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Climate Performance, Environmental Toxins and Nutrient Density of the Underutilized Norwegian Orange-Footed Sea Cucumber (Cucumaria frondosa)

Langdal, Andreas; Eilertsen, Karl-Erik; Kjellevold, Marian; Heimstad, Eldbjørg Sofie; Jensen, Ida-Johanne; Elvevoll, Edel O.

Low trophic species are often mentioned as additional food sources to achieve broader and more sustainable utilisation of the ocean. The aim of this study was to map the food potential of Norwegian orange-footed sea cucumber (Cucumaria frondosa). C. frondosa contained 7% protein, 1% lipids with a high proportion of polyunsaturated fatty acids, and a variety of micronutrients. The nutrient density scores (NDS) of C. frondosa were above average compared towards daily recommended intakes (DRI) for men and women (age 31–60) but below when capped at 100% of DRI. The concentrations of persistent organic pollutants and trace elements were in general low, except for inorganic arsenic (iAs) (0.73 mg per kg) which exceeded the limits deemed safe by food authorities. However, the small number of samples analysed for iAs lowers the ability to draw a firm conclusion. The carbon footprint from a value chain with a dredge fishery, processing in Norway and retail in Asia was assessed to 8 kg carbon dioxide equivalent (CO2eq.) per kg C. frondosa, the fishery causing 90%. Although, C. frondosa has some nutritional benefits, the carbon footprint or possible content of iAs may restrict the consumption.

MDPI

2022

Climate patterns and the forcing of the polar stratosphere in winter. NILU PP

Orsolini, Y.J.; Karpechko, A.; Nikulin, G.

2006

Climate Monitoring with observations of Fire Radiative Power

Kaiser, Johannes; Parrington, Mark; Di Tomaso, Enza; Liu, Zixia; Stebel, Kerstin; Fjæraa, Ann Mari; Schneider, Philipp

2024

Climate impact of tropospheric ozone changes. Air pollution research report, no. 81

Stordal, F.; Bekki, S.; Hauglustaine, D.; Millan, M.; Sausen, R.; Schuepbach, E.; Stevenson, D.; van Dorland, R.; Volz-Thomas, A.

2003

Climate health risks to children and adolescents: exposures, policy and practice interventions

Graber, Juliette; Widmer, Kaja; Walker, Julia; Vounatsou, Penelope; Pozzoli, Luca

ETC/HE

2024

Climate gas monitoring at the Zeppelin station. Annual report 2001. NILU OR

Hermansen, O.; Schmidbauer, N.; Lunder, C.; Stordal, F.; Braathen, O.-A.; Holmén, K.

2002

Climate change rivals fertilizer use in driving soil nitrous oxide emissions in the northern high latitudes: Insights from terrestrial biosphere models

Pan, Naiqing; Tian, Hanqin; Shi, Hao; Pan, Shufen; Canadell, Josep G.; Chang, Jinfeng; Ciais, Philippe; Davidson, Eric A.; Hugelius, Gustaf; Ito, Akihiko; Jackson, Robert B.; Joos, Fortunat; Lienert, Sebastian; Millet, Dylan B.; Olin, Stefan; Patra, Prabir K.; Thompson, Rona Louise; Vuichard, Nicolas; Wells, Kelley C.; Wilson, Chris; You, Yongfa; Zaehle, Sönke

Nitrous oxide (N2O) is the most important stratospheric ozone-depleting agent based on current emissions and the third largest contributor to increased net radiative forcing. Increases in atmospheric N2O have been attributed primarily to enhanced soil N2O emissions. Critically, contributions from soils in the Northern High Latitudes (NHL, >50°N) remain poorly quantified despite their exposure to rapid rates of regional warming and changing hydrology due to climate change. In this study, we used an ensemble of six process-based terrestrial biosphere models (TBMs) from the Global Nitrogen/Nitrous Oxide Model Intercomparison Project (NMIP) to quantify soil N2​O emissions across the NHL during 1861–2016. Factorial simulations were conducted to disentangle the contributions of key driving factors, including climate change, nitrogen inputs, land use change, and rising atmospheric CO2 concentration​, to the trends in emissions. The NMIP models suggests NHL soil N2O emissions doubled from 1861 to 2016, increasing on average by 2.0 ± 1.0 Gg N/yr (p

Elsevier

2025

Clean air policies are key for successfully mitigating Arctic warming

von Salzen, Knut; Whaley, Cynthia; Anenberg, Susan C.; Van Dingenen, Rita; Klimont, Zbigniew; Flanner, Mark G.; Mahmood, Rashed; Arnold, Stephen R.; Beagley, Stephen; Chien, Rong-You; Christensen, Jesper H.; Eckhardt, Sabine; Ekman, Annica M. L.; Evangeliou, Nikolaos; Faluvegi, Greg; Fu, Joshua S.; Gauss, Michael; Gong, Wanmin; Hjorth, Jens; Im, Ulas; Krishnan, Srinath; Kupiainen, Kaarle; Kuhn, Thomas; Langner, Joakim; Law, Kathy S.; Marelle, Louis; Oliviè, Dirk Jan Leo; Onishi, Tatsuo; Oshima, Naga; Paunu, Ville-Veikko; Peng, Yiran; Plummer, David; Pozzoli, Luca; Rao-Skirbekk, Shilpa; Raut, Jean-Christophe; Sand, Maria; Schmale, Julia; Sigmond, Michael; Thomas, Manu Anna; Tsigaridis, Kostas; Tsyro, Svetlana; Turnock, Steven T.; Wang, Minqi; Winter, Barbara

A tighter integration of modeling frameworks for climate and air quality is urgently needed to assess the impacts of clean air policies on future Arctic and global climate. We combined a new model emulator and comprehensive emissions scenarios for air pollutants and greenhouse gases to assess climate and human health co-benefits of emissions reductions. Fossil fuel use is projected to rapidly decline in an increasingly sustainable world, resulting in far-reaching air quality benefits. Despite human health benefits, reductions in sulfur emissions in a more sustainable world could enhance Arctic warming by 0.8 °C in 2050 relative to the 1995–2014, thereby offsetting climate benefits of greenhouse gas reductions. Targeted and technically feasible emissions reduction opportunities exist for achieving simultaneous climate and human health co-benefits. It would be particularly beneficial to unlock a newly identified mitigation potential for carbon particulate matter, yielding Arctic climate benefits equivalent to those from carbon dioxide reductions by 2050.

Springer Nature

2022

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