Recommendations

Increase quality and quantity of population status assessment data of Arctic breeding waterbirds in the African-Eurasian Flyway

2.1 Support filling knowledge gaps and strengthening monitoring of Arctic waterbirds in the breeding grounds of the flyway, including implementing CBMP in cooperation with Wadden Sea Secretariat and AEWA.

2.2 Support improved population delineation of Arctic-breeding waders by collating Arctic breeding wader migration data (tracking, colour-marking, geolocator, ringing data, etc.) and presenting it on the CSN tool to improve flyway delineation data.

Identify and secure important breeding and staging habitats of key AMBI Central and East Asian Flyways migratory bird species in Arctic Russia and Alaska, with a focus on Spoon-billed Sandpiper, Bar-tailed Godwit, Red Knot, Dunlin, Emperor Goose and Brant Goose.

1.1 (Russia): Improve conservation work on Spoon-billed Sandpiper (SBS) and other AMBI priority species in the breeding grounds including addressing climate change related threats.

1.2 (Russia): Identify important breeding and staging areas in coastal areas of Russia for AMBI priority species, and where possible encourage and assist their nomination as EAAF Partnership Network Sites with follow-up conservation actions, prioritizing areas in Sakhalin and Kamchatka (Ust' Khairuzovo, Moroshechnaya estuary, Bay of Tyk and others).

1.3 (United States): Undertake bird surveys and tracking studies to improve knowledge of important breeding and staging sites for priority species in Alaska.

1.4 (United States): Protect previously identified important breeding and staging areas.

1.5 (Russia/United States): Share experience and methodologies for surveying shorebird distribution, monitoring population size and trends, conducting demographic studies, and managing habitats of priority species and other migratory birds.

1.6 (Russia/United States): Explore the opportunity to initiate a seabird monitoring project in Chukotka and increase cross-Beringia information exchange.

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

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.

Enhance data collection and data input into habitat protection initiatives

1.1 Raise awareness and facilitate protection of key marine bird habitats that intersect with human activities using various regulatory and planning processes as appropriate to protect marine birds while they are at-sea.

1.2 Support country participation on circumpolar collaborations to enhance Ivory Gull surveys and collection and synthesis of marine bird tracking data (including Ivory Gulls).

1.3 Knowledge gap analysis of circumpolar seabird tracking studies.

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

Address other threats to Arctic migratory birds along Central and East Asian Flyways and improve international cooperation

5.1 (All countries): Analyse and assess development aid funding structures in high-income-countries and explore opportunities to help identify how AMBI can empower communities to support conservation of important priority species’ habitats, and develop solutions to address illegal hunting where pressures exist.

5.2. (All countries): Initiate work on evaluation of the effect of contaminants and/or pathogens on Arctic-breeding migratory birds as factors possibly decreasing their survival and reproduction potential and estimate bio-transition along the flyway to the Arctic.

5.3. (All countries): Promote cooperation between EAAFP’s Spoon-billed Sandpiper Task Force and AMBI in addressing Spoon-billed Sandpiper conservation activities identified in this workplan.

5.4. (All countries): Create an intervention tool box to ensure resilience of Arctic-breeding migratory birds along Central and East Asian Flyways with the involvement of Arctic Council Observer countries as recommended by the draft AMBI crosswalk analysis under the PSI funded project.

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.

Tracking trends in Arctic marine vertebrates.

2.1 The trend for marine fish is very similar to the trend for all marine species, increasing from 1970 to about 1990 and then levelling off. This indicates that the ASTI is strongly influenced by fish trends. Overall, marine mammals also increased, while marine birds showed less change.

2.2 The three ocean regions, Pacific, Atlantic, and Arctic, differed significantly in average population trends with an overall decline in abundance in the Atlantic, a small average increase in the Arctic and a dramatic increase in the Pacific. These differences seem to be largely driven by variation in fish population abundance—there were no significant regional differences for birds or mammals.

2.3 Pelagic fish abundance appears to cycle on a time frame of about 10 years. These cycles showeda strong association with a large-scale climate oscillation.

2.4 The ASTI data set contains population trends for nine sea ice associated species. There were mixed trends among the 36 populations with just over half showing an overall decline.

2.5 The Bering Sea and Aleutian Island (BSAI) region of the Pacific Ocean is well studied, providing an opportunity to examine trends in more detail. Since 1970, BSAI marine fish and mammals showed overall increases, while marine birds declined. However, since the late 1980s, marine mammal abundance has declined while marine fish abundance has largely stabilized.