RIWE RIWE Regional Institute of Water Education

M.Sc. Courses at RIWE

M.Sc. program in Water Management

Many regions of the world are increasingly facing challenges when it comes to managing water, and the nature of these challenges differs from one location to the next. It may relate to having too little water while water demands are growing (water scarcity), too much water (flooding), and water of poor quality rendering it unfit to sustain aquatic ecosystems and/or containing the provision of water to people, industry and agriculture. Addressing these challenges requires application of an integrated and interdisciplinary approach, involving hydrological, biophysical, chemical, social, economic, institutional, legal, policymaking and planning aspects. The MSc Program in Water Management provides such an integrated and interdisciplinary approach. This innovative program brings together the scientific study of water management with training in professional skills tailored to the needs of the students. Throughout the program, students are encouraged to study water management from a multidisciplinary perspective and to seek integrated solutions.

The MSc program in Water Management imparts knowledge and skills needed to develop, implement and critically evaluate water management policies and strategies in order to foster inclusive and sustainable use of water and achieve effective governance of water systems taking into account variations in the social and environmental constraints and resources. The program benefits from integrated and holistic theoretical framework enhanced by several experience-based and case-based instructional methods such as games, which bring together real life situations and game conditions (players, rules, competition, conflict, etc.) and activates students in the learning process.

The MSc program in Water Management starts with a foundation phase, in which students are familiarized with the interdisciplinary character of the water management domain. This common part of the program includes subjects on integrated approaches in water management, key biophysical, chemical, hydrological, meteorological and social processes, water governance and water economics. They will also learn some of the required skills for a water resources engineer/manager including: 

  • Good team-work skills
  • Problem-solving skills
  • IT skills
  • GIS and remote sensing skills
  • Ability to analyze large amount of data
  • Communication skills

After the foundation phase, the students compose a personal portfolio that reflects their educational and professional background as well as career ambitions. As part of the portfolio students will determine their personal study profile for the remaining part of the program, with guidance by a dedicated mentor and, if applicable, in consultation with their employer. The study profiles can be fully tailor-made based on a broad range of available courses or follow one of the thematic profiles. The thematic profiles include profiles that focus on water resources management, water quality management, water services management and water conflict management (see below for details). The program culminates in an MSc research and thesis writing phase in line with the selected study profile. Once they have successfully completed this program, graduates will be able to:

  • Describe and predict for a given water resources system the main hydrological, hydraulic, chemical and ecological processes and how these processes are dynamically linked with human activities, including land use and water service provision.
  • Critically evaluate technical and institutional water system interventions (e.g. projects, programs, policies, agreements) through analysis of implications for the water system, its users and their interrelations at various spatial and temporal scales.
  • Conduct, independently or in a multidisciplinary team, academic research and clearly and systematically describe the rationale for an integrated and interdisciplinary approach for managing water systems.

Water Management program consists of four thematic profiles listed in the following table:

THEMATIC PROFILES

Required Courses (Credit)

Seminar (Credit)

Thesis (Credit)

Water Conflict Management

24

2

6

Water Quality Management

24

2

6

Water Resources Management

24

2

6

Water Services Management

24

2

6


Water Conflict Management

Students will study water conflict management, particularly alternative dispute resolution processes and develop the skills required to prevent, manage and resolve water-related conflicts. They will also learn about modern concepts of hydro-diplomacy.

Water Quality Management

Students will study the water quality impacts of human activities on aquatic ecosystems, as well as possible remedial actions, considering different levels of environmental stress and in various socio-economic contexts.

Water Resources Management

Students will study water availability in connection to water use, and seek to develop alternative land use and water allocation policies, including legal and institutional arrangements from the local watershed to the basin scale and beyond.

Water Services Management

Students will study the provision of water and sanitation services as well as the management of related infrastructure and critically review institutional and financial instruments and business models considering different socioeconomic contexts.


Required for all students:

Title

Credit

Principles of Integrated Water Resources Management

3

Water Resources Systems

3

Water Resources Economics

3

Hydrological Assessment

3

Seminar

2

MSc Thesis

6


Elective courses for Water Conflict Management

Course Title

Credit

Water Governance

3

Water Conflict Management 

3

Participatory Water and Environment Management

3

Game Theory

3

Institutional Analysis

3

Hydro Politics and Diplomacy

3

Water Laws and Protocols

3


Elective courses for Water Resources Management

Course Title

Credit

Environmental Assessment and Sustainable Development

3

Asset Management

3

Institutional Analysis

3

 Water Laws and Protocols

3

Adaptation to Climate Change

3

Resilient Infrastructure Development

3

Value Engineering

3


Elective courses for Water Services Management

Course Title

Credit

Asset Management 

3

Urban Water Governance

3

Institutional Analysis

3

Partnerships for Water Supply and Sanitation

3

Urban Water Systems

3

Water Utility Management

3


Elective courses for Water Quality Management

Course Title

Credit

Water Quality Assessment and Modeling

3

Physical, Chemical and Biological Processes of Water & Wastewater

3

Environmental Planning and Implementation

3

Ecosystem Based Water Management

3

LID & BMP for Water Quality Management

3

Water Laws and Protocols

3

Environmental Valuation and Accounting

3

The MSc program in Water Management starts with a foundation phase, in which students are familiarized with the interdisciplinary character of the water management domain. This common part of the program includes subjects on integrated approaches in water management, key biophysical, chemical, hydrological, meteorological and social processes, water governance and water economics. They will also learn some of the required skills for a water resources engineer/manager including:

  • Good team-work skills
  • Problem-solving skills
  • IT skills
  • GIS and remote sensing skills
  • Ability to analyze large amount of data
  • Communication skills

 After the foundation phase, the students compose a personal portfolio that reflects their educational and professional background as well as career ambitions. As part of the portfolio students will determine their personal study profile for the remaining part of the program, with guidance by a dedicated mentor and, if applicable, in consultation with their employer. The study profiles can be fully tailor-made based on a broad range of available courses or follow one of the following thematic profiles. The program culminates in an MSc research and thesis writing phase in line with the selected study profile. RIWE does not offer non-thesis option for M.Sc. students. 

THEMATIC PROFILES
Required Courses (Credit)
Seminar (Credit)
Thesis (Credit)
Profile Description

Water Conflict Management

24

2

6

Students will study water conflict management, particularly alternative dispute resolution processes and develop the skills required to prevent, manage and resolve water-related conflicts. They will also learn about modern concepts of hydro-diplomacy.

Water Quality Management

24

2

6

Students will study the water quality impacts of human activities on aquatic ecosystems, as well as possible remedial actions, considering different levels of environmental stress and in various socio-economic contexts.

Water Resources Management

24

2

6

Students will study water availability in connection to water use, and seek to develop alternative land use and water allocation policies, including legal and institutional arrangements from the local watershed to the basin scale and beyond.

Water Services Management

24

2

6

Students will study the provision of water and sanitation services as well as the management of related infrastructure and critically review institutional and financial instruments and business models considering different socioeconomic contexts.

Admission requirements: 

  • Eligible Bachelor’s degrees for academic admission include civil, chemical, agricultural, irrigation or environmental engineering, natural sciences, environmental science, agronomy,and geography. The Bachelor degree has to be awarded by a university of recognized standing. 

  • A good command of the English language, if this is not the first language, is necessary. All non-native English-speaking applicants must satisfy the English language requirements.

Course Details & Description

  • Principles of Integrated Water Resources Management (Credits: 3)

    Prerequisites: Water Resources Systems

    Learning objectives:

    • Summarize the latest insights, context and concepts in Integrated Water Resources Management (IWRM) that are under debate in international and regional forums.
    • Explain the main arguments for an integrated approach in the field of water management
    • Explain how to integrate bio-physical, infrastructural, and organizational/institutional systems.

    Syllabus:

    1. IWRM Principles - Concepts and Definitions
    2. Multiple water uses 
    3. Holistic management of supply and demand
    4. Multiple social, environmental and economic perspectives of water as a good
    5. Principles of participatory management and stakeholder engagement approaches  
    6. Emerging Issues 
    7. Field visits to a complex water resources system under water stress and water conflict issues 
    8. Case-based simulations such as games

    Lecturing materials:

    • Grigg, N S, 1996, Water Resources Management: Principles, Regulations and Cases, 1st Edition, McGraw-Hill Professional, 540p.
    • Loucks, D. P., Van Beek, E., Stedinger, J. R., Dijkman, J. P., & Villars, M. T. (2005). Water resources systems planning and management: an introduction to methods, models and applications. Paris: UNESCO. 
  • Water Resources Systems (Credits: 3)

    Prerequisites: None

    Learning objectives:

    • Describe how the physical water resources system works
    • Explain major natural functions and human uses of water resources systems including groundwater, wetlands, lakes/reservoirs and estuaries.
    • Identify basic components to characterize the quantitative and qualitative nature of a water resources systems and able to analyze the hydrology of a water resources systems.
    • Discuss the main issues of debate in an integrated water resources system underpinned by description of the biophysical, chemical and hydrological processes and their interactions, natural functions and human use of a water resources system.

    Syllabus:

    1. Water Resources Systems

    1.1.Introduction to module 

    1.2.Introduction to water resources systems 

    1.3.Water infrastructures

    1.4.River systems 

    1.5.Lakes, wetlands and estuaries 

    2.Hydrology of basins affected by direct and indirect human impacts  Modeling approaches for assessing impacts of direct human interventions (land-use change, groundwater overdraft, etc.) on the hydrologic cycle 

    2.2.Modeling approaches for assessing impacts of indirect human interventions

    (climate change) on the hydrologic cycle 

    2.3.Concepts of hydrology, hydrological cycle, water balance 

    2.4.Interactions between surface and groundwater resources 

    2.5.Reservoir water balance and operation 

    3. Water Quality

    3.1.Water Chemistry 

    3.2.Aquatic ecosystems and water quality issues 

    3.3.Laboratory session

    Lecturing materials:

    • D. P. Loucks, E. van Beek, J. R. Stedinger, J. P. M. Dijkman, and M. T. Villars. 2005. Water Resources Systems Planning and Management: An Introduction to Methods, Models and Applications. UNESCO Publishing, Paris.  
    • Loucks, D., and E. van Beek (2005), Water resources systems planning and management, UNESCO Publishing, Paris, France. 
    • Mays, L. W. (2010). Water resources engineering. John Wiley & Sons. 
  • Water Governance (Credits: 3)

    Prerequisites: Principles of Integrated Water Resources Management

    Learning objectives:

    • Identify and analyze actors and decision making processes related to water governance.
    • Distinguish and explain main discourses and theories on water governance.
    • Identify context, purpose, perspective and arguments of scientific papers on water governance.
    • Compare and contrast different scientific papers, case studies and theories on dynamic and political nature of water governance.

    Syllabus:

    1. An introduction to water governance
    2. Modes of governance
    3. Institutional frameworks and their impacts on water governance systems;
    4. Legal frameworks and their impacts on water governance systems;
    5. Economic analysis tools and international best practices in financing water projects; 
    6. International best practices in stakeholder involvement in water management;

    Lecturing materials:

    • Lebel, L., Dore, J., Daniel, R., & Koma, Y. S. (2007). Democratizing water governance in the Mekong Region. Mekong Press.
    • Sultana, F., & Loftus, A. (Eds.). (2013). The right to water: politics, governance and social struggles. Routledge.
    • Finger, M., Tamiotti, L., & Allouche, J. (2006). The multi-governance of water: four case studies. SUNY Press.
    • Pahl-Wostl, C. 2015. Water Governance in the Face of Global Change: From Understanding to Transformation. Berlin, Germany: Springer. 
  • Water Resources Economics (Credits: 3)

    Prerequisites: None

    Learning objectives:

    • Explain the basic concepts of microeconomic theory
    • Describe the principles of utilizing economic instruments for managing water resources 
    • Describe economic approaches to estimating economic value of water for various uses  
    • Apply economic theory and method to analyze issues of water resource management

    Syllabus:

    1. Introduction to microeconomics 
    2. Introductions to environmental economics 
    3. Water markets 
    4. Economic value of water for different uses 
    5. Water rights and trading approaches 
    6. Economics of urban water conservation 
    7. Valuing environmental flows 
    8. Water pricing 
    9. Economics of climate change

    Lecturing materials:

    • Mankiw, N.G. 2012. Principles of Economics, 6th edition. South-Western Gengage Learning, United Kingdom
    • Tietenberg, T., Lewis, L. 2012. Environmental & Natural Resource Economics, 9th edition. Pearson, Amsterdam, the Netherlands.
    • Canadian Council of Ministers of the Environment, 2010. Water Valuation Guidance Document.
  • Water Laws and Protocols (Credits: 3)

    Prerequisites: Water Resources Systems

    Learning objectives:

    • Describe the fundamentals of national and international water laws and legislation.
    • Explain and apply accepted and desired legal and institutional arrangements for applying principles of Integrated Water Resources and Environmental Management.
    • Describe and apply legal instruments for the application of IWRM with the emphasis on functional decentralization, river basin organizations, planning and decision-making through water allocation criteria, systems of water rights, water (effluent) permit systems etc.
    • Explain and appraise concepts of customary water rights.
    • Discuss the processes of international water allocation.

    Syllabus:

    1.Principles and Strategies in Environmental Law 

    2.Property Rights and Public Lands Management 

    3.Water Law

    3.1.Introduction to Water Law 

    3.2.Legal Instruments for Water Conflict Resolution 

    3.3.Water Quality and Legal Frameworks for Environmental Protection 

    3.4.Safe Drinking Water Regulations  

    4.Legal Arrangements

    4.1.River Basin Organization (Intro)

    4.2.Legal Instruments 

    4.3.Water Rights and Allocation 

    4.4.International Water Sharing 

    4.5.Customary Water Rights

    Lecturing materials:

    • Getches, David H., Sandra B. Zellmer, and Adell L. Amos. 2015. Water Law in a Nutshell, 5th Edition. St. Paul, MN: West Academic Publishing.
    • Percival, R. V., Schroeder, C. H., Miller, A. S., & Leape, J. P. (2013). Environmental regulation: Law, science, and policy. Wolters Kluwer Law & Business.
    • Burns, R. G., Lynch, M. J., & Stretesky, P. (2008). Environmental law, crime, and justice (p. 103). LFB Scholarly Pub.
    • Lazarus, R. J. (2008). The making of environmental law. University of Chicago Press.
  • Urban Water Governance (Credits: 3)

    Prerequisites: Principles of Integrated Water Resources Management 

    Learning objectives:

    • Identify and analyze the relationships between urban water structures and processes, and urban water governance;
    • Identify the relationships between the urban hydrological cycle, and socio-political processes (the hydro-social cycle).
    • Distinguish and explain the emergence of discourses and theoretical frameworks applied to urban water governance (hydro-social cycle, adaptive governance; multi-level governance), and their understanding of equity and environmental sustainability.

    Syllabus:

    1. Urban water systems
    2. Introduction to sustainable urban water management 
    3. Urban governance & governance of urban waters
    4. Leadership in water governance  
    5. Hydro-social cycles 
    6. Connecting the social & technical sub-systems 
    7. Urban water resilience 
    8. Rural/urban interface: connecting water resources and urban water(s) services

    Lecturing materials:

    • Bakker, K. (2010). Privatizing water: governance failure and the world's urban water crisis. Cornell University Press.
    • Sultana, F., & Loftus, A. (Eds.). (2013).The right to water: politics, governance and social struggles. Routledge.
    • Rydin, Y. (2012). Governing for sustainable urban development. Earth scan. 
  • Water Conflict Management (Credits: 3)

    Prerequisites: Principles of Integrated Water Resources Management 

    Learning objectives:

    • Discuss and analyze, from a conflict and cooperation perspective, cases of water sharing and use among different actors at different levels and from different sectors. 
    • Assess the impact of human activities on water systems and the repercussion on water conflict and cooperation.
    • Explain, discuss and analyze the basic concepts of conflicts related to water and of conflict management.
    • Identify, explain and analyze the elements of a negotiation process applied to the management of a water conflict.
    • Prepare, organize, and engage in negotiation processes related to share water resources with different stakeholders.
    • Apply a set of skills and tools needed for water conflict management 

     

    Syllabus:

    1. Game Theory and its applications in water conflict resolution 
    2. Alternative dispute resolution approaches 
    3. International Negotiation Processes 
    4. Negotiation strategies and confidence-building measures 
    5. Cases of transboundary water conflicts or cooperation

    Lecturing materials:

    • Shamir, Y. (2003). Alternative Dispute Resolution Approaches and their Application.Paris: UNESCO-IHP. Available at:http://www.unesco.org/water/wwap/pccp/pubs/disciplinary_studies.shtml
    • Wolf, A.T., Yoffe, S.B., & Giordano, M. (2003), International Waters: Indicators for Identifying Basins at Risk. Technical Documents in Hydrology, PCCP Series, No. 20.Paris: UNESCO-IHP. Available at:http://www.unesco.org/water/wwap/pccp/pubs/summaries/ds_basins_risk.shtml
    • Lewicki R.J. et al (2006) Chapter 3, Strategy and Tactics of Integrative Negotiation In: Lewicki R.J. et al, Negotiation, 5thedition, p. 71-101.
    • Workbook of International Negotiation.  Netherlands Institute of International Relations Clingendael, The Hague 2013
    • Trondalen, J.M. (2008). The Euphrates and the Tigris Rivers – Solutions for Turkey, Syria and Iraq in managing water resources in Water and Peace for the People – Possible solutions to water disputes in the Middle East, Water and Conflict Resolution Series – Paris: UNESCO Publishing, pp 157-210.
    • Combes, R., ter Horst, R.H., Kluijtmans, P., Millet, E., Meerts, P., Patole, M., Smidt, E., van der Zaag, P. (2010) The Calypso River and Aquifer Case. Role play on negotiating the use of a transboundary water system. 
  • Hydrological Assessment (Credits: 3)

    Prerequisites: None

    Learning objectives:

    • Describe different types of water resources data, generated from ground and remote sensing measurements
    • Apply diverse methods of data processing and data validation for water resources assessment
    • Quantify different components of the water resources spectrum (rainfall, river flow, groundwater), an assess availability and access at different scales.
    • Describe and apply different methods of water quality monitoring and assessment.
    • Analyze and quantify multiples uses of water for: agriculture, hydropower, domestic, environment and other uses.
    • Apply water accounting techniques as a quick method for assessing water resources, water use, and water productivity in a river basin context.

    Syllabus:

    1.Water Cycles 

    1.1.Global and Regional Hydrological Cycle and Water Balance

    1.2.Surface/Subsurface Hydrological Processes in a Basin

    2.Water Resources Assessment

    2.1.Water resources data 

    2.2.Surface water resources assessment 

    2.3.Groundwater resources assessment 

    2.4.Water quality assessment 

    2.5.Water quality indicators for flow measurements 

    2.6.Water resources assessment in un-gauged basins 

    3.Water use estimation 

    4.Water accounting 

    4.1.Approaches 

    4.2.GIS/RS applications in water resources assessment 

    4.3.Processing of spatial data (Land use, precipitation, evapotranspiration, runoff)

    4.4.Computation of catchment water balance 

    4.5.Water accounting at different scales 


    Lecturing materials:

    • Guide to Hydrological Practices: Volume I - Hydrology “From Measurement to Hydrological Information, WMO No 168, 2008.
    • Water Resources Assessment Hand Book for review of national capabilities, 1997(WMO, UNESCO)
    • Arnell, N. W. (1996). Global warming, river flows and water resources. John Wiley & Sons Ltd.
  • Partnerships for Water Supply and Sanitation (Credits: 3)

    Prerequisites: None

    Learning objectives:

    • Recognize different (Public-Private Partnership) PPP options and principles governing PPPs.
    • Estimate the suitability of partnership options, based on lessons learned from past contracts.
    • Determine whether the prerequisite enabling environment of a chosen PPP option is present.
    • Evaluate the pitfalls in a PPP implementation process, including the procurement cycle.

    Syllabus:

    1.Introduction

    1.1.Introduction to the course 

    1.2.Introduction to PPPs 

    1.3.Case study presentations 

    2.Principles of PPPs

    2.1.PPP options 

    2.2.PPP environment 

    2.3.PPP economics 

    3.PPP in practice in urban environments 

    3.1.Current situation and actors 

    3.2.Contracts 

    3.3.Risks and limitations 

    3.4.Success factors of PPPs 

    3.5.Case study exercises 

    3.6.Real life examples 

    4.Issues regarding PPPs 

    4.1.Best practices 

    4.2.Controversies in the urban and rural water sectors 

    4.3.Pro-poor approaches 

    4.4.Trends in the water sector 

    5.Fieldtrip

    Lecturing materials:

    • Mandri-Perrott, C., & Stiggers, D. (2013). Public Private Partnerships in the Water Sector. IWA Publishing.
    • Marin, P. (2009). Public-Private Partnerships: A review of experiences in developing countries. PPIAF & the World Bank. 
  • Water Quality Assessment and Modeling (Credits: 3)

    Prerequisites: None

    Learning objectives:

    • Describe different water pollutant groups and their risks and fates
    • Describe and apply different criteria for successful monitoring of lakes, rivers and groundwater
    • Describe and apply a number of water quality models as a tool in water management  Design sustainable water quality monitoring programs for river and lake basins

    Syllabus:

    1.Water Quality and Monitoring

    1.1.Introduction on Water quality 

    1.2.Water quality monitoring and assessment 

    1.3.Groundwater monitoring 

    1.4.Case studies of water quality monitoring 

    2.Data analysis and presentation 

    3.Aquatic Ecotoxicology 

    3.1.Principles of Aquatic Ecotoxicology 

    3.2.Environmental fate of micro pollutants 

    3.3.Monitoring, modelling and risk assessment 

    4.Water quality modelling 

    4.1.Introduction to available softwares 

    5.Model calibration and validation processes 

    6.Fieldtrips

    Lecturing materials:

    • World Health Organization. (2001). Water quality: Guidelines, standards, and health: Assessment of risk and risk management for water-related infectious disease. L. Fewtrell, & J. Bartram (Eds.). IWA publishing.
    • Zweig, R. D., Morton, J. D., & Stewart, M. M. (1999). Source water quality for aquaculture: a guide for assessment.
    • Fitzpatrick, F. A., Waite, I. R., DArconte, P. J., Meador, M. R., Maupin, M. A., & Gurtz, M. E. (1998). Revised methods for characterizing stream habitat in the National Water-Quality Assessment Program. US Geological Survey Water-Resources Investigations Report, 98, 4052.
  • Physical, Chemical and Biological Processes of Water & Wastewater (Credits: 3)

    Prerequisites: None 

    Learning objectives:

    Describe the basic chemical and biological processes and their engineering in water and wastewater treatment;

    Evaluate different approaches to wastewater treatment and select the best option for local conditions

    Syllabus:

    1.Drinking water treatment

    1.1.Water quality standards, and regulations; 

    1.2.Mixing and flocculation; 

    1.3.Softening and ion exchange; 

    1.4.Oxidation and adsorption; 

    1.5. Membrane processes.

    2.Wastewater treatment

    2.1.Preliminary and primary processes; 

    2.2.Kinetic theory; 

    2.3.Activated sludge systems; 

    2.4.Tertiary treatment; 

    2.5.Sludge disposal practice & policy.

    3. Fieldtrips

    Lecturing materials:

    • Binnie C., Kimber M. and Smethhurst, G., Basic water treatment, Thomas Telford Publishing, 2002.
    • Hendricks D., Fundamentals of Water Treatment Unit Processes, CRC Press / IWA Publishing, 2011.
    • Gray, N.F., 2004. Biology of Wastewater Treatment. Oxford University Press, London.
    • Trivedy, R.K., 1998. Advances in Wastewater Treatment Technologies. Global Science, Aligarh 
  • Environmental Planning and Implementation (Credits: 3)

    Prerequisites: None

    Learning objectives:

    • Explain the concept and importance of sustainable development into environmental planning and management
    • Apply and discuss economic valuation methods and policy instruments for environmental policy
    • Explain principles, processes and methods of environmental assessment (EIA-SEA) and be able to apply them in water related plans, programs and projects
    • Apply basic theories behind policy enforcement, monitoring and evaluation to master effective environmental policies
    • Use environmental information systems to support planning and management

    Syllabus:

    1.Sustainable Development Concepts and Challenges 

    2.Environmental Planning 

    3.Environmental Economics 

    4.Environmental Assessment 

    4.1.Introduction to EIA

    4.2.Introduction to SEA

    5.Environmental Policy Enforcement 

    6.Fieldtrips

    Lecturing materials:

    • Faludi, A. (2013). A decision-centered view of environmental planning (Vol. 38). Elsevier.
    • Randolph, J. (2004). Environmental land use planning and management. Island Press.
    • Kapp, K. W. (1974). Environmental policies and development planning in contemporary China and other essays. Mouton. 
  • Ecosystem Based Water Management (Credits: 3)

    Prerequisites: None

    Learning objectives:

    • To understand that natural resources exploitation should take into account the protection of various environmental ecosystems.
    • Make distinctions between various approaches of management of natural and other resources using only economic concepts and those taking into account environmental ecosystems.
    • To understand and asses major issues related to ecosystem management and the use of natural resources.

    Syllabus:

    1. Ecosystem Based Management against economic management of natural resources 
    2. Ecosystem goods and services
    3. Basics of material flow analysis 
    4. Global, regional and local changes in aquatic ecosystems
    5. Coastal zone management: Basic concepts and challenges 
    6. Economic and technology aspects of environmental management systems
    7. Social aspects of environmental change

    Lecturing materials:

    • Vermaat J. et al., Managing European Coasts, Springer, 2005.
    • Bhatti, J.S. et al., Climate Change and Managed Ecosystems, CRC Press, 2005 
  • Game Theory (Credits: 3)

    Prerequisites: None

    Learning objectives:

    • This course is an introduction to game theory and strategic thinking. 
    • Ideas such as dominance, backward induction, Nash equilibrium, evolutionary stability, commitment, credibility, asymmetric information, adverse selection, and signaling are discussed and applied to games played in class and to examples drawn from real water systems.

    Syllabus:

    Nash Equilibrium: the Original and the Modern Proof

    1. The Equilibrium Refinement and Selection Problem
    2. Rationalizability and Common Knowledge
    3. Evolutionary Game Theory: Introduction
    4. Extensive Games of Imperfect and Incomplete Information
    5. Mechanism Design
    6. Repeated Games
    7. Games with Communication
    8. Coalitional Games
    9. Applications in Water Resources Management

    Lecturing materials:

    • Madani, K., (2010), Game Theory and Water Resources, Journal of Hydrology, 381, 225–238. 
    • Fang, L., Hipel, K.W., Kilgour, D.M., 1993. Interactive Decision Making: The Graph Model for Conflict Resolution. Wiley, New York, USA.
    • Fraser, N.M., Hipel, K.W., 1984. Conflict Analysis: Models and Resolutions. NorthHolland, Amsterdam, New York, USA. 
  • Hydro Politics and Diplomacy (Credits: 3)

    Prerequisites: None 

    Learning objectives:

    • Understanding the basis for predictions of the future of water management from a variety of disciplinary perspectives. 
    • Knowledge of the hypotheses and evidence on drivers that have contributed to the emergence of writings on water conflict and cooperation over the recent historical period. 
    • Evaluation of various explanations for conflict and cooperation pertaining to water resources.

    Syllabus:

    1. Water and resource conflict theories
    2. Systematic ways of thinking about water conflict and cooperation
    3. Water scarcity: definitions and dimensions of depletion
    4. Water infrastructure, development and well-being
    5. Economic perspectives
    6. International legal frameworks for dealing with water and institutional perspectives 
    7. Water competition

    Lecturing materials:

    • Pohl B., Carius A., Conca K., Dabelko G.D., Kramer A., Michel D., Schmeier S., Swain A. and Wolf A. (2014). The Rise of Hydro-Diplomacy. Strengthening foreign policy for transboundary waters, Adelphi, Berlin.
    • UN-Water Thematic Paper (2008). Transboundary Waters: Sharing Benefits, Sharing Responsibilities.
    • Wolf A. (2010). Sharing Water, Sharing Benefits: working towards effective transboundary water resources management, UNESCO’s International Hydrology Programme, Division of Water Sciences, Paris.  
  • Participatory Water and Environmental Management (Credits: 3)

    Prerequisites: None

    Learning objectives:

    • At the completion of the course the students should be able to gain insight on local and global perceptions and approaches to participatory water and environmental resource management 
    • Learn from successes and failures in the context of both rural and urban communities of water and environmental management

    Syllabus:

    1. Fundamentals of sociology and participatory approach
    2. Understanding the nexus effect of water, environment and society
    3. Understanding user participation of environmental water resources
    4. Definition the relationship of integrated water resources management and environmental protection
    5. Organizational design and improving agency relations
    6. Policy considerations
    7. Role of stakeholders in water and environmental resources

    Lecturing materials:

    • Michael C.M., Putting people first, Sociology variables in Rural Development, Oxford University press, London 1985. 
    • Rodolfo Soncini-Sessa Enrico Weber Andrea Castelletti, Integrated and Participatory Water Resources Management – Theory, Elsevier Science, 582p, 2007.  
  • Asset Management (Credits: 3)

    Prerequisites: None

    Learning objectives:

    • Asset Allocation –How do investors decide on the level of capital to allocate to individual asset classes?
    • Implementation issues -How to implement the asset allocation?
    • Performance Measurement –How do investors determine how well money managers have performed?
       

    Syllabus:

    1. Asset Management & Strategic Planning Overview
    2. The Asset Manager’s Role
    3. Ownership Structures & Identifying Investment Partners
    4. The Decision to Acquire Assets
    5. Retaining Property Management & Leasing Services
    6. Pro-forma Preparation, Monitoring Performance & Reporting 
    7. Strategic Planning & the Decision to Invest in Capital Improvements
    8. Samples of Capital Investment in Water Management and Services Projects
    9. The Decision to Dispose of an Asset

    Lecturing materials:

    • International Case Studies in Asset Management, edited by Chris Lloyd, published by ICE Publishing, 2012.
    • Asset management decision-making: THE SALVO PROCESS, edited by John Woodhouse published by the Woodhouse Partnership, 2014.
  • Environmental Assessment and Sustainable Development (Credits: 3)

    Prerequisites: None

    Learning objectives: 

    • To be able to describe the decision-making processes with regard to environmental issues in the context of sustainable development
    • To be able to apply the environmental assessment cycle approach in identifying and resolving environmental problems
    • To be able to analyze the evaluation criteria used in environmental decision-making
    • To be able to evaluate the suitability of different strategies for addressing environmental problems

    Syllabus:

    1. Introduction to sustainability assessment. 
    2. The environmental assessment cycle
    3. Introduction to assessment methodologies including cost-benefit analyses and environmental quality criteria. 
    4. Examples related to water and energy

    Lecturing materials: 

    • Noble, Bram (2014). Introduction to Environmental Impact Assessment: a Guide to Principles and Practice, 3 Rd Edition. Don Mills, ON: Oxford University Press.
    • Gibson, Robert B. (2006). Sustainability assessment: basic components of a practical approach. Impact Assessment and Project Appraisal, 24(3), 170-182.
  • Institutional Analysis (Credits: 3)

    Prerequisites: None

    Learning objectives:

    • Identify and understand basic concepts of the organization and the challenges organizations meet in relation to their environment.
    • Define and explain basic concepts in institutional organization theory.
    • Make a situational analysis of an organization and identify the surrounding demands that the organization has to relate to and how they are handled by the organization, and present this in a reflective and persuasive way, both orally and in writing.
    • The overall aim is for students to acquire an active and reflective approach and to gain a deeper understanding of the broader context in which an organization operates.
       

    Syllabus:

    1. Analyze and Understand Institutional Incentives and Outcomes
    2. An Introduction to the Study of Institutions, Complex Systems, and Collective Action Dilemmas
    3. Theories and Models of Human Behavior
    4. Structural Variables that Affect Action Situations
    5. Games and Institutional Analysis
    6. Studying Collective Action in the Field
    7. Polycentricity
    8. Learning from Experiments
    9. Linked Social-Ecological Systems

    Lecturing materials:

    • Aligica, Paul, and Peter J. Boettke. 2009. “Introduction.” In Challenging Institutional Analysis and Development. The Bloomington School, 1-4. New York: Routledge
    • Ostrom, Elinor. 2005. Understanding Institutional Diversity. Princeton: Princeton University Press.
  • Urban Water Systems (Credits: 3)

    Prerequisites: None

    Learning objectives:

    • Identify and describe municipal water and wastewater systems and their subcomponents
    • Describe the processes for analysis and planning of urban water systems, water distribution networks and urban drainage and wastewater collections system. 
    • Describe differences in quality between different waters. 
    • Describe different treatment units at water and wastewater treatment plants and be able to explain their functions.
       

    Syllabus:

    1. Introduction to the potable water and wastewater collection and treatment systems.   Water distribution network design and operation    Purification processes. 
    2. Wastewater treatment processes. 
    3. Water quality issues in urban water systems. 
    4. Technologies for building, rehabilitation and maintenance of pipe system for water and wastewater
    5. Sustainability of urban water systems.

    Lecturing materials:

    • Karamouz, M., Ali Moridi, S. Nazif (2010), Urban Water Engineering and Management, CRC Press.
  • Adaptation to Climate Change (Credits: 3)

    Prerequisites : None

    Learning objectives:

    • Understanding of climate change impacts and adaptation at global, national and local scales, with a focus on water systems. 
    • Familiarity with climate prediction models and applications of their outputs in predicting climate change impacts on water resources and systems 
    • Familiarity with adaptation strategies and approaches 
    • Ability to evaluate adaptation approaches at scales ranging from global to local.
       

    Syllabus:

    1. The Earth’s Climate System
    2. Introduction to Climate Change
    3. Projections of Future Climate
    4. Global, Regional and National Climate Change Impacts
    5. Impacts of Climate Change on Water Resources 
    6. Impacts Assessment and National Adaptation Strategy
    7. Criteria for Assessing and Comparing Adaptation Strategies 
    8. Economic Issues in Climate Change Adaptation 
    9. Climate Change Mitigation

    Lecturing materials:

    • Pittock A.B. (2009) Climate Change: the science, impacts and solutions. Earthscan.
    • IPCC Fifth Assessment Report: Climate Change 2013 and 2014 (AR5) available at www.ipcc.ch.  
  • Water Utility Management (Credits: 3)

    Prerequisites: None

    Learning objectives:

    • To learning how public utilities manage water supply and environmental services; 
    • What is required to meet future challenges in water utilities 
    • To understand ethical and financial issues of water utility management 

    Syllabus:

     

    1. Sustainability of Water Utilities 
    2. Governance of Water Utilities 
    3. Public vs Private Water Utilities 
    4. Financial Issues 
    5. Utility Business Models
    6. Annual and long term budgets
    7. Aging Infrastructure

    Lecturing materials:

    • R. Dolan, T. Rose, R. Baker, and M. Barnes, 2003, Managing the Water and Wastewater Utility, Water Environment Federation.  
  • Environmental Valuation and Accounting (Credits: 3)

    Prerequisites: None

    Learning objectives:

    • To familiarize students with the “demand side” of environmental economics. 
    • To familiarize students with the main techniques for estimating the nonmarket values associated with environmental and other public goods. 

    Syllabus:

    1. Introduction to Environmental Accounting 
    2. Welfare Economics 
    3. Preference Methods 
    4. Pricing Methods 
    5. Valuing Risk Reduction 
    6. Environmental Program Evaluation
        

    Lecturing materials:

    • Champ, P.A., K.J. Boyle, and T.C. Brown (eds.). 2003. A Primer on Nonmarket Valuation. Norwell, MA: Kluwer Academic Publishers. 
    • Freeman III, A.M. 2003. The Measurement of Environmental and Resource Values:Theory and Methods, Second Edition. Washington, DC: Resources for the Future Press. 
    • Haab, T.C. and K.E. McConnell. 2002. Valuing Environmental and Natural Resources: The Econometrics of Non-Market Valuation. Cheltenham, UK: Edward Elgar Publishing.
  • Resilient Infrastructure Development (Credits: 3)

    Prerequisites: None

    Learning objectives:

    • To teach students how to evaluate planning through the lens of developing larger scale infrastructure that fosters long-term environmental sustainability and anticipates extreme climate events brought on by our changing climate. 
    • To teach student how to plan sustainable and resilient infrastructure development 
    • To teach students how to evaluate effectiveness of infrastructure in reducing long-term capital and operational costs, while also creating a healthy and enriching community.
       

    Syllabus:

    1. Introduction to sustainable and resilient approach to infrastructure and planning
    2. Policy perspective
    3. Resiliency & Disaster Preparedness
    4. Urban Green/ Building Resiliency 
    5. Water Infrastructure  o Integrated resource planning from conventional wastewater treatment plants to grey and blackwater systems 
    6. Planning for rising extreme climate events and rising sea levels
    7. Possible Site Visit

    Lecturing materials:

    • Champ, P.A., K.J. Boyle, and T.C. Brown (eds.). 2003. A Primer on Nonmarket Valuation. Norwell, MA: Kluwer Academic Publishers. 
    • Freeman III, A.M. 2003. The Measurement of Environmental and Resource Values:Theory and Methods, Second Edition. Washington, DC: Resources for the Future Press. 
    • Haab, T.C. and K.E. McConnell. 2002. Valuing Environmental and Natural Resources: The Econometrics of Non-Market Valuation. Cheltenham, UK: Edward Elgar Publishing.
  • LID and BMP for Water Quality Management (Credits: 3)

    Prerequisites: Water Quality Assessment and Modeling 

    Learning objectives:

    Gain an understanding of the general concepts and benefits of Low Impact Development (LID), including insight into the economic and environmental benefits of the approach.

    • Find out how communities are successfully implementing LID
    • Obtain new perspectives on stormwater management and design
    • Receive information on state-of-the-art research in modeling, monitoring, and management approaches
    • Gain exposure to new LID modeling techniques and design manuals


    Syllabus:

     

    • Introduction/Overview of LID
    • LID Hydrology
    • LID Monitoring
    • Bioretention / Raingardens
    • Permeable Pavements
    • Water Harvesting
    • LID Planning and Ordinances
    • LID Feasibility/Desirability Factors
    • Local Site Investigation
    • Green Roofs
    • Land Development Case Study
    • Examples of LID and BMPs

    Lecturing materials:

    • Davis, A.P. and McCuen, R.H. Stormwater Management for Smart Growth. Springer. 2005. ISBN 978-0-387-26048-8.
    • Shaver, E., Horner, R., Skupien, J., May, C., and Ridley, G. (2007). Fundamentals of Urban Runoff Management: Technical and Institutional Issues. 2nd Ed. By Rehnby N. Published by The North American Lake Management Society (NALMS).
    • Freeman III, A.M. 2003. The Measurement of Environmental and Resource Values:Theory and Methods, Second Edition. Washington, DC: Resources for the Future Press. 
    • Haab, T.C. and K.E. McConnell. 2002. Valuing Environmental and Natural Resources: The Econometrics of Non-Market Valuation. Cheltenham, UK: Edward Elgar Publishing.  
  • Value Engineering (Credits: 3)

    Prerequisites: None

    Learning objectives:

    • The course defines Value Analysis and Value Engineering 
    • It familiarizes students with the steps required to implement a value analysis / value engineering program

    Syllabus:

    1. Introduction to Value Engineering
    2. Organization 
    3. Value Engineering Job Plan
    4. Analysis Function
    5. Versatility of Value Engineering 
    6. Value Engineering Techniques

    Lecturing materials:

    • Alphonse Dell’Isola, “Value Engineering: Practical Applications for Design, Construction, Maintenance & Operations”, R S Means Co., 1997.
    • Richard Park, “Value Engineering: A Plan for Invention”, St. Lucie Press, 1999.
    • Del L. Younker, “Value Engineering analysis and methodology”, Marcel Dekker Inc, New York, 2004.
    • Miles, L.D., “Techniques of Value Analysis and Engineering”, McGraw Hill second Edition, 1989.
    • Khanna, O.P., “Industrial Engineering and Management”, Dhanpat Rai & Sons, 1993.
    • Anil Kumar Mukhopadhyaya, “Value Engineering Mastermind: From concept to Value Engineering Certification”, SAGE Publications, 2003.  
  • Seminar (Credits: 2)

    Prerequisites: Successful completion of at least four modules of the program.

    Learning objectives:

    • Concisely define the intended research topic, state aims and objectives precisely, describe the research methodology, argue expected relevance and justification, and identify boundary conditions and self- or externally imposed limitations
    • List available literature and replicate main arguments expounded in the literature on the specified research topic
    • Demonstrate analytical problem-analysis skills and the ability to distil the strategic issues to be addressed in the research phase
    • Plan, using the project management approach, the research process in weekly time-steps and indicate essential milestones, targets and indicators, required human, financial and other resources, deliverables and perceived threats and constraints at each stage of the research project
    • Develop and formulate the research proposal in a clearly written, well-argued and convincing report, submitted within a set deadline
    • Successfully present and defend individual work, cross-reference it to and critically evaluate it in light of contemporary thinking in a specific field of study

    Syllabus:

    1. Knowledge of research processes (reading, evaluating, and developing);
    2. Literature reviews using print and online databases;
    3. Formats for citations of print and electronic materials;
    4. Key elements of a research proposal/report;
    5. Quantitative vs qualitative research;
    6. Sampling methods, measurement scales and instruments, and appropriate uses of each;
    7. Experiment Design;


    Lecturing materials:

    • Easterby-Smith, M., Thorpe, R., & Jackson, P. R. (2012). Management research. Sage.
    • Thomas, A. B. (2004). Research skills for management studies. Psychology Press.