HYdrological Modelling for Assessing Climate Change Impacts at differeNT Scales
HYdrological Modelling for Assessing Climate Change Impacts at differeNT
Scales (HYACINTS) will develop new methodologies and tools to enable easier
and more accurate use of regional scale climate and hydrological models to
address local scale water resources problems.
HYACINTS will recieve a funding of 2 M € from the Danish Council for Strategic Research under the Programme Commision on Energy and Environment.
In addition the partners contribute 1.2 M € to the project.Project number | n/a | ||
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Subject(s) | HYDRAULICS - HYDROLOGY , INFORMATION - COMPUTER SCIENCES , MEASUREMENTS AND INSTRUMENTATION , METHTODOLOGY - STATISTICS - DECISION AID , NATURAL MEDIUM , POLICY-WATER POLICY AND WATER MANAGEMENT , RISKS AND CLIMATOLOGY | ||
Acronym | HYACINTS | ||
Geographical coverage | Denmark | ||
Budget (in €) | 3200000 | ||
Programme | The Programme Commision on Energy and Environment (Danish Council for Strategic Research) | ||
Web site | http://hyacints.dk/main_uk/main.html | ||
Objectives | The overall objectives of HYACINTS are to establish improved tools and methodologies for assessing effects of climate change on water resources at both regional and local scales and to test these on cases relevant for the water supply sector in Denmark and for an international case relevant for export of Danish water resources management expertise. The specific scientific objectives are:
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Results | A new fully dynamic coupling exploiting OpenMI technology will be
established between the climate model code
HIRHAM and the distributed physically based hydrological model code MIKE
SHE . Based on the coupled model system, an integrated
climate-hydrological model for the entire Denmark will be established by
combining the regional climate model HIRHAM and the national hydrological
model (DK model ). As part of the
coupling a statistical downscaling and bias-correction method will be
developed for conversion of data from large (25 km) climate grids to small
(e.g. 1 km) hydrological grids. Remote sensing data and techniques will be
utilised and further developed with respect to assessing and downscaling of
global precipitation datasets in mountainous areas where precipitation is
controlled by orographic effects. In order to facilitate downscaling of
hydrological models from regional models (e.g. the existing DK model) to
local scale models with more detailed geological and topographical
resolution, improved grid refinement methods based on the local model
builder concept will be developed. Furthermore, improved methods will be
developed for handling complex geological environments when changing model
scale. The total uncertainty in hydrological change predictions taking all
sources of uncertainty into account will be assessed and an improved
methodology for assessing the effects of geological uncertainty will be
developed.Expected outputThe intention of the present project is to develop the scientific basis for the next generation of hydrological impact assessment methodologies caused by future climate changes. The project will provide the foundation for operational hydrological change assessment with higher accuracy and better precision than previously developed. |
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Period | [01/01/2008 - 31/12/2012] |