A Methodology to Assess the Water Energy Food Ecosystems Nexus in Transboundary River Basins
Abstract
:1. Introduction
1.1. Intersectoral Policy Coherence in Transboundary Settings
1.2. The Nexus Work Under the UNECE Water Convention
- ○
- Identifying interlinkages (trade-offs and impacts) across sectors and countries and incoherencies in governance;
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- Proposing actions to reduce negative impacts, minimise trade-offs and possibly take advantage of existing complementarities and win-win opportunities;
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- Providing evidence of benefits from improved cooperation at national and transboundary levels.
1.3. Scope of the Paper
- ○
- How did using a nexus approach contribute to advancing the work of the UNECE?
- ○
- What are the strengths and main limitations of this methodology to be taken into account for future applications?
2. Study Context
2.1. Cooperation and Benefits
2.2. Developing the TRBNA Methodology
3. Methodology. The Nexus Assessment of a Transboundary Basin
3.1. A Six Steps Process
- ○
- Indicators—Steps 1,3,4,6 (see Appendix 1):
- (1)
- statistical and spatial screening indicators at country and basin levels;
- (2)
- perspective indicators from the different sectors and countries (see “Opinion based questionnaire”);
- (3)
- basin-specific indicators of various kinds, to support the study of interlinkages.
- ○
- Factual questionnaire—Step 1
- ○
- Workshop—Steps 4,5,6 (see Appendix 2)
- ○
- Opinion based questionnaire—Step 4
- ○
- Follow-up meeting—Step 6
3.1.1. Step 1—Socio-Economic and Geographical Context
- ○
- The factual questionnaire compiled by focal points from each riparian country
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- Key documentation on the basin and region such as socio-economic reports and environmental reviews. In this process, a basic set of reports was used, such as reports by various UN organizations (e.g., UNECE, FAO) and other international organizations (e.g., World Bank, Global Water Partnership) were typically included in this list, together with River Basin Management Plans)
- ○
- Screening indicators at national and basin level. In this process, indicators from World Bank and FAO—Aquastat databases were widely used, however no fixed set of screening indicators was defined (see Appendix 1 and Section 5.2).
3.1.2. Step 2—Identification of Key Sectors and Key Actors
3.1.3. Step 3—Analysis of Key Sectors
- (a) Sectors and resource flows analysis
- (b) Governance Analysis
- Policy framework—strategies and other policy documents, instruments, etc.;
- Legal and regulatory framework—rules and regulations;
- Organizations and actors—mandates, responsibilities, administration.
3.1.4. Step 4—Intersectoral Issues
3.1.5. Step 5—Nexus Dialogue
3.1.6. Step 6—Solutions and Benefits
4. Results
4.1. Analysis of the Basin—Steps 1 to 3
4.2. Active Engagement—Steps 4 to 6
5. Discussion
5.1. Value of a Nexus Approach for Advancing Transboundary Cooperation in the Framework of the Water Convention
5.2. Strengths and Limitations of the TRBNA Methodology
- ○
- Using a highly participatory approach. This allows to focus on actual issues and priorities as well as to validate results from the sectoral and intersectoral analyses.
- ○
- Searching for opportunities of cooperation beyond the water domain. This helps discussing the direct and indirect beneficial effects brought by cooperating in other areas (e.g., trading or establishing common objectives at regional level) to potentially broaden consideration and involvement of different sectors and interests in the current water cooperation frameworks.
- ○
- Being flexible and adaptable. Focusing more on the “local nexus” by, for instance, avoiding a prescriptive use of indicators, it allows for the consideration of diverse intersectoral issues and cooperative options.
- ○
- Substituting direct transboundary confrontation with intersectoral (nexus) dialogue. In contexts where transboundary dialogue is politically sensitive, this may be very useful if not necessary.
- ○
- Using a resource-flow approach and a governance analyses in parallel. These two reinforce each other, respectively by providing evidence of physical trade-offs arising from the multiple use of finite resources and by identifying incoherences in the definition of policies or gaps in the institutional and legal frameworks.
- ○
- Using sometimes ambiguous definitions and inconsistent indicators. While useful to adapt to different understandings and circumstances, this can create confusion when it comes to comparing results across basins.
- ○
- The assessment approach as defined does not address a number of aspects that can be important, for example, financial constraints related to the applicability of solutions, administrative cultures and power imbalances. While already the scoping nature of the assessments and the resources available limited what could be covered, also the institutional set-up and priorities affected what was considered appropriate and relevant to include. Being outlined at a fairly general level, some solutions may be perceived as incomplete or even unclear by sectoral experts involved in the process.
- ○
- Over-emphasizing and over-representing water over the other sectors and resources. This causes some important interlinkages to be discussed less, namely food/land-energy, energy-ecosystems and food/land-ecosystems.
- ○
- Establishing a glossary of terms and a minimum set of screening indicators on the basis of further consultation with experts in intersectoral issues.
- ○
- Extending Step 6 to include a better description of what a future analysis of each solution would entail.
- ○
- The imbalance of water could be improved by relying less on established networks and carefully selecting key actors (i.e., applying more rigorously Step 2) or at least by better involving those actors in the review of the assessments. Also, more robust methodologies for the governance aspects of the assessment could be developed to better take into account differences among sectors.
6. Conclusions
Acknowledgments
Author Contributions
Conflicts of Interest
APPENDIX 1. Indicators
Group | Relation to the Methodology Process | Type | Sources |
---|---|---|---|
Screening indicators (basin and national level) | Steps 1 and 3 | Statistics Geo-spatial (GIS) | National and international statistics; relevant documents such as river basin management plans. |
Perspective Indicators | Step 4 | Qualitative/Rankin | Opinion based questionnaire. |
Assessment-specific indicators | Step 6 | Data | Previous studies, experts, authorities, models and estimations. |
APPENDIX 2. Structure of the Workshop
- 1. Introduction of the nexus and relevant explicatory examples (by the analysts).
- 2. Distribution of the opinion based questionnaire.
- 3. Introduction to the key sectors, their main characteristics and issues (by selected speakers).
- 4. Presentation of national sectoral policies, as well as relevant national strategies and targets that may affect the basin (by relevant authorities).
- 5. Focus on the basin. Discussion on possible future development of the basin (river basin or aquifer management plan, infrastructure plans, sectoral targets, policy priorities, etc.).
- 6. Illustration of possible interlinkages and nexus conditions. Explanation of the working group sessions.
- 7. First working group session on intersectoral mapping. Stakeholders are divided according to their area of expertise or work (food/land, water, energy, ecosystems). Each group identifies the most important interlinkages (impacts and trade-offs) associated with its component. (For the material used, see Appendix 3).
- 8. Joint prioritization of the key interlinkages to be considered in the assessment. (For the material used, see Appendix 3).
- 9. Presentation of official data on climate change and, if available, the predicted impact on the basin.
- 10. Second working group session on future dimensions. Participants are divided into mixed groups to define a few relevant scenarios and discuss how the key interlinkages will change under those scenarios (see note below).
- 11. Discussion on synergetic actions for the identified nexus conditions, by means of measures, policies, coordination arrangements and techno-economic solutions. Reflection on the transboundary dimension. Discussion on the benefits and limitations. Identification of who/which actors could advance the actions.
- 12. Discussion on indicators and sources available.
- 13. Presentation (by the analysts) of some key findings and preliminary results from the workshop and desk study, in the form of nexus graphs and storylines that will be analysed further and included in the basin assessment.
- 14. Presentation of next steps in the assessment.
APPENDIX 3. Material to Facilitate Intersectoral Dialogue
APPENDIX 4. Highlights from the Socio-Economic Analysis (Illustrative of Step 1).
Alazani/Ganykh
- (a) State of energy, food, water and environmental security in the basin
- (b) Relations within the region, the basin and its riparian countries
- (c) Main strategic goals, development policies and challenges
Sava
- (a) State of energy, food, water and environmental security in the basin
- (b) Relations within the region, the basin and its riparian countries
- (c) Main strategic goals, development policies and challenges
Syr Darya
- (a) State of energy, food, water and environmental security in the basin
- (b) Relations within the region, the basin and its riparian countries
- (c) Main strategic goals, development policies and challenges
APPENDIX 5. Map ok Key Organizations and Actors (Illustrative of Step 2)
Basin | Alazani/Ganykh | Sava | Syr Darya |
---|---|---|---|
Identification of key actors | Building on earlier intersectoral projects’ stakeholder mapping. | Based on a stakeholder analysis for the Sava River Basin Management Plan, seeking to expand the involvement of notably energy and agriculture, which due to the mandate of the International Sava River Basin Commission were less engaged in the basin’s management. | The Ministries of Foreign Affairs coordinated the nominations for their country, influencing somewhat the representation of sectors. |
Regional and sub-regional level | Intergovernmental Commission for Economic Cooperation | European Union (riparian States have a different status), Energy Community, International Commission for the Protection of the Danube River, Danube (Navigation) Commission. | Commonwealth of Independent States, Eurasian Economic Community; International Fund for Saving the Aral Sea, Interstate Coordination Water Commission (ICWC), Interstate Commission for Sustainable Development, Central Asian Power Council, Central Asian Power System, Coordination dispatching Centre “Energy”. |
(Transboundary) Basin level | - | International Sava River Basin Commission. | Basin Water Organization Syr Darya (under ICWC). |
Central Government | Ministries of energy, agriculture, environment and natural resources, economy (and sustainable development/industry); development and infrastructure; emergency situations, health. | Ministries of trade, economy, energy, agriculture, environment, infrastructure/construction, transport. | Ministries of foreign affairs, economy and trade, energy, agriculture, investment and development, emergency situations, industry, healthcare (and social development or protection) |
Entity level | - | Entity level ministries in Federation of Bosnia and Herzegovina and Republika Srpska and District Brcko: energy and industry; agriculture, water management and forestry; physical planning; environment. | - |
Government agencies, state committees | National Energy and Water Supply Regulatory Commission; State Committee on Property Issues. | Energy agencies, environmental agencies, national water councils. | State agencies or committees of environmental protection, land management, forestry, geology and mineral resources; Committee for Water Resources (Kazakhstan); Water and Energy Coordination Council (Tajikistan); committee/agency for communal services; state agency, authority or center of hydrometeorology. |
Companies and utilities (state and private) | Companies on water supply; land reclamation and water resources, renewable energies. | Energy producers | Public utilities for water supply and sanitation; joint stock companies for energy production, transmission or distribution. |
Sub-national/provincial level | Regions and districts | Regional or provincial government—absent in Slovenia); (see above regarding entity level in Bosnia and Herzegovina). | Basin inspections, basin water economy administrations, basin councils, basin organizations, basin irrigation authorities. |
Local level | Local self-governance institutions, user associations. | Local governments, water supply and sewage companies. | Subsidiary companies of public utilities for water supply and sanitation; local branches of electricity distribution (and transmission); local administrations (city, region and district), water user associations. |
APPENDIX 6. Analysis of the Energy Sector in the Sava River Basin (Illustrative of Step 3)
- (a) Key findings from the sector and resource flow analysis:
- ○
- The electricity generation in the Sava countries depends heavily on water from the basin (see Figure A3), as the basin hosts high shares of the total thermal and hydropower capacity installed in the region (i.e., all countries) with some countries more dependent on the Sava than others: e.g., the ratio hydropower capacity in the basin/total national hydropower capacity is 5% in Croatia and 45% in Montenegro.
- ○
- Energy is used for powering the water sector, which includes water pumping, irrigation and treatment.
- ○
- Storage reservoirs help both to balance power demand and supply fluctuations (i.e., providing energy supply to compensate shortfalls from other energy sources) and, together with other water buffer zones such as flood-planes, wetlands and forests, to enhance flood control.
- ○
- Extreme flood events can cause damage to coal mines, affecting security of fuel supply. Recent floods have affected cooling systems and a coal mine.
- (b) Key findings from the governance analysis:
APPENDIX 7. Intersectoral Issues in the Syr Darya River Basin (Illustrative of Step 4)
Interlinkage | Issue |
---|---|
Water-Agriculture | High water requirements for irrigation (thirsty crops and high losses in irrigation schemes); |
Discharges from agriculture cause diffuse pollution of water, limiting other uses and affecting ecosystems downstream; | |
High levels of land degradation and salinization, caused mainly by poor drainage and causing loss of fertile soil. | |
Energy-Agriculture | River flow regulation optimized for energy generation affecting water availability for agriculture; |
Problem of affordability of energy and food upstream, sometimes combined causing situations of energy and food emergency for rural population; | |
Ecosystems-Agriculture | Prioritization of productive sectors (namely energy and agriculture) over ecosystems, leaving insufficient water for environmental needs; |
High impact of water scarcity on fish catches and aquaculture, the latter being an important livelihood for local settlements in the middle and low course of the river. |
APPENDIX 8. Nexus Dialogue in the Alazani/Ganykh River Basin (Illustrative of Step 5)
APPENDIX 9. Solution and Benefits from the Sava River Basin (Illustrative of Step 6)
- ○
- Example of solution proposed
- ○
- Benefits
- 1 At basin/transboundary level: (1) Reduced frictions between sectoral developments of different countries; (2) Improved efficiency of water resource use in the basin; (3) Decreased risk of water-related disasters if the variability of flow is well taken into account.
- 2 At national level: (1) Higher efficacy of efforts targeting energy security and low-carbon growth (using hydropower); (2) Reduced exposure of energy sector’s operations to water scarcity or water related disasters (floods and droughts).
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De Strasser, L.; Lipponen, A.; Howells, M.; Stec, S.; Bréthaut, C. A Methodology to Assess the Water Energy Food Ecosystems Nexus in Transboundary River Basins. Water 2016, 8, 59. https://doi.org/10.3390/w8020059
De Strasser L, Lipponen A, Howells M, Stec S, Bréthaut C. A Methodology to Assess the Water Energy Food Ecosystems Nexus in Transboundary River Basins. Water. 2016; 8(2):59. https://doi.org/10.3390/w8020059
Chicago/Turabian StyleDe Strasser, Lucia, Annukka Lipponen, Mark Howells, Stephen Stec, and Christian Bréthaut. 2016. "A Methodology to Assess the Water Energy Food Ecosystems Nexus in Transboundary River Basins" Water 8, no. 2: 59. https://doi.org/10.3390/w8020059
APA StyleDe Strasser, L., Lipponen, A., Howells, M., Stec, S., & Bréthaut, C. (2016). A Methodology to Assess the Water Energy Food Ecosystems Nexus in Transboundary River Basins. Water, 8(2), 59. https://doi.org/10.3390/w8020059