Periodic Reporting for period 3 - MADFORWATER (DevelopMent AnD application of integrated technological and management solutions FOR wasteWATER treatment and efficient reuse in agriculture tailored to the needs of Mediterranean African Countries)
Reporting period: 2019-06-01 to 2020-11-30
MADFORWATER aimed at developing technological and management instruments for enhancing WW treatment, treated WW reuse for irrigation and water efficiency in agriculture in Egypt, Morocco and Tunisia.
This overall goal was translated into the following specific objectives:
1. improving the analysis of water and food security in the 3 target countries;
2. developing and adapting to the local contexts technologies for WW treatment and treated WW reuse for irrigation;
3. promoting business opportunities in the target countries for water & irrigation enterprises;
4. developing basin-scale water and land management strategies;
5. increasing the level of capacity building in the target countries in relation to the proposed solutions and the social acceptance of treated WW reuse in agriculture;
6. enabling the adaptation of the project outcomes to other basins of the target MACs.
The MADFORWATER concept is shown in Fig. 1.
The second objective was to develop a technological toolbox for WW treatment, irrigation efficiency and treated WW reuse in agriculture. MADFORWATER set up and adapted to the local contexts of Tunisia, Morocco and Egypt technologies for the treatment of different WW types, largely produced in these countries: municipal WW, water of drainage canals in the Nile delta, agro-industrial WWs and textile WW. Furthermore, the project developed and adapted to the 3 target countries 6 technologies suitable for irrigation with treated WW in hot climates. The most promising technologies were scaled-up and validated in 4 demonstrator plants of integrated WW treatment and reuse, installed in the 3 target countries and operated for over 1 year (Figs. 3-6). The 4 demos led to the production and reuse of high-quality effluents, and to the validation of several irrigation technologies under field conditions. In addition, MADFORWATER worked on the development of protocols for the detection and quantification of severe acute respiratory syndrome Coronavirus 2 (SARS-CoV-2) in raw and treated WW. Two methods for virus recovery and concentration were validated, and the development of a method for virus quantification in WW is in progress.
In order to promote business opportunities in the target countries (third objective), a business plan was developed for each MADFORWATER SME, and guidelines for the market expansion in the target MACs of for EU and North African water and irrigation companies were produced.
The fourth objective was to decrease water vulnerabilities in Egypt, Morocco and Tunisia through the development of sustainable water management strategies. Two model-based Decision Support Tools – dedicated to WW management and to agricultural water management – were developed and utilized to integrate the MADFORWATER technologies and economic instruments into basin-scale water & land management strategies adapted to the 3 hydrological (sub)basins targeted by the project: Souss-Massa in Morocco, Cap-Bon and Miliane in Tunisia, North-Eastern Nile Delta in Egypt (Fig. 7). A review on the policies and economic instruments applied in water management in the target MACs was produced and published.
In order to increase the level of capacity building in the target countries in the fields of water management and social acceptance of treated WW reuse (fifth objective), MADFORWATER organized in Morocco, Tunisia and Egypt several stakeholder consultation workshops, capacity building workshops, train-the-trainer courses and field visits. 32 scientific articles, a book on the project’s technologies and 4 newsletters were published. Various dissemination materials were translated in French and Arabic to ensure wider impact in North African countries.
- a set of maps describing water security and WW reuse potential in Egypt, Morocco and Tunisia, produced thanks to an innovative application to North Africa of the AWDO 2016 water security framework;
- an in-depth analysis of the effects of water vulnerabilities on food security and socio-economic development in the 3 target MACs;
- a basin-scale water vulnerability framework for assessing the effectiveness of integrated water management strategies;
- a toolbox of technologies for WW treatment and efficient reuse in agriculture, tailored to the local conditions of 3 selected basins in the target MACs;
- 4 field pilot plants of integrated WW treatment and water reuse in agriculture, operated in the 3 selected basins for over 1 year and available for further technology validation in future projects;
- a technical booklet and a set of technical videos on the MADFORWATER technologies for WW treatment and efficient reuse in agriculture;
- two Decision Support Tools for the model-based development of sustainable water management strategies;
- a set of integrated strategies for WW treatment and agricultural water management, with associated economic instruments, targeted to the 3 selected MACs;
- policy recommendations for the effective implementation of the proposed water management solutions in the 3 target MACs;
- business plans to foster the market penetration in the target MACs of the MADFORWATER SMEs;
- strategies for the market expansion in the target countries of water and irrigation enterprises;
- a consistent set of capacity building activities and materials;
- a set of guidelines for the adaptation to other MENA countries of the MADFORWATER tools, technologies and water management strategies.
Most of these results are freely available to any stakeholder through the project website and the Zeonodo and AMS Acta repositories.
The expected MADFORWATER impact is graphically illustrated in Fig. 8. The project is expected to lead, 10 years after its conclusion, to the following impacts in the 3 target countries:
- consistent increase of WW treatment and treated WW reused for irrigation;
- relevant increase of land irrigated with efficient technologies suitable for WW reuse;
- strong water saving in agriculture;
- increase in agricultural production and food security;
- increased income and employment potential of the water treatment and agricultural sectors;
- decrease of the overall costs associated to water vulnerability.