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Report on Water Desalination Status TER DESALIN a in the Mediterranean Countries REPORT on W a in the MEDITERRANEAN COUNTRIES (2011) DIVULGACIÓN TÉCNICA SERIE

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Report on Water Desalination Status TER DESALIN a in the Mediterranean Countries REPORT on W a in the MEDITERRANEAN COUNTRIES (2011) DIVULGACIÓN TÉCNICA SERIE PRODUCCIÓN DE BIOENERGÍA EN ZONAS RURALES DIVULGACIÓN TÉCNICA DIVULGACIÓN SERIE 04 AREAS RURAL IN PRODUCTION BIOENERGY SERIE DIVULGACIÓN TÉCNICA BIOENERGY PRODUCTION IN RURAL AREAS 04 PRODUCCIÓN DE BIOENERGÍA EN ZONAS RURALES ZONAS EN BIOENERGÍA DE PRODUCCIÓN PRODUCCIÓN DE BIOENERGÍA EN ZONAS RURALES DIVULGACIÓN TÉCNICA DIVULGACIÓN SERIE 04 AREAS RURAL IN PRODUCTION BIOENERGY SERIE DIVULGACIÓN TÉCNICA BIOENERGY PRODUCTION IN RURAL AREAS 04 PRODUCCIÓN DE BIOENERGÍA EN ZONAS RURALES ZONAS EN BIOENERGÍA DE PRODUCCIÓN Instituto Murciano de Investigación y Desarrollo Agrario y Alimentario www.imida.es TUS TA TION S A Report on water desalination status TER DESALIN A in the Mediterranean countries REPORT ON W IN THE MEDITERRANEAN COUNTRIES (2011) DIVULGACIÓN TÉCNICA SERIE SERIE DIVULGACIÓN TÉCNICA Instituto Murciano de Investigación y Desarrollo Agrario y Alimentario Consejería de Agricultura y Agua de la Región de Murcia REPORT ON WATER DESALINATION STATUS IN THE MEDITERRANEAN COUNTRIES Dr. Juan Cánovas Cuenca Chief of Natural Resources Department Instituto Murciano de Investigación y Desarrollo Agroalimentario (Murcia- Spain) September, 2012 Primera edición: febrero 2013 Edita: © IMIDA. Instituto Murciano de Investigación y Desarrollo Agrario y Alimentario Consejería de Agricultura y Agua de la Región de Murcia Juan Cánovas Cuenca Jefe del Departamento de Recursos Naturales D.L.: MU 1103-2012 Imprime: O.A. BORM Camino Viejo de Monteagudo, s/n 30160 Murcia ACKNOWLEDGMENTS We thank Junta Central de Usuarios Regantes del Segura which funded the publication of this work as a book. Also, Mr. Ian A. Newton Page (The English Centre - Torre Pacheco) for his linguistic support. I N D E X Page ABBREVIATIONS 1 PREFACE 3 CHAPTER I: WATER, A WORLD-WIDE CONCERN 5 CHAPTER II: WATER DESALINATION 7 1. INTRODUCTION 7 2. WATER DESALINATION PROCESSES 8 3. WATER DESALINATION AT A GLOBAL LEVEL 14 4. CHEMICAL AND PHYSICAL CONSIDERATIONS ON WATER QUALITY 14 5. WATER DESALINATION THERMODYNAMICS (RO SYSTEMS) 18 6. PRACTICAL ENERGY REQUIREMENTS FOR WATER DESALINATION 21 7. ENERGY RECOVERY TECHNOLOGIES 22 8. USE OF ALTERNATIVE ENERGIES IN WATER DESALINATION 23 9. WATER DESALINATION COSTS 26 10. WATER DESALINATION AND ENVIRONMENT 33 11. WATER DESALINATION AND LAW 38 12. WATER DESALINATION TRENDS 39 TABLES 43 CHAPTER III: WATER DESALINATION IN THE MEDITERRANEAN 53 REGION 1. WATER RESOURCES 53 2. WATER DESALINATION IN THE MEDITERRANEAN REGION 57 TABLES 60 APPENDIX 69 MOROCCO 71 ALGERIA 81 TUNISIA 95 LIBYA 103 EGYPT 117 ISRAEL 145 JORDAN 157 LEBANON 165 SYRIA 173 TURKEY 181 GREECE 191 CYPRUS 207 MALTA 217 ITALY 225 FRANCE 245 SPAIN 255 PORTUGAL 289 ABBREVIATIONS AD Anno Domini, in the year of our Lord Jesus Christ. BC Before Christ Cm2 Square centimetre ED Desalting process by electro-dialysis EDI Desalting process by electro-deionisation ESCWA Economical and Social Commission for Western Asia. United Nations FAO Food and Agricultural Organization of the United Nations GWI Global Water Intelligence ha Hectare hm3 Cubic hectometre HD Humidification-dehumidification processes IDA International Desalination Association IME Institute Méditerranéen de l´Eau Kwhe Kilowatt-hour electric Kwht Kilowatt-hour thermal Kwh/m3 Kilowatt-hour per cubic meter M3 Cubic meter MCV Desalting process by mechanical compression system MED Desalting process by multi-effect distillation m3/d Cubic meter per day MCM/d Million cubic meter per day MSF Desalting process by multi-stage flash system NF Nanofiltration PR Performance ratio, express the quantity of desalinated water produced with 2.300 kJ. psi Pound per square inch RO Desalting process by reverse osmosis SWRO Seawater reverse osmosis process TDS Total dissolved solids USA United States of America US$ United States Dollar VC Desalting process by vapour compression system 1 P R E F A C E The Mediterranen Water Forum, during the meeting constituent celebrated in Marrakech (Morocco) the days 19 and 20 of December, 2011, received the discussion on the importance that no-conventional resources of water have in the sustainable development of all countries integrated in this Region. Among the named non-conventional water rsources, those obtained by desalination of sea water and brackhis waters constitute a source to supply hydric demands generated by the population as direct consumers of water and, as well, during the economic processes involved in the agriculture, industry, tourism, etc, developed on the Mediterranean territories. Moreover, the Mediterranean Water Forum considered the need to update the knowledge on the actual state of water desalination in this Region referring to uses, technologies, economic basis, energetic implications, legal framework and generated and predictable impact on the environment. All this because this knowledge was considered necessary as a starting point to carry out national decisions in order to integratedesalinated water resources into the public planning water activities in all countries of the Mediterranean Region and, in consequence, achive an integrated management of water resources. This objective will find a good supportive tool in the present REPORT ON WATER DESALINATION STATUS IN THE MEDITERRANEAN COUNTRIES 2012. The author tries to give an overview of the current state of water desalination in the Mediterranean Region. It is possible to find in it detailed information about different water desalination processes, qualitative characteristics of desalinated waters, energy requirements, environmental impacts, desalinated water demands, economy of water desalination and future tendencies. The author has chosen, as a foundation for this study, the countries with territories in the edges or in the vicinity of the Mediterranean Sea, as is the case of Jordan, although not all its desalination activities are being developed in this region. He has considered that extending the field of study will provide a complete 3 reference that allows us to know how the countries are involved in water desalination development. Being this report an initial point to achive the purposes of The Mediterranean Water Forum, its improvement would be desirable during the Forum's progress. Thus, an instrument for public opinion could come up, showing the real prospect of the increasing availability of hydric resources, by means of water desalination. A possibility, simultaneous promising and complex, which rational development might be able to turn into an effective instrument to attack the poverty in our region helping to raise the standard of living of its inhabitants. Adrián Martínez Cutillas Director Instituto Murciano de Investigación y Desarrollo Agrario y Alimentario 4 CHAPTER I WATER, A WORLD-WIDE CONCERN Water is an inorganic substance whose functions, within biological processes, cannot be done by any other substance. Therefore, it is irreplaceable and its characteristics have made it something essential in our society and have turned into a valuable possession since the early stages of humanity. Water is definitely essential in order to support every single form of life in our planet. There is an immense disparity of water distribution on a world- wide scale, not only in time, but also in space. This fact has shown that water is not an unlimited resource. Therefore, the popular belief about the “eternity of water” may be removed from our communal way of thinking. In actual fact, water scarcity is an issue increasingly discussed at the level of international organizations, individual countries and slowly but surely in citizens’ minds. Water is nowadays placed under quantitative pressure and it is also an objective for qualitative alterations, clearly affecting its different uses sustainability. Considering water quality as a management criterion for hydric resources, is related to urban development expansion, industrial activities and irrigated lands intended for agricultural purposes. Indeed, the permanent increase of water used by the activities mentioned above, being essential for social and economic development, has caused international widespread water pollution. This fact occurs with such an intensity that has placed its sustainability in serious jeopardy, not only in the present but also for future generations. There is a continuous increase of entities claiming for a rationalized water use, considering that human progress needs to include social, economic and environmental criteria to be carried out. Humankind faces the challenge to secure that millions of people surpass the poverty situation in which they are living at this moment in time. This purpose requires an enormous developmental effort that could endanger the environment. In order to avoid any negative effect it seems unavoidable, at a global level, the use of performance guidelines to guarantee the sustainable use of all natural resources. However, amidst conservation-development discussions, there is a reality that can not be avoided: the need to obtain the quantity of fresh water required by the entire world-wide population development. Water 5 demands run in parallel with societies’ progress. This is why countries involved in developing policies have to face the problem of water shortage. It has been demonstrated that in countries under arid and semi-arid climates, water deficit is related to socio-economic development, in such a way that the former can represent a serious obstacle for the latter. According to the current status of hydrologic knowledge, it seems that integrated water resources management (IWRM), including non- conventional
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