örugt að fara fyrir Horn í um 10 sml frá landi en það yrði
að hafa góðan útvörð.
Kl.1341, kalla TFB og spyr um ETA í RVK, ETA um kl 1440.
Kl 1305, AIS umferð fyrir N- Horn. Vegna bilunnar í WS 1 var megináhersla lögð á ískönnun í
þessu flugi.
Flugskýrsla TF-SIF
12. desember 2010
Flug nr. 117410.025
Ískönnun.
Meginröndin lá um eftirtalda staði.
1. 67°47.0N 023
/media/hafis/skyrslur_lhg/Isskyrsla_20101212.pdf
including full range of a water management
regime’s complexity (Myint 2005; Wolf 1997). Many
studies on IWRM are descriptive and limited to recording
success or failure of single cases. The initial comparisons
in this research will help develop and test protocols (cf.
Breitmeier et al. 1996) that open the way for efforts at
broader generalizations about options for institutional
designs
/media/loftslag/Huntjens_etal-2010-Climate-change-adaptation-Reg_Env_Change.pdf
emissions (in GtCO2-eq per year) in the absence of
additional climate policies: six illustrative SRES marker scenarios (coloured
lines) and 80th percentile range of recent scenarios published since SRES
(post-SRES) (gray shaded area). Dashed lines show the full range of post-
SRES scenarios. The emissions include CO2, CH4, N2O and F-gases. {WGIII
1.3, 3.2, Figure SPM.4}
Scenarios for GHG emissions from
/media/loftslag/IPPC-2007-ar4_syr.pdf
is that introducing an additional
method will yet draw out a process that is already very time-
consuming. This might undermine the feasibility of including Fuzzy
Cognitive Maps in a standard scenario exercise. A perhaps more
feasible option when time is limited, is to completely substitute full
quantitative models with Fuzzy Cognitive Maps. Although it will
strongly depend on the importance
/media/loftslag/Kok_JGEC658_2009.pdf
Dashed lines encompass the V-shaped zone of tephra deposition. (c)
Oblique aerial view from west of the tephra plume at Grímsvötn on 2 November. Note the ashfall
from the plume. (Photo by M. J. Roberts.) (d) Weather radar image at 0400 UTC on 2 November.
The top portion shows its projection on an EW-vertical plane. The minimum detection height for
Grímsvötn is seen at 6 km, and the plume extends
/media/jar/myndsafn/2005EO260001.pdf
using two aquifers, an upper shallow one
describing the hydrological properties of the soil and sediments, and a lower deeper aquifer
describing the properties of the bedrock. When running WaSiM with this setup, water
emerged from the upper aquifer when the lower one was not full, even though the upper
aquifer was empty. When this was clear, the author of WaSiM, Dr. Jörg Schulla, was
contacted
/media/ces/2010_017.pdf
-
ern cauldron in the lower left corner, the eastern cauldron near the center and Grímsvötn is
distinctly visible in the right side of the photograph. A depression over the subglacial flood
path from the eastern cauldron can be seen stretching southwest from the cauldron. The next
jökulhlaup from the western cauldron was the following summer so it can be assumed close
to full on the photograph. Bottom
/media/vedurstofan/utgafa/skyrslur/2009/VI_2009_006_tt.pdf
The hydrological simulations were performed with the Wa-
tershed Simulation and Forecasting System (WSFS) developed
and operated in the Finnish Environment Institute (Vehviläinen
et al., 2005). The WSFS is used in Finland for operational hydrolog-
ical forecasting and flood warnings (www.environment.fi/water-
forecast/), regulation planning and research purposes
(Vehviläinen and Huttunen, 1997
/media/ces/Journal_of_Hydrology_Veijalainen_etal.pdf
6University of Washington,
Seattle, WA 98195, USA. 7NOAA Geophysical Fluid
Dynamics Laboratory, Princeton, NJ 08540, USA.
*Author for correspondence. E-mail: cmilly@usgs.gov.
An uncertain future challenges water planners.
Published by AAAS
on July 12, 201
1
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/media/loftslag/Milly_etal-2008-Stationarity-dead-Science.pdf