Glaciers Liss M. Andreassen Section for glaciers, snow and ice Norwegian Water Resources and Energy Directorate

Slides:



Advertisements
Similar presentations
Population Modeling Methods and Projects: Implications for Data Use Greg Yetman CIESIN, Columbia University GEO Meningitis.
Advertisements

Cryosphere components in GTOS networks Wilfried Haeberli Geography Department University of Zurich.
A METHOD FOR MONOTORING GLACIER MASS BALANCE USING REMOTE SENSING IN THE FRENCH ALPS : COMPARISON WITH GROUND MEASUREMENTS ( ) Jean-Pierre DEDIEU,
ICC 2009, Santiago de Chile Visualization of Glacier Surface Movement Samuel Wiesmann Institute of Cartography, ETH Zurich.
Objective: ●harmonized data sets on snow cover extent (SE), snow water equivalent (SWE), soil freeze and vegetation status from satellite information,
Xiangming Xiao Department of Botany and Microbiology, College of Arts and Sciences Center for Spatial Analysis, College of Atmospheric.
MONITORING EVAPOTRANSPIRATION USING REMOTELY SENSED DATA, CONSTRAINTS TO POSSIBLE APPLICATIONS IN AFRICA B Chipindu, Agricultural Meteorology Programme,
M Anul Haq*, Dr. Kamal Jain*, Dr K. P. R. Menon** * Indian Institute of Technology Roorkee(IITR) ** National Remote Sensing Centre, Hyderabad(NRSC)
Collaborative Research on Sunlight and the Arctic Atmosphere-Ice-Ocean System (AIOS) Hajo Eicken Univ. of Alaska Fairbanks Ron Lindsay Univ. of Washington.
Collaborative Investigation of Climate Cryosphere Interaction 3 (CICCI 3) Rune Storvold, Norut/NTNU NySMAC, Helsinki, April 7 th -8 th, 2014.
Climate Research in Nepal Himalayas Saraju K. Baidya (Department of Hydrology & Meteorology) “Mountains, witnesses of global changes. Research in the Himalaya.
UNSTABLE, DRI and Water Cycling Ronald Stewart McGill University.
The Central Nebraska Public Power and Irrigation District Groundwater Mound Study.
CLIMATE CHANGE: IS BENGAL DELTA GOING TO BE SUBMERGED? KHONDKER NEAZ RAHMAN Urban And Regional Planner
Modeling Digital Remote Sensing Presented by Rob Snyder.
BIIR Cost Preview Preparatory Materials. BIIR Can Help Answer These Science Questions Refined science questions derived in part from the St. Petersburg.
Global Ice Sheet Mapping Orbiter Understand the polar ice sheets sufficiently to predict their response to global climate change and their contribution.
16/06/20151 Validating the AVHRR Cloud Top Temperature and Height product using weather radar data COST 722 Expert Meeting Sauli Joro.
2 nd International Conference on Water and Flood Management ICWFM-2009 Flood Inundation Map of Bangladesh using MODIS Surface Reflectance Data AKM Saiful.
The impact of climate change on glaciers and glacial runoff in the Nordic countries Tómas Jóhannesson, Guðfinna Aðalgeirsdóttir, Andreas Ahlstrøm, Liss.
A Macroscale Glacier Model to Evaluate Climate Change Impacts in the Columbia River Basin Joseph Hamman, Bart Nijssen, Dennis P. Lettenmaier, Bibi Naz,
IPY Satellite Data Legacy Vision: Use the full international constellation of remote sensing satellites to acquire spaceborne ‘snapshots’ of processes.
MODIS NRT Flood Water Mapping Fritz Policelli, NASA GSFC LANCE UWG November 16, 2010.
WMO / COST 718 Expert Meeting on Weather, Climate and Farmers November 2004 Geneva, Switzerland.
Global Inter-agency IPY Polar Snapshot Year (GIIPSY): Goals and Accomplishments Katy Farness & Ken Jezek, The Ohio State University Mark Drinkwater, European.
Satellite Imagery and Remote Sensing NC Climate Fellows June 2012 DeeDee Whitaker SW Guilford High Earth/Environmental Science & Chemistry.
Ilulissat Climate Days, Greenland, 4 June 2015 Greenland – a white spot on the map of the internationally coordinated glacier monitoring? Michael Zemp,
Remote Sensing. Gives us “the Big Picture” Allows us to see things from the larger perspective. Allows us to see things we otherwise might miss.
Malcolm McMillan1, Peter Nienow1, Andrew Shepherd1 & Toby Benham2
Himalayan Glacier Change Finish South Asia Finish South Asia Nepal: Everest Region Nepal: Everest Region Glacier Lake Outburst FloodsGlacier Lake Outburst.
Recent advances in remote sensing in hydrology
Chuvieco and Huete (2009): Fundamentals of Satellite Remote Sensing, Taylor and Francis Emilio Chuvieco and Alfredo Huete Fundamentals of Satellite Remote.
Ecosystems  Climate  Energy and Minerals  Natural Hazards  Environment and Human Health  Water U.S. Department of the Interior U.S. Geological.
Capacity Development & Earth Observation for Looking after Water in Africa Benjamin Koetz Directorate of Earth Observation Programmes European Space Agency.
15-18 October 2002 Greenville, North Carolina Global Terrestrial Observing System GTOS Jeff Tschirley Programme director.
Global warming and Sea Level Rise: Best estimates by 2100 John King
ASSESSMENT OF ALBEDO CHANGES AND THEIR DRIVING FACTORS OVER THE QINGHAI-TIBETAN PLATEAU B. Zhang, L. Lei, Hao Zhang, L. Zhang and Z. Zen WE4.T Geology.
Jeff Kargel/USGS GLIMS summary presentation GLIMS Global Land Ice Measurements from Space (Newly revamped website! Glim: “A Glimpse.
Geomatics Tools for Inventorying and Assessing Headwaters Adam Hogg Inventory Monitoring & Assessment, Ministry of Natural Resources Eastern Region Headwaters.
RESULTS OF RESEARCH RELATED TO CHARIS IN KAZAKHSTAN I. Severskiy, L. Kogutenko.
The GlobGlacier project Espen Volden European Space Agency Earth Observation Science, Applications and Future Technologies Department Frank Paul University.
Understanding hydrologic changes: application of the VIC model Vimal Mishra Assistant Professor Indian Institute of Technology (IIT), Gandhinagar
Surface displacements and surface age estimates for creeping slope landforms in Northern Iceland using digital photogrammetry B. Wangensteen¹, Á. Guðmundsson.
GEO Summit, Side Event on Cold Regions, 13 Jan 2014 Global Terrestrial Network for Glacier: the importance of long-term glacier observations Michael Zemp.
Educator Resources Lauren Ritter, NASA Education Pathways Intern Hurricane and Severe Storm Sentinel (HS3) Global Precipitation Measurement (GPM) Soil.
AGU2012-GC31A963: Model Estimates of Pan-Arctic Lake and Wetland Methane Emissions X.Chen 1, T.J.Bohn 1, M. Glagolev 2, S.Maksyutov 3, and D. P. Lettenmaier.
WRRI, NARC, Islamabad. March 24th, PARC-ICIMOD Partnership 1992 – An in-formal collaboration was initiated between PARC and ICIMOD 1994 – A first.
Assessment of CCI Glacier and CCI Land cover data for hydrological modeling of the Arctic ocean drainage basin David Gustafsson, Kristina Isberg, Jörgen.
Goal: to understand carbon dynamics in montane forest regions by developing new methods for estimating carbon exchange at local to regional scales. Activities:
Evapotranspiration Estimates over Canada based on Observed, GR2 and NARR forcings Korolevich, V., Fernandes, R., Wang, S., Simic, A., Gong, F. Natural.
Task B7. Monitoring and Forecasting for Water Management and Drought/Flood Hazards Goals National scale characterization of snow water resources (Afghanistan’s.
Climate Futures for Tasmania: Prospects, Impacts and Information for Adaption Options Nathan Bindoff et al. ACE CRC, DPIW, Hydro Tasmania,SES,BoM, GA,
ESA CCI CMUG Integration Meeting, Exeter, UK 2-4 June 2014 The importance of observations for understanding the role of glaciers in the Earth climate system.
PSTG-5 Meeting, Oberpfaffenhofen DE, 6 OCT 2015 World Glacier Monitoring by Satellites, Airplanes, and Fieldwork Part I (Zemp): the global terrestrial.
Malvinas Current Blooms - 23 Dec 04 Gene Feldman NASA GSFC, Laboratory for Hydrospheric Processes, SeaWiFS Project Office The.
39 th Conference of Directors of EU Paying Agencies ESTEC, 25 May 2016 M. Drusch, Principal Scientist Earth Observation Programmes Directorate Science,
Three Poles Comparison Study using Earth Observations
VEGA-GEOGLAM Web-based GIS for crop monitoring and decision support in agriculture Evgeniya Elkina, Russian Space Research Institute The GEO-XIII Plenary.
World Glacier Monitoring Service, University of Zurich, Switzerland
C3S_312a Lot8: Glaciers Frank Paul, Michael Zemp
Description of the climate system and of its components
Quantitative vs. qualitative analysis of snowpack, snowmelt & runoff
World Glacier Monitoring Service, University of Zurich, Switzerland
Change in Flood Risk across Canada under Changing Climate

Global Surface Water Explorer
An Enhanced Canopy Cover Layer for Hydrologic Modeling
Flood Potential in Africa
DROUGHT MONITORING SYSTEM IN DHMZ
(6-8 November 2018, Beijing, China)
Presentation transcript:

Glaciers Liss M. Andreassen Section for glaciers, snow and ice Norwegian Water Resources and Energy Directorate

Glaciers in Norway are changing too ~1900: Library of congress2011: Hallgeir ElvehøyEngabreen

About NVE ■ NVE is a directorate under the Ministry of Petroleum and Energy with responsibility for the management of the nation’s water and energy resources ■ NVE central in flood and accident control planning and responsible for maintaining the national power supply ■ National flood warning services Research & Development ■ Ensure that NVE is a major R&D force in the energy and water resource sector ■ Hydrology Department carries out research within field of expertise ■ Section for glaciers, snow and ice responsible for snow avalanche forecasting, snow, ice & glacier monitoring +++ Rundvassbreen. Photo: M. Jackson Figure: NVE

Glaciers in mainland Norway Motivation ■ Glaciers have importance for hydropower and tourism ■ Glaciers are sensitive climate indicators (IPCC, 2007; 2013) ■ Glaciers can be dangerous: outburst floods & ice falls Facts ■ Glacier cover 0.7% of land area, 2692 ± 81 km 2 (Andreassen & Winsvold, 2012, CryoClim) ■ Total of 2534 (3143) glaciers ■ Glacier types: small ice patches >> large ice caps Ice cap Hardangerjøkulen. Photo: Bjorstad/Flatmo Ice patch Juvfonne. Photo: L.M. Andreassen

Glacier monitoring ■ mass balance (since 1949) ■ length change (since 1899) ■ map surveys of selected glaciers ■ special investigations (ice velocity, thickness, hydrology etc) Glacier inventories ■ Inventories South (1969, 1988) North (1973) ■ Data tables exist digitally, but not outlines. -> Need of a new updated digital inventory ■ Updated survey of glaciers (GLIMS) ■ Change assessments (area and length) ■ Map glacier lakes -> possible GLOF sites ■ Baseline for modelling & access future changes

Glacier products ■ Glacier Area Outline - GAO (wms, shape, 3 (4) data sets) ■ Glacier Lake Outline – GLO (wms, shape, 2 data sets) ■ Glacier Lake Outburst Flood - GLOF (wms, points & web application) ■ Climate Indicator products – CI (web application) ■ Surface mass balance ■ Glacier length ■ Glacier area Folgefonna

GAO and GLO time series Norway

Jøkulhlaups, outburst floods (GLOF) ■ Jøkulhlaups from 12 different glaciers in Norway ■ 12 known fatalities from Jøkulhlaups ■ First known incident in 1736 from Demmevatn (glacier-dammed lake), Hardangerjøkulen ■ -> monitor lakes & their changes & detect possible new sites Blåmannsisen. Photo: Hans M. Hjemaas Koppangsbreen. Photo: Siw Hege Isaksen

Glacier lake outlines & GLOFs  Glacier lakes: defined as water bodies that intersected or within 50 m of GAO  GLO : NDWI (Normalized Difference Water Index)  GLO : man. digitization (Only locations where glacier lakes were detected in GLO )  Point layer of observed GLOFs

CryoClim applications ■ Climate indicators ■ Glacier periodic photos ■ Glacier lake outburst floods

Example 1: Area & length changes ■ Considerable interest from hydropower companies: Present extent and changes, future changes. Outlines ■ Change assessments Andreassen et al 2008, Paul and Andreassen, 2009, Paul et al., 2011, Andreassen et al, 2012; 2014; Winsvold et al. subm Length determination Length change Winsvold, Andreassen & Kienholz submitted. Area change Hardangerjøkulen

Example 2. Little ice age mapping ■ Satellite imagery can be an efficient tool for mapping of maximum LIA extents of glaciers on a regional scale ■ A Landsat image from 2003 were used to map LIA maximum extent (~1750) -> area and length shrank by 35% and 34% from LIA to 2003 Baumann, Winkler & Andreassen, TC, 2009

Example 3: Ice volume modelling ■ Use distributed model (Huss and Farinotti, 2012) ■ Calibrated with ice thickness data for Norway ■ Input data: glacier outlines (inventory data ) & national elevation model Ice thickness data in NorwayAndreassen, Huss, Melvold, Elvehøy, Winsvold in prep.

Glacier velocity & ice divides 15 Engabreen / Radarsat-2 Batura Glacier / Landsat ■ important (climate, surges, hazards) Courtesy: Andreas Kääb, UiO

Future glacier survey ■ Optical satelites ■ Sentinel-2(2015) ■ Landsat 8 (2013) ■ Improved spatial, temporal and radiomeric resolution ■ Glacier outlines: repeat surveys -> Change assessment ■ Glacier lakes: focusing on GLOF sites -> Monitor development of lakes ■ End-of-season snow line: -> Mass balance (if annual imagery) ■ Ice velocity & ice divides ++ Sentinel-2 Landsat 8

Mapping end-of-season snowline ■ End-of-season snowline ‘=‘ equilibrium line altitude (ELA) ■ Annual series -> mass balance estimate of unmeasured glaciers ■ So far: lack of imagery to provide such a product (clouds, frequency) ■ Future: Both optical (L-8, S-2) and radar (S-1) can be used

Conclusions ■ Glacier satellite derived products valuable for local, regional, national and global scales: ■ Inventories of land ice ■ Glacier changes (area, length) ■ Ice thickness modelling ■ Glacier lake detection / surveys ■ Ice dynamics / ice divides ■ Collaboration with Frank Paul & Glaciers_cci (state of the art) very useful for NVE’s work

Photo: Ragnar Ekker Thank you for the attention