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Russian Scientific Center on Spitsbergen Dr. Anna Nikulina [email protected]
Federal Service for Hydrometeorology and Environmental Monitoring of Russia (Roshydromet)
Arctic and Antarctic Research Institute
METEOROLOGY
SHELF
MARINE ICE
GEOPHYSICS
(PALEO)GEOGRAPHY
SURFACE LAYER
HYDROGRAPHY
ATLANTIC HALOCLINE PACIFIC HALOCLINE
OCEANOGRAPHY ATLANTIC WATER
ARCTIC DEEP WATER
2000 m
3000 m
1000 m
Since 1920, started as Northern Research and Trade Expedition
ARCTIC AND ANTARCTIC RESEARCH INSTITUTE, SPB, RUSSIA
Drifting station North Pole-1, 1937
Svalbard
Billefjorden
Pyramiden
Grønfjorden
Barentsburg
Research stations
• 11 Russian Institutes of different branches doing research on the archipelago;
• Russian Scientific Center on Spitsbergen (RSCS) is to coordinate and facilitate their activity;
• 2009 – 2013: the main infrastructure was built and renovated;
• 2014: the concept of the Center was approved by the Government of the Russian Federation;
• Since April 4, 2016: the RSCS got independent status, run by AARI;
• Permanent staff of 7 (2016);
• Hosts over 40 researchers (2016).
Next steps • Infrastructure of Russian institutions on Spitsbergen is to be united;
• Coordinated research programme;
• Student and PhD training;
• Involving more participants.
Establishing of the Russian Scientific Center on Spitsbergen (RSCS)
The infrastructure of Research Center in Barentsburg
Meteo/geophysical Observatory
Satellite Receiving Station
Logistics/Transport Analytical Laboratory
Satellite receiving / transmission site • X/L-band antenna • X-band antenna • L-band antenna
EOS Mission (USA) TERRA & AQUA
NOAA Mission (USA) № 15,17,18,19
MetOp-B (EUMETSAT/ESA)
Suomi NPP (USA)
FY-3 (China)
• Built and supported by Kongsberg
• Primary processing of satellite images and information before sending to AARI, 2 Tb per year
• Satellite missions of multiple channels, different resolution and swath:
Barentsburg’s view area with an initial angle of elevation receiving antenna 5º
Mostly ice, wave, sea level forecasts Synoptic maps: http://gmdss.aari.ru/ & http://weather.gmdss.org
Satellite receiving / transmission site
New tasks: • To extend the data array beyond ice and synoptic data e.g.
glaciers, phytoplankton, vegetation; • On-the-spot processing and using of information in BB; • Ground-truth observations to validate remote sense data; • To receive data from future Arctic-M satellites with highly
elliptical orbit over the Arctic region.
Satellite image
Ice charts
Wave forecast Ice properties
Logistics: transport, basic equipment • Vehicles (snow scooters, quads, cars)
• Boats
• Samplers
• Profilers
• Sample preparation room
• Helicopter and ship by ArcticUgol Trust
Analytical Lab Sample Preparation • Water sample preparation and basic analysis
of pH, conductivity, dis. O2;
• Sediment samples preparation: freeze-drying, pulverising;
• Samples extraction, incubation, storage.
Microscopy • 2 x Zeiss Axio Imager.A2 with achromatic-
aplanatic universal condenser 0.9 H D Ph DIC for plankton, benthic, paleo and mineralogical studies.
− to support research activity on the archipelago;
− equipped with analytical instruments by Shimadzu, Mettler Toledo, Zeiss, Sartorius etc.
Analytical Lab Hydrochemical Lab • TCN analyser (water), planned one for solid
samples; • Ion chromatographer; • 2 x Spectrophotometer with a flow cell; • Automatic titration by Mettler Toledo.
Metals analysis • AAS with flame and electro-thermal
atomisation - get running to the next season; • Mercury analyser.
Analytical Lab Organic compounds analysis • 2 x LC with diode array and fluorescence
detectors; • GC with flame ionisation and electron
capture detectors; • The whole cycle of sample preparation
and measurements completed, compared to RPA “Typhoon” lab results, will be intercalibrated with NILU;
• GC –MS quadrupole type to get running.
To do • Proper supplying of the lab; • Permanent staff of 3; • Methods & intercalibration – BareLab project with
NILU & NMBU; • Own research programme – metals accumulations
in GF ecosystem with Murmansk Marine Biological Institute, passive sampling with NILU & NIVA.
RSCS research programme • The basis formed decades ago; • A lot of monitoring observations.
Oceanographic observations by AARI and Hydromet Agency
Meteorological observations by Murmansk Hydromet Station and AARI
Glaciology by AARI and Institute of Geography RAS
Geological survey by Polar Marine Geological Expedition
Biology and Soils by Institutes of Russian Academy of Science
Geophysics by Polar Geophysical Institute of RAS
Archaeology by Institute of Archaeology of RAS
1900 1910 1920 1930 1940 1950 1960 1970 1980 1990 2000 2010
Environmental monitoring by RPA Typhoon
Paleogeography & Permafrost
Processing of archive data
• Air temperature from Norwegian and Russian stations on Svalbard (1898-2015)
• Sea ice cover data from BB (1937-2015) and Pyramiden (1948-1957)
• Oceanographic data for Grønfjorden and Isfjorden (1900-2015)
• Glaciers retreat (1939-2001)
1980-2009
SAT (yearly average) Linear trend 11-year moving average 5-year moving average
D. Tislenko, B. Ivanov, 2016
1915-1935 ~60 years
Surf
ace
air t
empe
ratu
re
Processing of archive data
• Air temperature from Norwegian and Russian stations on Svalbard (1898-2015)
• Sea ice cover data from BB (1937-2015) and Pyramiden (1948-1957)
• Oceanographic data for Grønfjorden and Isfjorden (1900-2015)
• Glaciers retreat (1939-2001)
AARI report, 2014
1950 1955 1960 1965 1970 1975 1980 1985 1990 1995 2000 2005 2010Год
0
10
20
30
40
50
60
70
80
90
100
110
Наи
боль
шая
изм
ерен
ная
толщ
ина
льда
, см
1950 1960 1970 1980 1990 2000 2010
Maximal measured thickness of fast ice, cm
Thic
knes
s of
fast
ice,
cm
0
20
40
60
80
100
Processing of archive data
• Air temperature from Norwegian and Russian stations on Svalbard (1898-2015)
• Sea ice cover data from BB (1937-2015) and Pyramiden (1948-1957)
• Oceanographic data for Grønfjorden and Isfjorden (1900-2015)
• Glaciers retreat (1939-2001)
Pavlov et al, 2014
Time series of max Atlantic Water (AW) temperature with best-fit linear trend for the period 1912-2009
Meteorology and climate AARI, SPb State University together with UiT, NPI
Albedo distribution on Aldegonda glacier, A. Tkachenko, 2016
• Radiation properties of the snow in BB area, spectral analysis of reflected and absorbed radiation;
• Experimental setup: relations “albedo- snow contamination by coal particles”;
• Radiation properties of the glaciers surface;
• Microcirculation over Aldegonda glacier by station HOBOU30 – measurements & data processing in progress .
Ivanov, Sveshchennikov, 2015, Sviashchennikov et al, 2014 Sediment concentration, kg/m2
A
lbed
o, %
Initial state
24 h after exposure
Aerosols in the atmosphere – constant observations:
• spectral aerosol optical depth;
• height of the atmospheric boundary layer;
• influence of aerosol on radiation properties in high latitudes;
• sources of aerosol- local vs global by chemical composition.
Meteorology and climate
Mass concentration of soot in Barentsburg, μg m-3
AARI report, 2015
2015 may june july august september
Mass concentration of soot in Barentsburg, μg m-3
Spitsbergen Kara Sea Tiksi N Laptev Sea Chukchi Sea
Sakerin et al, 2015
Mean spectral dependencies of AOD 2011-2014
AARI and Institute of Atmosphere Optics RAS
Oceanography
Dynamic and water structure in Grønfjorden, Nordfjorden, Billefjorden and Isfjorden: • Fast ice measurements: thickness &
morphology; • Under ice measurements, water
column microstructure.
AARI
Diksonfjord Fast ice thickness April 2012 April 2013
Under ice CTD continuous measurements at 3 levels, April 2014
AARI report, 2014
• Fresh water and cold glacier water in the fjords;
• Atlantic water in the fjords: strong interannual variability in the smaller fjords;
Oceanography
T, °C April 2013
T, °C April 2014
AARI report, 2015
CTD stations in Grønfjorden
• Short and long-term mooring stations in Isfjorden show drastic changes in temperature and current velocity & direction within days strongly affecting smaller fjords.
Oceanography
Cape Linne
3 February 2015 Vmax = 757 mm/с
K. Filchuk, 2015
2015
2015
AARI together with UNIS (P. Bogorodsky & A. Marchenko)
Experimental set-up at Sveagruve:
Energy and mass exchange in freezing melted puddle, March 2016
Oceanography
• Pools in sea ice and lake ice in Braganza bight;
• Filled with fresh water;
• Synchronous measurements of temperature and salinity by frozen-in instruments;
• Ice morphology.
Sea ice Surface layer Intermediate layer Bottom layer
Fresh ice Surface layer Intermediate layer Bottom layer
K. Filchuk, 2016
1 2 3
Glaciers
• Ablation stake measurements, also by georadar;
• Video registration of snow line;
• Mass-balance estimations;
AARI and Institute of Geography of RAS
After AARI report, 2014, 2015
Aldegonda
WGF EGF
• Ablation distribution, surface properties;
• Drainage systems by IG RAS;
• Geophysics - dynamic processes on Nordenskjold glacier, glacier movements, interaction with the ground surface, wave propagation.
Glaciers AARI and Institute of Geography of RAS
Monitoring scheme at Nordenskjold glacier, 2016
Aldegonda glacier, ablation distribution in 2014
AARI report, 2014, 2015
AARI report, 2014
Hydrography
Water balance of the catchment area:
• Snow survey and water supply;
• Snow physical and chemical properties;
• Rivers water and suspended matter discharge, ion discharge, flow rate dynamic;
• Catchment area modelling.
AARI report, 2016
av min max in BB linear trend av min max in BB linear trend
Snow thickness in catchment area in the period of max imal accumulation 2001-2016, cm
Water equivalent of snow cover 2001-2016, mm w.e.
Grøndalen river
Grøndalen river Aldegonda river
Aldegonda river
Paleo studies AARI together with Polar Marine Geological Survey
• Annual expeditions to various regions – paleo-reconstruction of Holocene changes. Collecting samples for 14C analysis and microfauna;
• Short sediment cores from
Kongress and Bretjorna lakes for sedimentation rate analysis, micropaleontology to reconstruct conditions for the past few hundred years.
Karl Jarsberg Land, 2016
Dunderdalen
Kongress lake
S. Verkulich, 2016
Permafrost
− C14 dating; − paleomicrofossils; − grain size; − dry residue; − CH4; − organic carbon; − viable microorganisms
etc.
Field work Laboratory analysis Scientific output
IISP PSN RAS: Thermal state and physico-chemical properties of permafrost in Svalbard
− drilling boreholes; − collecting frozen cores; − monitoring of
temperatures in boreholes (TSP program);
− establishing polygons for active layer thickness monitoring (CALM program).
− permafrost response to climate change;
− paleogeography of Spitsbergen during Holocene & Pleistocene;
− biogeochemical contribution of thawing permafrost to global CH4 and Corg cycles;
− Mars analogy studies, testing instruments for planetary exploration.
N. Demidov, 2016
Contamination monitoring RPA “Typhoon”
Monitoring program of local contamination in Barentsburg and adjacent area since 2001;
Defining the sources: coal mining (coal dust), power station, vehicles, sewage, outdoor paint, long-range transport;
PAH, PCB, pesticides, metals in air, snow, fresh & marine water, marine sediments, soil, organisms – different distribution patterns.
Soil ΣHC μg/g dw, 2002-2011
Snow Cu, μg/l 2003-2010
Grønfjorden Water pollution index
Off-shore area Marine area 2002 2003 2004 2005 2006 2007 2008 2009 2010 2011 2012 2013
Demin et al, 2011, Demeshkin, 2015
0.5 1.0 1.5 2.0
100 200 300 400
Students involvement
• Annually master and PhD students from SPb State University and Hydromet University work in the research groups:
• Course field practices;
• Collecting data for thesis;
• 2016: Field practice-Summer school for SPbSU POMOR master students with lectures and field experience.
Plans
• Increasing number of researchers staying over the whole year;
• Logistics development, uniting the infrastructure;
• Facilitation of further collaboration between research groups and institutes working in Barentsburg;
• Developing of long-term research projects;
• International cooperation;
• Fostering master and PhD students;
• Internal report on the research in the last decade, also in English.
Thank you for attention!