Recommendations
| Project | Type | # | Outcome | Report | Year | FEC |
|---|---|---|---|---|---|---|
| Mainstreaming Biodiversity in Arctic Mining | Advice | Difficulty establishing clear processes for engaging Indigenous Peoples and utilizing TK. A need exists to work together with Indigenous communities in a meaningful way that respects and utilizes TK along with science to inform decisions regarding biodiversity (e.g., key research questions informing biotic and abiotic monitoring decisions). There are existing examples of design, operations, and reclamation plans of some mines located in the Arctic region that have been influenced by TK and through consultations with local communities, but there is not a consistent or systematic way for gathering and utilizing TK and science so outcomes are useful, credible and benefit communities and the mining industry to the greatest extent possible. Government agencies could:
Mining industry could:
CAFF could:
| Mainstreaming Biodiversity in Arctic Mining Challenges and Proposed Solutions | 2019 | ||
| Mainstreaming Biodiversity in Arctic Mining | Advice | Establishment of a system that is acceptable, predictable and measurable for industry, stakeholders and authorities to manage ecological compensation6, taking into account the vulnerability of Arctic nature and the long timeframes and slow pace of renewal associated with cold climates. The process of ecological compensation for unavoidable impacts is based on many assumptions and is inherently uncertain. A primary challenge is predicting with certainty what biodiversity benefits will be gained through the compensatory action (e.g., protection or restoration of another piece of land) and then measuring actual benefits versus predictions. Compensation should be designed and implemented so that the benefits to nature in the compensation area are equal to or higher than the value lost in the affected area. Ideally, that benefit would occur prior to the development action, but practically, that is often not the case. Government agencies could:
Mining industry could:
CAFF could:
| Mainstreaming Biodiversity in Arctic Mining Challenges and Proposed Solutions | 2019 | ||
| Arctic Migratory Birds Initiative (AMBI) | Advice | 1 | Methods to monitor plastic pollution in seabirds – Standardized methods (OSPAR 2015; Provencher et al. 2017, 2019) should be used where possible to make data comparable across spatially and temporally. | Plastic Pollution in Seabirds: Developing a program to monitor plastic pollution in seabirds in the pan-Arctic region | 2021 | |
| 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) | Advice | 3 | 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) | 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) | Advice | 5 | Monitoring microplastics and plastic-associated contaminants: Northern fulmars, thick-billed murres, black-legged kittiwakes and common eiders should be monitored for microplastics and plastic-associated contaminants. | Plastic Pollution in Seabirds: Developing a program to monitor plastic pollution in seabirds in the pan-Arctic region | 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 Migratory Birds Initiative (AMBI) | Advice | 7 | Monitoring species of high conservation concern – Leach’s storm-petrels should be monitored where possible for potential effects of plastic pollution. | Plastic Pollution in Seabirds: Developing a program to monitor plastic pollution in seabirds in the pan-Arctic region | 2021 | |
| Key finding | 1 | Partnerships that engage indigenous communities, scientists and other organizations in the co-production of knowledge are essential in understanding environmental change and effects on indigenous communities. This knowledge can contribute to more relevant decision-making. | Project Summary: Bering Sea Sub-Network II | 2015 | ||
| Key finding | 2 | Research efforts relevant to indigenous communities should establish partnerships with them and contribute to building their capacity, for example by hiring local residents, and providing training and equipment | Project Summary: Bering Sea Sub-Network II | 2015 | ||
| Key finding | 3 | Observations from those spending much time on the land and sea are necessary in not only understanding local environmental change but also in understanding the effects of environmental changes on human well-being and traditional practices | Project Summary: Bering Sea Sub-Network II | 2015 | ||
| Key finding | 4 | Different environmental changes are occurring within different cultural contexts creating diverse impacts; as such adaptive actions need to be based on local realities and priorities | Project Summary: Bering Sea Sub-Network II | 2015 | ||
| Key finding | 5 | Environmental changes are generally, but not always, resulting in negative effects to traditional harvests with impacts to food and cultural security | Project Summary: Bering Sea Sub-Network II | 2015 | ||
| Key finding | 6 | Regulations that impact communities ought to be flexible to allow for adaptation to change and ought to include meaningful local voice through instruments such as co-management to support the food security and sovereignty of indigenous communities | Project Summary: Bering Sea Sub-Network II | 2015 | ||
| Key finding | 7 | Community observations from local and traditional experts have much untapped potential as ‘early warning systems’ | Project Summary: Bering Sea Sub-Network II | 2015 | ||
| Resilience and Management of Arctic Wetlands (RAW) | Key finding | 1 | Arctic wetlands provide important ecosystem services to Arctic and global communities, including cooling the global climate. They provide clean water and buffer floods and droughts, support fisheries and hunting, support biodiversity, and act as long-term sinks for atmospheric carbon. Wetlands are an integral part of many Indigenous Peoples’ lives; they provide and sustain food security, including grazing for traditional reindeer herding. Recognition of wetlands’ importance, including in the Arctic, is growing as their role in sustaining a wide range of ecosystem services becomes better understood. | Resilience and Management of Arctic Wetlands: Key Findings and Recommendations | 2021 | |
| Resilience and Management of Arctic Wetlands (RAW) | Key finding | 2 | The substantial ecosystem services provided by Arctic wetlands should be recognized at the international level. Presently, there is limited coordination on how ecosystem services from Arctic wetland management are reported to international frameworks or conventions on climate change mitigation and biodiversity. Common guidelines on how ecosystem services gained from wetland conservation and restoration actions are reported internationally could increase their global recognition. | Resilience and Management of Arctic Wetlands: Key Findings and Recommendations | 2021 | |
| Resilience and Management of Arctic Wetlands (RAW) | Key finding | 3 | Anthropogenic climate change is a serious threat to Arctic wetland ecosystems and exacerbates many other threats. Widespread climate change impacts in Arctic wetlands are ongoing and projected to increase in this century and reducing greenhouse gas emissions is necessary to limit these impacts. Climate-driven permafrost thaw and increased drought conditions impacting wetland ecosystems will cause greater fire occurrences and shifts in hydrological flows, affecting wetland ecosystem services and biodiversity. Sea level change and declines in sea ice are driving increases in coastal erosion that threatens many coastal wetlands. Thawing permafrost is projected to transform peatlands from a net sink of greenhouse gases to a net source lasting for several centuries. | Resilience and Management of Arctic Wetlands: Key Findings and Recommendations | 2021 | |
| Resilience and Management of Arctic Wetlands (RAW) | Key finding | 4 | Although the majority of Arctic wetlands remain relatively intact, changes are already occurring across the Arctic and wetland resilience is needed to buffer further damage. Wetlands are vulnerable to substantial indirect damage e.g. through global warming, changes to p recipitation patterns, altered hydrological flows, and environmental pollutants. Such damage also constitutes a broader threat to migratory animal populations. These diverse threats to wetland ecosystems emphasize the need for landscape scale management with a focus on conservation, protection and maintained resilience. | Resilience and Management of Arctic Wetlands: Key Findings and Recommendations | 2021 |
Arctic Council Working Group