Non-Accounted Water Assessment at the Level of Water Distribution Networks in Isfahan's Small Communities, Isfahan, Iran
        
				
					Gholam-Reza Rajabi1, Kaveh Ostad-Ali-Askari2*, Saeid Eslamian3, Vijay P Singh4, Nicolas R Dalezios5,6, Majedeh Haeri-Hamedani3, Mehdi Hatim2, Saeid Ajudanian2, Faezeh Shariati2, Zahra Yousefizadeh Naeini2, Nafiseh Baseri2 and Hamid-Reza Shirvani-Dastgerdi2
1HSE Department, Isfahan Refinery, Isfahan, Iran
2Department of Civil Engineering, Isfahan (Khorasgan) Branch, Islamic Azad University, Isfahan, Iran
3Department of Water Engineering, Isfahan University of Technology, Isfahan, Iran
4Department of Biological and Agricultural Engineering and Zachry Department of Civil Engineering, Texas A and M University, Texas, USA
5Laboratory of Hydrology, Department of Civil Engineering, University of Thessaly, Volos, Greece
6Department of Natural Resources Development and Agricultural Engineering, Agricultural University of Athens, Athens, Greece
    - *Corresponding Author:
- Kaveh Ostad-Ali-Askari
 Department of Civil Engineering, Isfahan (Khorasgan) Branch, Islamic Azad University, Isfahan,    Iran
 Tel: (+98)-31-35354001-9
 E-mail: koa.askari@khuisf.ac.ir
Received: January 24, 2018; Accepted: March 08, 2018; Published: March 15, 2018
Citation: Rajabi GR, Ostad-Ali-Askari K, Eslamian S, Singh VP, Dalezios NR, et al. (2018) Non-Accounted Water Assessment at the Level of water distribution Networks in Isfahan's Small communities, Isfahan, Iran. J Environ Res Vol.2: No.1: 4.
				 				
				
									
						
Abstract
					
										
						In our country, in addition to economically significant costs of wasting water, which the government should pay, and our country has limited water resources. Therefore, identifying ways of occurrence of water losses and providing solutions to these problems will be a great challenge for the newly created water and wastewater industry in the country. The main objective of this review is to prove the high-water waste in Isfahan water distribution networks and to obtain its amount and provide methods for identifying and reduction its bad effects. In this review, the annual water balance method has been used to calculate non-accounted water, it means the difference between water production and consumption. Finally, the most important reasons for water loss at pilot points are the failure plan and the inaccuracy of subscribers’ water meters, burnout of pipes, installations, faucets and the lack of proper design of the water distribution network and unauthorized branching. According to the research carried out in this research project, the amount of not considered water in the scope of the project was approximately (33.6%) and in the villages of Senete complexes, Yazebolaghi, Ghamlu and Alyverdi were 33.8%, 33.7%, 33.9%, and 33.9% respectively.
					 
							 
				
					Keywords
Non-accounted water; Water utilities; Water
distribution network; Meter; Wastewater
Introduction
From the 21st century it is called the century of water crisis.
  At present, water needs are increasing rapidly due to
  demographic and industrial development, while climate
  change, droughts and pollution have caused more limited
  human water availability, especially for drinking [1,2].
  Therefore, supplying water with quantity and quality is
  considered as the main concern of policy makers at different
  levels of management. In the meantime, the supply of drinking
  water to human societies is of high importance and because of
  its high quality, there is a need for special installations,
resulting in considerable time and cost [3-7].
Reducing the amount of water not considered in addition to
  reducing the cost of investment and operation and
  maintenance of the water system, increasing the life of water
  facilities, including water purification equipment, pumping and
  improving the quality of water supply will increase the
  economic efficiency, technical and improve the satisfaction of
rural subscribers of Water and Wastewater companies [7-12].
Literature Review
The concept of non-accounted water and nonrevenue
water
According to the definition given by the World Bank, the
  Non-accounted water is the difference between the pure
  productions of water (the volume of water entering the
  network from the refinery or main reservoir) minus
  consumption [13-18]. Since 2000, the c oncep t of non-revenue
water 1 (NRW) has been proposed by the World Water Institute (IWA) as the basic concept used by most countries in
the world, which includes two parts:
• Allowed consumptions without paying costs, which usually
form a small part of consumption [13,14].
• Water losses includes two types. Actual and apparent
  losses (illegal consumption and caused by measurement
errors) [15,16].
Measured amount of consumed water- Amount of
generated water=Non-accounted water
The objectives of the non-accounted water
project
• Reduced the amount of the non-accounted water up to
  50% of the existing situation in urban and rural systems
[17].
• Audit on identification subscribers and their costs and
determining non-physical casualties (losses) [18].
• Identification of the system of guidance and determination
of physical losses [19].
• Determine the strengths and weaknesses of the leadership
[20].
• Determine the strengths and weaknesses of the subscriber
affairs system [21-23].
• Determine the long-term executive plan to improve the
status quo [24].
• Provide solutions to reduce water leakage and provide
relevant instructions [25]. 
Causes of the occurrence of non-accounted
water
• Expired (finished) the useful life of the facility [26].
• Failure to comply with all executive standards, especially
monitoring implementation [27].
• Failure to exploitation and maintain the facilities properly
[28].
• Not having a proper program in exploitation, especially in
the leak detection area [29].
• Failure to measure inputs and outputs at installations [30].
• Management errors in exploitation affairs - affairs of
subscribers [31-33].
• Poor quality of consumable (used materials) [34-36].
• imprecise measuring instruments [37].
• Failure to establish measuring instruments on main pipes
or key points of the facility [38-41].
• Lack of technical and experienced staff and lack of
  opportunities for retraining them in different job categories
[42-46].
Reasons for leakage in pipes
• High system pressure [47].
• Inaccurate soil around the pipe [48].
• Archaism pipes of network and burnout of them [49].
• The inappropriate pipe materials and its appurtenance
[50].
• Failure to observe the technical test points of pipe at the
workshop [51].
• Use of inappropriate materials for pipe coating and subs
ruction [52-54].
• Non-standard pipe putting by unprofessional workers
[55-58].
Components of non-accounted water
Non-accounted water consists of two major parts:
Non-physical or apparent losses of non-accounted water:
  This portion of the water is not considered to be consumed by
  subscribers, but because of the human error, the
  measurement tool or the management and leadership errors
  of the system are not measured and its costs does not take by
the water and wastewater company [59-64].
Physical or actual water losses of non-accounted water:
  This part is due to the physical evasion of the water from the
  distribution network and the subscribers' branches, not
  received by the consumer and the cost is not taken by the
  water and wastewater company [65-68]. The losses’ amount is
  significantly depending on specifications of the network pipes
and the leak detection and repair policy [69-74].
Methods for analyzing and calculating nonaccounted
water in water networks
• Annual water balance method [75].
• The method of estimating the leakage components (Tables
1 and 2) [76-79].
  
    
      
        | Network components | Field losses | Reported Fractures | Unreported Fractures | 
    
    
      
        | Main    lines | Length | Number    per year | Number    per year | 
      
        | Pressure | pressure | pressure | 
      
        | Losses    rate per kilometer | average    output flow rate average duration | average    output flow rate average duration | 
      
        | Joints    and branches from main line up to subscription | Number | Number    per year | Number    per year | 
      
        | pressure | pressure | pressure | 
      
        | losses    rate in branches | average    output flow rate average duration | average    output flow rate average duration | 
      
        | Joints | Length | Number    per year | Number    per year | 
      
        | Branches | Pressure | pressure | pressure | 
      
        | Joint    building | losses    rate per kilometer | average    output flow rate | average    output flow rate average duration | 
      
        | - | - | average    duration | - | 
    
  
 
Table  1: Required information for calculating leakage  components.
  
    
      
        | Components of field losses | Unit | Bad instruction | Moderate instruction | Good instruction | 
      
        | Conditions | Conditions | Conditions | 
    
    
      
        | Field    losses in the main pipe distribution | Liter    per kilometer per hour | 60 | 40 | 20 | 
      
        | Field    losses in subscriber lines(branch) | Liter    per branch per hour | 4.5 | 3 | 1.5 | 
      
        | Field    losses in pipe inside Substations | Liter    per subscriber Per hour | 1.5 | 1 | 0.5 | 
    
  
 
Table 2: Recommended values for field leakage rate at standard pressure of 50 m.
• Night Stream Analysis Method [80].
Method for calculating the non-accounted
water in six villages of Pilot
The following three steps have been taken to calculate nonaccounted
water in rural areas:
• Determine the total volume of water generated or
imported into the distribution system [81-85]. 
• Determine the total volume of water measured by
subscriber meters [86-90].
• The final step of the task of determining the amount of
  non- accounted water equal to difference between the
  losses amount of water generated and the amount of
water consumed (Table 3) [91-95].
  
    
      
        | Details | Reported fractures | Unreported fractures | 
      
        | Occurrence frequency | Discharge flow (cubic meter per hour) | Occurrence frequency | Discharge flow (cubic meter per hour) | 
    
    
      
        | Main    transmission lines | 0.03    km/year | 30 | 0.006 | 0.12 | 
      
        | The    main distribution lines | 0.15    km/year | 12 | 0.008    km/year | 0.6 | 
      
        | Branches | 2.5    per 1,000 branches per year | 01-06 | 0.825    per 1000 branches in year | 1.6 | 
      
        | Pipes    inside the subscription | 2.5    in 1000 branches per year | 1.6 | 0.825    per 1000 branches in year | 1.6 | 
    
  
 
Table  3: Proposed values for calculating the amount  of waste water losses due to fractures.
Suggested approach of water losses controls
In most cases, including the research project in the villages
  of Isfahan province the expired useful life of the installations
  and the giving of new offshoots are causes of incident and
  events in the water supply system, which requires a complied
program divided into following cases:
• Teaching and creation the culture of informing the incident
in villagers [96-102].
• Correct and timely encounter with the accident and the full
identification of the causes of its creation [103-107].
• Provide optimal services to subscribers to reduce wastes
and prevent escalation of accidents [108-112].
• Prevent the undesirable development of water supply
  facilities by planning to reduce the amount of losses in the
distribution system [113-116].
• Identify the weaknesses of the distribution system and the
  principled program for correcting faulty networks
[117-120].
• Reduction of hydraulic phenomena including ram blows
  with proper network design and increasing the efficiency of
the available facets in the network [121-126].
• Use of the minimum time in repairs [127].
• Compile a map of the density of incidents [128-132].
• Explore the causes of the incidents [133-138].
• Removing non-standard networks and replacing modern
  and advanced networks with the appropriate tools
[139-145].
• Optimal use of the private sector in the reconstruction of
  incidents’ recovery, along with precise monitoring levers on
the contractor's work [146-152].
Suggestions
• As we know, research and investigation are the method of
  proved accountability to questions and finding the
  unknowns [153-156]. The proved message of this study is
to identify ways to reduce water losses and provide solutions to it as a result of reducing water losses factors
and to rise the life of existing installations, as well as
adequate use of facets and obviates a lot of problems of
the water and wastewater industry in the country
[157-162].
• Using the methods and solutions presented in this plan or
  other plans to reduce water losses should be implemented
  as soon as possible by the water and Wastewater Company
  of Isfahan province to prevent the most losses of water
resources and its harvesting [163-167].
• Implementing practices for reducing non- accounted water
  through the province‘s ABFAR Company, according to past
  experiences, has a lot of economic benefits for the
  company [168-174]. Therefore, it is recommended that,
  despite the high cost of reduction of water losses
  strategies, the company will take steps to implement these
methods and approaches [175-180].
Method of calculation the exact amount of
water production at pilot points
In order to calculate the exact amount of water production in pilot villages, in this plan, one of the most popular and most
  efficient methods available in the country is used, that due to
  limited financial, installations and instructions facilities, we
  used the water balancing method to calculate non-accounted
  water [181]. According to the balance of water method, the
  amount of waste water is obtained from the actual difference
  between the amount of consumption and production of input
  water [182-186]. It was necessary to measure the exact
  amount of water production at the wells through volumetric
  meters, but due to some of the installation problems, the
  financial and non-availability of such meters at the design area
  or their failure if they were existed, use of this method was
  impossible so to calculate the approximate amount of
  produced water We used from the outlet flow rate of the wells
[187].
Discussion
Therefore, in order to calculate the waste of water at the
  mentioned points, the plan required amount of flow rate
  needed by the well, the average hours of the pump work in
  different time period, the number of working days in the
  considered period and for the non-automatic pumps (precise
  information collected from the water collectors), and
  considered the possible errors in the rate of water output from
  the well, changes in pressure and flow, and so on [188]. Due to
  the lack of facilities needed for the operation of pressure
  gauge and the lack of precision to carry out the work in this
  plan, considering the available facilities and equipment, it was
virtually impossible to examine these cases [189].
Conclusion
The important thing to pay attention to is that, in order to
  be equally accurate in the calculation of sales and production
of water, according to the principle of the theory of errors, some of the above errors can be eliminated, and in some
cases, such as the accuracy error of the meters and pumps in
different conditions equal ± 1% of the total, so you can discard
it [190]. Of course, the above method used to calculate the
water production due to non- automatic pumping machines
has problems with low accuracy, which in some points of the
plan scope, the average of the operation of pumps at night and
during different periods which collected through collectors
have been used [191]. In order to collect the water production
information in each complex, at first, the proposed pump flow
rate was calculated from the catalog on the pump and
obtained the average value of the pump operating hours at
different time periods (daily, ....) by the same catalog. In case
of unavailability of access to the information in most of cases,
the information was collected through water users and
accorded with the information in Abfar of province and
suspicious data was identified and modified as follows.
Therefore, by calculating the amount of production and sale
  of water over a given period and dividing this amount of
  production within this specific period, the amount of water or
  water losses during the specified time for the intended place
non-calculated (UFW) is obtained [192].
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- Ostad-Ali-Askari K, Eslamian SC, Crusberg TP, Singh VR, Dalezios N,  et al. (2017) Management of the vital lines of water and waste water. Int J Eme  Eng Rese Tech 5: 19-37.
- Kamaneh SA, Ghaderi H, Dehghan Sh, Eslamian S, Ostad-Ali-Askari KP,  et al. (2017), Climatic feedback and geomorphology in urban development planning:  a case study of shiraz metropolis, Iran. Int J Eme Eng Rese Tech 4: 32-41.
- Eslamian S, Amoushahi-Khouzani M, Malekpour I, Babaahmadi A,  Ostad-Ali-Askari K, et al. (2017) Investigation and comparison of the  quantitative and qualitative frequency distribution of the rivers. Am J Eng App  Sci 10: 799.805. 
- Ostad-Ali-Askari K, Qasemy Z, Eslamian S, Pirnazar M, Namadi A, et  al. (2017) Preparing a land cover map with emphasis on green space (grass,  tree, agriculture): by using image texture filters in panchromatic band, Iran.  Intl J Const Res Civ 3: 132-147
- Marani-Barzani M, Eslamian S, Ostad-Ali-Askari K, Dehghan SH, P.  Singh V, et al. (2017) A spatial vulnerability analysis of multi-hazard threat  in ZayandehRoud basin in Isfahan, Isfahan province, Iran. J Env Chem Tox 1:  26-33.
- New methods of collection and disposal of sanitary waste in small  assemblies, behzad asgharzadeh ghoochani, hossein mesmine, saeedeh saeedi,  2009.
- Abdeli, Mohammad Ali (2008) Urban Solid Waste Management System and  its Control Methods.
- The site of the Tehran Municipality (2009) Recycling and Converting Center,  Iran.
- Appendix 2- Legal Requirements and Planning Guidance, 1999.
- Waste Strategy for England 2007 Executive Summary, 2010.
- Published by the Department for Environment, Food and Rural affairs,  2009.
- Sustainable Packaging Coalition, Case study Starbucks’ Source  Reduction Success, 2010.
- Handbook of water distribution systems, Larry W.Mays, 1999.
- Hansen B (1991) New York City epidemics and history for the public.  In: Harden VA, Risse  GB, (eds). AIDS  and the historian. Bethesda: National Institutes of Health. pp. 21–28.
- Coles NA, Eslamian S (2017) Definition of drought, chapterh 1 in  handbook of drought and water scarcity, Vol. 1: Principles of Drought and Water  Scarcity, by Eslamian S. and Eslamian F, (eds). Francis and Taylor, CRC Press,  USA. pp. 1-12.
- Dalezios NR, Dunkel Z, Eslamian S (2017) Meteorological drought  indices: definitions, Ch. 3 in Handbook of Drought and Water Scarcity, Vol. 1:  Principles of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC  Press, USA. pp. 24-44.
- Goyal MK, Gupta V, Eslamian S (2017) Hydrological drought: water  surface and duration curve indices, Ch. 4 in Handbook of Drought and Water  Scarcity, Vol. 1: Principles of Drought and Water Scarcity, Eslamian S,  Eslamian F, (eds). Francis and Taylor, CRC  Press, USA. pp. 45-72.
- Dalezios NR, Gobin A, Tarquis Alfonso AM, Eslamian S (2017)  Agricultural Drought Indices: Combining Crop, Climate, And Soil Factors, Ch. 5  in Handbook of Drought and Water Scarcity, Vol. 1: Principles of Drought and  Water Scarcity, Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC Press, USA.  pp. 73-90.
- TishehZan P, Eslamian S (2017) Agricultural Drought: Organizational  Perspectives, Ch. 6 in Handbook of Drought and Water Scarcity, Vol. 1:  Principles of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC  Press, USA. pp. 91-108.
- Bazrkar MH, Eslamian S (2017) Ocean oscillation and drought indices:  application, chapter 8 in handbook of drought and water scarcity, Vol. 1:  Principles of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC  Press, USA. pp.  127-136.
- Basu R, Singh CK, Eslamian S (2017) Cause and Occurrence of Drought,  Ch. 9 in Handbook of Drought and Water Scarcity, Vol. 1: Principles of Drought  and Water Scarcity, Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC  Press, USA. pp. 137-148.
- Bazrafshan J, Hejabi S, Eslamian S (2017) Drought Modeling Examples,  Ch. 11 in Handbook of Drought and Water Scarcity, Vol. 1: Principles of Drought  and Water Scarcity, Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC  Press, USA. pp. 167-188.
- Jonathan PC, Sara SK, Eslamian S (2017) Real-Time Drought  Management, Ch. 13 in Handbook of Drought and Water Scarcity, Vol. 1:  Principles of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC  Press, USA. pp. 209-216.
- Garg V, Eslamian S, (2017) Monitoring, assessment, and forecasting  of drought using remote sensing and the geographical information system. Ch.  14 in Handbook of Drought and Water Scarcity, Vol. 1: Principles of Drought and  Water Scarcity, Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC Press, USA. pp.  217-252.
- Dalezios NR, Tarquis Alfonso AM, Eslamian S (2017) Drought assessment  and risk analysis, Ch. 18 in Handbook of Drought and Water Scarcity, Vol. 1:  Principles of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC  Press, USA. pp. 323-344.
- Dalezios NR, Spyropoulosand NV, Eslamian S (2017) Remote sensing in  drought quantification and assessment, Ch. 21 in Handbook of Drought and Water  Scarcity, Vol. 1: Principles of Drought and Water Scarcity, Eslamian S,  Eslamian F, (eds). Francis and Taylor, CRC  Press, USA. pp. 377-396.
- Araghinejad S, Hosseini-Moghari SM, Eslamian S (2017) Application of  data-driven models in drought forecasting, Ch. 23 in Handbook of Drought and  Water Scarcity, Vol. 1: Principles of Drought and Water Scarcity, Eslamian S,  Eslamian F, (eds). Francis and Taylor, CRC  Press, USA. pp. 423-440.
- Vafakhah M, Eslamian S (2017) Application of intelligent technology  in rainfall analysis, Ch. 24 in Handbook of Drought and Water Scarcity, Vol. 1:  Principles of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC  Press, USA. pp. 441-460.
- Vafakhah M, Akbari Majdar H, Eslamian S (2017) Rainfall prediction  using time series analysis, Ch. 28 in Handbook of Drought and Water Scarcity,  Vol. 1: Principles of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC  Press, USA. pp. 517-540.
- González MH, Garbarini EM, Rolla AL, Eslamian S (2017)  Meteorological Drought Indices: Rainfall Prediction in Argentina, Ch. 29 in  Handbook of Drought and Water Scarcity, Vol. 1: Principles of Drought and Water  Scarcity, Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC  Press, USA. pp. 541-570.
- Hadizadeh R, Eslamian S (2017) Modeling Hydrological Process by  ARIMA–GARCH Time Series, Ch. 30 in Handbook of Drought and Water Scarcity, Vol.  1: Principles of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds).  Francis and Taylor, CRC Press, USA. pp. 571-590.
- Mujere N, Yang X, Eslamian S (2017) Gradation of Drought-Prone Area,  Ch. 31 in Handbook of Drought and Water Scarcity, Vol. 1: Principles of Drought  and Water Scarcity, Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC  Press, USA. pp. 591-606.
- Mahmudul HM, Amir AA, Rahman A, Eslamian S (2017) Drought Losses to  Local Economy, Ch. 33 in Handbook of Drought and Water Scarcity, Vol. 1:  Principles of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds).  Francis and Taylor, CRC Press, USA. pp. 627-642.
- Fakhruddin BSHM, Eslamian S (2017) Analysis of Drought Factors  Affecting the Economy, Ch. 34 in Handbook of Drought and Water Scarcity, Vol.  1: Principles of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds).  Francis and Taylor, CRC Press, USA. pp. 643-656.
- Dalezios NR, Eslamian S (2017) Environmental Impacts of Drought on  Desertification Classification, Ch. 3 in Handbook of Drought and Water  Scarcity, Vol. 2: Environmental Impacts and Analysis of Drought and Water  Scarcity, Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC Press, USA.  pp. 45-64.
- Nazif S, Tavakolifar H, Eslamian S (2017) Climate Change Impact on  Urban Water Deficit, Ch. 5 in Handbook of Drought and Water Scarcity, Vol. 2:  Environmental Impacts and Analysis of Drought and Water Scarcity, Eslamian S,  Eslamian F, (eds). Francis and Taylor, CRC Press, USA. pp. 81-106.
- Shahid S, Alamgir M, Wang XJ, Eslamian S (2017) Climate Change  Impacts on and Adaptation to Groundwater, Ch. 6 in Handbook of Drought and  Water Scarcity, Vol. 2: Environmental Impacts and Analysis of Drought and Water  Scarcity, Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC Press, USA.  pp. 107-124.
- Orimoogunje OOI, Eslamian S (2017) Minimizing the Impacts of  Drought, Ch. 8 in Handbook of Drought and Water Scarcity, Vol. 2: Environmental  Impacts and Analysis of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds).  Francis and Taylor, CRC Press, USA. pp. 143-162.
- Maleksaeidi H, Keshavarz M, Karami E, Eslamian S (2017) climate  change and drought: building resilience for an unpredictable future, Ch. 9 in  Handbook of Drought and Water Scarcity, Vol. 2: Environmental Impacts and  Analysis of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds). Francis  and Taylor, CRC Press, USA. pp. 163-186.
- Reyhani MN, Eslamian S, Davari A (2017) Sustainable agriculture:  building social-ecological resilience, Ch. 10 in Handbook of Drought and Water  Scarcity, Vol. 2: Environmental Impacts and Analysis of Drought and Water  Scarcity, Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC Press, USA.  pp. 187-204. 
- Crusberg TC, Eslamian S (2017) Drought and water quality, Ch. 11 in  Handbook of Drought and Water Scarcity, Vol. 2: Environmental Impacts and  Analysis of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds). Francis  and Taylor, CRC Press, USA. 205-218.
- Gaaloul N, Eslamian S, Laignel B (2017) Contamination of groundwater  in arid and semiarid lands, Ch. 16 in Handbook of Drought and Water Scarcity,  Vol. 2: Environmental Impacts and Analysis of Drought and Water Scarcity,  Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC Press, USA. pp. 291-314.
- Banjoko B, Eslamian S (2017) Sanitation in Drought, Ch. 17 in  Handbook of Drought and Water Scarcity, Vol. 2: Environmental Impacts and  Analysis of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds). Francis  and Taylor, CRC Press, USA. pp. 315-330.
- Davari A, Bagheri A, Reyhani MN, Eslamian S (2017) Environmental flows  assessment in scarce water resources, Ch. 18 in Handbook of Drought and Water  Scarcity, Vol. 2: Environmental Impacts and Analysis of Drought and Water  Scarcity, Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC Press, USA.  pp. 331-352.
- Qian Q, Eslamian S (2017) Streamflow quality in low-flow conditions,  Ch. 20 in Handbook of Drought and Water Scarcity, Vol. 2: Environmental Impacts  and Analysis of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds).  Francis and Taylor, CRC Press, USA. pp. 375-386.
- Mohammadzade MN, Eslamian S, Dalezios NR (2017) River sediment in  low flow condition, Ch. 21 in Handbook of Drought and Water Scarcity, Vol. 2:  Environmental Impacts and Analysis of Drought and Water Scarcity, Eslamian S,  Eslamian F, (eds). Francis and Taylor, CRC Press, USA. pp. 387-408.
- Pérez-Blanco CD, Delacámara G, Gómez CM, Eslamian S (2017) Crop  Insurance in drought conditions, Ch. 23 in Handbook of Drought and Water  Scarcity, Vol. 2: Environmental Impacts and Analysis of Drought and Water  Scarcity, Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC Press, USA.  pp. 423-444.
- Kahrizi D, Esfahani K, Ashraf Mehrabi A, Ghaheri M, Azizi Aram Z, et  al. (2017) Biotechnology for drought improvement, Ch. 24 in Handbook of Drought  and Water Scarcity, Vol. 2: Environmental Impacts and Analysis of Drought and  Water Scarcity, Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC Press,  USA. pp.  445-460. 
- Wade P, Eslamian S (2017) Water issues from a system dynamics  perspective, Ch. 25 in Handbook of Drought and Water Scarcity, Vol. 2:  Environmental Impacts and Analysis of Drought and Water Scarcity, Eslamian S,  Eslamian F, (eds). Francis and Taylor, CRC Press, USA. pp. 461-488.
- Rahman A, Hajani E, Eslamian S (2017) Rainwater Harvesting in Arid  Regions of Australia, Ch. 26 in Handbook of Drought and Water Scarcity, Vol. 2:  Environmental Impacts and Analysis of Drought and Water Scarcity, Eslamian S,  Eslamian F, (eds). Francis and Taylor, CRC Press, USA. pp. 489-500.
- Mukherjee S, Yadav K, Eslamian S (2017) Soil contaminations in arid  and semiarid land, Ch. 29 in Handbook of Drought and Water Scarcity, Vol. 2:  Environmental Impacts and Analysis of Drought and Water Scarcity, Eslamian S,  Eslamian F, (eds). Francis and Taylor, CRC Press, USA. pp. 547-556.
- Dayani S, Sabzalian MR, Hadipour M, Eslamian S (2017) Water scarcity  and sustainable urban green landscape, Ch. 30 in Handbook of Drought and Water  Scarcity, Vol. 2: Environmental Impacts and Analysis of Drought and Water  Scarcity, Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC Press, USA.  pp. 557-604.
- Banjoko B, Eslamian S (2017) Environmental Evaluation: Lessons  Learned from Case Studies, Ch. 33 in Handbook of Drought and Water Scarcity,  Vol. 2: Environmental Impacts and Analysis of Drought and Water Scarcity,  Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC Press, USA. pp. 631-664.
- Abbasova D, Eslamian S, Nazari R (2017) Paleo-Drought: Measurements  and Analysis, Ch. 34 in Handbook of Drought and Water Scarcity, Vol. 2:  Environmental Impacts and Analysis of Drought and Water Scarcity, Eslamian S,  Eslamian F, (eds). Francis and Taylor, CRC Press, USA. pp. 665-674.
- Yihdego Y, Eslamian S (2017) Drought Management: Initiatives and  Objectives, Ch. 1 in Handbook of Drought and Water Scarcity, Vol. 3: Management  of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds). Francis and  Taylor, CRC Press, USA. pp. 1-26.
- Tuncok IK, Eslamian S (2017) Drought Management Strategies in  Water-Stressed/Water-Scarce Regions, Ch. 5 in Handbook of Drought and Water  Scarcity, Vol. 3: Management of Drought and Water Scarcity, Eslamian S,  Eslamian F, (eds). Francis and Taylor, CRC Press, USA. pp. 97-154.
- Reinstädtler S, Islam SN, Eslamian S (2017) Drought Management for  Landscape and Rural Security, Ch. 8 in Handbook of Drought and Water Scarcity,  Vol. 3: Management of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds).  Francis and Taylor, CRC Press, USA. pp. 195-234.
- Dalezios NR, Eslamian S (2017) Drought Assessment and Management for  Heat Waves Monitoring, Ch. 9 in Handbook of Drought and Water Scarcity, Vol. 3:  Management of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds).  Francis and Taylor, CRC Press, USA. pp. 235-260.
- Kruse E, Eslamian S (2017) Groundwater Management in Drought  Conditions, Ch. 11 in Handbook of Drought and Water Scarcity, Vol. 3:  Management of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds).  Francis and Taylor, CRC Press, USA. pp. 275-282.
- Araghinejad S, Hosseini-Moghari SM, Eslamian S (2017), Reservoir  Operation during Drought, Ch. 12 in Handbook of Drought and Water Scarcity,  Vol. 3: Management of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds).  Francis and Taylor, CRC Press, USA. pp. 283-292.
- Eslamian S, Khosravi B, Sayahi M, Haeri-Hamedani M (2017) Crises  Management Planning and Drought Management Plans, Ch. 13 in Handbook of Drought  and Water Scarcity, Vol. 3: Management of Drought and Water Scarcity, Eslamian  S, Eslamian F, (eds). Francis and Taylor, CRC Press, USA. pp. 293-304.
- Halbac-Cotoara-Zamfir R, Eslamian S (2017) Functional Analysis of  Regional Drought Management, Ch. 14 in Handbook of Drought and Water Scarcity,  Vol. 3: Management of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds).  Francis and Taylor, CRC Press, USA. pp. 305-328.
- Zahraei A, Saadati S, Eslamian S (2017) Irrigation Deficit:  Farmlands, Ch. 16 in Handbook of Drought and Water Scarcity, Vol. 3: Management  of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds). Francis and  Taylor, CRC Press, USA. pp. 343-358.
- Amiri MJ, Eslamian S, Bahrami M, Yousefi N (2017) Deficit  Irrigation: Greenhouse, Ch. 17 in Handbook of Drought and Water Scarcity, Vol.  3: Management of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds).  Francis and Taylor, CRC Press, USA. pp. 359-372.
- Ostad-Ali-Askari K, Shayanejad M, Eslamian S, Zamani F, Shojaei N,  et al. (2017) Deficit Irrigation: Optimization Models, Ch. 18 in Handbook of  Drought and Water Scarcity, Vol. 3: Management of Drought and Water Scarcity,  Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC Press, USA. pp. 373-390. 
- Eludoyin AO, Eludoyin OM, Eslamian S (2017) Drought Mitigation  Practices, Ch. 19 in Handbook of Drought and Water Scarcity, Vol. 3: Management  of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds). Francis and  Taylor, CRC Press, USA. pp. 391-402
- Irshad SM, Eslamian S (2017) Politics of Drought Management and  Water Control in India, Ch. 22 in Handbook of Drought and Water Scarcity, Vol.  3: Management of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds).  Francis and Taylor, CRC Press, USA. pp. 447-460.
- Pati R, Eslamian S (2017) Drought Management for Horticultural Crops  in India, Ch. 23 in Handbook of Drought and Water Scarcity, Vol. 3: Management  of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds). Francis and  Taylor, CRC Press, USA. pp. 461-482.
- Khan S, Eslamian S (2017) Ch. 25 in Handbook of Drought and Water  Scarcity, Vol. 3: Management of Drought and Water Scarcity, Eslamian S, Eslamian  F, (eds). Francis and Taylor, CRC Press, USA. pp. 495-526.
- Sedaei L, Sedaei N, Cox JP, Dalezios NR, Eslamian S (2017) Forest  Fire Mitigation under Water Shortage, Ch. 26 in Handbook of Drought and Water  Scarcity, Vol. 3: Management of Drought and Water Scarcity, Eslamian S, Eslamian  F, (eds). Francis and Taylor, CRC Press, USA. pp. 527-550.
- Torabi FN, Neto DC, Eslamian S (2017) Education Program for Drought,  Ch. 27 in Handbook of Drought and Water Scarcity, Vol. 3: Management of Drought  and Water Scarcity, Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC  Press, USA. pp. 551-566.
- Nazif S, Tavakolifar H, Eslamian S (2017) Emergency Drought  Consequence Plan, Ch. 30 in Handbook of Drought and Water Scarcity, Vol. 3:  Management of Drought and Water Scarcity, Eslamian S, Eslamian F, (eds).  Francis and Taylor, CRC Press, USA. pp. 640-658.
- Mohseni Saravi M, Shabazi R, Eslamian S (2017) Coping With Drought-  Ch. 31 in Handbook of Drought and Water Scarcity, Vol. 3: Management of Drought  and Water Scarcity, Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC  Press, USA. pp. 659-673
- Eslamian S, Mohri-Isfahani E, Mahdavi A, Rajaei-Rizi F,  Marzi-Nouhedani, M, et al. (2017) Integrated Water Resources Management Under  Water Scarcity, Ch. 32 in Handbook of Drought and Water Scarcity, Vol. 3:  Management of Drought and Water Scarcity, Eslamian S, Eslamian F, ediotrs.  Francis and Taylor, CRC Press, USA. pp. 675-695.
- Aghaei A, Eslamian S, Dalezios NR, Saeidi-Rizi A, Bahrebardar S  (2017) Drought and Dust Management, Ch. 33 in Handbook of Drought and Water  Scarcity, Vol. 3: Management of Drought and Water Scarcity, Eslamian S,  Eslamian F, (eds). Francis and Taylor, CRC Press, USA. pp. 696.
- Eslamian S, Dalezios NR, Singh VP, Adamowaski J, Mohamadifard S, et  al. (2017) Drought Management: Current Challenges and Future Outlook, Ch. 34 in  Handbook of Drought and Water Scarcity, Vol. 3: Management of Drought and Water  Scarcity, Eslamian S, Eslamian F, (eds). Francis and Taylor, CRC Press, USA.
- Eslamian S, Davari A, Reyhani MN (2017) Iranian Qanāts: An Ancient  and Sustainable Water Resources Utilization, Ch. 9, in Underground Aqueducts  Handbook, Angelakis AN, (ed). Taylor and Francis, CRC Group, pp. 123-150.
- Khan S, Eslamian S (2017) Managing Drought through Qanāt and Water  Conservation in Afghanistan, Ch. 22, in Underground Aqueducts Handbook,  Angelakis AN, (ed). Taylor and Francis, CRC Group, pp. 385-402.
- Wessels JI, Vardakos S, Weingartner H, Eslamian S, Angelakis AN  (2017) Underground Aqueducts: Past, Present, and Future Trends, Ch. 29 in  Underground Aqueducts Handbook, Angelakis AN. (ed). Taylor and Francis, CRC  Group, pp. 491-510.
- Dalezios NR, Tarquis AM, Eslamian S (2017) Droughts. Chapter 5, in  book: Environmental Hazards Methodologies for Risk Assessment and Management.  Dalezios NR, (ed). International Water Association Publishing, London, UK, pp.  177-210.
- Dalezios NR, Eslamian S (2017) Environmental Hazards Methodologies  for Risk Assessment and Management, Dalezios NR, (ed). IWA Publishing, 
- Bazrkar MH, Adamowski J, Eslamian S (2017) Water System Modeling, in  Mathematical Advances Towards Sustainable Environmental Systems, Furze JN,  Swing K, Gupta AK, McClatchey R, Reynolds D, (eds). Springer International  Publishing, Switzerland, pp.61-88. 
- Bazrkar MH, Zamani N, Eslamian S, Eslamian A, Dehghan Z (2015)  Urbanization and Climate Change, Handbook of Climate Change Adaptation, Leal W,  (ed). Springer, pp. 619-655.
- Chen Z, Ngo HH, Guo W, Eslamian S (2015) Water Shortages, in Urban  Water Reuse Handbook, Ch. 1, Eslamian S, (ed). Taylor and Francis, CRC Group, USA.  pp. 3-14.
- Boogaard F, Eslamian S (2015) Water Reuse and Sustainable Urban  Drainage Systems, in Urban Water Reuse Handbook, Ch. 4, Eslamian S, (ed).  Taylor and Francis, CRC Group, USA. pp. 37-44.
- Shah Naqvi SAA, Sultan A, Eslamian S (2015) Water Quality Issues in  Urban Water, in Urban Water Reuse Handbook, Ch. 8, Eslamian S, (ed). Taylor and  Francis, CRC Group, USA. pp. 99-112.
- Kumar SC, Jha N, Eslamian S (2015) Reuse, Potable Water, and  Possibilities, in Urban Water Reuse Handbook, Ch. 9, Eslamian S, (ed). Taylor  and Francis, CRC Group, USA. pp. 113-126.
- Kohansal MM, Saadati S, Tarkesh ES, Eslamian, S (2015) Urban Water  Reuse in Industry, in Urban Water Reuse Handbook, Ch. 11, Eslamian S, (ed).  Taylor and Francis, CRC Group, USA. pp. 137-148.
- Kumar M, Chidambaram S, Ramanathan AL, Goswami R, Eslamian S (2015)  Criterion, Indices, and Classification of Water Quality and Water Reuse  Options, Urban Water Reuse Handbook, Ch. 13, Eslamian S, (ed). Taylor and  Francis, CRC Group, USA. pp. 163-176.
- Eslamian F, Eslamian S, Eslamian A (2015) Water Reuse Guidelines for  Agriculture, Urban Water Reuse Handbook, Ch. 14, Eslamian S, (ed). Taylor and  Francis, CRC Group, USA. pp. 177-186.
- Eslamian A, Eslamian F, Eslamian S (2015) Water Reuse Guidelines for  Industry, Urban Water Reuse Handbook, Ch. 15, Eslamian S, (ed). Taylor and  Francis, CRC Group, USA. pp. 187-194.
- Eslamian S, Eslamian F, Eslamian A (2015) Water Reuse Guidelines for  Recreation, Urban Water Reuse Handbook, Ch. 16, Eslamian S, (ed). Taylor and  Francis, CRC Group, USA. pp. 195-200.
- Banjoko B, Eslamian S (2015) Environmental Impact Assessment: An  Application to Urban Water Reuse, Urban Water Reuse Handbook, Ch. 20, Eslamian  S, (ed). Taylor and Francis, CRC Group, USA. 229-242.
- Amiri MJ, Eslamian S, Arshadi M, Khozaei M (2015) Water Recycling  and Community, Urban Water Reuse Handbook, Ch. 22, Eslamian S, (ed). Taylor and  Francis, CRC Group, USA. pp. 261-274.
- Ferdaush J, Noor IS, Reinstädtler S, Eslamian S (2015) Ethical and  Cultural Dimension of Water Reuse, Urban Water Reuse Handbook, Ch. 24, Eslamian  S, (ed). Taylor and Francis, CRC Group, pp. 285-296.
- Bazrkar MH, Zamani N, Eslamian S (2015) Evaluation of Socioeconomic  Impacts of Urban Water Reuse Using System Dynamics Approach, Urban Water Reuse  Handbook, Ch. 28, Eslamian S, (ed). Taylor and Francis, CRC Group, pp. 331-340.
- Mujere N, Eslamian S (2015) Blackwater System, Urban Water Reuse  Handbook, Ch. 33, Eslamian S, (ed). Taylor and Francis, CRC Group, pp. 393-404.
- Abu-Ghunmi L, Eslamian S (2015) Graywater, Urban Water Reuse  Handbook, Ch. 34, Eslamian S, (ed). Taylor and Francis, CRC Group, pp. 405-420.
- Eslamian S, Amininezhad SM, Amininejad SM (2015) Contamination  Warning System, Urban Water Reuse Handbook, Ch. 39, Eslamian S, (ed). Taylor  and Francis, CRC Group, pp. 481-488.
- Crusberg TC, Eslamian S (2015) Choosing Indicators of Fecal  Pollution for Wastewater Reuse Opportunities, Urban Water Reuse Handbook, Ch.  42, Eslamian S, (ed). Taylor and Francis, CRC Group, pp. 511-520.
- Boogaard F, Eslamian S (2015) Wastewater Monitoring, Urban Water  Reuse Handbook, Ch. 48, Eslamian S, (ed). Taylor and Francis, CRC Group, pp.  583-586.
- Mujere N, Eslamian S (2015) Urban Wetland Hydrology and Water  Purification, Urban Water Reuse Handbook, Ch. 50, Eslamian S, (ed). Taylor and  Francis, CRC Group, pp. 603-616.
- Nazif S, Eslamian S (2015) Urban Wetland Hydrology and Changes,  Urban Water Reuse Handbook, Ch. 51, Eslamian S, (ed). Taylor and Francis, CRC  Group, pp. 617-640.
- Banjoko B, Eslamian S (2015) Phytoremediation, Urban Water Reuse  Handbook, Ch. 53, Eslamian S, (ed). Taylor and Francis, CRC Group, pp. 657-702.
- Rivas HA, Rivas AI, Eslamian S (2015) Treatment Wetlands:  Fundamentals, Urban Water Reuse Handbook, Ch. 54, Eslamian S, (ed). Taylor and  Francis, CRC Group, pp. 703-716.
- Rahman A, Eslamian S (2015) Rainwater Tanks as a Means of Water  Reuse and Conservation in Urban Areas, Urban Water Reuse Handbook, Ch. 60,  Eslamian S, (ed), Taylor and Francis, CRC Group, pp. 797-808. 
- Qian Q, Eslamian S (2015) Groundwater Recharge and Unconventional  Water: Design and Management Criteria, Urban Water Reuse Handbook, Ch. 61,  Eslamian S, (ed). Taylor and Francis, CRC Group, pp. 809-816.
- Saket RK, Eslamian S (2015) Use of Wastewater for Hydroelectric  Power Generation, Urban Water Reuse Handbook, Ch. 63, Eslamian S, (ed). Taylor  and Francis, CRC Group, pp. 827-838.
- Eslamian S, Amininezhad SM, Amininejad SM, Adamowski J (2015)  Application of Nanotechnology in Water Reuse, Urban Water Reuse Handbook, Ch.  64, Eslamian S, (ed). Taylor and Francis, CRC Group, pp. 839-844.
- Goodarzi E, Ziaei L, Eslamian S (2015) Recycled Water in Basin and  Farm Scales, Urban Water Reuse Handbook, Ch. 65, Eslamian S, (ed). Taylor and  Francis, CRC Group, pp. 855-858.
- Perez SJA, Eslamian S (2015) Water Reuse in Coastal Areas, Urban  Water Reuse Handbook, Ch. 67, Eslamian S, (ed). Taylor and Francis, CRC Group,  pp. 867-874.
- Noor IS, Reinstädtler S, Eslamian S (2015) Water Reuse  Sustainability in Cold Climate Regions, Urban Water Reuse Handbook, Ch. 68,  Eslamian S, (ed). Taylor and Francis, CRC Group, pp. 875-886.
- Rina K, Eslamian S, Tyagi G, Singh N (2015) Feasibility Studies for  Water Reuse Systems, Urban Water Reuse Handbook, Ch. 71, Eslamian S, (ed).  Taylor and Francis, CRC Group, pp. 909-926.
- Salequzzaman MD, Tariqul ISM, Shiddi QM, Eslamian S (2015) Climate  Change Adaptation and Water Reuse, Urban Water Reuse Handbook, Ch. 75, Eslamian  S, (ed). Taylor and Francis, CRC Group, pp. 969-980.
- Kumar GM, Singh V, Eslamian S (2015) Impact of Climate Change on  Drinking Water, Urban Water Reuse Handbook, Ch. 76, Eslamian S, (ed). Taylor  and Francis, CRC Group, pp. 981-1006.
- Hamdy A, Eslamian S (2015) Sustainable Reuse and Recycling of  Treated Urban Wastewater, Urban Water Reuse Handbook, Ch. 80, Eslamian S, (ed).  Taylor and Francis, CRC Group, pp. 1039-1054.
- Thakur JK, Karmacharya S, Singh P, Gurung D, Eslamian S (2015) Water  Reuse Products in Urban Areas, Urban Water Reuse Handbook, Ch. 81, Eslamian S, (ed).  Taylor and Francis, CRC Group, pp. 1055-1070.
- Eslamian S, Sayahi M, Khosravi B (2015) Conjunctive Use of Water  Reuse and Urban Water, Urban Water Reuse Handbook, Ch. 82, Eslamian S, (ed).  Taylor and Francis, CRC Group, pp. 1071-1078.
- Irfan ZB, Eslamian S (2015) Urban Water Reuse Policy, Urban Water  Reuse Handbook, Ch. 83, Eslamian S, (ed). Taylor and Francis, CRC Group, pp.  1079-1096.
- Vafakhah M, Eslamian S, Khosrobeigi BS (2014) Low-Flow Hydrology, in  Handbook of Engineering Hydrology, Ch. 20, Vol. 1: Fundamentals and  Applications, Eslamian S, (ed). Francis and Taylor, CRC Group, USA. pp.  433-453.
- Cox JP, Shaeri KS, Eslamian S (2014) Optimum Hydrometric Site  Selection, in Handbook of Engineering Hydrology, Ch. 22, Vol. 1: Fundamentals  and Applications, Eslamian S, (ed). Francis and Taylor, CRC Group, USA. pp.  471-483.
- Eslamian S, Motevallian SS (2014) Sustainability in Urban Water  System, in Handbook of Engineering Hydrology, Ch. 27, Vol. 1: Fundamentals and  Applications, Eslamian S, (ed). Francis and Taylor, CRC Group, USA. pp.  549-562.
- Noor IS, Karim R, Noor IA, Eslamian S (2014) Wetland Hydrology, in  Handbook of Engineering Hydrology, Ch. 29, Vol. 1: Fundamentals and  Applications, Eslamian S, (ed). Francis and Taylor, CRC Group, USA. pp.  581-605.
- Gargouri-Ellouze E, Eslamian S (2014) Application of Copulas in  Hydrology: Geomorphological Instantaneous Unit Hydrograph and Intensity Index  of Infiltration Frequency, in Handbook of Engineering Hydrology, Ch. 1, Vol. 2:  Modeling, Climate Changes and Variability, Eslamian S, (ed). Francis and  Taylor, CRC Group, USA. pp. 1-18.
- Mujere N, Eslamian, S (2014) Climate Change Impacts on Hydrology and  Water Resources, in Handbook of Engineering Hydrology, Ch. 7, Vol. 2: Modeling,  Climate Changes and Variability, Eslamian S, (ed). Francis and Taylor, CRC  Group, USA. pp. 113-126.
- Farzaneh MR, Eslamian S, Mirnezami SJ. (2014) Climate Change:  Uncertainty, Impact, and Adaptation, in Handbook of Engineering Hydrology, Ch.  8, Vol. 2: Modeling, Climate Changes and Variability, Eslamian S, (ed). Francis  and Taylor, CRC Group, USA. pp. 127-146.
- Goodarzi E, Eslamian S (2014) Dam Risk and Uncertainty, in Handbook  of Engineering Hydrology, Ch. 9, Vol. 2: Modeling, Climate Changes and  Variability, Eslamian S, (ed). Francis and Taylor, CRC Group, USA. pp. 147-171.
- Fakhri M, Dokohaki H, Eslamian S, Fazeli FI, Farzaneh, MR (2014)  Flow and Sediment Transport Modeling in Rivers, in Handbook of Engineering  Hydrology, Ch. 13, Vol. 2: Modeling, ClimateChanges and Variability, Eslamian  S, (ed). Francis and Taylor, CRC Group, USA. pp. 233-275.
- Matouq M, Al-Bilbisi H, El-Hasan T, Eslamian S (2014) GIS  Applications in a Changing Climate, in Handbook of Engineering Hydrology, Ch.  15, Vol. 2: Modeling, Climate Changes and Variability, Eslamian S, (ed).  Francis and Taylor, CRC Group, USA. pp. 297-312.
- Noor IS, Gnauck A, Voigt HJ, Eslamian S (2014) Hydrological changes  in mangrove ecosystems, in Handbook of Engineering Hydrology, Ch. 18, Vol. 2:  Modeling, climate changes and variability, Eslamian S, (ed). Francis and  Taylor, CRC Group, USA. pp. 353-373.
- Kałuża T, Eslamian S (2014) Impact of the development of vegetation  on flow conditions and flood Hazards, in Handbook of Engineering Hydrology, Ch.  21, Vol. 2: Modeling, climate changes and variability, Eslamian S, (ed).  Francis and Taylor, CRC Group, USA. pp. 415-449.
- Rahman A, Haddad Kh, Eslamian S (2014) Regional flood frequency  analysis, 2014, in Handbook of Engineering Hydrology, Ch. 22, Vol. 2: Modeling,  Climate Changes and Variability, Eslamian S, (ed). Francis and Taylor, CRC  Group, USA. pp. 451-469.
- Vafakhah M, Eslamian S (2014) Regionalization of hydrological  variables, in handbook of engineering hydrology, Ch. 23, Vol. 2: Modeling,  Climate Changes and Variability, Eslamian S, (ed). Francis and Taylor, CRC  Group, USA. pp. 471-499.
- Chowdhury RK, Eslamian S (2014) Statistical parameters used for  assessing hydrological regime, in Handbook of Engineering Hydrology, Ch. 26,  Vol. 2: Modeling, Climate Changes and Variability, Eslamian S, (ed). Francis  and Taylor, CRC Group, USA. pp. 537-551.
- Mujere N, Eslamian S (2014) Impact of urbanization on runoff Regime,  Chowdhury, R. K. and Eslamian, S. 2014, Statistical Parameters Used for  Assessing Hydrological Regime, in Handbook of Engineering Hydrology, Ch. 29,  Vol. 2: Modeling, Climate Changes and Variability, Eslamian S, (ed). Francis  and Taylor, CRC Group, USA. pp. 605-615.
- Gaaloul N, Eslamian S (2014) Artificial recharge experiences in  semiarid areas, in Handbook of Engineering Hydrology, Ch. 2, Vol. 3: Environmental  Hydrology and Water Management, Eslamian S, (ed). Francis and Taylor, CRC  Group, USA. pp. 17-49.