Recommendations
| Project | Type | # | Outcome | Report | Year | FEC |
|---|---|---|---|---|---|---|
| Arctic Migratory Birds Initiative (AMBI) | Advice | 2 | Monitoring temporal trends in plastic ingestion: The northern fulmar, thick-billed murre and black-legged kittiwake should be monitored for temporal trends in plastic pollution ingestion. | Plastic Pollution in Seabirds: Developing a program to monitor plastic pollution in seabirds in the pan-Arctic region | 2021 | |
| Arctic Migratory Birds Initiative (AMBI) | Action | 2 | Secure intertidal and associated habitat for AMBI priority species at key staging and wintering sites in the Central and East Asian Flyways. 2.1 (Russia): Ensure improvement of protection of the Russian Far East coastal shorebird stopover sites, by providing information to support local and national decision making on key habitat identification and conservation, including consideration of the new Nature Park in Chukotka and prioritising recovery of closed protected area at Moroshechnaya river mouth in Kamchatka. 2.2 (United States): Gather better information on the abundance, distribution and habitat use of Dunlin and Bar-tailed Godwits at spring and fall staging sites in Alaska. 2.3 (China): Enhance protection of Jiangsu Coast ecosystem, especially the Rudong and Dongtai areas for Spoon-billed Sandpiper and other Arctic-breeding shorebirds considering World Heritage Site Nomination requirements. 2.4 (China): Enhance protection of the Luannan Coast especially Nanpu, Tangshan for Red Knot and other Arctic-breeding shorebirds. 2.5 (China): Enhance protection at Yalu Jiang, Liaoning for Bar-tailed Godwit, Dunlin, Great Knot and other Arctic shorebirds. 2.6 (China): Increase knowledge of key staging and wintering Arctic-breeding shorebirds sites in southern China (Guangdong, Guangxi and Fujian provinces) and improve conservation status of these sites. 2.7 (Republic of Korea): Support efforts to reverse declining trends of AMBI priority species (SBS, Great Knot, Dunlin and other) and improve habitat conservation along the flyway through sharing knowledge and international cooperative projects. 2.8 (Republic of Korea): Promote the importance of conserving Korea. | AMBI Work Plan 2019-2025: Central and East Asian Flyways | 2021 | |
| Arctic Migratory Birds Initiative (AMBI) | Action | 2 | Harvest assessments and mitigation of unsustainable harvest of Arctic birds 2.1 Work with CBird to promote dialogue with authorities for management plans to combine the knowledge of status of hunted species between countries 2.2 Assess the population-level impact of seabird harvest in relation to other stressors 2.3 Conduct/update holistic harvest studies for circumpolar regions of interest using approaches tailored to regional contexts as appropriate | AMBI Work Plan 2019-2025: Circumpolar Flyway | 2021 | |
| Arctic Migratory Birds Initiative (AMBI) | Action | 4 | Determine climate change resilient areas of shorebird habitat and promote their protection 4.1 Carry out an analysis of the resilience of shorebird wintering habitat to climate change 4.2 Promote protection of climate change resilient shorebird breeding, wintering and migration habitats | AMBI Work Plan 2019-2025: Americas Flyway | 2021 | |
| Arctic Migratory Birds Initiative (AMBI) | Action | 4 | Reduce bycatch of seaducks in the Baltic Sea 4.1 Support the implementation of the AEWA Long-tailed Duck, Velvet Scoter and Common Eider International Single Species Action Plans with respect to the identified activities regarding bycatch under the auspices of the AEWA European Seaduck International Working Group. | AMBI Work Plan 2019-2025: African Eurasian Flyway | 2021 | |
| Arctic Migratory Birds Initiative (AMBI) | Advice | 4 | Monitoring nest incorporation and entanglement: Black-legged kittiwake and northern gannet (Morus bassanus) nests should be monitored for nest incorporation of and entanglement in plastic pollution. | Plastic Pollution in Seabirds: Developing a program to monitor plastic pollution in seabirds in the pan-Arctic region | 2021 | |
| Arctic Migratory Birds Initiative (AMBI) | Action | 4 | Work with partners to increase the number and quality of population estimates of Arctic-breeding waterbirds in the Central and East Asian Flyways 4.1 (All countries): Work with partners such as EAAF Partnership, Wetlands International and other partners to improve population estimates for AMBI priority species by supporting collation of up-to-date information on estimates and trends. 4.2 (All countries): Cooperate with partners such as the EAAF Partnership Waterbird Monitoring Task Force, Wetlands International, BirdLife International and the Global Flyway Network to strengthen monitoring of Arctic-breeding migratory waterbirds along the flyway, particularly in the Yellow Sea and Southeast Asia. | AMBI Work Plan 2019-2025: Central and East Asian Flyways | 2021 | |
| Arctic Migratory Birds Initiative (AMBI) | Action | 4 | Address environmental pollution issues 4.1 State of knowledge assessment for plastics in wildlife 4.2 Work with Arctic Council countries and Permanent Participants, PAME, and AMAP to begin to address knowledge gaps | AMBI Work Plan 2019-2025: Circumpolar Flyway | 2021 | |
| Arctic Migratory Birds Initiative (AMBI) | Action | 6 | Mitigate habitat impairment from destruction and degradation of coastal habitats and productive landscapes 6.1 Evaluate the impacts of habitat loss and degradation from agriculture, aquaculture, renewable energy production and tourism development on shorebirds and their habitats in Latin America 6.2 Ensure mitigation measures are incorporated into development decisions 6.3 Designate important sites under appropriate international conservation frameworks (e.g. Ramsar Convention, WHSRN, World Heritage) 6.4 Work with communities and governments to protect important sites | AMBI Work Plan 2019-2025: Americas Flyway | 2021 | |
| Arctic Migratory Birds Initiative (AMBI) | Action | 1 | Understand the expansion of white geese populations in Arctic shorebird habitat 1.1 Understand impacts of populations of white geese on other bird species in western Canada 1.2 Understand trends in the populations of white geese in Alaska and their impacts on shorebird breeding habitats | AMBI Work Plan 2019-2025: Americas Flyway | 2021 | |
| Arctic Migratory Birds Initiative (AMBI) | Action | 1 | Improve conservation and management of shorebird sites throughout the African-Eurasian flyway 1.1 Secure intertidal habitat of Arctic-breeding shorebirds in Bijagós Archipelago, Guinea-Bissau 1.2 Ensure identification and documentation of key sites for shorebirds in available format as a tool for national/international sustainable site management | AMBI Work Plan 2019-2025: African Eurasian Flyway | 2021 | |
| Arctic Migratory Birds Initiative (AMBI) | Advice | 6 | Monitoring point sources of plastic pollution: Glaucous gull (Larus hyperboreus), great skua (Stercorarius skua) and other gull species that feed at landfills and other urban or rural sites, pellets/regurgitations should be monitored for plastic pollution near point sources to track local trends in plastic pollution. | Plastic Pollution in Seabirds: Developing a program to monitor plastic pollution in seabirds in the pan-Arctic region | 2021 | |
| Arctic Species Trend Index (ASTI) | Key finding | 6 | In the Wadden Sea, Arctic bird abundance is 75% higher in 2010 than in 1980, but the trend has been following a negative trajectory since 2002. | Arctic Species Trend Index: Migratory Birds Index | 2015 | |
| Arctic Species Trend Index (ASTI) | Key finding | 1 | Broad-scale, multi-species trends for Arctic migratory birds are currently unavailable, although they are necessary for designing and targeting effective conservation strategies to address reported declines in these species. | Arctic Species Trend Index: Migratory Birds Index | 2015 | |
| Arctic Species Trend Index (ASTI) | Key finding | 1 | The Arctic Species Trend Index (ASTI): 2011 update. 1.1 Average abundance of Arctic vertebrates increased from 1970 until 1990 then remained fairly stable through 2007, as measured by the ASTI 2011. 1.2 When species abundance is grouped by broad ecozones, a different picture emerges, with low Arctic species abundance increasing in the first two decades much more than high Arctic and sub Arctic species abundance. The low Arctic index has stabilized since the mid-1990s while the high Arctic index appears to be recovering in recent years and the sub Arctic index has been declining since a peak in the mid-1980s. 1.3 The trend for Arctic marine species is similar to that of the overall ASTI, while the trend for terrestrial species shows a quite different pattern: a steady decline after the early 1990s to a level below the 1970 baseline by 2005. | The Arctic Species Trend Index 2011: Key findings from an in-depth look at marine species and development of spatial analysis techniques | 2012 | |
| Arctic Species Trend Index (ASTI) | Key finding | 8 | Due to data limitations, this report is a first step towards developing detailed knowledge of macroecological patterns in Arctic breeding migratory birds. Trends may differ from expert knowledge until data gaps are filled. In addition, we did not examine if abundance change is attributable to factors other than the loss of individuals, e.g., shifts in seasonal ranges. | Arctic Species Trend Index: Migratory Birds Index | 2015 | |
| Arctic Species Trend Index (ASTI) | Key finding | 3 | This overall trend masks differences between taxa and in flyway regions, with declines in East Asia and Central Asia (-40% and -70%), and recoveries in Africa-Eurasia and the Americas (50% and 15%). | Arctic Species Trend Index: Migratory Birds Index | 2015 | |
| Arctic Species Trend Index (ASTI) | Key finding | 3 | Tracking trends through space and time. 3.1 Spatial analysis of the full ASTI data set (1951 to 2010) started with an evaluation of vertebrate population trend data from around the Arctic. The maps produced from this analysis provide information useful for identifying gaps and setting priorities for biodiversity monitoring programs. 3.2 Mapping trends in vertebrate populations provides information on patterns of biodiversity change over space and time, especially when examined at regional scales. 3.3 Understanding of the causes of Arctic vertebrate population change can be improved by expanding the spatial analysis of ASTI data to include spatial data on variables that represent driversof biodiversity change. | The Arctic Species Trend Index 2011: Key findings from an in-depth look at marine species and development of spatial analysis techniques | 2012 | |
| Arctic Species Trend Index (ASTI) | Key finding | 5 | Waterfowl have increased across all flyway regions mainly due to geese, but there are differences in the underlying trends for geese/swans and for ducks. Geese and swans combined more than quadrupled in abundance between 1970 and 2011, showing positive change across regions (Figure 20), although coverage is too patchy for reliable conclusions. The increase in geese/swans is largely driven by geese, which make up the majority of this data set. Swans have been in decline since 1994. Duck abundance is 10% lower overall (Figure 19), but there are regional differences, with a halving in the Americas and a 70% increase in Africa-Eurasia. | Arctic Species Trend Index: Migratory Birds Index | 2015 | |
| Arctic Species Trend Index (ASTI) | Key finding | 7 | A number of species in our data set showed declines across flyway regions, e.g., Red knot Calidris canutus. Others have increased more recently, e.g., Greater white-fronted goose Anser albifrons. | Arctic Species Trend Index: Migratory Birds Index | 2015 |
Arctic Council Working Group