Shishmaref. Newtok has made the most progress in relocation efforts. The 2009 report found 12 imminently threatened villages, including Kivalina.
Since 2003, a number of efforts have been initiated. In 2004, the Corps was given authority to conduct an erosion control project at full federal expense, but this authority was repealed in March 2009. The Corps conducted an Alaska erosion baseline study. The Corps completed the Alaska Village Technical Assistance Program Assessment in 2006. Also in 2006, the Corps completed that Relocation Planning Project Master Plan for Kivalina. The Corps estimates cost of relocation to be between $95 and $125 million. In 2007, the Governor established a Subcabinet on Climate Change, which included the Immediate Action Workgroup. An October 11, 2007, congressional field hearing in Anchorage identified the following obstacles faced by federal agencies and villages: Inability of many villages to meet criteria for federal assistance, high cost of protection and relocation projects, and the lack of scientific erosion data for sound decision making.
The report stated that Kivalina was declared a flood disaster by the state in 2006. Villagers told the GAO team that the evacuation was so dangerous that it should never be attempted again. The Corps provided funding for storm damage in a number of communities, including Kivalina. It evaluated relocation sites for Kivalina, and it provided technical assistance and 10,766 sandbags to Kivalina after flooding in 2006.
The report found that most of the 12 villages considering relocation have made limited progress, except for Newtok. It summarized findings of the 2006 Relocation Planning Project Master Plan for Kivalina and noted that the community requested a third-party assessment of the Corps’ report, which found the village-preferred site unsuitable due to flooding and erosion. Village officials told the researchers that the Corps-recommended site was too far from the coast, would disrupt subsistence activities, and make supply delivery difficult.
The report states that some officials fear erosion control projects in Shishmaref and Kivalina could slow the progress toward relocation because of a false sense of security. The seawalls are expected to protect the villages for 15 years—up to 25 years if maintained. The report found that the lack of a lead federal agency is an impediment to relocating the villages most threatened. The State of Alaska in 2008 designated the Department of Commerce, Community & Economic Development as the lead state coordinating agency for relocation assistance. A $13.6 million state appropriation was made for FY09. The report summarizes grant programs available for communities facing erosion and flooding.

Kotlik; This report recognizes Kotlik as one of 31 villages facing an imminent threat from flooding and erosion, and as one of 33 villages with a FEMA-approved disaster mitigation plan.

Kwigillingok; Kwigillingok was recognized as one of 31 villages imminently threatened by erosion and flooding.

Nunam Iqua; Nunam Iqua is mentioned as one of 33 Alaska Native villages with a FEMA-approved disaster mitigation plan.

Point Lay; This report recognizes Point Lay as one of 33 villages with a FEMA-approved hazards mitigation plan.

Saint Michael; The report has identified 31 villages as facing imminent flooding and erosion threats, including Saint Michael.

Selawik; This report recognizes Selawik as one of 31 villages facing an imminent threat from flooding and erosion.

Shaktoolik; This report updates a December 2003 report. The report recommends Congress consider: (1) Directing the Corps to conduct a flooding assessment in Alaska, (2) amending legislation to allow 64 additional villages to be eligible for grants under the Housing and Community Development Act, and (3) designating a lead federal agency to work with a lead state agency to coordinate relocation efforts. The report found that most of the 12 villages considering relocation have made limited progress, except for Newtok.
The 2009 report added Shaktoolik to the 2003 list of villages in immediate danger (Kivalina, Shishmaref, Newtok, and Koyukuk). It found that Kivalina, Shaktoolik, and Shishmaref would likely need to be relocated concurrently.
The document reports that Shaktoolik officials have located a potential site near Christmas Mountain, about 8.5 miles northeast of the current community. It states that this site would start as an evacuation destination, and that the feasibility of constructing an evacuation road to the site is being investigated.
Since 2003, a number of efforts have been initiated. In 2004, the Corps was given authority to initiate an erosion control project at full federal expense, but this authority was repealed in March 2009. The Corps conducted an Alaska erosion baseline study, and it completed the Alaska Village Technical Assistance Program Assessment in 2006. An October 11, 2007, congressional field hearing in Anchorage identified the following obstacles faced by federal agencies and villages: Inability of many villages to meet criteria for federal assistance, high cost of protection and relocation projects, and the lack of scientific erosion data for sound decision making.
The report states that some officials fear erosion control projects in Shaktoolik, Shishmaref, and Kivalina could slow the progress toward relocation because of a false sense of security. The seawalls are expected to protect the villages for 15 years, and up to 25 years if maintained.
The report found that the lack of a lead federal agency is an impediment to relocating the villages most threatened. The State of Alaska in 2008 designated the Department of Commerce, Community & Economic Development as the lead state coordinating agency for relocation assistance. A $13.6 million state appropriation was made for FY09. The report summarizes grant programs available for communities facing erosion and flooding.

Shishmaref; This report is a follow-up to the 2003 GAO report on flooding and erosion in Alaska Native villages, and was completed to identify concerns due to climate change that have increased the urgency of federal and state efforts. The GAO developed recommendations for Congress that include:
1.A flooding assessment to augment the erosion assessment completed by the Army Corps of Engineers.
2.An amendment to federal legislation so that 64 more villages may be eligible for grants.
3.Designating a federal entity to oversee and coordinate village relocation efforts.
This report recognizes Shishmaref as one of 31 villages facing imminent threats from flooding and erosion. Shishmaref was declared a state flood disaster area in 2004 and 2005. The 2005 event forced villagers living on the coastline to seek shelter at the center of the village, with the eventual relocation of their homes after the storm season. A new community location has been chosen at the Tin Creek site; relocation is estimated by the U.S. Army Corps of Engineers to cost $100–200 million.

Teller; This report recognizes Teller as one of 31 villages facing imminent threats from flooding and erosion. Teller was included as one of the villages in this report based on conversations with Kawerak, Inc., and the Bering Straits Regional Housing Authority. Teller was declared a sea storm disaster area in 2004. Current mitigation of flooding and erosion issues involves building new homes at a higher elevation about 2 miles from the current community site.

Unalakleet; The report identified 31 villages as facing imminent flooding and erosion threats, including Unalakleet. The village was declared a state flood disaster area in 2003 and 2005. “Villagers told the GAO that the 2005 storm was the most damaging, causing severe erosion to the protective seawall and flooding in the village.” The Corps is in the construction stages of shoreline protection at Kivalina, Shishmaref, and Unalakleet. State contractors are helping villages to produce hazard assessments and mitigation plans, allowing them to qualify for FEMA hazard relief funds. These plans, training, and drills are scheduled for completion by the end of 2009.
Unalakleet has rights to land on a nearby hillside and access via an evacuation road. An estimated $8.8 million would be required to develop a subdivision in this region that would accommodate 300 homes. The funding, however, is not in place and without infrastructure there is little incentive for people to relocate. “The Corps, ADOT&PF, and Kawerak are each planning projects to reinforce an existing seawall and provide new protec¬tion to vulnerable areas of shoreline.”

BibTeX:
@techreport{GAO2009,,
  title = {Report to congressional requestors--Alaska Native villages, limited progress has been made on relocating villages impacted by flooding and erosion},
  year = {2009},
  number = {GAO-09-551},
  pages = {53},
  url = {http://www.gao.gov/products/GAO-09-551},
  community = {Kivalina, Deering, Selawik, Unalakleet, Shaktoolik, Golovin, Saint Michael, Shishmaref, Teller, Hooper Bay, Kwigillingok, Clark's Point & Ekuk, Nunam Iqua (Sheldon Point), Kotlik, Barrow, Point Lay, Kaktovik, Statewide}
Purdue University Monitoring beach erosion at Hooper Bay, Alaska 2009 Hooper Bay  
Review: This unpublished article outlines the work being conducted by researchers at Purdue University to monitor seasonal and annual processes that drive beach modification in Hooper Bay. The monitoring system that was developed relies heavily on the involvement of local residents. The Hooper Bay Surveyors, a group of local environmental specialists, were trained in the use of surveying tools and methods to record topographic beach changes during the year and to quantify the effects of storms on shoreline movement.
BibTeX:
@unpublished{Perdue2009,,
  title = {Monitoring beach erosion at Hooper Bay, Alaska},
  year = {2009},
  pages = {3},
  community = {Hooper Bay}
Alaska Climate Impact Assessment Commission Final commission report: Alaska climate impact assessment commission final report to the legislature 2008 Statewide URL 
Review: Statewide or general reference. See foreword.
BibTeX:
@techreport{ACIAC2008,,
  title = {Final commission report: Alaska climate impact assessment commission final report to the legislature},
  publisher = {State of Alaska},
  year = {2008},
  pages = {125},
  url = {http://www.housemajority.org/coms/cli/cli_finalreport_20080301.pdf},
  community = {Statewide}
Denali Commission, Western Federal Lands Highway Division Draft Kivalina evacuation road feasibility study 2008 Kivalina  
Review: This project resulted from an agreement between the Denali Commission and the Western Federal Lands Highway Division to prepare preliminary engineering for an evacuation road from Kivalina. This study considered the two most supported routes that were studied by ASCG Inc. in 2005: A Kiniktuuraq alignment ($38,881,000) and Simiq alignment ($20,265,000). An environmental and detailed engineering study would cost $3–4 million; the Division recommended that the project not be pursued further until funding is obtained and warned that Title 23 highway funds would have to be repaid if a project was started but not finished.
The Kiniktuuraq alignment would involve a bridge across Singauk Entrance with a road through Kiniktuuraq and termination of the road 3 miles south. The Simiq alignment would involve a causeway across the lagoon with a road terminating in Simiq 3.5 miles to the east. Both options included a road to a potential material source (rock) at Kisimigiuktuk Hill. Cost estimates were made for both a 24-foot and 14-foot roadway width with additional criteria. Both routes terminated at an elevation of 25 feet, incorporated rock armoring in the coastal areas to protect against erosion and recommended use of deep foundations for bridges to withstand scour, high winds, and waves.
BibTeX:
@unpublished{Denali2008,,
  title = {Draft Kivalina evacuation road feasibility study},
  year = {2008},
  pages = {8},
  note = {Denali Commission, project no.285-07},
  community = {Kivalina}
Kawerak Inc. Teller local economic development plan 2006-2010 2008 Teller  
Review: The community would like to plan for construction of a seawall to protect residents and their property from yearly storm flooding. This would be a 1,500 foot sheet piling seawall, at a projected cost of approximately $500,000. Teller would also like to construct a boat harbor to provide protection and moorage for boats operating in the area. The current navigational conditions are identified as inefficient.
BibTeX:
@techreport{Kawerak2008a,,
  title = {Teller local economic development plan 2006-2010},
  publisher = {Kawerak, Inc.},
  year = {2008},
  pages = {61},
  community = {Teller}
Nunam Iqua Advisory Planning Board Nunam Iqua hazard mitigation plan 2008 Nunam Iqua (Sheldon Point)  
Review: This report prioritizes and provides mitigation planning for natural hazards threatening Nunam Iqua. Nunam Iqua is identified as incurring risks from erosion and flooding. The erosion is caused by both coastal and riverine sources. The modes of transport for sediment are through tidal waters, wave action, river action and current, and melting permafrost. Flooding occurs through rainfall-runoff, snowmelt, groundwater, ice jam, fluctuating lake levels, alluvial fan floods, glacial outbursts, and coastal storm surges. A storm-surge identification map and typical spring flooding map are provided for possible points of inundation due to these types of flooding. Pictures of flooding events are provided in this report. A list of facilities with structural values is also included.
BibTeX:
@techreport{NunamIqua2008,,
  title = {Nunam Iqua hazard mitigation plan},
  year = {2008},
  pages = {46},
  community = {Nunam Iqua (Sheldon Point)}
University of Alaska Fairbanks, Geophysical Institute Permafrost Lab Numerical modeling of long-term permafrost dynamics of the Kiniktuuraq proposed relocation site for the community of Kivalina 2008 Kivalina  
Review: The UAF Permafrost Lab developed a model for long-term permafrost dynamics at the proposed Kiniktuuraq relocation site for Kivalina. The model involved simulations for three different thicknesses of gravel pads (6, 9, and 12 feet) as well as a scenario where a 1-foot gravel cap was placed on fine-grained fill. The model was based on the soil characterization from a 2002 report by R&M Consultants. The model included two climate scenarios where mean annual air temperatures increased 4°C by the end of the century (first scenario) and by 2°C by the end of the century (second scenario).
Without any fill, the model predicts thawing up to 1.5 meters by 2030 under the first scenario (4°C rise) but the thawing would not penetrate the ice-bearing permafrost layer under the second scenario (2°C rise). The ice-bearing layer at Kiniktuuraq is between 0.4 and 1.0 meters (1.3–3.28 feet).
The report concludes that surface subsidence will occur when permafrost melts down to the ice-bearing horizon between 0.4 and 1.0 m deep. Application of the model found that different thicknesses of gravel fill could delay thawing of the ice-rich permafrost layer, but would not stop the thawing of the permafrost. Under a rapid increase of air temperature (first scenario above), the ice-rich permafrost layer would melt completely. Under a more moderate increase of air temperature (second scenario), the thickness of the gravel pad would likely affect whether the ice-rich permafrost layer thawed completely or partially by 2050. The study found that removal of significant snow accumulations from the gravel fills would be an effective way to protect the permafrost soils.
BibTeX:
@techreport{UAF2008b,,
  title = {Numerical modeling of long-term permafrost dynamics of the Kiniktuuraq proposed relocation site for the community of Kivalina},
  year = {2008},
  number = {Federal Highway Administration Report},
  pages = {34},
  note = {Prepared for Federal Highway Administration Western Federal Lands Highway Division},
  community = {Kivalina}
Senate Committee on Homeland Security and Governmental Affairs, Subcommittee on Disaster Recovery The state and federal response to storm damage and erosion in Alaska's coastal villages 2007 Unalakleet  
Review: This is the testimony of Steve Ivanoff before the Committee on Homeland Security and Governmental Affairs, discussing the history of storm damage and possible consequences of inaction in Unalakleet. The community is described as a hub of education and medical services to the 15 villages in Norton Sound. Flooding from storm surges has become more frequent, with disaster declarations in 2003–2005. The resulting erosion is concentrated at the mouth of the river and along the ocean beach. Gabion walls were constructed in 2000, but have been marginally damaged, requiring repair work before the next storm season. The Army Corps of Engineers is in the final planning process for the construction of a riprap wall. Alaska Department of Transportation & Public Facilities (DOT&PF) is in the process of designing a riprap wall to protect the beach along the airport, as well as elevating the evacuation road. The community water source is threatened by erosion of the piping that runs 5 miles north along the side of the roads and beach.
Mr. Ivanoff describes how many residents are now seeking to build homes in the nearby hills because of long-term safety, but access roads are necessary to speed up this process and encourage development. He points out that funding is currently available for reactive measures, but not proactive measures.
BibTeX:
@proceedings{CHSGA2007,,
  title = {The state and federal response to storm damage and erosion in Alaska's coastal villages},
  year = {2007},
  pages = {6},
  note = {Ivanoff, Steeve on behalf of The Village of Unalakleet},
  community = {Unalakleet}
U.S. Army Corps of Engineers Erosion information paper - Barrow, Alaska 2007 Barrow  
Review: This report gives an overview of the current state of erosion and erosion mitigation projects in Barrow, Alaska. The orientation of Barrow makes the community most susceptible to storms from the north and west. The coastline is composed of 30 foot coastal bluffs with narrow fronting beaches in some areas and wide gravel beaches backed by low relief tundra elsewhere. The most extreme erosion event for Barrow was during 1963 when an average 14 feet of erosion occurred at bluffed locations.
The average erosion rate for the Barrow coastline is reported in this overview as 1 foot per year, but extreme events like the one above can cause dramatic changes. These events are responsible for the erosion of portions of a historic/archaeological site, roads, and homes in Barrow.
Past efforts by the North Slope Borough to lessen the amount of erosion and flooding are discussed with photographs of several projects.
BibTeX:
@techreport{COE2007a,,
  title = {Erosion information paper - Barrow, Alaska},
  publisher = {U.S. Army Corps of Engineers, Alaska District},
  year = {2007},
  pages = {6},
  community = {Barrow}
Kawerak Inc. Shaktoolik local economic development plan 2006-2011 2007 Shaktoolik  
Review: This plan identifies the following top 10 economic development priorities:

1.Land expansion and site control.
2.Evacuation route/gravel site upgrade.
3.Erosion control.
4.Multi-purpose building.
5.New housing development.
6.Bulk fuel tank farm.
7.Environment–subsistence–wildlife conservation.
8.Water system upgrade.
9.Shaktoolik boat harbor.
10.Community roads upgrade.
The community vision is to use cultural values and natural resources to augment future growth and welfare. Three goals have been established to reach this vision:
1.Ensure financial stability and employment by building infrastructure for community growth.
2.Raise the standard of living by expanding community services, education, and culturally appropriate healthy lifestyles.
3.Preserve the culture by developing natural resources while protecting and enhancing the environment.

BibTeX:
@techreport{Kawerak2007c,,
  title = {Shaktoolik local economic development plan 2006-2011},
  publisher = {Village of Shaktoolik and the Bering Strait Development Council},
  year = {2007},
  pages = {48},
  community = {Shaktoolik}
Rodney P. Kinney Associates, Inc. and Kawerak, Inc. Transportation Program Shaktoolik long range transportation plan 2007 Shaktoolik  
Review: This plan describes transportation priorities for Shaktoolik including funding priorities of the Bureau of Indian Affairs (BIA) Indian Reservation Roads (IRR) Program. When this plan was written, the IRR program included 2.5 miles of road with about 247 miles of road planned to be submitted. The plan prioritized nine projects:
1.Upgrade community streets ($3 million)
2.Construct proposed subsistence and economic routes ($980 million)
3.Build a road to the Foothills and Swallow for material access, subsistence access, and evacuation purposes ($64 million)
4.Construct roads in the new townsite ($40 million)
5.Rehabilitate existing 13 miles of Foothills Road ($26 million)
6.Construct/upgrade harbors, ports, barge landings, and breakwaters ($7 million)
7.Construct/upgrade boat landings ($750,000)
8.Construct snow fencing along community routes ($200,000/mile),
9.Provide signage and staking for winter routes ($100,000/mile)
The City of Shaktoolik only has authority for lands inside its boundaries, so roads outside of city limits must be approved by the federal, state, or private landowner. The City of Shaktoolik is responsible for road maintenance in the municipal boundaries, and the Alaska Department of Transportation & Public Facilities is responsible for maintaining the road to the airport. The Shaktoolik IRA will be responsible for maintaining any future roads constructed under the IRR program.
The plan includes a complete list of traditional routes in section 4.1 and a map of these routes in section 4.2. Proposed locations for future marine facilities are identified in section 4.2. For safety purposes, the plan recommends marking winter routes with tripods every 100–500 feet, depending on the location of the route.
Appendix E of the plan includes the scoping report for Shaktoolik Main Street Rehabilitation and Evacuation Road Project. The scoping report states that the road to the former village site is eroding and insufficient for evacuation during a high-water event. Two alignments have been evaluated for an evacuation road. Both align¬ments include an initial 1.5 mile segment that begins south of the existing village and would involve two bridges across the Tagoomenik River.
Alternative A would continue 11.7 miles due east to the Nulato Hills, and would involve a 3.5 mile segment due north to a 350 foot tall hill. The 14-foot-wide single-lane road would have turnouts. The initial estimated costs for the evacuation road are between $20.7 million (Alternative B) and $37.9 million (Alternative A).
BibTeX:
@techreport{Kawerak2007e,,
  title = {Shaktoolik long range transportation plan},
  publisher = {Shaktoolik IRA Council},
  year = {2007},
  number = {Indian reservation roads program no. E04435-SHAKTOOLIK},
  pages = {15},
  community = {Shaktoolik}
Lower Kuskokwim Economic Development Council (LKEDC) Lower Kuskokwim Economic Development Council Comprehensive Economic Development Strategy & Area Plan 2006 Hooper Bay, Scammon Bay, Kwigillingok, Clark's Point & Ekuk, Quinhagak, Nunam Iqua (Sheldon Point), Kotlik  
Review: This report presents an economic development strategy by the Lower Kuskokwim Economic Development Council (LKEDC). The purpose of this report is to identify a more stable and diversified economy, assist in creating employment opportunities, improve local economic conditions, and act as a catalyst for guiding and coordinating the efforts of individuals and organizations concerned with sustainable economic and natural resource development in the region. The main areas of economic development are the promotion of fisheries resources, tourism, and infrastructure development, job development, and the coordination of LKEDC services to local residents. Specific communication efforts, opportunities, and goals are listed for each subject, including watershed management.
BibTeX:
@techreport{LKEDC2006,,
  title = {Lower Kuskokwim Economic Development Council Comprehensive Economic Development Strategy & Area Plan},
  year = {2006},
  pages = {28},
  community = {Hooper Bay, Scammon Bay, Kwigillingok, Clark's Point & Ekuk, Quinhagak, Nunam Iqua (Sheldon Point), Kotlik}
National Oceanic and Atmospheric Administration (NOAA) Erosion study report Kivalina 2004 Kivalina  
Review: This unpublished report compares aerial photographs from September 2003 and July and August 1952. Two segments were studied, the first included a 10.6-mile area adjacent to Kivalina Lagoon, and the second included the area 10.8 miles south of the Wulik River. It should be emphasized that this study only compared two years, and it does not address year-to-year changes that occurred between those two periods. The report summary states that the accretion patterns “may indicate that this portion of the coast is in the process of normal erosion associated with offshore transport of materials with a net loss of area due to erosion. This may or may not be considered significant erosion from 1952 to 2003” (p. 2). The following bullets summarize other findings of the report.
•Net Erosion: For the entire study area, there was a net loss of 19 acres with an average loss of 10–35 feet on the Chukchi Sea coast (27 acres lost on the Chukchi Sea side, and 8 acres accreted in Kivalina Lagoon).
•Chukchi Sea Shoreline: Comparing the 1952 and 2003 aerial photos, 13.8 miles of the Chukchi Sea shoreline eroded, while 7.6 miles have accreted. A net area of 27 acres was eroded (76 acres eroded and 49 acres accreted). Maximum erosion at a single location was 200 feet and maximum accretion was 100 feet.
•Lagoon Shoreline: There has been a net gain of 11 acres on the Kivalina Lagoon side of the island (11 acres of accretion and 3 acres of erosion).

•Entrances: The northern channel near the Kivalina River has migrated about 625 feet to the south. The south lagoon was not connected to the sea in either 1952 or 2003.
•Wulik River: The south channel of the Wulik River has remained unchanged between the two periods.

BibTeX:
@techreport{NOAA2004,,
  title = {Erosion study report Kivalina},
  year = {2004},
  number = {no. AK0302},
  community = {Kivalina}
Natural Resource Conservation Service (NRCS) and the Shishmaref Erosion and Relocation Coalition Site comparison of Tin Creek and West Tin Creek Hills for potential emergency evacuation and permanent relocation sites 2004 Shishmaref  
Review: This report consists of the evaluation of two potential relocation sites for the community of Shishmaref. Analysis of the geology, vegetation, hydrology, and engineering properties of the Tin Creek and the West Tin Creek Hills sites were conducted over a four day field excursion. The sites were found to be very similar, except one site is 2 miles farther inland and has more area available for development. Potential infrastructure development was considered for each site based on the move from Sarichef Island and rock/gravel resources on Ear Mountain. No recommendations were made on the preference of one site over the other.
BibTeX:
@techreport{NRCS2004,,
  title = {Site comparison of Tin Creek and West Tin Creek Hills for potential emergency evacuation and permanent relocation sites},
  publisher = {Natural Resources Conservation Service},
  year = {2004},
  pages = {16},
  community = {Shishmaref}
Bristol Bay Native Association Bristol Bay, Alaska, comprehensive economic development strategy 2003 Clark's Point & Ekuk, Quinhagak  
Review: This plan represents 32 tribal councils of the Bristol Bay region of Southwest Alaska. The recent downturn of the regions fishing economy is of concern, causing restructuring of the salmon fishery. In order to compete with farmed salmon industries, Bristol Bay must find ways to improve salmon quality, reduce harvesting costs, and reduce fishing effort.
The region has growing interest by area villagers to diversify into the area’s growing tourism industry. There is also mineral potential in the area, with Northern Dynasty conducting economic feasibility studies on the Copper deposits. The Southwest Alaska Vocational Technical Center in King Salmon has had an increasing number of villagers training for alternative jobs in the fields of carpentry, plumbing, welding, electricians, and operating engineers to land jobs.
Only 7 of the 30 communities in the region have community economic development plans, which are prerequisites for most federal grant funding. The region is determined to overcome two economic barriers. One is to lower the high cost of living, and the other is the barrier of the high cost of transporting goods, materials, and people in and out of the region.
BibTeX:
@techreport{BristolBay2003,,
  title = {Bristol Bay, Alaska, comprehensive economic development strategy},
  publisher = {Bristol Bay Native Association},
  year = {2003},
  pages = {79},
  note = {with U.S. Department of Commerce, Economic Development Administration Indian Planning Grant},
  community = {Clark's Point & Ekuk, Quinhagak}
U.S. Government Accounting Office (GAO) Alaska Native villages--Most are affected by flooding and erosion, but few qualify for federal assistance 2003 Kivalina, Deering, Selawik, Unalakleet, Shaktoolik, Golovin, Saint Michael, Savoonga, Gambell, Shishmaref, Teller, Hooper Bay, Scammon Bay, Kwigillingok, Clark's Point & Ekuk, Quinhagak, Kotlik, Barrow, Point Lay, Kaktovik URL 
Review: This study was conducted to provide recommendations to Congress that would improve how state and federal agencies respond to flooding and erosion in Alaska. This was done by:
1.Determining the extent to which these villages were affected.
2.Identifying federal and state flooding and erosion programs.
3.Determining the current status of efforts to respond to flooding and erosion in nine villages.
4.Identifying alternatives that Congress may wish to consider when providing assistance for flooding and erosion (see “Highlights” section).
The recommendations provide alternatives to current actions taken during flooding and erosion responses by including federal agencies and the Denali Commission. The adoption of policies by the Denali Commission would guide investments in infrastructure for Alaska Native villages affected by flooding and erosion.

Clark's Point Ekuk; Clark’s Point was recognized as one of the 184 Alaska Native villages affected by flooding and erosion.

Deering; Deering was recognized as one of the 31 Alaska Native Villages facing an imminent threat from flooding and erosion.

Gambell; Gambell was recognized as one of the 184 Alaska Native villages facing imminent flooding and erosion threats.

Golovin; Golovin is recognized as one of 184 Alaska Native villages affected by flooding and erosion.

Hooper Bay; Hooper Bay was recognized as one of the 184 Alaska Native Villages affected by flooding and erosion.

Kaktovik; Kaktovik is identified as one of five villages conducting flooding and erosion studies or improving infrastructure, that aren’t planning to relocate. The airport runway at Kaktovik, which is located 1–2 feet above MSL, is subject to annual flooding. The FAA has begun preparation for an Airport Master Plan in order to respond to this issue.

Kivalina; Kivalina was recognized as one of the 31 Alaska Native villages facing an imminent threat from flooding and erosion.

Kotlik; Kotlik was recognized as one of the 184 Alaska Native Villages facing threats from flooding and erosion.

Kwigillingok; Kwigillingok was recognized as one of the 184 Alaska Native Villages affected by flooding and erosion.

Point Lay; Point Lay is identified as one of 184 Alaska Native Villages affected by flooding and erosion.

Quinhagak; Quinhagak was recognized as one of the 184 Alaska Native Villages affected by flooding and erosion.

Saint Michael; Saint Michael was recognized as one of the 184 Alaska Native Villages facing imminent flooding and erosion threats.

Scammon Bay; Scammon Bay is identified as one of 184 Alaska Native villages affected by flooding and erosion.

Selawik; Selawik was recognized as one of the 184 Alaska Native Villages facing an imminent threat from flooding and erosion.

Shaktoolik; Shaktoolik was recognized as one of the 184 Alaska Native Villages facing imminent flooding and erosion threats.

Shishmaref; Shishmaref was one of four communities discussed as an example of a community in imminent danger due to flooding and erosion and considering relocation. The average erosion rates in Shishmaref are reported as 20–50 feet per year, and in October 1997, a storm was responsible for 125 feet of erosion. The community of Shishmaref voted to relocate in 1973, and is still making plans to do so.

Teller; Teller is identified as one of 184 Alaska Native villages affected by flooding and erosion.

Unalakleet; The recommendations provide alternatives to current actions taken during flooding and erosion responses by including federal agencies and the Denali Commission. The adoption of policies by the Denali Commission would guide investments in infrastructure for Alaska Native villages affected by flooding and erosion. Unala-kleet was one of the nine villages thoroughly reviewed.
Unalakleet is identified as having a long history of flooding, dating back to the 1940s. The seawall that is in place at Unalakleet was funded fully by Natural Resources Conservation Service (NRCS) because local and state funding could not be procured. $400,000 from Norton Sound Economic Development Corporation and $400,000 from the Alaska Department of Transportation & Public Facilities was raised by Unalakleet to cost-share a feasibility study through the Army Corps of Engineers. The feasibility study addresses a navigational access problem at the harbor caused by accretion of eroded material at the harbor entrance in the form of six sandbars. Unalakleet was mentioned to be a leader in negotiating with federal agencies about cost-share requirements.

BibTeX:
@techreport{GAO2003,,
  title = {Alaska Native villages--Most are affected by flooding and erosion, but few qualify for federal assistance},
  year = {2003},
  number = {GAO-04-142},
  pages = {82},
  url = {http://www.gao.gov/products/GAO-04-142},
  community = {Kivalina, Deering, Selawik, Unalakleet, Shaktoolik, Golovin, Saint Michael, Savoonga, Gambell, Shishmaref, Teller, Hooper Bay, Scammon Bay, Kwigillingok, Clark's Point & Ekuk, Quinhagak, Kotlik, Barrow, Point Lay, Kaktovik}
Natural Resource Conservation Service (NRCS) Flood plain management study for the city & Native village of Unalakleet, Alaska 2003 Unalakleet  
Review: This report was carried out through the Watershed Protection and Flood Prevention Act per request of the Native Village of Unalakleet. Included are detailed hyrdrographic conditions based on the USGS gage on the Unalakleet River and application of UNET, a U.S. Army Corps of Engineers hydraulic model. The historical gage data were used to create discharge and surface elevation return intervals of flooding up to 100 years. Flood hydrographs are available for multiple locations along the river, as well as projected flood cross sections. Although a thorough analysis was not undertaken, coastal flooding was identified as the most probable cause of flooding damages below 1 foot and above 3 feet of elevation.
BibTeX:
@techreport{NRCS2003,,
  title = {Flood plain management study for the city & Native village of Unalakleet, Alaska},
  publisher = {Natural Resources Conservation Service, U.S. Department of Agriculture},
  year = {2003},
  pages = {75},
  community = {Unalakleet}
H. John Heinz III Center for Science, Economics and the Environment Evaluation of erosion hazards 2000 Statewide  
Review: Statewide or general reference. See foreword.
BibTeX:
@techreport{FEMA2000,,
  title = {Evaluation of erosion hazards},
  publisher = {Federal Emergency Management Agency},
  year = {2000},
  pages = {252},
  community = {Statewide}
Triton Consultants, Ltd. DeLong Mountain Termical project feasibility study, metocean conditions report 1999 Kivalina  
Review: This study used measured wind data from Kotzebue to construct a spatially constant wind field that was fed into a hydrodynamic model to calculate preliminary water level statistics for annual maximum water levels at the Red Dog Port site south of Kivalina. The report found that predicting water levels more than a 15 year return is not accurate, but it estimated the 100-year flood to be 14.6 feet above MLLW.
BibTeX:
@techreport{Triton1999,,
  title = {DeLong Mountain Termical project feasibility study, metocean conditions report},
  year = {1999},
  number = {vol. 7a},
  community = {Kivalina}
U.S. Army Corps of Engineers, Alaska District Geotechnical investigation: Kivalina borrow material exploration, Kivalina, Alaska site investigation 1998 Kivalina  
Review: This report consists of an overview of existing gravel material source studies and identification of potential material sources for the relocation of Kivalina to the proposed Igrugaivik site. The report includes approximations of construction material requirements for the new site based on work done in previous communities and keeping the community above the 100-year floodplain.
BibTeX:
@techreport{COE1998b,,
  title = {Geotechnical investigation: Kivalina borrow material exploration, Kivalina, Alaska site investigation},
  year = {1998},
  number = {no. DACA85-97-D-0004},
  pages = {26},
  community = {Kivalina}
DOWL Engineers City of Kivalina relocation study, Kivalina, Alaska 1994 Kivalina  
Review: This study involved an analysis of 11 future options for the community, a review of aerial photos, and an inventory of buildings. At a public meeting, the community chose Kuugruaq as its preferred option, but part of this site were found to have land ownership problems, and about half of the site was subject to flooding. An analysis of structures in the community found that most of the residences could likely be moved, but major infrastructure buildings probably would not be movable.
This study reviewed the following options:
•Move the airport north and expand the community at the south end of the airport. Fill part of the lagoon for community expansion.

•Build a bridge across Singauk Entrance for development along the coast.
•Move to a new location: Imnaaqquaq, Sivutchiaq, Ikpikrauq, Sivu, Kirjiktuuraq, Ushaq, Igrugaivik, or Kuugruaq (sites chosen for consideration at a community meeting).
The project team visited each of the eight sites to complete a visual reconnaissance, evaluate soil and topography, and for two of the sites, take water samples. The study recommended a new community site include at least 60 acres to allow for expansion. The sites were evaluated against 36 weighted criteria. Kuugruaq received the highest score, but during a 1993 flood, half the site was flooded. A Native allotment presented land ownership problems at the site and access to a gravel site. Igrugaivik received the second highest ranking.
It was decided that land at the existing site would be kept in current ownership, but some reclamation of the site would be necessary. The sewage disposal site, dump site, and fuel storage areas would need further evaluation before abandonment. The report recommended the dump site be covered with soil after confirming no hazardous materials are present.
A review of aerial photos back to 1952 “does not show conclusive proof that erosion is occurring on the Chukchi Sea side of the island. The beach and the southeast end of the island at the Singauk Entrance are such dynamic systems that at times it is eroding and, at other times, it is adding” (p.3). The study showed, however, that there has been substantial erosion along the lagoon side of the island near Singauk Entrance.

BibTeX:
@techreport{DOWL1994,,
  title = {City of Kivalina relocation study, Kivalina, Alaska},
  year = {1994},
  community = {Kivalina}
Alaska Consultants, Inc. Background for planning, village of Point Lay 1983 Point Lay  
Review: This report is a background for community planning of physical and social nature. The history of Point Lay’s economy, physical setting, and community location are provided, as well as demographic and public facility information.
The village has moved twice due to erosion issues. First from beach erosion in 1977, and the second from erosion and flooding by the Kokolik River combined with a need to be located closer to the DEW line airport in 1981. The current location is immediately north of the DEW Line station, providing access to the airport and jobs and an environment more resistant to erosion.
BibTeX:
@techreport{AlaskaInc1983,,
  title = {Background for planning, village of Point Lay},
  publisher = {North Slope Borough},
  year = {1983},
  pages = {88},
  community = {Point Lay}
U.S. Army Corps of Engineers, Alaska District Scammon Bay, Alaska small hydropower interim feasibility study and environmental assessment 1982 Scammon Bay  
Review: Due to the increase in electrical generation cost to Scammon Bay, this study considers the economic and environmental feasibility of various alternatives to either supplement or replace diesel generation. The hydroelectric project would consist of a rock-filled gabion dam. Estimated energy output based on stream-flow data is available with projections to 1995. Project site geology and material sources are discussed, but not conclusive; more testing is required.
BibTeX:
@techreport{COE1982,,
  title = {Scammon Bay, Alaska small hydropower interim feasibility study and environmental assessment},
  year = {1982},
  pages = {62},
  community = {Scammon Bay}
Northern Technical Services Van Gulik and Associates Hooper Bay reconnaissance study of energy requirements and alternatives 1982 Hooper Bay  
Review: The authors of this report examine ways of reducing energy costs in Hooper Bay; included in the report is a physical description and a list of available maps for the area.
BibTeX:
@techreport{NorthernTech1982,,
  title = {Hooper Bay reconnaissance study of energy requirements and alternatives},
  year = {1982},
  pages = {50},
  community = {Hooper Bay}
Alaska Department of Environmental Conservation (ADEC),Governor's Climate Change Sub-Cabinet Aerial photographs of Alaskan coastal communities 1974 Shaktoolik  
Review: This file at the Alaska Historical Library includes three aerial photographs of Shaktoolik taken on June 26, 1974. The photos indicate that approximately 14 buildings had been constructed at the current village site.
BibTeX:
@unpublished{ADEC1974,,
  title = {Aerial photographs of Alaskan coastal communities},
  year = {1974},
  number = {Alaska State Historical Library file 0488 PCA},
  community = {Shaktoolik}
U.S. Bureau of Indian Affairs (BIA) Clark's Point, Alaska-Village Study 1966 Clark's Point & Ekuk  
Review: The report gives a village background and description. The most distinguishable event affecting Clark’s Point is identified as the storm of 1964, which has permanently changed the landscape and vulnerability of the village. During the storm, the protective bank on the beach side was completely washed away. The previous gardens of the community were then covered with gravel, and only a narrow street remained, separating many houses from the usual high tide. The foremost need of the community was to move from its location to higher ground, consideration of collocating to Ekuk was being considered.
BibTeX:
@techreport{BIA1966,,
  title = {Clark's Point, Alaska-Village Study},
  year = {1966},
  pages = {8},
  community = {Clark's Point & Ekuk}