evapotranspiration decreased by 19% and
22% for the two catchments, showing that the increased
biomass of the vegetation only partly compensated for the
30% reduction in transpiration due to stomatal closure, as a
result of the higher atmospheric CO2 concentration.
[8] The aim of this study is to determine the sensitivity of
the hydrological system to a number of meteorological and
land use factors, which
/media/loftslag/vanRoosmalen_etal-2009-WRR_2007WR006760.pdf
) på University of Gloucestershire i Cheltenham 29/9 2009.
Roald, L.A. Klimaendringer, flom og skred. Forelesning på kurset: 09/50 Klimatilpasning i samfunnsplanleggingen arrangert av NUSB i Trondheim 10/11-2009.
Vehviläinen, B. Climate change and Finlands water resources. Symposium of Large Lakes. March 8, 2010, Lahti, Finland.
Veijalainen, N. Climate and Energy Systems (CES): Hydrology
/ces/publications/nr/1938
construction and maintenance.
7. Path dependency, meaning that roads will likely continue to exist even if the
underlying need for them decreases.
8. Social shifts, personal ownership of cars no longer seen as necessary. Car-sharing
becomes part of a suite of mobility options within the collective transportation
system.
9. Behavioral shifts, mobility no longer dominant variable in daily life
/media/loftslag/Group4.pdf
of how climate change will
impact our countries” says Árni.A sustainable solution Powered entirely by Icelandic hydropower and geothermal energy sources
and taking advantage of the local tempered climate for keeping the
supercomputer components cool, the running costs and CO2 footprint
will be kept to a minimum, saving tonnes of CO2 in line with the
four nations' efforts towards reaching Net/about-imo/news/joining-forces-in-weather-forecasting-and-climate-research
lying areas in the City is illustrated for present climate in Figure 5. It is
expected that the future water level of the Horsens fiord will increase by 1 meter by the end of this
century.
Station 270045: Upstream Lake Nørrestrand
0
0.5
1
1.5
2
2.5
3
3.5
4
1 2 3 4 5 6 7 8 9 10 11 12
Month
M
ea
n
d
is
ch
ar
g
e
(m
3 /
s)
Present: Mean A2: Mean
Station 280001: Upstream Bygholm Lake
0
1
2
3
4
5
6
/media/loftslag/Horsens_case.pdf
-corrected SPOT 5
high-resolution geometric (HRG) images with 2.5 m
2.5 m spatial resolution, acquired in the autumn 2003
and (4) airborne polarimetric synthetic aperture radar
images observed simultaneously to the 1998 EMISAR
images and the EMISAR DEM viewed as a shaded
relief image (Magnu´sson et al. 2005b).
We estimate the average specific net mass balance (in
m yr1 w. eq.) as
bn r
DV
A1 N
/media/ces/Gudmundsson-etal-2011-PR-7282-26519-1-PB.pdf
................................................................................................................... 8
Liss M. Andreassen, Hallgeir Elvehøy, Sindre Engh and Bjarne Kjøllmoen ..................... 9
Lidar measurements of Norwegian glaciers – an overview
Neil Arnold* and Gareth Rees .............................................................................................. 10
Calculation of glacier velocity from repeat
/media/vatnafar/joklar/Reykholt-abstracts.pdf
recorded at 5-13 km depth, but fewer than
yesterday.
GPS deformation: Measurements from around Eyjafjallajökull indicate no major net
discplaceaments, suggesting a stabilization of the surface deformation
since yesterday.
Other remarks: Grainsize analysis of samples taken of ash that fell on May 3rd at 64
km distance from the eruption site shows that about 5 % of the ash is
smaller
/media/jar/Eyjafjallajokull_status_2010-05-07_IES_IMO.pdf