The full list of projects contains the entire database hosted on this portal, across the available directories. The projects and activities (across all directories/catalogs) are also available by country of origin, by geographical region, or by directory.

Displaying: 1 - 4 of 4
1. GeoBasis - Zackenberg

The GeoBasis programme collects data describing the physical and geomorphological environment in Zackenberg, North East Greenland. This includes meteorology, carbon flux and energy exchange, snow cover and permafrost, soil moisture, –chemistry and nutrient balance, hydrology, river discharge and – sediment

Active layer Arctic Atmosphere carbon cycle Carbon dioxide CH4 Climate change CO2-flux measurements Energy Balance geomorphology Hydrology Hydrometeorology meteorology Permafrost Snow and ice properties snow cover Soils
2. The Arctic Station, Qeqertarsuaq, Greenland, University of Copenhagen (AS-Q)

The Arctic Station is located on the south coast of the Disko Island in central west Greenland. It is thus facing the Disko Bay and is characterized by an arctic, marine climate. There are 3 building comprising guest facilities, staff accomodation, laboratory and library that are located in a nature sanctuary, approximately 1 km west of a small town, Qeqertarsuaq (formerly Godhavn), with ca. 1100 inhabitants. Within the town community is located all necessary service facilities, incl. several shops, bank, postoffice, church and a hospital. The station offers a 'state of the art' platform for year-round environmental research. The Arctic Station maintains a stat-of-the-art automatic weather station located in the immediate vicinity of the Arctic Station. The datalogging at Arctic Station (every half hour) comprises: air temperatur, humidity, incoming and outgoing radiation, wind speed and direction, rainfall, ground temperatures (5, 60 and 150 cm below surface) and temperature in solid rock 2 metre below surface. In addition to the above the station also maintains a freshwater, a marine and a terrestrial monitoring program. The whole moitoring program is call DiskoBasic.

Active layer algal blooming aquatic monitoring Snow and ice properties
3. Hydrological observation network of the Finnish Environment Institute (SYKE) (Hydrological observation networks)

The national program of hydrological monitoring is managed by the Finnish Environment Institute (SYKE), which is responsible for keeping the monitoring networks representative, for giving instructions concerning observations and measurements, for collecting the results into a database and for information services concerning the water situation. Regional environment centers are responsible for the field work needed for maintaining the monitoring stations, but they also have their own regional monitoring programs and information services. The data available from SYKE for northern Finland also include a land cover classification covering the region with a spatial resolution of 25 m. Actual hydrological monitoring observations are available e.g. on snow water equivalent, snow depth, snow density, fraction of snow covered area, soil frost depth, lake and river ice, water temperature, river discharges and water levels. Fig. 4.1 shows the monitoring network for the whole region of Finland. The snow data include monthly or bimonthly observations at fixed snow courses (each course is track of 2 to 4 kilometres providing an estimate on regional snow cover characteristics separately for open and forested areas (actually for six land cover categories). Also water quality (including some optical characteristics) monitoring data are available from selected lakes of northern Finland. Network type: Hydrological in-situ monitoring

Snow and ice properties
4. The surface energy budget and its impact on superimposed ice formation (SEBISUP)

During the spring/summer transition, sea ice and snow properties change considerably in response to warming and the eventual reversal of temperature gradients within the snow and ice. Snow melt water percolates down towards the colder snow/ice interface, where it refreezes to form superimposed ice. On sea ice this process occurs probably longer and more intensive than on land, because throughout the summer the ice and underlying seawater is always colder than the snow. In Antarctica superimposed ice may actually form layers of some decimeters in thickness. The objective of this study is to investigate the main processes and boundary conditions for superimposed ice formation, in recognition of its importance for Antarctic sea ice, and its possible importance for Arctic sea ice in case of environmental changes due to future climate change. This will be performed by means of modeling as well as by combined measurements of the temporal evolution of snow and ice properties and the energy budget.

Snow and ice properties Sea ice Climate change Modelling Ice Ice sheets Arctic Ice cores Superimposed ice formation