Radioactivity TDC

The AMAP Radioactivity Thematic Data Centre holds radioactivity sources, levels and trends data for monitoring and assessment. The database is hosted by the Norwegian Radiation Protection Authority (NRPA), Oslo, Norway.

AMAP Thematic Data Centres compile data from relevant monitoring and research activities and make them available under strict conditions that protect the rights of data originators. AMAP TDCs are located at established centres with appropriate expertise and facilities for conducting the types of international data handling required. For more information, please visit the main AMAP website.

Below are projects that have specified Radioactivity TDC as one of the data repositories for the AMAP Project Directory. To see the full list of AMAP Thematic Data Centres, see the AMAP TDC list.

It is also possible to browse and query the full list of projects.

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Displaying: 1 - 10 of 10
1. Monitoring of fish and seafood

Monitor the levels of radionuclides (137Cs and 210Po) in selected fish and seafood species in the Norwegian and Barents Sea.

137Cs 99Tc and 210Po Environmental management Fish Human health Radioactivity Radionuclides shellfish
2. Collaboration Network on EuroArctic Environmental Radiation Protection and Research (CEEPRA)

The aim of the CEEPRA (Collaboration Network on EuroArctic Environmental Radiation Protection and Research) project is establishment of a cooperation network in the EuroArctic region, cross-border exchange of knowledge and skills, improvement of emergency preparedness capabilities and risk assessments in case of nuclear accidents in the region as well as raising awareness and knowledge in the general public and stakeholders with respect to the nature, common challenges and associated risks in the area of nuclear safety, emergency preparedness and radioactivity in the environment. The project will study the current state of radioactive contamination in terrestrial and marine ecosystems in the EuroArctic region by examining environmental samples collected from the Finnish Lapland, Finnmark and Troms in Norway, the Kola Peninsula and the Barents Sea. The results will provide updated information on the present levels, occurrence and fate of radioactive substances in the Arctic environments and food chains. Special attention will be given to collection and analyses of natural products widely used by population in Finland, Russia and Norway, such as berries, mushrooms, fish and reindeer meat. The region-specific risk assessments will be carried out through modelling and investigation of long-term effects of potential nuclear accidents in the EuroArctic region and possible impacts on the region’s indigenous population, terrestrial and marine environments, reindeer husbandry, the natural product sector, tourism and industries. Open seminars for general public and target groups will be arranged in Finland, Russia and Norway during the project implementation period to provide relevant information on radioactivity-related issues and the status in the region.

Environmental safety terrestrial ecosystem Radioactivity Contaminant transport hypothetical assessments Radionuclides levels public awareness marine ecosystem fate of radionuclides in food chains modeling
3. Air filter stations – a national network for monitoring radioactivity in the environment

The Norwegian Radiation Protection Authority is responsible for a network of 5 air filter stations. These collect air samples through high density filters which are analyzed weekly by gamma spectroscopy. The network was established in the early 80s and is continuously updated. The purpose of the network is to assess the levels and composition of emissions from incidents and accidents. In addition, with the help of meteorological data, possible sources of release may be identified.

Atmospheric processes Sources Radioactivity Radionuclides Atmosphere
4. Monitoring of natural products in Finnish Lapland

The project monitors the artificial radioactivities in natural products in Finnish Lapland. The work mainly started after Chernobyl accident.

Fish Radioactivity Radionuclides Arctic Local pollution Reindeer Food webs
5. Continous monitoring of gammanuclides, strontium (beta) and tritium in deposition in Finnish Lapland

Part of the continuous nationwide monitoring of radionuclides in Finland. The dose rate monitoring network in Finnish Lapland comprise 32 automatic measurement stations (Finnish nation-wide monitoring network consists of about 257 stations equipped with GM tubes). Three of the stations are equipped with LaBr3-detectors measuring a gammaspectrum with 10 minute intervals. The network is intended for civilian defence and surveillance purposes, not for research. It is a good early warning system in radiation fallout situation. Every monitoring station have individual alarm level: 7 days average dose rate + 0.1 microSv/h. The dense network indicate also the extent of the radioactive contamination.

tritium strontium Radioactivity caesium Radionuclides fallout nuclides Atmosphere iodine deposition
6. Monitoring of airborne radioactive substances in Lapland

Part of the continuous nationwide monitoring of radionuclides in Finland. STUK is responsible for monitoring of radioactivities in atmosphere. STUK operates a network of eight aerosol samplers from which three are located in Finnish, Lapland at Rovaniemi, Sodankylä and Ivalo. The sampling is done either weekly or bi-weekly. Gammaspectroscopic measurements are done in the laboratory in Rovaniemi. The lowest activities are detected at microBq/m3 level.

sodium. beryllium Radioactivity caesium airborne radionuclide monitoring Radionuclides Atmosphere iodine
7. Whole body measurements on reindeer herders in Finnmark, Norway

Elevated levels of 137Cs caused by previous atmospheric nuclear weapons tests fallout and the Chernobyl accident have been observed in Finnmark, Northern Norway. Due to the large consumption of potentially contaminated reindeer meat, whole body measurements of 137Cs levels in reindeer herders have been performed since 1965.

Radioactivity Indigenous people Long-range transport Radionuclides Exposure Arctic Reindeer 137Cs Whole body measurements Human health Human intake
8. Simulation Scenarios for Potential Radioactive Spreading in the 21st century from Rivers and External sources in the Russian Arctic Coastal Zone (RADARC)

1) To perform simulation scenarios for the 21st century, including global warming scenarios, of potential radioactive spreading from sources in the Russian Arctic coastal zone and its impact on Barents, Greenland and Norwegian Seas and the Arctic Ocean; 2) To update the environmental and pollution data base of the Arctic Monitoring and Assessment Program (AMAP); 3) To assess, select and define the most probable simulation scenarios for accidental releases of radionuclides; 4) To implement a Generic Model System (GMS) consisting of several nested models designed to simulate radionuclides transport through rivers, in the Kara sea and in the Arctic ocean / North Atlantic; 5) To carry out simulation studies for the selected "release" scenarios of radionuclides, using various atmospheric forcing scenarios; 6) Assess the impact on potential radioactive spreading from sources as input to risk management.

Shelf seas Pathways Sources Hydrography Catchment studies Radioactivity Long-range transport Pollution sources Sea ice Contaminant transport Radionuclides Modelling Ice Oceanography River ice Arctic Local pollution GIS Sediments
9. Radioecological Investigation of Kola Fjord

To investigate the impacts of Russia's military and civilian nuclear activities in the Kola Bay and adjacent areas of the northwest Arctic coast of Russia.

Sources Organochlorines PCBs Heavy metals Fish Radioactivity Discharges Spatial trends Pollution sources Contaminant transport Radionuclides Modelling Exposure Arctic Persistent organic pollutants (POPs) Local pollution Geochemistry Food webs Sediments Pesticides Ecosystems
10. Environmental Protection from Ionising Contaminants in the Arctic (EPIC)

(1) Collate information relating to the environmental transfer and fate of selected radionuclides through aquatic and terrestrial ecosystems in the Arctic. (2) Identify reference Arctic biota that can be used to evaluate potential dose rates to biota in different terrestrial, freshwater and marine environments (3) Model the uptake of a suite of radionuclides, both natural and anthropogenic to reference Arctic biota (4) Develop a reference set of dose models for reference Arctic biota (5) Compile data on dose-effects relationships and assessments of potential radiological consequences for reference Arctic biota (6) Integrate assessments of environmental impact from radionuclides with those for other contaminants.

Pathways Biological effects Radioactivity Radionuclides Modelling Arctic