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European IWRM - research. Outline analysis of projects' contribution for the purpose of selecting topics for synthesis - A discussion starter to the European IWRM platform

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  • Waterframes
EUROPEAN IWRM – RESEARCH
OUTLINE ANALYSIS OF PROJECTS’
CONTRIBUTION FOR THE
PURPOSE OF SELECTING TOPICS
FOR SYNTHESIS
A discussion starter to the European
IWRM platform
Report No 3 of the NeWater project -
New Approaches to Adaptive Water Management under Uncertainty
www.newater.info
Title
Purpose Documentation of the stepwise development of the
conceptual framework ….
Filename NW IWRM research analysis v0.80.doc
Authors Michiel Blind, RIZA, The Netherlands
Fred Hattermann, PIK, Germany
Jos Timmerman, RIZA, The Netherlands
Bea Sikorska, RIZA, The Netherlands
Document history None
Current version. 0.7
Changes to previous version.
Date 10 August 2005
Status Draft
Target readership Participants of the IWRM platform meeting
General readership NeWater
Correct reference Not yet available
Editor of report No 3
Michiel Blind, RIZA, The Netherlands
Editor of NeWater report series
Claudia Pahl-Wostl
Institute for Environmental Systems Research
University of Osnabrück, Germany
NeWater work block 5, August 2005
Prepared under contract from the European Commission
Contract no 511179 (GOCE)
Integrated Project in
PRIORITY 6.3 Global Change and Ecosystems
in the 6th EU framework programme
Supported by
Harmoni-CA
www.harmoni-ca.info
i
Acknowledgement
The editor wishes to thank all experts who have made the effort to provide their views and
project results based on the questionnaire. It is acknowledged that this was rather difficult;
though not time consuming, due to the broadness of themes and limited definitions.
The editor also thanks Cornelia Nouen and Tony Allan for the useful information on the EU-
INCO Review of Waster research 1994-2005.
Special thanks are due to Claudia Pahl-Wostl and Joern Moeltgen for their critical review.
Finally, the editor thanks the contributing authors, Fred Hattermann, Jos Timmerman and
Bea Sikorska, without whom the available information could not have been organized and
put to paper.
General Notice
The information presented in this report has been collected with much care. The majority of
information is retrieved from databases and the NeWater project proposal. Information on
relevant products, relevant literature and opinions of experts have been based on
questionnaires and further inquiries. This information, received from approximately 20
persons has been included literally, without detailed review of appropriateness of this
information.
It should therefore be clear that this report is what it pretends to be: a discussion starter to
the European IWRM platform, in a draft version.
ii
iii
iv
TABLE OF CONTENTS
Acknowledgement.....................................................................................................................i
General Notice ..........................................................................................................................i
1 Introduction .......................................................................................................................1
1.1 NeWater – Integrated project on Adaptive Water Management ................................1
1.2 The European IWRM platform...................................................................................2
1.3 Purpose of this document and the IWRM platform meeting ......................................4
1.4 Approach & reading guide .........................................................................................4
2 Summary analysis.............................................................................................................5
3 Analysis per issue.............................................................................................................7
3.1 Issue 1: IWRM & Adaptive Water Management Regimes, including methods for
changing regimes. ................................................................................................................7
3.2 Issue 2: Vulnerability and exposure to shocks and stresses in river basins..............9
3.3 Issue 3: Governance, institutions and participation, including transboundary issues
11
3.4 Issue 4: Integration IWRM and spatial planning ......................................................14
3.5 Issue 5: Methods of managing buffering capacity....................................................16
3.6 Issue 6: Advanced monitoring systems for adaptive management..........................17
3.7 Issue 7: Understanding consequences of climate hazards and climate change .....18
3.8 Issue 8: Resolving conflicts between water quantity, water quality and ecosystems
19
3.9 Issue 9: Social dimensions of IWRM: poverty alleviation, gender and health..........21
3.10 Issue 10: Resilience and adaptive capacity to complex water systems...............22
3.11 Issue 11: Coping with uncertainty and risk management.....................................24
3.12 Issue 12 Scenarios and future forces for IWRM...................................................25
4 Reported additional issues..............................................................................................27
5 Related initiatives............................................................................................................28
5.1 EU-INCO Review of Waster research 1994-2005 ...................................................28
5.2 Water Framework Directive: Research needs.........................................................30
5.3 Harmoni-CA synthesis.............................................................................................36
ANNEX I. Contacts............................................................................................................37
Participants Stockholm.......................................................................................................37
Persons unable to attend....................................................................................................38
ANNEX II. Brief description of projects ..............................................................................39
A participatory approach for soil and water conservation planning (no acronym)..............39
ADVISOR (acronym) ..........................................................................................................39
ALARM (acronym)..............................................................................................................40
AMMA (acronym)................................................................................................................40
AQUADAPT (acronym).......................................................................................................41
AQUALIBRIUM (acronym)..................................................................................................41
ARAL-KUM (acronym)........................................................................................................41
ATLANTIS (acronym) .........................................................................................................42
CAESAR (acronym)............................................................................................................42
CATCHMENT2COAST (acronym)......................................................................................43
CABRI VOLGA (acronym)..................................................................................................43
CIRMAN-ARAL (acronym)..................................................................................................44
CLIMED (acronym).............................................................................................................44
COLASU (acronym)............................................................................................................44
DEAD SEA (acronym) ........................................................................................................44
DSS-DROUGHT (acronym)................................................................................................45
ENSEMBLES (acronym).....................................................................................................45
EUROCAT (acronym).........................................................................................................46
EUROLAKES (acronym).....................................................................................................46
EURO-LIMPACS (acronym)...............................................................................................46
EUROWATER (acronym)...................................................................................................47
v
EUROWET (acronym)........................................................................................................47
EUWARENESS (acronym).................................................................................................47
FIRMA (acronym) ...............................................................................................................48
FLOODSITE (acronym)......................................................................................................48
FLUMAGIS (acronym)........................................................................................................49
GLOWA ELBE (acronym)...................................................................................................49
GMES (acronym)................................................................................................................50
GOUVERNE (acronym).....................................................................................................50
HARMONI-CA (acronym) ...................................................................................................50
HARMONIRIB (acronym)....................................................................................................51
HARMONIT (acronym) .......................................................................................................52
HARMONICOP (acronym)..................................................................................................52
HARMONIQUA (acronym)..................................................................................................52
INTERACTION (acronym)..................................................................................................52
IRMA-SPONGE (acronym).................................................................................................53
IWRM.NET (acronym) ........................................................................................................53
IWRMS (acronym)..............................................................................................................53
LAND WATER MED (Acronym)..........................................................................................54
MANTRA EAST (acronym).................................................................................................54
MEDIDTATE (acronym)......................................................................................................54
MEDIS (acronym)...............................................................................................................55
MEDCOASTLAND-NET (acronym)....................................................................................55
MEDWATER POLICY (acronym) .......................................................................................56
MED-CORE (acronym).......................................................................................................56
MELMARINA (acronym) .....................................................................................................56
MERIT (acronym) ...............................................................................................................57
MITCH (acronym)...............................................................................................................57
MULINO (acronym).............................................................................................................57
NEGOWAT (acronym)........................................................................................................58
NOSTRUM DSS (acronym)................................................................................................58
PEGASE (acronym)............................................................................................................58
OPTIMA (acronym).............................................................................................................59
POLICY RESEARCH TO IDENTIFY CONDITIONS FOR OPTIMAL FUNCTIONING OF
THE SENEGAL…(no acronym)..........................................................................................59
PRUDENCE (acronym) ......................................................................................................60
RIVER DIALOGUE (acronym)............................................................................................60
RIVERTWIN (acronym) ......................................................................................................60
RURBIFARM (acronym).....................................................................................................61
SIRCH (acronym) ...............................................................................................................61
SLIM (acronym)..................................................................................................................61
SMART (acronym)..............................................................................................................61
SPICE (acronym)................................................................................................................62
SUSTAIN WATER (acronym).............................................................................................63
SWIMMED (acronym).........................................................................................................63
SWURVE (acronym) /.........................................................................................................63
TISZA RIVER (acronym) ....................................................................................................64
TWINBAS (acronym)..........................................................................................................64
TRABOREMA (acronym)....................................................................................................65
TRANSCAT (acronym).......................................................................................................66
TWOLE (acronym)..............................................................................................................66
VERBANO (acronym).........................................................................................................66
WADI (acronym).................................................................................................................67
WAGE (acronym)................................................................................................................67
WATERSTRATEGYMAN (acronym) ..................................................................................67
WERRD (acronym).............................................................................................................68
vi
ANNEX III. Projects considered during the INCO initiative.................................................69
ANNEX IV. Index keywords vs projects...........................................................................72
1
1 Introduction
1.1 NeWater – Integrated project on Adaptive Water Management
Main source: NeWater Brochure.
Rational
The complexity of current water resource management poses many challenges. Water
managers need to solve a range of interrelated water dilemmas, such as balancing water
quantity and quality, flooding, drought, maintaining biodiversity and ecological functions and
services, in a context where human beliefs, actions and values play a central role.
Furthermore, the growing uncertainties of global climate change and the long-term
implications of management actions make the problems even more difficult.
NeWater addresses some of the present and future challenges of water management. The
project recognizes the value of highly integrated solutions and advocates integrated water
resource management (IWRM) concepts. However, NeWater is based on the hypothesis that
IWRM cannot be realized unless current water management regimes undergo a transition
towards more adaptive water management.
Objectives
The major goal is the development of a conceptual and methodological framework for the
transition of prevailing water management regimes to adaptive ones. Based on this
framework specific approaches and tools will be tested, branded and further developed for
practical applications in various river basins.
Scientific Challenge
NeWater identifies key elements of current water management regimes and investigates
their interdependence. Research is focused on transformation processes of these elements
in the transition to adaptive integrated water resources management. Key IWRM areas
where NeWater is expected to deliver break-through results include:
Governance in water management - methods to arrive at polycentric, horizontal broad
stakeholder participation in IWRM
Sectoral integration - integration of IWRM and spatial planning; integration with climate
change adaptation strategies, cross-sectoral optimisation and cost-benefit analysis
Scales of analysis in IWRM - methods to resolve water resource use conflicts;
transboundary issues
Information management - multi stakeholder dialogue, multi-agent systems modelling;
novel monitoring systems for decision systems in water management
Infrastructure - innovative methods for river basin buffering capacity; role of storage in
adaptation to climate variability and climate extremes
Finances and risk mitigation strategies in water management - new instruments, role
of public-private arrangements in risk-sharing
Stakeholder participation - promoting new ways of bridging science, policy and
implementation
Case Studies
The new methods of adaptive management are developed and tested in a number of case
studies in Europe (Elbe, Guadiana, Rhine and Tisza), in Central Asia (Amudarya) and in
Africa (Nile and Orange). The participation of stake-holders in the basins will play a crucial
role in guaranteeing that the methods developed meet their demands and take into account
concerns and expertise in the basins.
2
Project Structure
To achieve the development of concepts and tools that guide an integrated analysis and
support a stepwise process of change in water management, the NeWater project is
structured into six work blocks. It also adopts a management structure that allows effective
exchange between innovative research on integrated water management concepts and
practical applications and testing in selected river basins through a participatory process. The
overall structure is visualized in Figure 1: NeWater Project Structure.
Figure 1: NeWater Project Structure
1.2 The European IWRM platform
Main source: Description of Work NeWater
NeWater includes international and thematic platforms, as is depicted in Figure 1: NeWater
Project Structure. Two main platforms can be distinguished, the European IWRM Expert
platform and the Global IWRM research to application platform.
The purpose of the platforms in general is to reach or contribute to the following NeWater
objectives:
Objective A: To initiate an world-wide research to application platform for effective scientific
and cross policy cooperation in dealing with the high complexity and limited
predictability of integrated water resources management on a river basin scale
that contributes to constructive dialogues with the Global Water Partnership
(GWP), World Water Council (WWC), International Union for the Conservation
of Nature (IUCN) and other efforts. (NeWater objective 17)
Objective B. To share experience and innovations in dialogues, publications and action, to
further the European Research Area and to support the implementation of the
Water Framework Directive and EU Water Initiative. (NeWater objective 16)
Objective C. To assess current practice in IWRM and draw lessons for the transfer of new
scientific methodologies for IWRM practitioners. (NeWater objective 18)
The European IWRM platform mainly focuses on the last objectives, and through those
activities supports objectives 17 and 16. It has as key task to link the NeWater project to
relevant past and ongoing EU projects, with the aim to provide an efficient mechanism
5International Expert- and Thematic Platforms
Guidance &
Tools
Key Drivers and
Vulnerabilities
Transition to
ADAPTIVE MANAGEMENT
in River Basins
Case Studies in River Basins
6NeWater Project Coordination Platform
NeWater Project Coordination Platform
International Expert- & Thematic Platforms
5International Expert- and Thematic Platforms
Guidance &
Tools
Key Drivers and
Vulnerabilities
Transition to
ADAPTIVE MANAGEMENT
in River Basins
Case Studies in River Basins
6NeWater Project Coordination Platform
NeWater Project Coordination Platform
International Expert- & Thematic Platforms
3
through which NeWater would be able to capitalise on existing results and achievements of
these projects, minimize redundancies, and therefore further substantiate its added value to
the European Research Area (ERA). NeWater dedicates a part of its budget to activate this
platform through regular meetings and other forms of information exchange. This platform
will also substantially contribute to overall ERA objectives of establishing a (virtual)
collaborative network of EU institutions with a focus on a particular theme of EU concern
(water).
The proposed tasks carried out under the umbrella of the European IWRM platform are:
Task 1 European IWRM projects knowledge exchange forum: The platform will
bring together experts from former and ongoing EU projects relevant to
NeWater. It will facilitate the direct exchange of results of from NeWater &
from the scientific community outside the project. Platform members will be
leaders of relevant project clusters and network. A key focus of the platform
will be to consolidate and integrate activities from relevant EU networks to the
implementation process of the Water Framework Directive. (NeWater task
5.1.1)
Task 2 European IWRM projects conference forum: The platform will organise
sessions at (project) conferences, electronic conferences and dedicated
workshops on particular IWRM issues. The platform sessions will focus on
specific topics. These topics will be discussed from the viewpoint of science,
consultancy and operational water management, to ensure applicability of the
scientific findings from relevant EU FP5 projects and to direct scientific
developments within the NeWater project.
Based on the outcomes of these sessions and the intermediate results from
the NeWater project, additional topics will be determined for the platform.
Session will include targeted presentations from different EU FP5 and other
projects and discussions between participants. Selected platform members
may be invited to draft a position paper as an input to a session. (NeWater
task 5.1.2)
Task 3 European IWRM projects knowledge dissemination forum: The main
findings from the sessions will be summarised in session reports that will be
disseminated to the larger IWRM community, possibly for discussion in a
larger electronic conference. Next to this, results of the sessions will be
submitted as papers for publication in scientific journals as appropriate. In
addition selected platform members can be invited to write thematic synthesis
paper on topics relevant to NeWater. Results from the platform will be made
available through the project website for discussion and application in the
wider IWRM community. (NeWater task 5.1.3)
The proposed deliverables produced under the umbrella of the European IWRM platform are:
D 1 Synthesis papers from sessions at (project) conferences and dedicated
(electronic) workshops on selected IWRM themes (Application of models in
operational water management; Institutional arrangements and participatory
processes; Transboundary regimes, others) (NeWater deliverable (5.1.1)
D 2 Thematic sessions of the European IWRM expert platform to build and
capitalizing on the results from previous and ongoing relevant EU projects,
especially from the 5th Framework program (NeWater deliverable (5.1.2)
4
1.3 Purpose of this document and the IWRM platform meeting
This document servers as input to the first meeting of the European IWRM platform on the
23rd of August, during the World Water Week 2005 in Stockholm.
The purpose of this first meeting is to establish the platform, to discuss a whole range of
IWRM issues, and to determine and decide on the way forward.
More specifically, the objectives of the document and meeting are:
1) To learn about and capitalize on past and ongoing European research on IWRM.
2) To learn and discuss the relationship between IWRM and Adaptive Water
Management
3) To identify relevant other initiatives concerning ‘integration of IWRM research’
and identification of research gaps, and discuss collaborative actions with these
initiatives.
4) To identify candidate IWRM issues for detailed synthesis. In relation, identify key
people to lead the development of these synthesis papers, and determine how
the underlying document should be elaborated.
5) To discuss and possibly decide on input(s) to the 4th World Water Forum in
Mexico, March 2006, where EU supported research on IWRM and research
applications need to be presented as broad as possible.
To facilitate these discussions, the current document provides a huge amount of relevant
information. It also provides a first clue on opinions of scientist regarding a number of IWRM
issues.
1.4 Approach & reading guide
The summary analysis contains the overall results of the questionnaire. This questionnaire
contained questions regarding the maturity of IWRM issues. The issues provided were
directly related to issues addressed in NeWater, but the possibility was given to provide
additional topics.
Chapter 3 ‘Analysis per issue’ provides and discusses the maturity information on selected
IWRM issues received via the questionnaire. The questionnaire allowed linking specific
products of particular projects to the IWRM issues. The chapter provides readers definitions
and deliverables concerning these particular topics. Several relevant publications on topics
are included, based on inputs from respondents and by no means provide a complete
overview of relevant (project) publications.
Chapter 4 ‘Reported additional issues’ provides the results on the question if the
questionnaire covered all relevant issues. Chapter 5 introduces three other initiatives that
aim at synthesizing available knowledge: (1) EU-INCO review of water research 1994-2005,
(2) The WFD implementation Gap analysis and (3) Harmoni-CA concerted action synthesis
proposals.
Annexes
ANNEX I provides the available contact details of the persons that have been invited for the
first European IWRM platform meeting.
ANNEX II provides abstract information on a range of European and few national projects,
which are relevant to the IWRM community. In general the information has been retrieved
from www.cordis.lu, www.harmoni-ca.info or the project's website.
ANNEX III presents the list of projects, which are included in the review of INCO research.
ANNEX IV is the result of a key-word match of ANNEX II. Keywords are based on the issues
addressed within NeWater. This indexation is not yet fully context based, but provides
another entry point to all projects included in the annexes.
5
2 Summary analysis
The summary analysis contains the overall results of the questionnaire. This questionnaire
contained questions regarding the maturity of IWRM issues. The issues provided were
directly related to issues addressed in NeWater, but the possibility was given to provide
additional topics.
The next figure (Figure 2) presents the results of the questionnaire, which was returned by
17 respondents. In between brackets the number of respondents who had no opinion on a
specific issue is shown.
Figure 2 Results from the questionnaire
From the perspective of NeWater it is comforting to know that many respondents agree that
key issues in IWRM, addressed in NeWater are not yet fully matured. But it should be noted
that several respondents are (in)directly linked to the project.
On the other hand it is also clear that on many issues specialists’ opinion is that much is
already available and matured to practical use. For several topics the detailed analysis per
issue actually shows that much is available, since respondents have brought forward
numerous products and papers. But, the relevance of the products that were brought forward
is disputable, since the identified issues were very broadly defined. From the specific point of
view of NeWater, the identified issues are brought forward specifically with respect to
‘adaptive management’ and uncertainty, and this particular aspect has yet to be elaborated
within the individual work packages.
It should also be noted that the results of this exercise have a lottery component. It is clear
that when looking into more projects and addressing many more project managers, the load
or relevant European projects and publications on IWRM issues will increase. However,
0% 20% 40% 60% 80% 100%
IWRM & Adaptive Water Management Regimes (17/4)
Vulnerability and exposure to shocks and stresses
in river basins (17/2)
Governance, institutions and participation (17/1)
Integration IWRM and Spatial planning (17/1)
Methods of managing buffering capacity (17/2)
Advanced monitoring systems
for adaptive management (17/2)
Understanding consequences of climate hazards
and climate change (17/1)
Resolving conflicts between water quantity,
water quality and ecosystems (17/2)
Social dimensions of IWRM:
poverty alleviation, gender and health (17/6)
Resilience and adaptive capacity to complex
water systems (17/3)
Coping with uncertainty and risk management (17/1)
Immature Matured in 2-3 years Mature
6
despite its preliminary character the analysis shows that key topics addressed in NeWater
transcend the themes traditionally addressed by European Water Management Research.
The conclusion on availability of much relevant EU research is supported by the simple key-
word matching presented in ANNEX IV. Indexing the short abstracts of the projects in the
annex with key terms of the NeWater-IWRM issues has produced this annex. The results are
summarized as follows: Keyword Projects
Adaptive 1
Climate 17
Gender 1
Governance 4
Health 6
Institution 8
Integration 30
Monitoring 14
Participation 11
Planning 22
Resilience 1
Risk 11
Scenario 19
Spatial 5
Sustainability 11
Transboundary 5
Uncertainty 7
Vulnerability 3
Though this key word search was not very much context based it is relatively trustworthy,
given the fact that the summaries of projects are short and very much to the point. It should
be noted that there are many other European projects that have so far not been included.
The purpose of the NeWater IWRM platform is to facilitate synthesis, for the benefit of the
European IWRM science and policy communities, and if possible to support the NeWater
research efforts and make sure that available knowledge is integrated. The results presented
above provide a first indication on what topics synthesis of European Work may be beneficial
to highlight achievements, success and failure in the transfer between research and
application and identify knowledge gaps.
But, more topics have been identified which may also require a closer analysis and should be
included in the discussions concerning selecting topics. Information on these topics is
included in 4.
7
3 Analysis per issue
Chapter 3 ‘Analysis per issue’ provides and discusses the maturity information on selected
IWRM issues received via the questionnaire. The questionnaire allowed linking specific
products of particular projects to the IWRM issues. The chapter provides readers definitions
and deliverables concerning these particular topics. Several relevant publications on topics
are included, based on inputs from respondents and by no means provide a complete
overview of relevant (project) publications.
Please note “General Notice”, page i.
3.1 Issue 1: IWRM & Adaptive Water Management Regimes, including
methods for changing regimes.
3.1.1 Definition / Elaboration
Adaptive management deals with the ability of current management regimes to cope with
uncertainties arising from global change. The topic investigates how different strategies,
policies and practices can be integrated to make management regimes more flexible and
responsive to endogenously generated (e.g. population growth) and exogenously imposed
(e.g. impacts of global climatic change) short- and long-term changes.
3.1.2 NeWater intended deliverables
Work package 1.1 deliverables:
Report on review of IWRM concepts and success in transferring them into practice
Report and scientific paper on the role of management paradigms in IWRM
Report and scientific paper on review of type and role of uncertainties in IWRM
Report and scientific papers adaptive management framework and analysis of adaptive
management regimes
Report on experience and guidance how to manage an interdisciplinary research process
3.1.3 .Contributions from completed research
Aquadapt (Paul Jeffrey, Cranfield Univ.)
Deliverables of WP 3 “Governance and Administration” and WP6 “Analysis of co-
evolutionary dynamics”, See project web site (www.aquadapt.net)
EuroWater (Erik Mosterd, Tech Univ Delft)
PARTLY: F. N. Correia (ed.) 1998, Water Resources Management in Europe:
Institutions, Issues and Dilemmas, Rotterdam, Balkema, 2 volumes.Mostert, E.
(1998): 'River Basin Management in the European Union: How it is done and how
it should be done', European Water Management, 1(3), 26-35.
Euwareness (Stefan Kuks, Univ. Twente)
Bressers, Hans, and Stefan Kuks (eds.) (2004). Integrated Governance and
Water Basin Management. Conditions for Regime Change and Sustainability.
Dordrecht/Boston/London: Springer (Kluwer Academic Publishers).
Kuks, Stefan M.M. (2004). Water Governance and Institutional Change. University
of Twente: dissertation.
FIRMA (Nigel Gilbert, Surry; Claudia Pahl-Wostl)
Participatory assessment of flexible management strategies in water supply
systems. Methodological development participatory agent based simulation.
Deliverables are on the webpage.
8
Tisza River (Istvan Zsuffa, Vituki)
distributed/lumped rainfall-runoff models, WQ and hydrodynamic models
developed for the Tisza river basin; analyses of regime change scenarios (land
use, climate) with the help of these models
Water 21 (Erik Mosterd, Tech Univ Delft)
PARTLY: Mostert, E. (ed.) (1999): River basin management and planning;
Institutional structures, approaches and results in five European countries and six
international basins, Delft, RBA Centre.
3.1.4 Contributions from ongoing research
GLOWA (Frank Wechsung, PIK)
Conflict analysis, Modelling system for impact analysis; Evaluation of
management alternatives
HarmoniCoP (Claudia Pahl Wostl, USF)
Social learning as such is part of managing change. Scientific report and papers
available Autumn 2005. Recommendations for practitioners not yet. Will be
continued in the context of NeWater.
HarmoniQuA Public participation (Hans Jorgen Hendriksen, GEUS)
Guidance-monitoring-reporting software (MoST) for QA of modelling processes
for seven domains (available in ½-1 year). Only minimum PP (information /
consultation)
3.1.5 Other relevant (upcoming) (overview) articles
Döll, P., 2002. Impact of climate change and variability on irrigation requirements: A global
perspective. Climatic Change 54(3), 269-293.
Global Water Partnership Technical Advisory Committee (TAC) (2000). Integrated Water
Resources Management. Global Water Partnership. Stockholm, Sweden.
Jeffrey P. & M. Gearey integrated water resources management: lost on the road from
ambition to realisation, Prepared for the WATERMATEX conference, Nov 2004 in
Beijing, organized by the IWA special group on “Systems analysis and Integrated
Assessment”.
Pahl-Wostl, C. (2005). The Implications of Complexity for Integrated Resources
Management. Environmental Modelling and Software. Key Note Paper in Pahl-Wostl,
C., Schmidt, S. and Jakeman, T., (Eds.) iEMSs 2004 International Congress:
"Complexity and Integrated Resources Management". International Environmental
Modelling and Software Society, Osnabrück, Germany, June 2004.
Pahl-Wostl, Sendzimir, (2205, in preparation), The relationship between IWRM and Adaptive
Management, NeWater product.
Pahl-Wostl, C. 2002. Towards Sustainability in the Water Sector - The Importance of Human
Actors and Processes of Social Learning. Aquatic Sciences: 64, 394-411.
Pahl-Wostl, C, Downing, T., Kabat, P., Magnuszewski, P., Meigh, J., Schlueter, M.,
Sendzimir, J., and Werners, S. Transitions to Adaptive Water Management: The
NeWater Project. Submitted to Water Policy
Pahl-Wostl, C. The implications of complexity for integrated resources management.
Environmental Modelling and Software, in press. Tillman,D.E., Larsen,T., Pahl-
Wostl,C., and Gujer,W. 2005. Simulation for strategy development in water supply
systems. Hydroinformatics. 7/1
9
3.1.6 Maturity analysis
RESPONS Immature Mature Matured in 2-3
years No
opinion
IWRM & Adaptive Water Management Regimes 9 4 4
Though the concept of IWRM is not new, both to researchers and to practitioners, the
NeWater introspection of IWRM & Adaptive Water Management is new. This is supported by
the opinion of the respondents, who in general believe this issue is immature.
Within NeWater, this issue first of all has a strong scientific-conceptual component, and effort
is ongoing to prepare more conceptual oriented publications.
Given the relatively limited number of respondents it is difficult to draw clear conclusions
based on the contributions from other projects and the amount of overview articles. Support
to the WP can mainly be found in projects concerning governance. Obviously, when applying
IWRM / adaptive management many more sub-concepts and tools are relevant, thus
products listed in any other chapter are potentially all useful to actual implementation of
IWRM.
Whereas IWRM is common to most of the projects in the annexes, keyword indexation only
revealed Aquadapt as a project which has addressed adaptive management.
3.2 Issue 2: Vulnerability and exposure to shocks and stresses in river
basins
3.2.1 Definition / Elaboration
In the DPSIR framework vulnerability represents the characteristics of actors or elements of
the system (their State) that exposes them to stresses and shocks (or Pressures, which are
related to Driving forces) and conditions the nature and extent of Impacts. Vulnerability
integrates ultimately at the scale of the social actors in a system, based on their use of
natural resources, infrastructure and economic services. In one sense, vulnerability can be
reduced to a set of damage functions that link hazards and impacts (such as the depth-
damage curves for floods). However, understanding social vulnerability recognises that
different actors are vulnerable in different ways and to differing degrees.
3.2.2 NeWater intended deliverables
Work package 2.1 deliverables:
Framework and baseline vulnerability assessment (month 12). The first report of
the WP will present a consensus working framework for vulnerability assessment
and the rapid appraisal of vulnerability in each case study.
Improved methods for vulnerability assessment (month 35). The expanded toolkit
of indicator-based methods and multi-agent models will be described and
compared in a monograph.
3.2.3 .Contributions from completed research
Tisza River (Istvan Zsuffa, Vituki)
Model based flood and pollution spill scenario analyses
Water 21 (Erik Mosterd, Tech Univ Delft)
PARTLY: Mostert, E. (ed.) (1999): River basin management and planning;
Institutional structures, approaches and results in five European countries and six
international basins, Delft, RBA Centre.
10
3.2.4 Contributions from ongoing research
Floodsite (Tom Brabben/Patrick Samuels, HR Wallingford)
The project deals with this issue.
FlumaGIS (Joern Moeltgen, USF)
Partly adressed within FlumaGIS
GLOWA (Frank Wechsung, PIK)
Conflict analysis, Modelling system for impact analysis; Evaluation of
management alternatives
TWOLE and VERBANO (Soncini, Politechnical Univeristy of Milan)
Prototype DSS running. Release beta in 2 years
3.2.5 Other relevant (upcoming) (overview) articles
Downing, T.E., Aerts, J., Klein, R., Ionescu, C., Hinkel, J., Mata, L., Soussan, J., Martin, N.,
Ziervogel, G., Bharwani, S., Purkey, D. and Moss, S. (2006) Integrating social
vulnerability into water management. Climatic Change (in preparation, for special
issue edited by P. Kabat, J. Alcamo R, Schulze and P. Gleick).
Kundzewicz, W.Z., Budhakooncharoen, S., Bronstert, A., Hoff, H., Lettenmaier, D., Menzel,
L., Schulze, R., 2002. Coping with variability and change: Floods and droughts.
Natural Resources Forum 26, 263-274
Pahl-Wostl, C. and Ridder, D. Mega Cities, Climate Change and Water - Increased
Vulnerability of the Poor. Submitted to Climate Change
3.2.6 Maturity analysis
RESPONS Immature Mature Matured in 2-3
years No
opinion
Vulnerability and exposure to shocks and
stresses in river basins 5 4 6 2
Opinions on vulnerability vary significantly. Supposedly, this is an effect of the wide use of
the term vulnerability, which within NeWater is addressed ultimately as social vulnerability,
and takes furthermore an integrative approach. Apparently, much ongoing work is working on
(aspects) of vulnerability assessment, providing opportunities for project collaboration.
The keyword indexation of projects’ abstracts indicates that Floodsite, Swurve and Twinbas
have major ‘vulnerability’ research components.
11
3.3 Issue 3: Governance, institutions and participation, including
transboundary issues
3.3.1 Definition / Elaboration
Governance styles differ in their ability to cope with global change, and in particular, extreme
events such as droughts and floods. Complex aspects in this respect are differences in
governance and institutions across national boundaries and how proposed management
strategies resulting from these –often very different- institutional arrangements can conflict to
the point of inefficiency. Citizen and stakeholder participation can enhance efforts to analyse
and formulate management actions and policy. It entails among others the reasons why
stakeholder and citizen participation sometimes is a risk and sometimes offers opportunities,
and the role of formal and informal participatory settings in the adaptive management of river
basins. This topic also addresses the role of information and data sharing.
3.3.2 NeWater intended deliverables
Work package 1.2 deliverables:
Report on a comparative analysis of governance structure in the NeWater basins
(month 6).
Report on the applicability of different participatory methods to analyse local
institutions.
Report and scientific paper on an actor and rule-based methodology to analyse
institutional change for a transition to adaptive management
Report and scientific paper on the role of the financial sector in managing risks
from extreme events.
Report on the assessment of policy criteria / extreme events and analysing and
trading off new structures and attached new policies regarding extreme events.
Report and scientific paper on governance styles and institutional changes to
support adaptive water management with specific emphasis on extreme events
(contributing tasks - all)
Work package 1.3 deliverables:
“State-of-the-art” report on the two transboundary aspects information and
institutional resource regimes (Month 10)
Common research agenda for each case study developed in common with the
case study partners (Month 11)
Report on innovative approaches for trans-boundary water management to meet
the
Requirements for adaptive management.
3.3.3 .Contributions from completed research
Aquadapt (Paul Jeffrey, Cranfield Univ.)
Deliverables of WP 3, See project web site (www.aquadapt.net)
EuroWater (Erik Mosterd, Tech Univ Delft)
F. N. Correia (ed.) 1998, Water Resources Management in Europe: Institutions,
Issues and Dilemmas, Rotterdam, Balkema, 2 volumes.Mostert, E. (1998): 'River
Basin Management in the European Union: How it is done and how it should be
done', European Water Management, 1(3), 26-35.
Euwareness (Stefan Kuks, Univ. Twente)
Bressers, Hans, and Stefan Kuks (eds.) (2004). Integrated Governance and
Water Basin Management. Conditions for Regime Change and Sustainability.
Dordrecht/Boston/London: Springer (Kluwer Academic Publishers).
12
Kuks, Stefan M.M. (2004). Water Governance and Institutional Change. University
of Twente: dissertation.
MANTRA-East (Stalnacke, NIVA)
The project has dealt with this issue.
MERIT (Hans Jorgen Hendriksen, GEUS)
Guidelines in use of bayesian networks for active involvement (available soon)
SIRCH (Tom Downing, SEI)
The project has dealt with this issue.
Water 21 (Erik Mosterd, Tech Univ Delft)
Mostert, E. (ed.) (1999): River basin management and planning; Institutional
structures, approaches and results in five European countries and six
international basins, Delft, RBA Centre.
3.3.4 Contributions from ongoing research
Floodsite (Tom Brabben/Patrick Samuels, HR Wallingford)
Indirect use of longterm planning framework by 2009
FlumaGIS (Joern Moeltgen, USF)
An interactive software tool (prototypical component) allows co-operative
planning. Planning measures can be virtually implemented and measure effects
analysed. Beside a 2D-visualisation environment, a 3D- environment, based on a
workbench technology, supplies a visualisation environment that enable a joint
exploration of planning scenarios and their impacts for planners, stakeholders and
other affected actors.
GLOWA (Frank Wechsung, PIK)
The project and the model system is transboundary
HarmoniCoP (Claudia Pahl Wostl, USF)
Scientific report and papers available Autumn 2005. Handbook for practitioners on
participatory methods and role of social learning will be available October 2005
HarmoniQuA Public participation (Hans Jorgen Hendriksen, GEUS)
Guidance-monitoring-reporting software (MoST) for QA of modelling processes
for seven domains (available in ½-1 year). Only minimum PP (information /
consultation)
TWOLE and VERBANO (Soncini, Politechnical Univeristy of Milan)
Prototype running. Release beta in 2 years
3.3.5 Other relevant (upcoming) (overview) articles
All WP 1.3 partners: “State-of-the-art” report on the two transboundary aspects information
and institutional resource regimes (Month 10, D 1.3.1)
All www.harmonicop.info (methodology and country reports)
Arnstein, S. (1969): 'A ladder of citizen participation in the USA', Journal of the American
Institute of Planners, 8(3), 216-224.
Bressers, J.T.A. and S.M.M. Kuks, Integrated governance and water basin management,
Dordrecht (Kluwer Academic), 2004.
Bressers, J.Th.A., O’Toole, L.J. & Richardson, J.J. (Eds.), Networks for water policy. A
comparative perspective, London (Frank Cass), 1995.
Dicke, W.M.. (2001). Bridges and Watersheds. A narrative analysis of water management in
the Netherlands, England and Wales. Amsterdam: Aksant
Dieperink, C. (2002), The clean up of the Rhine as a successful international effort, in: Ismail
Al Baz, Volkmar Hartje and Waltina Scheumann (eds.), Co-operation on
transboundary rivers, Nomos Verlagsgesellschaf, Baden-Baden, pp. 67-82.
Dworak, T., Kranz, N. (2005) Die EU-Wasserrahmenrichtlinie als Ansatz für ein integriertes
Flussgebietsmanagement in Neubert, S.; W. Scheuman, A. van Edig und W. Huppert
13
(Hrsg.) Integriertes Wasserresourcenmanagement, Baden-Baden: Nomos
Verlagsgesellschaft.
Dworak, T., Interwies, E. (2004) Linking Transboundary River Management to Water
Security: the Example of Flooding in Europe, in: The Forum - Magazine of the
Bellagio Forum for Sustainable Development, 11th edition, June 2004, Pages: 12-14
Gayer, J. (2000): Participatory Processes in Water Management (PPWM); Proceedings of
the Satellite Conference to the World Conference on Science (Budapest, Hungary 28-
30 June 1999), Paris, UNESCO.
Gooch, G.D. and D. Huitema, Improving Governance Through Deliberative Democracy –
Initiating Informed Public Participation in Water Governance Policy Processes, paper
to the Water Week, Stockholm, 15-21 August 2004.
GWP (2005): Toolbox Integrated Water Resources Management, Global Water Partnership.
Huitema, D. and S.M.M. Kuks (2004), The transition of local regimes in the Netherlands. The
IJsselmeer and the Regge, in: Kuks, S.M.M. (ed.), Water governance and institutional
change, Enschede (Twente University Press), pp. 179- 218.
Kuks, S.M.M. (ed.), Water governance and institutional change, Enschede (Twente
University Press), 2004.
Kranz N., Interwies, E., Vorwerk A. (2005) Review on transboundary regimes: The Amudarya
basin, input to the Deliverable 1.3.1 of the NeWater Project
Kranz N., Interwies E., Vidaurre R. (2005) Review on transboundary regimes: The Orange
Basin, input to Deliverable 1.3.1 of the NeWater Project
Kranz N., Interwies, E., Vorwerk A. (2005) Governance, institutions and participation in the
Orange Basin – South Africa and Lesotho, input to Deliverable 1.2.1of the NeWater
Project.Roe, E.M. and M.J.G. van Eeten, “Threshold-Based Resource Management:
A Framework for Comprehensive Ecosystem Management,” in: Environmental
Management, vol. 27, no.2, pp. 195-214., 2001
Denizen-Dick, R. (1997): 'Farmer participation in irrigation; 20 years of experience and
lessons for the future', Irrigation and Drainage Systems, 11(2), 103-118.
Mostert, E., et al. (2000): 'River basin management and planning', in E. Mostert (ed.), River
Basin Management; Proceedings of the International Workshop on River Basin
Management (The Hague, 27-29 October 1999), Paris, Unesco, pp. 24-55.
Mostert, E.; “River basin planning and management: institutional structures, approaches and
results in five EU countries and six international basins.” In: Implementing the EU
water framework directive, proceedings seminar 3, Brussels, 29 and 30 May 2001,
WWF, Brussels, Belgium, 2001, p. 27-34.
Mostert, E. (2003): 'The Challenge of Public Participation', Water Policy, 5(2), 179-197.
Rees, J. A. (1997): Regulation and Private Participation in the Water and Sanitation Sector,
Global Water Partnership. (www.gwpforum.org)
Renn, O. and T. Webler (eds) (1995), Fairness and competence in citizen participation :
evaluating models for environmental discourse, Dordrecht; Boston, Kluwer Academic,
pp. 17-33.
Ridder, D. (ed.) (2005): Learning Together To Manage Together; Improving Participation in
Water Management, In preparation.
Special issue of the Regional Environmental Change journal: The need for participatory
processes and its implications for water management information. fall 2005 (in press)
Timmerman, J.G., H.W.A. Behrens, F. Bernardini, D. Daler, P. Ross, K.J.M. van Ruiten and
R.C. Ward (eds.), Information to support sustainable water management. From local
to global levels, Lelystad (RIZA), 2004.
Timmerman, J.G. and S. Langaas (eds.), 2004. Environmental information in European
transboundary water management. IWA publishing, London UK.Webster, M., 2003.
Communicating Climate Change Uncertainty to Policy-Makers and the Public.
Climatic Change 61(1-2), 1-8
Tippet, J, Searle, B., Pahl-Wostl, C. and Rees, Y. (2005). Social Learning in Public
Participation in River Basin Management. Environmental Science & Policy, 8(3), 287-
299.
14
3.3.6 Maturity analysis
RESPONS Immature Mature Matured in 2-3
years No
opinion
Governance, institutions and participation,
including transboundary issues 5 6 5 1
The opinions on the maturity of this topic are quite evenly distributed. Since so much has
been or is produced in research (see contributions from research) some maturity must have
been achieved by now. But, within the context of adaptive management, no results have yet
been reported.
The keyword indexation shows that an large amount of projects deal with governance,
institutions, participation and transboundary issues
3.4 Issue 4: Integration IWRM and spatial planning
3.4.1 Definition / Elaboration
Integration of IWRM and spatial planning deals with the transition towards a better integration
of IWRM and spatial planning as required for an integrated and more flexible approach to
handle variability in water availability (droughts and floods). It addresses adaptation
strategies for flood prevention and drought mitigation as well as for achieving Water
Framework Directive goals in river basins across countries or regions that share a basin in
order to see where upstream adaptations are both complementary to proposed downstream
adaptations, or conflict and thus inefficient
3.4.2 NeWater intended deliverables
Work package 1.4 deliverables:
Report - Framework for integration of spatial planning and IWRM at 3 scale levels
Prototype - Modification and extension of the WATERWISE-model and testing in
a regional pilot with stakeholders
Prototype - Extension of a national cascade model: processes between the scale
levels
3.4.3 .Contributions from completed research
Aquadapt (Paul 2Jeffrey, Cranfield Univ.)
Deliverables of WP1 “Strategic decision support tools for catchment planning” &
WP4, “Evidence for co-evolutionary dynamics in Spain” See project web site
(www.aquadapt.net)
Euwareness (Stefan Kuks, Univ. Twente)
Bressers, Hans, and Stefan Kuks (eds.) (2004). Integrated Governance and
Water Basin Management. Conditions for Regime Change and Sustainability.
Dordrecht/Boston/London: Springer (Kluwer Academic Publishers).
Kuks, Stefan M.M. (2004). Water Governance and Institutional Change. University
of Twente: dissertation.
Euwareness (Stefan Kuks, Univ. Twente)
PARTLY: F. N. Correia (ed.) 1998, Water Resources Management in Europe:
Institutions, Issues and Dilemmas, Rotterdam, Balkema, 2 volumes.Mostert, E.
15
(1998): 'River Basin Management in the European Union: How it is done and how
it should be done', European Water Management, 1(3), 26-35.
MULINO and follow-ups in Nostrum-Dss and Transcat (Carlo Guipponi, University of Milan)
mDSS integrates GIS data in the planning process supported by Multi-criteria
analysis methods
Tisza River (Istvan Zsuffa, Vituki)
distributed rainfall-runoff models, WQ and hydrodynamic models GIS-based
database
Water 21 (Erik Mosterd, Tech Univ Delft)
Mostert, E. (ed.) (1999): River basin management and planning; Institutional
structures, approaches and results in five European countries and six
international basins, Delft, RBA Centre.
3.4.4 Contributions from ongoing research
Floodsite (Tom Brabben/Patrick Samuels, HR Wallingford)
ndirect use of longterm planning framework by 2009
FlumaGIS (Joern Moeltgen, USF)
FLUMAGIS addresses land use in its functionality. Since land use changes have
effects on water balance, runoff dynamic and matter fluxes within the different
scale levels, it is applied for the implementation of specific numerical models.
Furthermore, several GI-services support geo-spatial analysis. Reports (in
german) and also software modules are existing. Further information on
www.flumagis.de
GLOWA (Frank Wechsung, PIK)
Partly: Land use scenarios under global change
HarmoniQuA Public participation (Hans Jorgen Hendriksen, GEUS)
Guidance-monitoring-reporting software (MoST) for QA of modelling processes
for seven domains (available in ½-1 year). Only minimum PP (information /
consultation)
TWOLE and VERBANO (Soncini, Politechnical Univeristy of Milan)
Prototype running. Release beta in 2 years
WFD Article 5 project (Yann Laurens, Seine-Normandie Water Agency)
Seine Normandy Basin Baseline scenario in WFD Art. 5 report
3.4.5 .Other relevant (upcoming) (overview) articles
Döll, P., 2002. Impact of climate change and variability on irrigation requirements: A global
perspective. Climatic Change 54(3), 269-293.
3.4.6 Maturity analysis
RESPONS Immature Mature Matured in 2-3
years No
opinion
Integration IWRM and Spatial planning 3 5 8 1
The respondents’ opinion points towards maturity of Integration IWRM and Spatial planning for
practical application in a few years. Contributions from research to this topic range from analysis and
approaches, to very practical GIS based application supporting planning.
16
3.5 Issue 5: Methods of managing buffering capacity
3.5.1 Definition / Elaboration
New methods for managing buffering capacity investigates different approaches to enhance
the natural and artificial storage capacity of basins. The provision and management of
storage capacity within a basin is one possibility to reduce uncertainties in water supply, and
buffer natural as well as anthropogenic variability (climatic and demand variability), in
particular extreme events.
3.5.2 NeWater intended deliverables
Work package 1.5 deliverables:
Report - Criteria to define and assess basin-scale buffering capacity.
Case study basins database.
Prototype - Catchment scale domain models.
Stakeholders survey on management scenarios.
Prototype - Rainfall simulation toolbox.
Report - Methods to use the domain models in an adaptive management
perspective.
3.5.3 .Contributions from completed research
MANTRA-East (Stalnacke, NIVA)
Stålnacke, P. 2005. Time scale in nutrient fate: examples from Eastern Europe In:
Proceedings of International Workshop on ‘Where Do Fertilisers Go?’ ISPRA,
Italy, 28-29 June 2005
Tisza River (Istvan Zsuffa, Vituki)
model-based analysis of the impact of lateral flood retention reservoirs along the
Tisza
3.5.4 Contributions from ongoing research
GLOWA (Frank Wechsung, PIK)
Water management system
TWOLE and VERBANO (Soncini, Politechnical Univeristy of Milan)
Prototype running. Release beta in 2 years
3.5.5 Other relevant (upcoming) (overview) articles
Grimvall, A., Stålnacke, P., Tonderski, A., 2000. Time scales of nutrient losses from land to
sea — a European perspective. Ecological Engineering 14(4), 363-371
3.5.6 Maturity analysis
RESPONS Immature Mature Matured in 2-3
years No
opinion
Methods of managing buffering capacity 1 8 6 2
17
The general opinion is that managing buffering capacity is a pretty matured science, and can
effectively be used in practice.
It is however also clear that from a broad perspective many computer-based tools similar to
the tools presented in the deliverable section are available. However, if these are applicable
in a NeWater setting is unclear.
3.6 Issue 6: Advanced monitoring systems for adaptive management
3.6.1 Definition / Elaboration
This topic addresses information needs for implementing and sustaining adaptive
management strategies and identify alternative information sources in particular for data-poor
regions. An integrative conceptual and methodological framework will be developed to
understand the importance and interdependence of societal, cultural, economic, institutional,
environmental and technological factors in the transition towards water management regimes
that are more adaptive.
3.6.2 NeWater intended deliverables
Work package 1.6 deliverables:
Report - Critical review on existing monitoring systems
Report on data requirements and data sources for supporting adaptive
management
Report on data and information sources and methodologies
A functional prototype of a GIS based monitoring and information system for
IWRM
Guidelines to advanced monitoring systems to support adaptive water
management in river basins
3.6.3 .Contributions from completed research
Euwareness (Stefan Kuks, Univ. Twente)
PARTLY: F. N. Correia (ed.) 1998, Water Resources Management in Europe:
Institutions, Issues and Dilemmas, Rotterdam, Balkema, 2 volumes.Mostert, E.
(1998): 'River Basin Management in the European Union: How it is done and how
it should be done', European Water Management, 1(3), 26-35.
3.6.4 Contributions from ongoing research
3.6.5 Other relevant (upcoming) (overview) articles
UNECE TFMA, 2000. Guidelines on monitoring and assessment of transboundary rivers.
UNECE Task Force on Monitoring and Assessment. RIZA, Lelystad, The
Netherlands. 88 pp. http://www.iwac-unece.org.
UNECE TFMA, 2000. Guidelines on monitoring and assessment of transboundary
groundwater. UNECE Task Force on Monitoring and Assessment. RIZA, Lelystad,
The Netherlands. 64 pp. http://www.iwac-unece.org.
UNECE WGMA, 2002. Guidelines on monitoring and assessment of transboundary and
international lakes. Part A: Strategy document. UNECE Working Group on Monitoring
and Assessment. Finnish Environment Institute, Helsinki, Finland. 33 pp.
http://www.iwac-unece.org.
18
3.6.6 Maturity analysis
RESPONS Immature Mature Matured in 2-3
years No
opinion
Advanced monitoring systems for adaptive
management 6 3 6 2
The respondents opinion varies from mature to immature, with a slight balance towards
immature/mature in2-3 years.
Though much knowledge is available in the literature on monitoring design (personal
experience from the editor), it is clear that IWRM / adaptive, management may require other
monitoring strategies, covering more domains than are covered traditionally.
3.7 Issue 7: Understanding consequences of climate hazards and climate
change
3.7.1 Definition / Elaboration
Small changes in climate variability can be significantly amplified through the hydrological
cycle and have major implications for water resource management. On a longer time frame,
climate change is predicted to have a major impact on water resources, including profound
effects on the magnitudes, frequencies, intensities of rainfall, on its seasonal and
geographical distribution and on inter-annual variability of precipitation. This information has
to be combined with driving forces like:·
Demographic trends (population, age group distribution)·
Economic trends (income, income gap)·
Technology trends (high or low diffusion rates of technology)·
Land use and land cover change ·
Consumption patterns – type and intensity of world trade·
Policy trends and sectoral developments including privatisation, regulation and the
European Water Framework Directive
3.7.2 NeWater intended deliverables
Work package 2.2 deliverables:
Report: Template for rapid appraisal and review of best practice for incorporating
changing climatic hazards into IWRM
Report: Techniques for regional scale scenarios of climate change, including
downscaling techniques for catchment scale estimations of water and energy
balance components.
Report/Database: Analysis of precipitation time series for selected river basins,
based on weather types and circulation patterns
Prototype: Coupled catchment-scale water model and climate ensembles
Report. Estimation of water balance uncertainties based on climate ensembles.
3.7.3 .Contributions from completed research
Aquadapt (Paul Jeffrey, Cranfield Univ.)
Deliverables of WPs 1 & 4, See project web site (www.aquadapt.net)
MITCH (Tom Brabben/Patrick Samuels, HR Wallingford)
The project has dealt with this issue.
SIRCH (Tom Downing, SEI)
19
The project has dealt with this issue.
Tisza River (Istvan Zsuffa, Vituki)
distributed/ lumped rainfall-runoff models, hydrodynamic river models; climate
change scenario analyses
3.7.4 Contributions from ongoing research
Ensembles (Chris Hewitt, Met Office)
In 3 years – probabilistic high spatial resolution (20km) regional climate scenarios
for Europe and some site-specific climate scenarios, along with probabilistic
assessments of long-term climate change impacts and impacts at season to
decadal timescales
Floodsite (Tom Brabben/Patrick Samuels, HR Wallingford)
Indirect use of longterm planning framework by 2009
GLOWA (Frank Wechsung, PIK)
100 realizations of climate change scenario
3.7.5 .Other relevant (upcoming) (overview) articles
Kundzewicz, W.Z., Budhakooncharoen, S., Bronstert, A., Hoff, H., Lettenmaier, D., Menzel,
L., Schulze, R., 2002. Coping with variability and change: Floods and droughts.
Natural Recourses Forum 26, 263-274
3.7.6 Maturity analysis
RESPONS Immature Mature Matured in 2-3
years No
opinion
Understanding consequences of climate
hazards and climate change 6 6 4 1
The respondents replies to this issue are balanced. Where some find the field matured, the
same number of respondents find the issue still immature.
Looking at the ongoing and completed research projects, and the long list of projects dealing
with ‘climate‘ (see project index) the potential contribution from past and ongoing projects
could contribute to the issue within the NeWater. perspective.
3.8 Issue 8: Resolving conflicts between water quantity, water quality and
ecosystems
3.8.1 Definition / Elaboration
Understanding of the implications of global change on river basins with respect to both water
quantity and water quality is required to develop new approaches for adaptive management
in order reach policy goals, for example of the WFD. Water quality is determined by the
nutrient driving sources, water transport/pathways within the catchment and nutrient delivery
to surface water systems.
3.8.2 NeWater intended deliverables
Work package 2.3 deliverables:
Report: Baseline assessment of each basin
Report: Water quality fingerprint methods and examples.
Report: Environmental flows and ecosystem services
20
Report: (Modelling) toolkit on environmental services in as related to water
management
Report/database: Contact list of experts providing support services
3.8.3 .Contributions from completed research
Euwareness (Stefan Kuks, Univ. Twente)
F. N. Correia (ed.) 1998, Water Resources Management in Europe: Institutions,
Issues and Dilemmas, Rotterdam, Balkema, 2 volumes.Mostert, E. (1998): 'River
Basin Management in the European Union: How it is done and how it should be
done', European Water Management, 1(3), 26-35.
MERIT (Hans Jorgen Hendriksen, GEUS)
Guidelines in use of bayesian networks for active involvement (available soon)
MULINO and follow-ups in Nostrum-Dss and Transcat (Carlo Guipponi, University of Milan)
The use of mDSS can contribute
Tisza River (Istvan Zsuffa, Vituki)
Ecological wetland models, ecosystem studies on riparian wetlands
Water 21 (Erik Mosterd, Tech Univ Delft)
Mostert, E. (ed.) (1999): River basin management and planning; Institutional
structures, approaches and results in five European countries and six
international basins, Delft, RBA Centre.
3.8.4 Contributions from ongoing research
Floodsite (Tom Brabben/Patrick Samuels, HR Wallingford)
Indirect use of longterm planning framework by 2009
GLOWA (Frank Wechsung, PIK)
Included in model setup
HarmoniRIB (Michiel Blind, RIZA)
HarmoniRiB provides case studies including quality, quantity and ecology as proof
of concept for HarmoniRiB uncertainty guidelines and tools.
TWOLE and VERBANO (Soncini, Politechnical Univeristy of Milan)
Prototype running. Release beta in 2 years
3.8.5 Other relevant (upcoming) (overview) articles
Dyson, M., G. Bergkamp, and J. Scanlon (eds.), 2003. Flow. The essentials of environmental
flows. IUCN, Gland, Switzerland and Cambridge, UK.
Pahl-Wostl, C. (2005). The Implications of Complexity for Integrated Resources
Management. Environmental Modelling and Software. Key Note Paper in Pahl-Wostl,
C., Schmidt, S. and Jakeman, T., (Eds.) iEMSs 2004 International Congress:
"Complexity and Integrated Resources Management". International Environmental
Modelling and Software Society, Osnabrück, Germany, June 2004.
3.8.6 Maturity analysis
RESPONS Immature Mature Matured in 2-3
years No
opinion
Resolving conflicts between water quantity,
water quality and ecosystems 6 2 7 2
Most respondents believe that methods to conflicts between quantity, quality and eco-
systems will be matured in 2-3 years. This more or less coincides with the implementation of
the WFD, to be more specific by 2009 River Basin Management Plans will have been drafted
in which is dealt with these conflicts.
21
3.9 Issue 9: Social dimensions of IWRM: poverty alleviation, gender and
health
3.9.1 Definition / Elaboration
Most of the target basins of the EU Water Initiative are in the regions like Africa, where
poverty, gender and health are three key issues that need to be understood to be able to link
IWRM within river basins to wider social and development agendas. Poverty is a complex
phenomenon with different characteristics in different places. The joint agency paper
(including the EU) on Poverty Reduction and Environmental Security (2002) identified three
key dimensions to poverty reduction: livelihoods, health and vulnerability. This framework
provides a basis for the analysis of the relationship between water management and poverty
reduction, with different actions in water management addressing different dimensions of
poverty. Integrating poverty reduction in IRWM can consequently be analysed within this
framework.
3.9.2 NeWater intended deliverables
Work package 2.4 deliverables:
Report: Rapid appraisal of poverty, gender and health issues in case studies (part
of WP 2.1 baseline vulnerability).
Report: Specification of mechanisms for dialogue processes on poverty, gender
and health in river basins planning.
Report: Integration of poverty reduction goals, targets and indicators into IWRM
processes.
Report: Generic tools for assessment of poverty, gender and health issues and
mechanisms for dialogue processes in river basins.
3.9.3 .Contributions from completed research
Aquadapt (Paul Jeffrey, Cranfield Univ.)
Deliverables of WP 2,”Socio-cultural determinants of water utilisation”, See
project web site (www.aquadapt.net)
Euwareness (Stefan Kuks, Univ. Twente)
F. N. Correia (ed.) 1998, Water Resources Management in Europe: Institutions,
Issues and Dilemmas, Rotterdam, Balkema, 2 volumes.Mostert, E. (1998): 'River
Basin Management in the European Union: How it is done and how it should be
done', European Water Management, 1(3), 26-35.
Water 21 (Erik Mosterd, Tech Univ Delft)
Mostert, E. (ed.) (1999): River basin management and planning; Institutional
structures, approaches and results in five European countries and six
international basins, Delft, RBA Centre.
3.9.4 Contributions from ongoing research
Floodsite (Tom Brabben/Patrick Samuels, HR Wallingford)
ndirect use of longterm planning framework by 2009
GLOWA (Frank Wechsung, PIK)
Y/N: more socio-economy related
TWOLE and VERBANO (Soncini, Politechnical Univeristy of Milan)
Prototype running. Release beta in 2 years
22
3.9.5 Other relevant (upcoming) (overview) articles
Gooch, G.D. and P. Stålnacke (eds.), 2005. Integrated Transboundary Water Management in
Theory and Practice Experiences from the New EU Eastern borders. IWA publishing,
London, UK. (in press)
Global Water Partnership Technical Advisory Committee (TAC) (2000). Integrated Water
Resources Management. Global Water Partnership. Stockholm, Sweden.
Kabat, P., M.E.Hellmuth R.E.S., Veraart, J.A.,Ed. (2002). Coping with Impacts of Climate
Variability and Climate Change in Water Management: A Scoping Paper.
Wageningen.
IPPC, (2001b). Climate Change 2001: Impacts, Adaptation and Vulnerability. Contributions of
Working Group II to the Third Assessment Report of the Intergovernmental Panel on
Climate Change. I. P. o. C. Change). Cambridge, Cambridge University Press
3.9.6 Maturity analysis
RESPONS Immature Mature Matured in 2-3
years No
opinion
Social dimensions of IWRM: poverty alleviation,
gender and health 5 1 5 6
Many respondents have no opinion on this issue. This is not surprising given the target
countries of this issue, and the European character of respondents who were addressed.
The general view of the other respondents is that this issue will be matured earliest in 2-3
years.
The key-word search on (separately) “poverty”, “gender” and “health” did result in
respectively 0, 1 and 6 hits of projects were these terms were used in the abstract.
3.10 Issue 10: Resilience and adaptive capacity to complex water systems
3.10.1 Definition / Elaboration
A river system’s capacity to learn from and adaptively respond to stress, its adaptive
capacity, emerges from interactions between biophysical and social factors that also
influence the river basin’s resilience and vulnerability.
3.10.2 NeWater intended deliverables
Work package 2.5 deliverables:
Report: Conceptual framework, appraisal protocol (including a questionnaire and
methodology for surveying literature), rapid appraisal of baseline, and review of
barriers and bridges to integrating concepts of resilience, vulnerability and
adaptive capacity within the IWRM management culture.
Database: Bibliography and website describing theoretical and methodological
advances in understanding and managing river basin adaptive capacity and
resilience.
Prototype: Formal systems dynamics and agent-based models of interacting
factors that influence the resilience and adaptive capacity of specific elements
and the river basin as a whole.
Prototype: Simulation game (based on the concept of a management flight
simulator) for exploring how water management decisions influence resilience and
adaptive capacity and how they in turn affect vulnerability of the river basin in the
short and long term.
23
Report: Final report summarising findings on how adaptive capacity, vulnerability
and resilience change as functions of interacting factors in river basins.
3.10.3 .Contributions from completed research
Aquadapt (Paul Jeffrey, Cranfield Univ.)
Deliverables of 2, 3, 4 & 6, See project web site (www.aquadapt.net)
Euwareness (Stefan Kuks, Univ. Twente)
Bressers, Hans, and Stefan Kuks (eds.) (2004). Integrated Governance and
Water Basin Management. Conditions for Regime Change and Sustainability.
Dordrecht/Boston/London: Springer (Kluwer Academic Publishers).
Kuks, Stefan M.M. (2004). Water Governance and Institutional Change. University
of Twente: dissertation.
MITCH (Tom Brabben/Patrick Samuels, HR Wallingford)
The project has dealt with this issue.
SIRCH (Tom Downing, SEI)
The project has dealt with this issue.
3.10.4 Contributions from ongoing research
GLOWA (Frank Wechsung, PIK)
In technical terms like reservoir and water use management and optimisation
HarmoniQuA Public participation (Hans Jorgen Hendriksen, GEUS)
Guidance-monitoring-reporting software (MoST) for QA of modelling processes
for seven domains (available in ½-1 year). Only minimum PP (information /
consultation)
3.10.5 Other relevant (upcoming) (overview) articles
Global Water Partnership Technical Advisory Committee (TAC) (2000). Integrated Water
Resources Management. Global Water Partnership. Stockholm, Sweden.
Grimvall, A., Stålnacke, P., Tonderski, A., 2000. Time scales of nutrient losses from land to
sea — a European perspective. Ecological Engineering 14(4), 363-371
Pahl-Wostl, C. (2005). The Implications of Complexity for Integrated Resources
Management. Environmental Modelling and Software. Key Note Paper in Pahl-Wostl,
C., Schmidt, S. and Jakeman, T., (Eds.) iEMSs 2004 International Congress:
"Complexity and Integrated Resources Management". International Environmental
Modelling and Software Society, Osnabrück, Germany, June 2004.
3.10.6 Maturity analysis
RESPONS Immature Mature Matured in 2-3
years No
opinion
Resilience and adaptive capacity to complex
water systems 9 5 3
The common view on maturity of “Resilience and adaptive capacity to complex water
systems” is that this scientific field is immature for practical application.
Of the projects included in the annexes, only the Swurve project has explicitly dealt with
resilience.
24
3.11 Issue 11: Coping with uncertainty and risk management
3.11.1 Definition / Elaboration
The two main sources of uncertainty are inherent variability and limited knowledge. Variability
relates to the randomness of the natural system but also to variability in human and societal
behaviour, and may also refer to technological surprises. Limited knowledge refers to
inexactness in describing a system, lack of observations and measurements and conflicting
evidence. This topic deals with the general issues of uncertainty in water management and
must provide concrete action to address these issues.
3.11.2 NeWater intended deliverables
This issue is not a specific topic within NeWater. Uncertainty and risk are horizontal to
NeWater, that is they are addressed in all activities.
3.11.3 .Contributions from completed research
MANTRA-East (Stalnacke, NIVA)
The project has dealt with this issue.
MERIT (Hans Jorgen Hendriksen, GEUS)
Guidelines in use of bayesian networks for active involvement (available soon)
MULINO and follow-ups in Nostrum-Dss and Transcat (Carlo Guipponi, University of Milan)
Y/N: sensitivity analysis of mDSS can contribute
SIRCH (Tom Downing, SEI)
The project has dealt with this issue.
Tisza River (Istvan Zsuffa, Vituki)
experience in model building in a data and information poor environment
3.11.4 Contributions from ongoing research
Floodsite (Tom Brabben/Patrick Samuels, HR Wallingford)
Framework for uncertainty propagation 2009
GLOWA (Frank Wechsung, PIK)
Uncertainty analysis
HarmoniCoP (Claudia Pahl Wostl, USF)
Work on the role of uncertainties and in particular ambiguities that arise due to
different interpretations of the same type of knowledge. Behavioral simulations for
practical applications to raise awareness for different perspectives.
HarmoniRIB (Michiel Blind, RIZA)
HarmoniRiB provides various guidelines on how to deal with uncertainty in data
and models in an integrated context.
TWOLE and VERBANO (Soncini, Politechnical Univeristy of Milan)
The project deals with this issue.
3.11.5 Other relevant (upcoming) (overview) articles
Dewulf, A., Craps, M., Bouwen, R., Taillieu,T. and Pahl-Wostl, C. Integrated management of
natural resources: dealing with ambiguous issues, multiple actors and diverging
frames. Water, Science and Technology, in press.
25
IPPC, (2001a). Climate Change 2001: The Scientific Basis. Contributions of Working Group I
to the Third Assessment Report of the Intergovernmental Panel on Climate Change.
I. P. o. C. Change). Cambridge, Cambridge University Press.
Newig, J., Pahl-Wostl, C. and Sigel, K. The Role of Public Participation in Managing
Uncertainty in the Implementation of the Water Framework Directive. European
Environment, in press.
Refsgaard et all, Uncertainty Analysis Guidance Document (A Guidance document from
Harmoni-CA WP2) Jens Christian Refsgaard, Jeroen van der Sluijs and Peter
Vanrolleghem (in preparation)
Tol, R.S.J., 2003. Is the uncertainty about climate change too large for expected cost-benefit
analysis? Climatic Change 56(3), 265-289.
3.11.6 .Maturity analysis
RESPONS Immature Mature Matured in 2-3
years No
opinion
Coping with uncertainty and risk management 5 2.5 8.5 1
The majority of respondents believe that within 2-3 years working with uncertainties and risks
will be matured. A reasonable high number of projects are completed or ongoing which deal
with uncertainties and risk management.
3.12 Issue 12 Scenarios and future forces for IWRM
3.12.1 Definition / Elaboration
This issue deals with the essential point of developing scenarios for the following driving
forces:
Demographic trends (population, age group distribution)
Economic trends (income, income gap)
Technology trends (high or low diffusion rates of technology)
Land use and land cover change
Consumption patterns – type and intensity of world trade
Policy trends and sectoral developments including privatisation, regulation
and the European Water Framework Directive
3.12.2 NeWater intended deliverables
Work package 2.6 deliverables:
Results of the rapid assessment of trends of driving forces in the case studies.
Sources of information for the scenarios of driving forces
Report: Trends in driving forces and scenarios for the case studies that will put
pressure on water use and water management in the case studies
Report: Comparison of the baseline vulnerability (WP 2.1) and adaptive capacity
(WP 2.5) with the implications of scenarios of trends in driving forces and stresses
for IWRM.
3.12.3 .Contributions from completed research
MANTRA-East (Stalnacke, NIVA)
Gooch, Geoffrey D., Stålnacke, Per Integrated scenarios - the key for
SUCCESSFUL WATER AND RIVER BASIN management? Presented at: the 7th
26
International Water Association (IWA) Conference on Diffuse Pollution and Basin
Management (DipCon) ,University College Dublin, from 17th – 22nd August 2003.
MERIT (Hans Jorgen Hendriksen, GEUS)
Guidelines in use of bayesian networks for active involvement (available soon)
MULINO and follow-ups in Nostrum-Dss and Transcat (Carlo Guipponi, University of Milan)
scenario analysis is provided by mDSS
SIRCH (Tom Downing, SEI)
The project has dealt with this issue.
Tisza River (Istvan Zsuffa, Vituki)
Land use, climate change and pollution spill scenario analyses with the help of
hydrological, WQ and hydraulic models
3.12.4 Contributions from ongoing research
Ensembles (Chris Hewitt, Met Office)
In 3 years - applying climate and non-climate scenarios to estimate water stress in
large European basins
FlumaGIS (Joern Moeltgen, USF)
The FLUMAGIS prototype is planning support tool (PSS): It provides functionality
to analyse the current status quo, to analyse deficits, to conduct a causal deficit
analysis, and to virtually implement various sets of planning scenarios. A
prognosis of planning effects can be executed employing an interdisciplinary
knowledge-bases and simulation models.
GLOWA (Frank Wechsung, PIK)
Scenario development for different IPCC scenarios and different management
scenarios to adapt/mitigate
WFD Article 5 project (Yann Laurens, Seine-Normandie Water Agency)
Seine Normandy Basin Baseline scenario in WFD Art. 5 report
3.12.5 Other relevant (upcoming) (overview) articles
Gooch, G.D. and P. Stålnacke (eds.), 2005. Integrated Transboundary Water Management in
Theory and Practice Experiences from the New EU Eastern borders. IWA publishing,
London, UK. (in press)
IPPC, (2001a). Climate Change 2001: The Scientific Basis. Contributions of Working Group I
to the Third Assessment Report of the Intergovernmental Panel on Climate Change.
I. P. o. C. Change). Cambridge, Cambridge University Press.
IPPC, (2001b). Climate Change 2001: Impacts, Adaptation and Vulnerability. Contributions of
Working Group II to the Third Assessment Report of the Intergovernmental Panel on
Climate Change. I. P. o. C. Change). Cambridge, Cambridge University Press
Varis, O., Kajander, T., Lemmelä, R., 2004. Climate change and water: from climate models
to water resources management and vice versa. Climatic change, 66, 321-344.
3.12.6 Maturity analysis
Accidentally, there was no maturity review question within the questionnaire.
Many projects however address scenarios, and much could be learned.
27
4 Reported additional issues
Chapter 4 ‘Reported additional issues’ provides the results on the question if the
questionnaire covered all relevant issues.
The following topics were mentioned (literal copy)
1. Ability to transfer lessons across basins;
2. Identification of what good IWRM / AM looks like;
3. Real time control;
4. The social dimensions of behaviour and risk management are often poorly
represented, e.g., actor strategies for negotiations, behaviour in water demand;
5. Planning of investments needed to fulfil water directives at basin scale;
6. One relevant issue that never is practically mentioned is the recent phenomenon
of the SILENT REVOLUTION OF THE INTENSIVE USE OF GROUNDWATER.
This new (half century old) phenomenon is very important in most arid and
semiarid regions, where irrigation is 80-90 % of all the consumptive water uses;
7. Retention processes;
8. Technical development;
9. Public awareness of the problems;
10. Modelling integration / adaptation of modelling systems. Adaptive management
will also require adaptive means to develop support tools (e.g. domain models),
which than need further integration. The field of easy linkage between software
components is maturing fast (Project: HarmonIT);
11. Scientific collaboration: One potential problem in IWRM/adaptive management is
communication, not only between different stakeholders, but also between
different specialists who provide information to the adaptive planning process.
First attempts to at least transparently support such specialist collaboration are
carried out in HarmoniQuA, for modelling purposes;
12. The ability of current policy to deal with adaptive IWRM – e.g. can adaptive
management be incorporated within the currently procedural, institutional and
legislative framework of the Water Framework Directive Implementation?
28
5 Related initiatives
Chapter 5 introduces three other initiatives that aim at synthesizing available knowledge: (1)
EU-INCO review of water research 1994-2005, (2) The WFD implementation Gap analysis
and (3) Harmoni-CA concerted action synthesis proposals.
5.1 EU-INCO Review of Waster research 1994-2005
With a European investment in some 50+ international S&T cooperation projects addressing
integrated water resources management (IWRM) over the last 10 years, The European
Commission’s International S&T Cooperation Programme (INCO) wants to take stock.
Integrated water resources management is a key concept of the European Water Framework
Directive (WFD) that also influences water policies and management discourses in many
parts of the world.
As part of its commitment to the EU Water Initiative, the European Commission has invited
10 renowned experts, five from Europe and five from Africa, Asia, Latin America and the
Mediterranean to review what lessons can be learnt from those projects, how much research
results have been used to inform practice and how this should inform future cooperation in
IWRM.
Expert Name Gender Nationality Function
ALLAN John Anthony Male United Kingdom Rapporteur
ANTUNES Paula Female Portugal Reviewer
DUDEEN Basim Male Palestine Reviewer
GYAWALI Dipak Male Nepal Chairman
LAUREANO Pietro Male Italy Reviewer
LUISELLI Cassio Male Mexico Reviewer
MONTEIRO Pedro Male South Africa Reviewer
NGUYEN Khanh Hong Female Vietnam Reviewer
NOVACEK Pavel Male Czech Republic Reviewer
PAHL-WOSTL Claudia Female Germany Reviewer
The review panel, sporting also an ‘embedded’ journalist, is scheduled to produce a technical
report, a policy brief and a general public brochure. These products are to be presented,
among others, at the 4th World Water Forum in Mexico, `6-22 March 2006.
The panel developed a scoring framework based on sustainable development principles,
cultural and modernity theories and based on the following questions:
Have the principles of sustainability been properly addressed?
Social
Environmental
Economic
Political/Institutional
29
Have technical solutions been adequate?
Has local knowledge been considered in the technical approach?
Has the technical approach considered ecological conditions?
Has the technical approach considered the socio-economic conditions?
Integration
Did the study take a biophysical system approach?
Did the study take an integrated approach?
What has been integrated? (Policy)
Communication
Policy makers
Technical community
Local users
Education
Private sector
Impact
Has the project contributed to capacity building?
Has project leadership and management been balanced between partners?
Has the project been effective in advancing IWRM?
Is the project impact on IWRM based on innovative knowledge generation?
Narrative
Has the project reflected the understanding of IWRM, as expressed in the EU FP4, 5 and
6 work programmes?
What was the awareness of the team of the environmental services of water?
Has the project adopted a resource-based or an ecosystem-based approach?
Does the project reflect an awareness of cultural and historical dimensions?
Almost all projects have been scored by at least two members of the international panel
during the first week (18-22 July 2005) of work in Brussels. The panel members found that
the methodology worked exceedingly well to screen the diverse INCO projects covering a
wide geographical range of collaborations (Africa, Asia, Latin America, Mediterranean,
Russia and the other New Independent States and Western Balkans). However, time was
insufficient to consolidate the analysis by using, among others, the extensive comments
made by panellists in relation to individual project score sheets. This will be done during the
next stages of the review process.
The international IWRM review is intended to be complementary and synergistic with the
NeWater Project work package analysing IWRM. This is ensured through mutual attendance
of meetings and exchange of materials in addition to active participation of the overall
NeWater coordinator in the international IWRM panel. It is expected that this coordinated
approach will lead to knowledge products that are useful and influential in supporting IWRM
learning process and practice.
The scientific officer in charge of the international IWRM review in DG RTD is Cornelia
Nauen (cornelia.nauen@cec.eu.int). More information about this review can also gleaned
from the research website of the EUWI (terms of reference, presentation of panel members,
quick overview of projects from the project database and its update etc.)
Annex III lists the INCO projects subjected to the international review process (the list is
provisional and may be amended from the INCO portfolio on request from the panellists).
30
5.2 Water Framework Directive: Research needs.
Working Group B of the common implementation strategy of the Water Framework Directive
identified the research needs for the implementation of the Water Framework Directive
(Authors: Marc de Rooy, Gerard Broseliske, Manuel Menendez). Chapter 5.2 reports on
these gaps and aims to relate these gaps to IWRM research issues covered in NeWater.
The objective of the activity was to identify and prioritise issues from the WFD Article 5
activity, and to identify blank spots in research. The activity was performed by means of a
questionnaire sent out to and returned by all member states. The evaluation of the
questionnaire gives a first overview of the possible research gaps identified during the
implementation of the WFD throughout Europe.
It has to be mentioned that the two key points of the activity by Working group B were to be
“quick” and “transparent”. The research tasks identified following the return of the
questionnaire and listed in the table have not been changed, evaluated or ranked. As such
the list represents the perceived research gaps from the perspective of people in charge of
implementing the Water Framework Directive.
In contrast to previous chapter, where researchers provided their view, the results of the
Working Group B exercise may help to target different NeWater activities. Furthermore the
list may be helpful for any project whose aim is to bring forward research results in practical
applications.
The allocation of the possible research gaps in relation to the key issues of NeWater is a
very subjective one by the authors, which was meant to support and stimulate the discussion
of the IWRM platform.
It is obvious that the list of research gaps identified in the questionnaire cannot claim
completeness. Other research tasks, which came up in several workshops and conferences,
like the possible impact of climate change on water quality, the relevance of nutrient
residence times in catchments and lakes for water quality and ecology, nutrient retention in
wetlands, the social dimensions of behaviour and risk management, are missing. Not all the
possible research gaps mentioned in the questionnaire are addressed to the scientific world
but are rather management or communication problems.
Nevertheless, some general pattern can be found when analysing the answers of the
questionnaire. The overall most important driving forces and pressures mentioned are
pollution from agriculture, riverbed morphology, pollution from municipal wastewater,
pollution from industry and other sources of pollution like landfill, waste and mining, and flow
reduction.
Table 1: The research need identified in the questionnaire of Working Group B in relation to
the main issues of NeWater. “X” represents a potential NeWater contribution to reduce the
gap. Note that “X” is based on the authors’ preliminary judgement and is at this stage just an
example. Much additional output from NeWater Case-studies could help fill the WFD
perceived knowledge gaps.
31
NeWater /IWRM issue
"WFD research need"
1
IWRM & Adaptive Water Management Regimes,
n
cluding methods for changing regimes
2
Vulnerability and exposure to shocks and stresses in
r
iver basins
3
Governance, institutions and participation, including
ransboundary issues
4 Integration IWRM and spatial planning
5 Methods of managing buffering capacity
6
Advanced monitoring systems for adaptive
m
anagement
7
Understanding consequences of climate hazards and
c
limate change
8
Resolving conflicts between water quantity, water
q
uality and ecosystems
9
Social dimensions of IWRM: poverty alleviation,
g
ender and health
1
0 Resilience and adaptive capacity to complex water
s
ystems
11 Coping with uncertainty and risk management
12 Scenarios and future forces for IWRM
Water resources and demand management
1.1 Water saving X
1.2 Water saving in irrigation X
1.3 Water conservation X
1.4 Water reuse (e.g. treated wastewater) X
1.5 New water sources (e.g. desalinisation) X
1.6 Water management in drought prone regions X X X X X X X X X X X X
Groundwater management
2.1 Development of common approach for
quantification of diffuse pollution – expressed by
nutrients and other parameters (i.e. heavy metals,
specific organic pollution)
X
2.2 Methodology for monitoring and chemical status
evaluation on karstic GW bodies X
2.3 Treshhold values to prevent deterioration of
chemical status of GW bodies X
Knowledge on physical processes
3.1 Interaction groundwater - surface water -
sediments X
3.2 Trends in coastal erosion X
3.2 Saline intrusion; what is meant by ‘significant
intrusion’. Insight in intrusion mechanisms needed. X
Knowledge on ecological processes
4.1 Relationship between hydromorphological and
biological conditions X
4.3 Environmental standards for annex VIII and X
substances
4.4 Modelling tools to define reference conditions X
4.5 Intercalibration of assessment methods for
biological quality elements
4.6 Objectives for hydrology (minimum flow) X
32
NeWater /IWRM issue
"WFD research need"
1
IWRM & Adaptive Water Management Regimes,
n
cluding methods for changing regimes
2
Vulnerability and exposure to shocks and stresses in
r
iver basins
3
Governance, institutions and participation, including
ransboundary issues
4 Integration IWRM and spatial planning
5 Methods of managing buffering capacity
6
Advanced monitoring systems for adaptive
m
anagement
7
Understanding consequences of climate hazards and
c
limate change
8
Resolving conflicts between water quantity, water
q
uality and ecosystems
9
Social dimensions of IWRM: poverty alleviation,
g
ender and health
1
0 Resilience and adaptive capacity to complex water
s
ystems
11 Coping with uncertainty and risk management
12 Scenarios and future forces for IWRM
4.7 Hydrology – ecology and morphology – ecology
links. These need to be quantified so that
measures to address these pressures, that will
result in required degree of improvement in
ecological improvement, can be determined.
X
4.8 Everything concerning the connection/effect
between/on hydrological, hydromorphological,
hydro geological factors/processes and the status
of the ecosystems
X
4.9 Development of common EU-wide biological
assessment methods (option 1 of
INTERCALIBRATION process guideline) X
4.10 Elaborations concerning the one out all out
principle for chemicals discharged in significant
quantities as part of the ecological status/potential.
Rephrase: Research of the relevance of
substances and links between chemicals and status
Monitoring
5.1 Aspects of different monitoring network’s
optimisation X
5.2 Linking monitoring and modelling X
5.3 Relations between the monitoring and the entire
assessment of status of WBs. X
5.4 Development of techniques for Ecological
Monitoring X
Pressure Impact relations
6.1 Mining industry impact mitigation X
6.2 Closing down old underground mining areas,
which impact the water quality and might have
negative effects by causing temporary flooding
6.3 Quantification of the need to internationally
reduce the deposition of anthropogenic loads of
nutrient, heavy metals and POP´s, SO2
(acidification)
6.4 Elaboration of models for load of N, P and
POP´s on coastal areas and sea
33
NeWater /IWRM issue
"WFD research need"
1
IWRM & Adaptive Water Management Regimes,
n
cluding methods for changing regimes
2
Vulnerability and exposure to shocks and stresses in
r
iver basins
3
Governance, institutions and participation, including
ransboundary issues
4 Integration IWRM and spatial planning
5 Methods of managing buffering capacity
6
Advanced monitoring systems for adaptive
m
anagement
7
Understanding consequences of climate hazards and
c
limate change
8
Resolving conflicts between water quantity, water
q
uality and ecosystems
9
Social dimensions of IWRM: poverty alleviation,
g
ender and health
1
0 Resilience and adaptive capacity to complex water
s
ystems
11 Coping with uncertainty and risk management
12 Scenarios and future forces for IWRM
6.5 Mechanism for transport of N and P in land and
wate
r
X
6.6 Further elaboration of the impact of
autonomous developments in society on quality
elements and parameters representing the status of
surface- and groundwater (“baselines in practice”).
X X
6.7 Impact assessment X X
6.8 Impact of hydropower X
6.9 Impact from agricultural activities on water
bodies X
Data management
7.1 Appropriate database for storing water related
data
7.2 Data aggregation
7.3 GIS data management
Measure assessment
8.1 Limitation of negative impact of flood defence
works X X X X X
8.2 Assessment of hydromorphological
rehabilitation measures for river types X X
8.3 General insight in the most effective and cost
effective measures (e.g. should we focus on
chemical water quality improvement, or focus on
improvement of the habitat quality, or which
combinations of those?)
X
8.4 Decision support systems for the selection of
the best alternative in the programme of measures X X X X
8.5 Methodologies to deal with social and economic
issues to develop future scenarios X X X
8.6 Elaboration of models for prediction X X X X
8.7 Decision support systems taking account the
availability of data, the quality of data, the scale to
which available data apply, and resulting
uncertainties.
X X X X X X
34
NeWater /IWRM issue
"WFD research need"
1
IWRM & Adaptive Water Management Regimes,
n
cluding methods for changing regimes
2
Vulnerability and exposure to shocks and stresses in
r
iver basins
3
Governance, institutions and participation, including
ransboundary issues
4 Integration IWRM and spatial planning
5 Methods of managing buffering capacity
6
Advanced monitoring systems for adaptive
m
anagement
7
Understanding consequences of climate hazards and
c
limate change
8
Resolving conflicts between water quantity, water
q
uality and ecosystems
9
Social dimensions of IWRM: poverty alleviation,
g
ender and health
1
0 Resilience and adaptive capacity to complex water
s
ystems
11 Coping with uncertainty and risk management
12 Scenarios and future forces for IWRM
8.8 The decision support systems may focus on
various levels of scale (EU, region, country, river
basin, smaller area etc) X X X X X X
8.9 Assessment of the impact of measures on the
chemical an biological quality of surface and ground
waters using “practical and well considered
approaches”
X X X X
WFD policy questions
9.1 Linking ecological and socio-economical
models X X
9.2 Tools for presentation to show the effects of
different measures and scenario's X X
9.3 Community education and involvement in
decision making X
9.4 Approach to evaluation of artificial irrigation
canals (in period of year without water)
Policy assessment
10.1 Assess the effectiveness of the
implementation programme. Evaluation of
environmental results of implemented programmes
of measures (e.g. the effects of completed
wastewater programs on the chemical, ecological
status of water bodies in selected sub-river basins,
urban waste water directive; lessons to be learned)
X X X X
Socio-economy
11.1 Economy - cost/benefits and cost recovery
problems
11.2 Scale of the analysis for individual elements
(pressures) of the cost-effectiveness analysis
11.3 Dealing with changes to cost recovery
mechanisms as potential measures within the first
POM
11.4 Developing business as usual models and
dealing with less than full application of other water
policies in the cost-effectiveness analysis.
35
NeWater /IWRM issue
"WFD research need"
1
IWRM & Adaptive Water Management Regimes,
n
cluding methods for changing regimes
2
Vulnerability and exposure to shocks and stresses in
r
iver basins
3
Governance, institutions and participation, including
ransboundary issues
4 Integration IWRM and spatial planning
5 Methods of managing buffering capacity
6
Advanced monitoring systems for adaptive
m
anagement
7
Understanding consequences of climate hazards and
c
limate change
8
Resolving conflicts between water quantity, water
q
uality and ecosystems
9
Social dimensions of IWRM: poverty alleviation,
g
ender and health
1
0 Resilience and adaptive capacity to complex water
s
ystems
11 Coping with uncertainty and risk management
12 Scenarios and future forces for IWRM
11.5 Prioritising economic appraisal for the first
POM given the difficult timings
11.6 Incorporating the time related costs of
measures in the cost-effectiveness analysis (e.g.
related to capacity constraints, industry investment
phases etc.)
11.7 Translating standards for GES/classifications
schemes into specifications of environmental
benefits from a human (anthropogenic) perspective
11.8 Establish reliable benefits transfer approaches
for assessing disproportionate costs.
11.9 Assessing disproportionate costs in protected
areas where there is flexibility in meeting WFD
related objectives.
11.10 Coordinating cost-effectiveness analysis in
transboundary water bodies. X
11.11 Dealing with uncertainty about measures
given differencing levels of uncertainty across
sectors contributing to pressures (e.g.
agriculture/water industry) in an even handed
manner.
X X
11.8 Establish reliable benefits transfer approaches
for assessing disproportionate costs.
11.9 Assessing disproportionate costs in protected
areas where there is flexibility in meeting WFD
related objectives.
11.10 Coordinating cost-effectiveness analysis in
transboundary water bodies. X
11.11 Dealing with uncertainty about measures
given differencing levels of uncertainty across
sectors contributing to pressures (e.g.
agriculture/water industry) in an even handed
manner
X
Concerning the gaps list the following is noteworthy:
One of the main research gaps related to the driving forces and pressures seems to be the
understanding of ecological processes in relation to water quantity, quality and river bed
36
morphology. Another issue, where according to the answers exist many problems, is socio-
economy, and here especially questions of cost-effectiveness, cost-benefit and cost recovery
problems. NeWater does not address economic issues in much detail.
Often mentioned are pressure-impact relations (impacts of mining industry, agriculture,
hydropower plants, nutrient transport in land and water), and measure assessment (again
cost-effectiveness, decision support systems). The main aspects concerning monitoring are
in combination with network optimisation, ecological monitoring, data processing and
modelling. Important are also water resources and demand management (irrigation, water
conservation, water management in drought prone regions, salt water intrusions, scenario
development) and WFD policy questions.
Another research gap, which is identified throughout the questionnaire, is related to
modelling issues, and here especially modelling tools to define the reference conditions,
models to investigate possible impacts under scenario conditions and ecological models. An
item related to modelling and monitoring and mentioned in the returned questionnaire are
uncertainty aspects like uncertainty in monitoring and modelling.
5.3 Harmoni-CA synthesis
Within the concerted action Harmoni-CA, discussions are ongoing on the selection of topics
for synthesis. Harmoni-CA focuses on proper use of models and computer tools during the
WFD implementation. This ranges from actual use to stakeholder involvement and
participatory model development.
Currently topics are collected for which a detailed analysis will be carried out. Harmoni-CA
has a responsibility towards the actual implementation of the WFD (end-user of research),
but also towards the research community. The purpose of Harmoni-CA analyses may thus
vary from synthesis leading to management advice, to synthesis reflecting the technical state
of the art as input to research. In September 2005, it will be clear which topics will be
addressed within Harmoni-CA.
For more information contact harmoni-ca.wp1@riza.rws.minvenw.nl
37
ANNEX I. CONTACTS
ANNEX I provides the available contact details of the persons that have been invited for the
first European IWRM platform meeting.
PARTICIPANTS STOCKHOLM
Family name First name Organisation Email Telephone Knowledgeable
about (preliminary
list):
Aguilar Carlos GWP carlos.aguilar@gwpforu
m.org
Allan Tony SOAS ta1@soas.ac.uk +44 20 7898 4058 INCO projects
Balabanis Panagiotis EC Panagiotis.Balabanis@c
ec.eu.int
Valery.ubrich@cec.eu.int
+32 (0) 22953630 EC research Soil &
Water
Bergkamp Ger IUCN ger.bergkamp@IUCN.
org ++41 (22) 999-
0262
Blind Michiel RIZA (NL) m.blind@riza.rws.minven
w.nl +31 (0) 320 298721 Expected, Harmoni-
CA, Catchment
modelling cluster
overview,
AquaStress,
NeWater
Brabben Tom HR Wallingford (UK) t.brabben@hrwallingford.
co.uk +44 (0) 1491 822310 MITCH, NeWater
Bromly John CEH (UK) jby@ceh.ac.uk +44 (0) 1491 692333 Merit
Downing Tom SEI (S) tom.downing@sei.se +44 1865 202070 SIRCH, NeWater
WP2.1
Eder Gerald Austrian
Development
Cooperation
gerald.eder@hydrophil.a
t +43 1 49 464 59 41
Hattermann Fred PIK (D) hattermann@pik-
potsdam.de +49 (331) 288 2649 Expected, Harmoni-
CA WP3, GLOWA
Hendriksen Hans Jorgen GEUS (Dk) hjh@geus.dk Merit; HarmoniQuA,
Interwies Eduard Ecologic (D) interwies@ecologic.de NeWater WP1.3
Jörn Möltgen University of
Osnabrueck (D) moeltgen@usf.uni-
osnabrueck.de +49(0)541-969-23 71 NeWater,
FLUMAGIS
Kabat Pavel Alterra (NL) Pavel.Kabat@wur.nl + 31 317 4 74314 NeWater
LLamas Manuel
Ramón mrllamas@geo.ucm.es +34 913944848 NeWater Case
Guadiana/IAP
water/groundwater
program
Ortega Consuelo
Varela Univ Politec Madrid consuelo.varela@upm.e
s + 34 91 3365790
Neveux Gilles Office International
de l'Eau g.neveu@oieau.fr +33-6=80683881 IWRM.net
Pahl-Wostl Claudia University of
Osnabrueck (D) pahl@usf.uni-
osnabrueck.de +49 (541) 9692536 Harmoni-CA,
Harmoni-CoP,
Humand Dimension
in Water
Management
Cluster, AquaStress,
NeWater
Rockstrom,
executive director
of SEI Stockholm
Johan SEI (S) Johan.Rockstrom@sei.s
e GWP
Stalnacke Per NIVA (No) per.stalnacke@jordforsk.
no + 47 2218 5100 Mantra East,
Harmoni-CA WP3
Suzuki Kenji Japan Water Forum Suzuki@waterforum.jp SWITHB. +81 (0)3-
5212-1645 NoWNET
Van Mansfeld Madeleine Alterra (NL) Madeleine.vanmansfeld
@wur.nl +31 (0) 317 474624 NeWater
Yamaguchi Noriko Japan Water Forum yamaguchi@waterforum.
jp +81-3-5212-1645
Zsuffa Istvan Vituki (Hu) istvan.zsuffa@vituki.hu +361 2156140 Tisza River Project,
38
PERSONS UNABLE TO ATTEND
Family name First name Organisation Email Knowledgeable about
(preliminary list):
Bressers Hans Univerity Twente (NL) j.t.a.bressers@utwente.nl Euwareness
Ekstrand Sam sam.ekstrand@ivl.se TwinBas
Gilbert Nigel University of Surrey N.Gilbert@soc.surrey.ac.uk
Firma
Giuponni Carlo University of Milan carlo.giupponi@unimi.it
Mulino / TransCat,
Nostrum DSS,
Gooch Geoffrey D. geogo@eki.liu.se River Dialogue
Hall Alan Global Water Partnership alan.hall@gwpforum.org Global Water Partnership,
NeWater
Hesselbjerg Christensen Jens Danish Met. Institute (Dk) JHC@dmi.dk No, Prudence
Hewitt Chris Met. Office (UK) chris.hewitt@metoffice.gov.uk Ensembles
Ison Ray Open University, Milton
Keynes (UK) slimcoord@open.ac.uk Slim
Jeffrey Paul Cranfield University (UK) P.J.Jeffrey@Cranfield.ac.uk Expected (Aquadapt),
NeWater
Jeroen Aerts IVM (NL) jeroen.aerts@ivm.falw.vu.nl NeWater WP1.2
Kilsby C.G. c.g.kilsby@ncl.ac.uk Swurve
Kuks Stefan Univerity Twente s.m.m.kuks@utwente.nl
Laurans Yann Seine-Normandie Water
Agency LAURANS.Yann@AESN.fr] Seine Normandy Basin
Baseline scenario in WFD
Art. 5 report, Harmoni-
CA.wp3
Mostert Eric Technical University Delft
(NL) e.mostert@citg.tudelft.nl EuroWater
Patrick Simon Environmental Change
Research Centre (UK) s.patrick@geog.ucl.ac.uk Euro-limpacs
Paula Antunez mpa@fct.unl.pt Advisor
Powell Keith HR Wallingford (UK) Mitch
Rabaca Joao ICLEI—Local
Governments for
Sustainability
joao.rabaca@iclei.org WaterLogo / Iclei
Samuels Paul HR Wallingford (UK) p.samuels@hrwallingford.co.uk Floodsite
Soncini-Sessa Rodolfo Politechnical Univeristy of
Milan (It) soncini@elet.polimi.it Harmoni-ca.WP3,
Verbano, Twole
Vanrolleghem Peter University of Gent (B) Peter.Vanrolleghem@ugent.be Harmoni-CA WP2, CityNet
cluster
39
ANNEX II. BRIEF DESCRIPTION OF PROJECTS
ANNEX II provides abstract information on a range of European and few national projects,
which are relevant to the IWRM community.
The information has been retrieved from www.cordis.lu, www.harmoni-ca.info or the project's
website. It should be noted that the information on these websites is sometimes outdated,
and the contact person usually is the formal contact point of the leading organisation, and not
of the actual project manager.
The section consists of:
1. Projects that were identified by the organisation team
2. Project under review in the INCO initiative
3. Projects that were proposed by the respondents of questionnaires.
A PARTICIPATORY APPROACH FOR SOIL AND WATER CONSERVATION PLANNING{ XE
"PLANNING:A PARTICIPATORY APPROACH FOR SOIL AND WATER CONSERVATION PLANNING"
} (NO ACRONYM)
Full name A participatory approach for soil and water conservation planning, integrating soil erosion modelling
and land evaluation, to improve the sustainability{ XE "sustainability:A participatory approach for soil
and water coservation planning" } of land use
Contact
Ending date 30/11/2000 COMPLETED
ID IC18-CT-1997-0158
URL(s) http://europa.eu.int/comm/research/waterinitiative/projects/ic18_ct_1997_0158_en.htm
Abstract Soil erosion is the major cause of degradation of agricultural and non-agricultural land on the Loess
Plateau in the northern provinces of China, inhibiting sustainable use of the land resources. The
EROCHINA project aimed to develop alternative land use and soil and water conservation strategies
for their area, focusing on reducing soil and water losses and increasing sustainability. A new
participatory planning method, which integrates both soil erosion modelling and land evaluation, was
used. Soil erosion can be controlled and/or reduced by a change in land use and/or adoption and
application of soil conservation techniques; however, solutions cannot be found independently of
land user motivation, knowledge and perceptions.
ADVISOR (ACRONYM)
Full name Integrated{ XE "Integrated:Advisor" } evaluation for sustainable river basin governance{ XE
"governance:Advisor" }
Contact Paula Antunez, mpa@fct.unl.pt, Portugal
Ending date 31/07/2004 COMPLETED
ID EVK1-CT-2000-00074
URL(s) http://gasa.dcea.fct.unl.pt/ecoman/projects/advisor/
Abstract Advisor’s main objective is to provide an integrated project evaluation framework and methodology
for the sustainable governance of Europe's river basins. It aims to develop a set of guidelines to
implicated EU river basin authorities and agencies describing an integrated project evaluation
process, establishing criteria for assessing the "sustainability{ XE "sustainability:Advisor" } quality" of
an evaluation process and providing a number of practical tools to operationalise the proposed
guidelines. The final outcome will be achieved through the: establishment of an integrated theory and
understanding of the process of evaluation of river basin projects in the EU; development and testing
of a number of practical evaluation tools and the proposal of an integrated methodology for the
evaluation of river basin projects in the EU. The project aims to operationalise the principles of
integrated assessment and the post-normal scientific paradigm into the solution of a "policy gap" of
outmost EU importance.
40
ALARM (ACRONYM)
Full name Assessing LArge-scale environmental Risks{ XE "risk:Alarm" } with tested Methods
Contact Josef Settele, UFZ-Umweltforschungszentrum Leipzig-Halle GmbH, Germany
Ending date 01/02/2009
ID 506675
URL(s) http://www.alarmproject.net/alarm/
Abstract Based on a better understanding of terrestrial and freshwater biodiversity and ecosystem functioning
ALARM will develop and test methods and protocols for the assessment of large-scale environmental
risks in order to minimise negative direct and indirect human impacts. Research will focus on
assessment and forecast of changes in biodiversity and in structure, function, and dynamics of
ecosystems. This relates to ecosystem services and includes the relationship between society,
economy and biodiversity. In particular, risks arising from climate{ XE "climate:Alarm" } change,
environmental chemicals, biological invasions and pollinator loss in the context of current and future
European land use patterns will be assessed. There are an increasing number of case studies on the
environmental risks subsequent to each of these impacts. This yields an improved understanding on
how these act individually and affect living systems. Whereas the knowledge on how they act in
concert is poor and ALARM will be the first research initiative with the critical mass needed to deal
with such aspects of combined impacts and their consequences. Risk assessments in ALARM will be
hierarchical and examine a range of organisational (genes, species, ecosystems), temporal
(seasonal, annual, decadal) and spatial{ XE "spatial:Alarm" } scales (habitat, region, continent)
determined by the appropriate resolution of current case studies and databases. Socio-economics as
a cross-cutting theme will contribute to the integration of driver-specific risk assessment tools and
methods and will develop instruments to communicate risks to biodiversity toned users, and indicate
policy options to mitigate such risks The ALARM consortium combines the expertise of 53 partners
from 26 countries (14 EU, 7 NAS, Israel, Switzerland, and 3 INCO states). ALARM encompasses 7
Sees as full partners with central responsibilities and with a share of more than 10% of the project
resources.
AMMA (ACRONYM)
Full name African Monsoon Multidisciplinary Analyses
Contact amma-eu@ipsl.jussieu.fr
Ending date
ID
URL(s) http://www.amma-eu.org/
Abstract The African Monsoon Multidisciplinary Analyses (AMMA) project is an international endeavour which
has set itself three main aims :
To improve our understanding of the West African Monsoon and its physical, chemical and biological
environment.
To provide the underpinning science that relates climate{ XE "climate:Amma" } variability to issues of
health{ XE "health:Amma" }, water resources and food security and defining the relevant monitoring{
XE "monitoring:Amma" } strategies.
To ensure that the multidisciplinary research is efficiently integrated with prediction and decision
making activities.
To achieve these objectives a number of national and pan-national projects have been set up :
AMMA International
AMMA Africa
AMMA France
AMMA United Kingdom
AMMA United States
AMMA European Union (This page)
These projects are coordinated through the AMMA-International structure. The international structure
is also key for the developments of the links between AMMA and the World Climate Research
Program (WCRP) (especially its GEWEX and CLIVAR programs) and the International Geosphere-
Biosphere Programme (IGBP).
41
AQUADAPT (ACRONYM)
Full name Strategic tools to support adaptive{ XE "adaptive:Aquadapt" }, integrated{ XE "integrated
water:Aquadapt" } water resource management under changing utilisation conditions at catchment
scale: a co-evolutionary approach.
Contact Paul Jeffrey, p.j.jeffrey@cranfield.ac.uk
Ending date 31/07/2005 COMPLETED
ID EVK1-CT-2001-00104
URL(s) http://www.aquadapt.net/
Abstract The overall aim of the AQUADAPT project is to generate knowledge which supports the strategic
planning{ XE "planning:Aquaadapt" } and management of water resources in semi-arid environments
at catchment level under changing supply / demand patterns. The intellectual framework, which
underpins the project, reflects recent thinking on the co-evolution of natural resource availability with
human societies. Hence, we explicitly seek to provide a basis for the integration of water resource
planning with structural, social, economic, agricultural and regional development planning. Organised
in seven work packages, AQUADAPT involves thirteen academic and industrial partners from seven
countries
AQUALIBRIUM (ACRONYM)
Full name European Water Management Between Regulation and Competition
Contact Meinhof Dierkes, Nexus - Institut Für Kooperationsmanagement Und Interdisziplinäre Forschung,
Germany
Ending date 01/01/2003 COMPLETED
ID EVK1-CT-2001-80003
URL(s)
Abstract Private sector participation{ XE "participation:Aqualibrium" } in water management generates
controversy in the public. Above all, controversy questions effect the possibility of the identification of
potential risks{ XE "risk:Aqualibrium" } and dangers with regard to a liberalisation of water markets
(e.g. a reduction of quality standards, increasing consumption, the regional rule, neglect of the costly
wastewater treatment) and the design and implementation of technological modernisation and
information, participation of customers as well as the factor of user awareness and acceptance of
new developments in this sensitive sector. In addition to this, strategies of water management have
to consider a broad variety of tensions within socio-economic terms, as e.g. the tension between
urban and rural environment, agricultural and industrial production, central and decentred
organisation of supply and disposal services, productive and reproductive (household) economic
conditions. Sustainable water management has therefore to take into consideration this variety in
regard to the relevant legal, institutional and constitutional circumstances of the different countries.
Considering this situation, AQUALIBRIUM will improve the state-of-the-art of information availability
and discussion process by providing a multi-dimensional "map" of the current debate and the state of
affairs in public-private partnership in water management covering all Member States of the
European Union by realising two steps. First, AQUALIBRIUM will collect data and information on the
current debate and national strategies for public-private partnership in respect to fundamental
ideological positions, actor-specific perspectives, the pros and cons in discussion, recently taken
initiatives and experiences. Second, it will organise the assessment and evaluation of these national
strategies which aims to outline advantages and drawbacks, device best practices and identify
topical issues and knowledge deficits.
ARAL-KUM (ACRONYM)
This project is included in the INCO review.
Full name Desertification in the Aral sea region: a study of the natural and anthropogenic impacts.
Contact LEGROS, Willy (Prof.) Email: recteur@ulg.ac.be; Universite De Liege, Belgium
Ending date 31/10/2003 COMPLETED
ID I ICA2-CT-2000-10023
URL(s) www.cordis.lu
Abstract The state of the Aral Sea and the surrounding lands constitutes one to the worst environmental
42
disasters that the world has ever seen. As the lake has shrunk, as a re-salt of increasing diversion of
Amu-Darya and Syr-Darya rivers for irrigation, various types of salts have precipitated on its former
bed. Because most of these salts are sub-jest to wind erosion, the exposed bed of the Aral has
become the major source of salt and dust storms in the region. Salt in the atmosphere being
condensation nuclei have an impact on world climate{ XE "climate:Aral-Kum" } and thus the problem
becomes of Worland European concern. The objective of the project is to investigate the causes of
disastrous desertification in the Aral Sea Region aiming to elaborate recommendations for the most
effective remedial actions to be taken to combat desertification. The project methodology includes a)
monitoring{ XE "monitoring:Aral-Kum" } of the land, river and sea parameters being considered as
key indicators of desertification and to contribute towards establishing a data information system b)
modelling development to obtain an mathematical tool to understand Aral desertification process and
to set upon environmental management of this basin.
ATLANTIS (ACRONYM)
Full name Atlantic sea level rise : adaptation to imaginable worst case climate{ XE "climate:Atlantis" } change
Contact Dieter Friese, University Of Hamburg, Zentrum Für Meeres- Und Klimaforschung, Germany
Ending date 30/11/2004 COMPLETED
ID EVK2-CT-2002-00138
URL(s) www.cordis.lu
Abstract We will adopt methodologies of risk{ XE "risk:Atlantis" } management to study adaptation to
imaginable worst case Climate change. In consultation with local experts and stakeholders, we will
develop rich scenario{ XE "scenario:Atlantis" }s ("future histories") of the societal implications of a 5-6
metre sea level rise, potentially caused by a collapse of the west-Antarctic Ice Sheet, on the Rhone
delta, the Netherlands and the Thames Estuary. We will estimate the amount of land, buildings etc
lost, but will focus on initial responses (e.g., dike building, managed retreat), their probabilities of
failure, as well as the wider effects (e.g., on the economy, large-scale migration). In addition, we will
perform a formal risk assessment, analyse social representations and investigate optimal control of
greenhouse gas emissions under catastrophic risk. The project would add substance and
seriousness to the debate of potential catastrophes that may be caused by human-induced climate
change
CAESAR (ACRONYM)
Full name Cooperative applied environmental systems research of urban-rural interface - Sustainability{ XE
"sustainability:Caesar" } in water management and land use in Havana-region
Contact Baume Otfried, Institute Of Geography, Ludwig-Maximilians-Universität München, Germany
Ending date 31/08/2005
ID ICA4-CT-2002-10019
URL(s) http://europa.eu.int/comm/research/waterinitiative/projects/ica4_ct_2002_10019_en.htm
Abstract The Cuban way of development during the last four decades led to a special handling of nature, land
use and the vitally important resources, e.g. water, particularly in regions with high settlement
pressure like the urban-rural interface of Havana. Transformation processes resulted partially in a
radical change in land use systems and the consumption of existing resources, causing serious
geoecological and urban problems. The main aim is the development of sustainable environmental
management systems for land use and water management. Guidelines will be drawn up for
sustainable territorial planning{ XE "planning:Caesar" } in order to contribute to an improvement in
quality of life. Activities An innovative and interdisciplinary approach integrates geoecological
analysis, detailed environmental monitoring{ XE "monitoring:Caesar" } and assessment of
environmental systems, enhanced by an analysis of the social, economical, medical health{ XE
"health:Caesar" } related and environmental policy situations in the area. A Geographical Information
System (GIS) is to be created in which geoecological and visual landscape units will be classified
and evaluated. The assessment of geoecological conditions and landscape degradation of these
units and the determination of their ecological capacity will lead to territorial planning
recommendations. By social scientific perception methods the human ecological condition of the area
will be analysed in geomedical terms. Environmental political measures, educational and awareness
measures shall be elaborated to illustrate environmental problems using as well multimedia
documentation. The strong cooperation with local decision-makers, governmental and non
governmental organisations aims at the later implementation of the project results achieving a
suitable land use planning and water management, contributing finally to an improvement in quality
43
of life. By this project, the increased experience of the Cuban scientists and the created necessary
infrastructure will help to a future application to other similar regions inside the country. Together with
the transferability of the methodology on similar regions in Latin America, which will be developed
and discussed finally in an international workshop, the project results so in an even more positive
effect for the efforts of preserving the environment. Expected outcome • Reports on the development
of land use and water management, geoecological and visual landscape units and their degradation,
on environmental policy, on environmental education and environmental health conditions. •
Scenario{ XE "scenario:Caesar" }s and guidelines for effective land use and water management
systems and recommendations for sustainable environmental political measures and territorial
planning. • Exemplary contribution to environmental education through recommendations for
educational and awareness measures and for improved dealings with environmental health,
illustrated by multi-media documentation. • Former contacts and new partnerships, the scientific
exchange and the connection within and outside the European science can be intensified and the
research infrastructure between Europe and Latin America strengthened.
CATCHMENT2COAST (ACRONYM)
Full name Research into and modelling of the impacts of river catchment developments on the sustainability{
XE "sustainability:Catchment2Coast" } of coastal resources, which support urban and rural
economies: the case of Maputo Bay - Incomati River
Contact Marcel Marchand, Marine And Coastal Management Department, Stichting Waterloopkundig
Laboratorium (Wl /Delft Hydraulics, The Netherlands
Ending date 30/09/2005
ID ICA4-CT-2002-10059
URL(s) http://www.catchment2coast.org/home.php
Abstract This project takes an interdisciplinary systems approach to understand the linkages between river
catchments and their associated coastal environments. It uses linked dynamic numerical models as
tools to translate the impacts of human development in the river basins into cost-based
consequences to rural and urban economies in the coastal domain. At the core of this research is the
hypothesis that human activity in the Incomati catchment is impacting on the shrimp industry in
Maputo Bay. The tools and capabilities produced from this R&D project will support the
internalisation of delayed costs of upstream developments on the delivery of goods and services
from coastal ecosystems. The technical and institutional training modules in this project will
strengthen RTD co-operation over periods outlasting this project and ensure that project partners
benefit from each other's skills and experience
CABRI VOLGA (ACRONYM)
Full name Cooperation Along a Big River - Institutional coordination among stakeholders for environmental risk{
XE "risk:Cabri Volga" } management in the Volga basin
Contact Rupprecht Consult - Forschung & Beratung GmbH, Germany
Ending date 2006
ID 13424
URL(s) http://www.rupprecht-consult.de/projects/cabri.html
Abstract CABRI-Volga is an international coordination action to facilitate cooperation and to coordinate
research in environmental risk
management in large river basins in the EU, Russia & the New Independent States (NIS).
The CABRI-Volga project is funded by the European Commission under the International
Cooperation (INCO) Programme.
The project focus is on the Volga basin, which comprises 40% of the population of Russia, 45% of
the country’s industry and 50% of its agriculture.
For the Volga basin, environmental risk management is fundamental for protecting the environment,
improving socio-economic conditions and promoting agricultural and industrial
economies as well as the health{ XE "health:Cabri Volga" } of the Caspian Sea. Existing problems in
governance{ XE "governance:Cabri Volga" } and institutional performance, deficiencies in civil
society involvement as well as low levels of cooperation between academic and policymaking
institutions{ XE "institutions:Cabri Volga" } have led to a situation of significant ecologic, social and
economic risks in the basin.
44
CIRMAN-ARAL (ACRONYM)
This project is included in the INCO review.
Full name Crop irrigation management for combating irrigation induced desertification in the Aral sea basin
Contact Pedro Manuel LEÃO DE SOUSA
Ending date 31/12/2004COMPLETED
ID ICA2-CT-2000-10039
URL(s)
Abstract The CIRMAN-ARAL project focus on developing crop irrigation management strategies for combating
irrigation induced desertification in the Aral Sea Basin. Strategies concern water saving irrigation
scheduling and field practices, reduction of water demand for agriculture, improved control of
drainage water, and soil and water salinity. These issues should promote increased water available
for natural rivers, water bodies and riparian ecosystems, and the preservation and improvement of
land resources while favouring the Cir{ XE "sustainability:Cirman-Aral" } of irrigated agriculture. The
project shall produce a DSS to be used by decision makers, and the conditions to implement
research findings to be used in the farmers practice.
CLIMED (ACRONYM)
This project is included in the INCO review.
Full name Effects of climate{ XE "climate:Climed" } change variability in water availability and water
management practices in western Mediterranean.
Contact Carlos Borrego, University Of Aveiro, Portugal
Ending date 31/05/2004 COMPLETED
ID ICA3-CT-2000-30005
URL(s)
Abstract The main objective of the CLIMED project is to provide information on the foreseeable climatic
changes in the Western Mediterranean. Through a multiple approach, which includes field
hydrological databases, together with statistical models and physically based models, performing an
evaluation on how fresh water resources will vary. The project address esevapotranspiration of
different land uses, by measuring catchments runoff at small catchments, and performs up scaling
through statistical methods directed to the analysis of extreme events, through the use of LISEM
model. CLIMED has unimportant socio-economic dimension, which relates the socio-economic data
with the information provided by the climate and hydrological stages, in order to produce, for the
selected river catchments, an assessment of the impacts of changes on water availability. Another
Clime's major goal is to build a conceptual model based on integrated management methodologies,
defining guidelines to support decision-making processes and strategic paining for water resources,
as well as defining policy recommendations based on combined top-down and bottom-up
approaches.
COLASU (ACRONYM)
No record in Cordis.
This project is included in the INCO review.
Full name Maintien des écosystèmes côtiers méditerranéens de lagune sous le climat semi-aride
Contact
Ending date COMPLETED
ID ICA3-CT-2002-10012
URL(s)
Abstract
DEAD SEA (ACRONYM)
This project is included in the INCO review.
Full name A future for the dead sea basin: options for a more sustainable water management
45
Contact Günter Koch; guenter.koch@arcs.ac.at, Arc Seibersdorf Research GMBH Austria
Ending date 31/06/2006
ID ICA3-CT-2002-10019
URL(s) www.cordis.lu
Abstract The Dead Sea Basin has been affected by the economic and demographic changes of the last 50
years: a visible symptom for the degradation is that the surface area of the Dead Sea has shrunk by
about 30 %. The objective of this project is to establish the scientific basis for a "more sustainable
than today" water management and water-related land management in the Dead Sea Basin. The
proposed research includes both the physical and social dimensions. The approach is to synthesize
the available data, to analyse the interactions between natural resources and human activities, to
project likely development trajectories and their impacts, and to establish strategic more sustainable
development plans{ XE "planning:Dead Sea" }, and from this, to develop practical recommendations
that can be used for strategic decision-making.
DSS-DROUGHT (ACRONYM)
Full name A decision support system for mitigation of drought impacts in the Mediterranean region
Contact Mr Giuseppe Rossi, Institute of Hydaulics and Water Management, Universita' di Catania, Italy
Ending date 31/07/2001 COMPLETED
ID IC18-CT-1997-0169
URL(s) http://europa.eu.int/comm/research/water-initiative/projects/ic18_ct_1997_0169_en.htm
Abstract Objectives: a) identify the regional drought events and determine their characteristics (duration,
deficit intensity etc.); b) determine the most effective irrigation scheduling under drought conditions
using an appropriate crop-water simulation model; c) define the operational rules for storage facilities
of the water supply system; d) analyse the institutional framework and suggest a 'Drought Watch
System' for the Mediterranean.
ENSEMBLES (ACRONYM)
Full name ENSEMBLE-based Predictions of Climate{ XE "climate:Ensemble" } Changes and their Impacts
Contact David Griggs, ensemblesfp6@metoffice.gov.uk
Ending date 01/09/2009
ID GOCE-CT-2003-505539
URL(s) http://www.ensembles-eu.org/
Abstract Prediction of both natural climate variability and human impact on climate is inherently probabilistic,
due to uncertainties{ XE "uncertainties:Ensembles" } in forecast initial conditions, representation of
key processes within models, and climatic forcing factors. Hence, reliable estimates of climatic risk{
XE "risk:Ensembles" } can only be made through ensemble integrations of Earth - System Models in
which these uncertainties are explicitly incorporated. For the first time ever, a common ensemble
forecast system will be developed for use across a range of timescales (seasonal, decadal, and
longer) and spatial{ XE "spatial:Ensembles" } scales (global, regional, and local). This model system
will be used to construct integrated{ XE "integrated:Ensembles" } scenario{ XE "scenario:Ensembles"
}s of future climate change, including both non-intervention and stabilisation scenarios. This will
provide a basis for quantitative risk assessment of climate change and climate variability, with
emphasis on changes in extremes, including changes in storminess and precipitation, and the
severity and frequency of drought, and the effects of "surprises", such as the shutdown of the
thermohaline circulation. Most importantly, the model system will be extensively validated. Hind casts
made by the model system for the 20th century will be compared against quality-controlled, high-
resolution girded datasets for Europe. Probability forecasts made with the model system on the
seasonal and decadal timescales will also be validated against existing data. The exploitation of the
results will be maximised by linking the outputs of the ensemble prediction system to a wide range of
applications. In turn, feedbacks from these impact areas back to the climate system will also be
addressed. Thus ENSEMBLES will have a structuring effect on European research by bringing
together an unprecedented spectrum of world-leading expertise. This expertise will be mobilised to
maintain and extend European pre-eminence in the provision of policy-relevant information on
climate and climate change and its interactions with society
46
EUROCAT (ACRONYM)
Full name European catchments, catchments changes and their impact on the coast
Contact Guenter Von Sengbusc , Gkss - Forschungszentrum Geesthacht GMBH, Germany
Ending date 31/01/2004COMPLETED
ID EVK1-CT-2000-00044
URL(s) http://www.iia-cnr.unical.it/EUROCAT/project.htm
Abstract In this project we will develop a quantifiable framework of analysis for improved planning{ XE
"planning:Eurocat" } and management of catchments by analysing the response of the coastal se a
to changes in fluxes of nutrients and contaminants from the catchments. These changes in fluxes are
caused by the implementation of regulations, management schemes and by socio-economic
changes. In addition the rate of change is modified by the biogeochemical and physical properties of
the catchment. To elucidate the se various factors, six regional catchment studies will be carried out
using a common framework of analysis (DPSIR). To link the socio-economic drivers in the catchment
to the coastal response, the concept of critical loads will be extended to the catchment-coast
continuum.
EUROLAKES (ACRONYM)
Full name Integrated{ XE "integrated:Eurolakes" } water resource management for important deep European
lakes and their catchment areas
Contact Klaus Pfeiffer . Pfeiffer@hydromod.de. Hydromod Scientific Consulting Gbr. Germany
Ending date 31/10/2003 COMPLETED
ID EVK1-CT-1999-00004
URL(s) http://pcs0.hydromod.de/Eurolakes/index.html
Abstract EUROLAKES aims at the improvement of planning{ XE "planning:Eurolakes" } strategies and EU
regulations - in particular the EU Water Framework Directive - concerning sustainable water
management of deep European lakes and their catchment areas. This includes long-term
management, short-term pollution control and integrated monitoring{ XE "monitoring:Eurolakes" }
approaches for these important natural drinking water reservoirs. Ecosystem quality targets for the
integrated management and protection of those ecosystems will be established as well.
EURO-LIMPACS (ACRONYM)
Full name Integrated Project to Evaluate the Impacts of Global Change on European Freshwater Ecosystems
Contact Simon PATRICK, s.patrick@geog.ucl.ac.uk
Ending date 01/02/2009
ID 505540
URL(s) http://www.eurolimpacs.ucl.ac.uk/
Abstract Freshwater ecosystems, under stress from land-use change and pollution, face additional pressures
from climate{ XE "climate:Euro-Limpacs" } change, directly and through interaction with other drivers
of change. Euro-lampas is concerned with the science required to understand and manage the
ecological consequences of these interactions. It is relevant to the Water Framework Directive and
other international directives and protocols and supports the Em?s Charter on Sustainable
Development. The Project comprises a consortium of leading scientists to integrate{ XE
"integrate:Euro-Limpacs" } river, lake and wetland ecosystem science at the catchments scale. It
focuses on the key drivers of aquatic ecosystem change (land-use, nutrients, acid deposition and
toxic substances) and examines their interactions with global, especially climate, change using time-
series analysis, space-for-time substitution, palaeolimnology, experiments and process modelling. It
considers these interactions at 3 critical time-scales:
(i) hours/days, concerned with changes in the magnitude and frequency of extreme events;
(ii) seasons, concerned with changes in ecosystem function and life-cycle strategies of freshwater
biota;
(iii) years/decades, concerned with ecological response to environmental pressure, including stress
reduction and ecosystem recovery. An innovative toolkit for integrated catchments analysis and
modelling will be developed to simulate hydrological, hydro chemical and ecological processes at the
catchments scale for use in assessing the potential impact of global change under different climate
and socio-economic scenario{ XE "scenario:Euro-Limpacs" }s. A unified system of ecological
47
indicators for monitoring{ XE "monitoring:Euro-Limpacs" } freshwater ecosystem health{ XE
"health:Euro-Limpacs" }, and new methods for defining reference conditions and restoration
strategies will be developed. These will take into account the probable impacts of future climate
change and the need for a holistic approach to restoration based on habitat connectivity.
EUROWATER (ACRONYM)
Full name Institutional Mechanisms for Water Management in the Context of European Environmental Policies
Contact Erik Mosterd, e.mostert@citg.tudelft.nl
Ending date 30/04/1995 COMPLETED
ID EV5V0137
URL(s) www.cordis.lu
Abstract The objective of the project is to contribute to a better understanding of the institutional framework,
which governs the use of water resources in Europe taking account of national differences.
EUROWET (ACRONYM)
Full name Integration of European Wetland research in a sustainable management of water cycle
Contact Philippe Negrel, Bureau De Recherches Géologiques Et Minières (BRGM), France
Ending date 01/01/2005 COMPLETED
ID 505586
URL(s) http://ica.cordis.lu
Abstract The final goal of the EUROWET project is to integrate the substantial multidisciplinary European
research in wetlands to help attain the sustainable management of the water cycle.
This will be achieved by the translation of state-of-the art science developed at both national and
European levels, into practical guidance for end-users. This will be achieved by a comprehensive
review, expert assessment and a focussed dissemination strategy. There is considerable scientific
knowledge and technical experience gained in diverse aspects of wetland science and management
including hydrology, biogeochemistry, ecology restoration, socio-economic and policy analysis.
However the results of research and management experience are still too fragmentary and not
sufficiently orientated to problem solving or simply inadequately framed to be effectively transferred
to, or used by, stakeholders and policy-makers. Simultaneously the general outcome of the scientific
research has been increased awareness of the significance of wetlands in delivering goods and
services important for human welfare including quality of life, biodiversity conservation and
maintenance or enhancement of environment quality. Despite this wetlands continue to be degraded
and lost throughout Europe without adequate consideration of the wider benefits to be achieved from
this management. The new Water Framework Directive (WFD) promotes a unique opportunity to
redress this problem by means of the holistic, integrated{ XE "integrated:Eurowet" } approach to
water management. There is currently in preparation horizontal guidance on Wetlands apart of the
Common Implementation Strategy (CIS) process. There is however work still to be done on providing
more specific scientific and technical guidance on the effective implementation of the Directive with
respect to wetlands. This is particularly the case in relation to Integrated River Management, the CIS
cluster within which wetlands are being considered in the WFD
EUWARENESS (ACRONYM)
Full name European water regimes and the notion of a sustainable status
Contact Hans Bressers, j.t.a. breseers@cstm.utwente.nl
Ending date 28/02/2002 COMPLETED
ID EVK1-CT-1999-00038
URL(s) http://www.euwareness.nl
Abstract The project will consider rival uses of water resources and the way in which resource regimes
(property and use rights) are established to balance these rival uses in a sustainable way. To learn
how regimes can be modified, also the evolution of the regimes in their political-institutional context
will be analysed, in order to find triggers that are crucial for regime shifts towards sustainability{ XE
"sustainability:Euwareness" }. So the project intends to get a better understanding of the dynamic
relationships between various water uses, the regimes under which these uses are managed, and
48
factors in the political-institutional context that are generating regime shifts. By studying 12 cases in 6
different European countries, the final purpose is to assess the effectiveness of different water
resource regimes and to identify ways in which they can become more effectively sustainable. The
project will contribute to the newly proposed European framework for Community Action in the Field
of Water Policy (Proposal for a Council Directive, COM(97)49, COM(98)76 final), where a 'good
status of water' in the meaning of sustainable use of water resources has been put forward as a
major principle. The researchers want to demonstrate what kinds of regime conditions are crucial to
reach a sustainable status. Looking at property and use rights, the researchers are identifying users,
the importance they have in using water in a certain way, the extent to which they are paying a price
for it, and the extent to which they have a say or participate in managing the water resources in their
river basin area. The new Council Directive is considering these elements as important keys to a
sustainable status of water resources. Furthermore, the project will help to implement 'Action Line 8:
The Socio-Economic Framework' which has been formulated in the document 'Freshwater: A
Challenge for Research and Innovation. A Concerted European Response' (EUR 18098 - July 1998).
The researchers want to clarify how resource regimes can account for externalities, such as
depletion, degradation or pollution of water resources. The cases in the project will cover different
regimes with arrangements for combating pollution, for rational use of water (demand reduction), for
combating chronic water deficits, and for prevention or management of crisis situations. The regimes
will be evaluated on their contributions to sustainability by generating technical innovations, by
reducing demands, by stimulating alternative practices and by changing land (and water) uses.
FIRMA (ACRONYM)
Full name Freshwater integrated{ XE "integrated:Firma" } resource management with agents
Contact Nigel Gilbert, N.Gilbert@soc.surrey.ac.uk
Ending date 28/02/2003
ID EVK1-CT-1999-00016
URL(s) http://firma.cfpm.org/
Abstract Scientific objectives and approach
The project is structured around three main themes:
Methodological development of agent models that scale from individual, cognitive decision makers to
institutions{ XE "institutions:Firma" } representing more aggregate behaviour. Generic
methodological knowledge will be encapsulated in a set of 'core' models that will be applied
throughout the project.
The agent-based models will be demonstrated in five regions of Europe, linking the modelling and
application teams in addressing real water problems. The case studies are: Thames water region,
England, Limburg, The Netherlands; Barcelona, Spain; Herault, France; Zurich, Switzerland
Transfer of knowledge, experience and techniques, between experts on agent-based modelling and
experts on water resource management and involving an interaction between the project and the
wider community of policy makers.
Expected impacts Stakeholder participation{ XE "participation:Firma" } is an essential feature of the
project, starting with the formulation of questions and the design of the models. Common features
and results from the regional models will be compared in order to derive conclusions to assist with
the development of water resource management policy at the EU level. The project will yield insights
into the social processes of water management, leading to the consideration of a wider range of
aspects of the environment in decision-making. It will also result in improved water management
techniques including better management of water catchments.
FLOODSITE (ACRONYM)
Full name Integrated{ XE "integrated:Floodsite" } Flood Risk{ XE "risk:Floodsite" } Analysis And Management
Methodologies
Contact Paul Samuels, Floodsite@Hrwallingford.Co.Uk
Ending date 01/03/2009
ID GOCE-CT-2004-505420
URL(s) http://www.floodsite.net/
Abstract The management of flood risk is a critical component of public safety and quality of life. The
FLOODsiteIntegrated Project will produce improved understanding of specific flood processes and
mechanisms and methodologies for flood risk analysis and management ranging from the high level
management of risk at arider-basin, estuary and coastal process cell scale down to the detailed
49
assessment in specific areas. It includes specific actions on the hazard of coastal extremes, coastal
morph dynamics and flash flood forecasting, as wells understanding of social vulnerability{ XE
"vulnerability:Floodsite" } and flood impacts, which are critical to improving the mitigation of flood risk
from all causes. The project seeks to identify technologies and strategies for sustainable flood
mitigation and defence, recognising the complex interaction between natural biophysical systems
and socio-economic systems, to support spatial{ XE "spatial:Floodsite" } and policy planning{ XE
"planning:Floodsite" } in the context of global change and societal advance. Several pilot studies are
included in FLOOD site. These will identify lessons from recent floods (e.g. Elbe, 2002), and test the
proposed operational use of methods on integrated risk management and sustainable flood defence
(the Thames and Schultz Estuaries and the Ebor coastal delta) or new technology for flash flood
forecasting (in France and Italy). FLOOD site will also develop common language, guidance and
tools for dissemination of the project results and professional training packages. FLOOD site will
build upon the previous and current European and national research and practice in river and coastal
flood processes and flood risk mitigation methods to promote consistency of approach. Several of the
FLOOD site project partners are identified as contributors to proposals for the virtual centre on floods
and droughts identified in Para 1.1.6.3.II of the work programme; this virtual centre will complement
the activities of the FLOOD site project.
FLUMAGIS (ACRONYM)
Full name Interdisciplinary development of methods and tools for the planning process and measurement
control for river basin management with geoinformationsystems
Contact Joern Möltgen , Institute for Geoinformatics (IfGI), University of Muenster, Münster, moltgej@ifgi.uni-
muenster.de Germany
Ending date
ID
URL(s) www.flumagis.de
Abstract FLUMAGIS aims at the interdisciplinary development of methods and DV-tools in support of the
planning{ XE "planning:Flumagis" } and management of river basins. The focus will be laid on the
development of an interactive tool facilitating the evaluation and (3D) visualization of river basin
environments. This comprises the representation of current inshore water and landscape ecological
aspects as well as of the water balance and substance balances. Editing virtual environments makes
it possible to elaborate future planning and management scenario{ XE "scenario:Flumagis" }s on the
basis of an interdisciplinary data and knowledge platform in accordance with the EG-WRRL. Possible
alternatives and effects of various planning scenarios become transparent, can be discussed and
experienced in a participatory process. Furthermore the integration of GIS services, micro- and
meso-scale simulation models and the derivation of ontology based measures support the decision
finding. The ontologies are developed in co-operation of experts in the domains limnology, landscape
ecology, hydraulic engineering, hydrology, geoinformatics and socioeconomy. The proposals shall be
presented in text and as visualizations. The consequences concerning the measures proposed can
be estimated with the help of simulation model. The opinion of domain experts will be taken into
consideration from the very beginning of the project. Thus the relevancy of the prototype can be
guaranteed. The experts will not only bring in data and domain knowledge but also assure the
realization of the methodological results and the prototypical development of tools by following the
different project phases critically
GLOWA ELBE (ACRONYM)
Full name Global Water Elbe
Contact Frank Wechsung, frank.wechsung@pik-potsdam.de, Germany
Ending date 31/11/2007
ID
URL(s) http://www.glowa-elbe.de
Abstract Main focus is the research of integrated{ XE "integrated:Glowa Elbe" } strategies for wiser and
sustainable management of water at local levels in consideration of global ecological interactions and
basic socio-economic conditions. It also aims to create a basis for the development of innovative
technologies and cost-effective services for the sustainable, far-sighted management of water
resources.
50
GMES (ACRONYM)
Full name Global Monitoring{ XE "Monitoring:Gmes" } for Environment and Security
Contact
Ending date
ID
URL(s) http://www.gmes.info/
Abstract GMES aims at designing and establishing by 2008 a European capacity for the provision and use of
operational services for Global Monitoring of Environment and Security.
Reviewing the various user needs, it was established that GMES has to support the following EU
objectives and policy domains:
Europe's environmental commitments, within EU territory and globally, by contributing to the
formulation, implementation and verification of the Community environmental policies, national
regulations and international conventions;
Other EU policy areas such as agriculture, regional development, fisheries, transport, external
relations with respect to the integration of the environmental dimension in the respective domains
and their specific requirements;
Common Foreign and Security Policy (CFSP), including the European Security and Defence Policy
(ESDP);
Other policies relevant to European citizens' security at Community and national levels, notably the
potential exists for application to policies related to Justice and Home Affairs activities of the
European Union, such as border surveillance.
GOUVERNE (ACRONYM)
Full name Guidelines for the organisation, use and validation of information systems for evaluating aquifer
resources and needs
Contact Dominique Gentile, Universite De Versailles Saint Quentin En Yveline, France
Ending date 01/03/2003 COMPLETED
ID EVK1-CT-1999-00043
URL(s) http://neptune.c3ed.uvsq.fr/gouverne/
Abstract The project GOUVERNe will develop an implementation for selected case studies in the European
Union, a user-based and scientifically validated Decision support system (DSS) for management of
underground water resources at the catchment levels. Hydrological, spatial{ XE "spatial:Gouverne" }
and economic data sets will be integrated within scenario{ XE "scenario:Gouverne" } simulation tools
under a state-of-the-art information and communications technology (ICT) user interface. The product
will allow robust and clear scientific support for deliberation by decision-makers and stakeholders
permitting intelligent compromises, identification of novel management options and, to the extent
possible, co-operative conflict resolution. The consortium unites research, information technology
and water management partners
HARMONI-CA (ACRONYM)
Full name Harmoni-CA: Harmonised Modelling Tools for Integrated{ XE "integrated:HarmoniCA" } Basin
Management
Contact George E. Arnold, g.arnold@riza.rws.minvenw.nl, RIZA, The Netherlands
Ending date 30/09/2007
ID EVKI-2001-00192
URL(s) http://www.harmoni-ca.info
Abstract The overall objective of the large scale concerted action HarmoniCA is to create a forum for
unambiguous communication, information exchange and harmonisation of the use and development
of ICT-tools relevant to integrated river basin management, and the implementation of the WFD.
Several specific tasks within the large-scale concerted action are identified: 1) The objective of the
task “Establishing a communication forum / HarmoniCA Management” is to build an infrastructure for
exchanging knowledge, to guide the process to harmonisation, and to report on the outcome. This
51
task also includes organisation of conferences and workshops. Emphasis is placed on the
participation{ XE "participation:HarmoniCA" } of all stakeholders. Periodic reports on the outcomes
from the communication processes will be provided. 2) The objective of the task “Toolbox” is to
provide easy and guided access to approved (benchmarked) ICT-tools necessary for the
development of River Basin Management Plans. This leads to an open, flexible, “scientific sound”
toolbox for present and future integrated, harmonised ICT-tools. Easy access is not limited to
technical access to resources, but also includes training material, demo case studies, protocols
dealing with conditions for utilisation, rights of ownership, intellectual property rights and finance.
Access to tools will be provided through a web-site that contains (references to) ICT-tools,
benchmarking reports, and a tools selection tool, which guides the user to the tools based on the
issue at hand, the characteristics of the river basin, the data availability etc. 3) The “General
Methodology and Guidance Documents” activity delivers science based guidance documents for the
harmonised application of this methodology and available ICT-tools, at all relevant spatial scales in
Europe (and beyond). The task will serve the development of a harmonised methodology for
integrated river basin water management along the lines of the WFD under different circumstances
across Europe with the involvement of stakeholders and other interest groups, to achieve further
harmonisation of the hitherto fragmented approaches. 4) The task “Joint use of monitoring{ XE
"monitoring:HarmoniCA" } and modelling” aims at to help bridging the gap between the monitoring
community and the modelling community. Emphasis is put on the need for data (quality as well as
quantity) for modelling in relation to the WFD and its availability and accessibility. Data uncertainty{
XE "uncertainty:HarmoniCA" } and the applicability of data assimilation techniques will be assessed.
A better use of standard datasets from river basins for WFD related research studies will be
facilitated. Finally, guidelines for good practise in combining monitoring and modelling will be
prepared. 5) “Integrated Assessment and the science-policy interface” aims to develop and
strengthen the science-policy interface across sectors and spatial boundaries to establish a dialogue
on the requirements for modelling tools and participatory approaches to implement the WFD. The
task will give an account of the state of the art in the representation of the human dimension in
catchment modelling and river basin management planning as well as in combining stakeholder and
public participation and modelling/formal approaches in river basin management. Links with
established expertise in the field of Integrated Assessment will be provided in order to support the
establishment of a peer review research community in the field of integrated water resources
management. 6) “Co-ordination ongoing & future RTD-activities” increases the output and benefit of
ongoing research, speeds-up the (re-) use of developed products, avoids large overlaps between
projects and reduces the chance of duplicating activities. This will be achieved by applying a variety
of activities leading to a closer co-ordinating and synchronising of ongoing and planned research.
The task will consider ongoing and future projects dealing with issues relevant to the implementation
of the WFD.
WP1: Establishing a communication forum / HarmoniCA Management
WP2 Toolbox
WP3 General Methodology and Guidance Documents
WP4 Joint use of monitoring and modelling
WP5: Integrated assessment and science-policy interface
WP6: Co-ordination of ongoing & future projects
HARMONIRIB (ACRONYM)
Full name HarmoniRiB - Harmonised Techniques and Representative River Basin Data for Assessment and
Use of Uncertainty{ XE "uncertainty:HarmoniRiB" } Information in Integrated{ XE
"integrated:HarmoniRiB" } Water Management
Contact Jens Christian Refsgaard, jcr@geus.dk, GEUS, Denmark
Ending date 31/03/2006
ID EVK1-CT-2002-00109
URL(s) http://www.harmonirib.com
Abstract The overall goal of HarmoniRiB is to develop methodologies for quantifying uncertainty and its
propagation from the raw data to concise management information. The four specific project
objectives are: · To establish a practical methodology and a set of tools for assessing and describing
uncertainty originating from data and models used in decision making processes for the production of
integrated water management plans{ XE "planning:HarmoniRiB" }. It will include a methodology for
integrating uncertainties on basic data and models and socio-economic uncertainties into a decision
support concept applicable for implementation of the WFD; · To provide a conceptual model for data
management that can handle uncertain data and implement it for a network of representative river
basins. · To provide well-documented datasets, suitable for studying the influence of uncertainty on
management decisions for a network of representative river basins and to provide examples of their
52
use in the development of integrated water management plans. · To disseminate intermediate and
final results among researchers and end-users across Europe and obtain and incorporate feedback
on the methodologies, tools and the datasets.
HARMONIT (ACRONYM)
Full name HarmonIT - IT frameworks
Contact Roger Moore, rvm@ceh.ac.uk, CEH, UK
Ending date 31/12/2005
ID EVK1-CT-2001-00090
URL(s) http://www.harmonit.org
Abstract The objective of this project is to develop, implement and prove a European Open Modelling
Interface and Environment (the OpenMI) that will simplify the linking of models and hence allow
catchment managers to explore the likely outcomes of different policies.
HARMONICOP (ACRONYM)
Full name HarmoniCOP (Harmonising Collaborative Planning{ XE "Planning:HarmoniCOP" }
Contact Claudia Pahl-Wostl, pahl@usf.uni-osnabrueck.de, University of Osnabrück, Germany
Ending date 31/12/2005
ID EESD-ENV-2000-02-57
URL(s) http://www.harmonicop.info
Abstract The aim of the HarmoniCOP project (2002 -2005) is to increase the understanding of participatory
river basin management planning (RBMP) in Europe. RBMP is the integrated{ XE
"integrated:HarmoniCOP" } cross-sectoral planning and management of river basins if necessary
across political and administrative borders. The project's objective is to generate practical information
about participation{ XE "participation:HarmoniCOP" } processes in river basin management and to
support the implementation of the public participation provisions of the European Water Framework
Directive
HARMONIQUA (ACRONYM)
Full name HarmoniQuA - Harmonising Quality Assurance in model based catchment and river basin
management
Contact Huub Scholten, huub.scholten@wur.nl, The Netherlands
Ending date 31/12/2005
ID EVK1-CT-2001-00097
URL(s) http://harmoniqua.wau.nl/
Abstract HarmoniQuA aims to provide a user-friendly computer based guidance and QA framework for use in
model based river management. It will prompt users with the appropriate 'next step' in the modelling
process and provide an audit trail to check previous decisions. The approach targets management at
catchment and river basin scales with the overall goal of improving the quality of modelling and
therefore enhancing the confidence of all stakeholders in them. HarmoniQuA attempts to serve
several types of users in a series of water management domains, in jobs of varying complexity. Users
working on a specific job will only be confronted with guidance relevant to them in their present
context
INTERACTION (ACRONYM)
Full name Institutional interaction - how to prevent conflicts and enhance synergies between international and
EU environmental institutions{ XE "institutions:Interaction" }
Contact R. Andreas Kraemer, Ecologic - Institute For International And European Environmental Policy,
Germany
Ending date 28/02/2003 COMPLETED
ID EVK2-CT-2000-00079
53
URL(s) http://www.ecologic.de/english/interaction/inhalt.html
Abstract The project examines the interaction between international and EU environmental institutions. Such
interaction affects the effectiveness of international and EU environmental policy-making. The core of
the project is made up of twelve case studies analysing inter-institutional conflicts and synergies
generated or suffered by a) five important international environmental regimes (climate{ XE
"climate:Interaction" } change, biodiversity, protection of the North Atlantic, High Seas fisheries
management, CITES) and GATT/WTO, and b) six important European environmental directives
(habitats, water framework, IPPC, air quality framework, environmental liability and deliberate-release
directives).
Of particular concern will be the vertical interaction between international and EU instruments. Case
studies will rely on a common theoretical concept. Their comparative evaluation will produce
generalised knowledge on institutional interaction and specific policy recommendations.
IRMA-SPONGE (ACRONYM)
Full name Irma-Sponge Umbrella Programme
Contact Aljosja Hooijer, Aljosja.Hooijer@wldelft.nl, The Netherlands
Ending date
ID
URL(s) http://www.irma-sponge.org/
Abstract The IRMA-SPONGE Umbrella Program brings together 13 European scientific projects researching a
wide range of flood risk{ XE "risk:Irma-Sponge" } management issues along the Rivers Rhine and
Meuse, and is one of the largest and most comprehensive efforts of its kind. The overall aim is
defined as: "The development of methodologies and tools to assess the impact of flood risk reduction
measures and scenario{ XE "scenario:Irma-Sponge" }s. This to support the spatial{ XE "spatial:Irma-
Sponge" } planning{ XE "planning:Irma-Sponge" } process in establishing alternative strategies for an
optimal realisation of the hydraulic, economical and ecological functions of the Rhine and Meuse
River Basins."
The main objectives of IRMA-SPONGE are to A) enhance the level of scientific input to flood
management, and B) promote transboundary{ XE "transboundary:Irma-Sponge" } co-operation.
Specific fields of interest are:
Efficiency of flood risk reduction measures.
Flood risk assessment.
Sustainable flood risk management.
Public participation{ XE "participation:Irma-Sponge" } in flood management issues.
IWRM.NET (ACRONYM)
Full name Towards a European-wide Exchange Network for improving dissemination of integrated{ XE
"integrated:IWRM.NET" } Resources Management Research Outcomes
Contact Jean Antoine Faby, Office International De L'eau, France
Ending date 01/09/2004 COMPLETED
ID FP6-SUSTDEV
URL(s) www.cordis.lu
Abstract
IWRMS (ACRONYM)
Full name The development of an innovative computer based integrated{ XE "integrated:IWRMS" } water
resources management system in semiarid catchments for water resources analyses and prognostic
scenario{ XE "scenario:IWRMS" } planning{ XE "planning:IWRMS" }
Contact Prof Wolfgang-Albert Flügel, Institut für Geowissenschaften, Friedrich-Schiller-Universität Jena,
Germany
Ending date 14/01/2001 COMPLETED
ID IC18-CT-1997-0144
URL(s) http://europa.eu.int/comm/research/water-initiative/projects/ic18_ct_1997_0144_en.htm
54
Abstract The main objectives were: a) classify and investigate land use, degraded areas and settlements by
means of remote sensing techniques, aerial photography interpretation and linkage with GIS; b)
simulate hydrological and erosion dynamics; c) develop a GIS-based management decision support
system to identify competing stakeholders' water demands and to address allocation conflicts with