Abstract
This study applies the mental model and cognitive mapping method to involve stakeholders in delineating the mutual relations between sources of water, energy, and food (WEF) production in the Varamin Plain (VP). Through involving farmers and managerial experts, the approach facilitates the deployment of community communication patterns to recognize and comprehend problems and move from single-loop learning to double-loop learning. The dynamic model was driven from the final mental model of the participants to reflect changes in the systems over time. The system dynamic (SD) model incorporates three scenarios for enhancing irrigation efficiency, managing groundwater extraction, and satisfying environmental needs. The results uncovered that the surface and underground water resources of the VP will gradually decrease within the next two decades in the range of 158 and 2700 million cubic meters (MCM) per year. Also, the plain suffers from water insecurity and a 162 MCM shortage. Consequently, focusing on understanding the nexus and nexus governance can enhance resource management and achieve sustainable development goals. Essentially, promoting collaborative governance, such as creating cooperative organizations and implementing double-loop learning, and instituting a water market, regulatory governance, and monitoring laws can improve the state of Varamin Plain’s resources. These results carry important policy implications for using mental models to consider dynamics for discussions on participatory management of the WEF system nexus and environmental management.
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Data availability
The datasets used and/or analysed during the current study are available from the corresponding author on reasonable request.
References
Abbasi F, Sarrab F, Abbasi N (2015) Evaluation of the efficiency of irrigation water in Iran. Irrig Drain Struct Eng Res J 17(67):113–128. In Persian
Abolhassani L, Shahnoushi N, Rahnama A, Azam Rahmati E, Heiran F (2019) The Role of Water Market Formation in Using the Water Resources in Agricultural Sector: A Case Study of Mashhad Plain in Iran. Agric Econ Dev 27(2):1–29. In Persian
Afzali A, Shahedi K (2015) Investigation on Trend of Groundwater Quantity-Quality Variation in Amol-Babol Plain. J Watershed Manag Res 5(10):144–156. In Persian
Ahmadi A, Malek Mohammadi B, Mozaal L (2021) Use of modeling in the development of scenarios of water resources and uses; Case study: study area of Varamin Plain. J water Sustain Dev 8(3):1–10. In Persian
Albrecht TR, Crootof A, Scott CA (2018) The Water-Energy-Food Nexus: A systematic review of methods for nexus assessment. Environ Res Lett 13(4):043002
Alizadeh H, Liaghat A, Sohrabi T (2014) Assessing pressurized irrigation systems development scenarios on groundwater resources using system dynamics modeling. J Water Soil Resour Conserv 3(4):1–15
Alizadeh, A (2013) The Principles of Applied Hydrology. 36th Edition, Imam Reza (AS) University, Mashhad.
Allouche J, Middleton C, Gyawali D (2015) Technical veil, hidden politics: Interrogating the power linkages behind the nexus. Water Alternatives 8(1):610–626
Arnold LR (2011) Estimates of deep-percolation return flow beneath a flood- and a sprinkler-irrigated site in Weld County, Colorado, 2008-2009. U.S. Geological Survey Scientific Investigations Report 2011–5001; US Geological Survey. 225p
Azizi H, Nejadian N, Athari MA, Hashemi SS (2021) The effects of climate change on the drought process of Varamin Plain using the D-Martin index. Newar 45(112-113):67–76
Azizi HR, Nejatian N (2019) Calculation of underground water balance of Varamin Plain. Geogr Hum Relatsh 3(3):189–204. In Persian
Benson D, Gain AK, Rouillard J, Giupponi C (2017) Governing for the Nexus: Empirical, Theoretical, and Normative Dimensions. Water-Energy-Food Nexus. In: Abdul Salam P, Shrestha S, Prasad Pandey V, Anal AK (eds) Principles and Practices. John Wiley and Sons, Inc, Washington, DC, p 77–88. pp
Beykzadeh E, Ziaei A, Ansari H, Lak R, Zaki M (2016) Comparing groundwater recharge in sprinkler and furrow irrigated farms using unsaturated zoon modeling. Soil Water Res 47(1):147–158. In Persian
Borge-Diez D, García-Moya FJ, Rosales-Asensio E (2022) Water energy food nexus analysis and management tools: A review. Energies 15(3):1146
Bostrom A, Morss RE, Lazo JK, Demuth JL, Lazrus H, Hudson R (2016) A mental models study of hurricane forecast and warning production, communication, and decision-making. Weather, Clim, Soc 8(2):111–129
Cresswell JW, Plano Clark VL (2011) Designing and conducting mixed method research. Sage Publications, Thousand Oaks, CA
Daher B, Mohtar RH, Lee SH, Assi A (2017) Modeling the water-energy-food nexus: a 7-question guideline Water-Energy-Food Nexus. In: Abdul Salam P, Shrestha S, Prasad Pandey V, Anal AK (eds) Principles and Practices. John Wiley and Sons, Washington, D.C, p 57–66. pp
Davis M (2014) Managing Environmental Systems: The Water‐Energy‐Food Nexus Research Synthesis Brief. Stockholm Environment Institute (SEI), Stockholm.
Dosti Rezaei M, Zeinalzadeh K, Besharat S, Amirataei B (2022) The effect of management and climate scenarios on changes in the underground water level (a case study of numerical modeling in the Selma’s plain aquifer). Iran Irrig Drain J 16(2):280–293. In Persian
Ebrahimzadeh I, Sabouhi Sabouni M, Rafiee H, Keyhani A, Ebrahimi K (2021) Investigating the water-energy-food nexus challenges in Iran’s agricultural sector. Environ Sci Pollut Res 28(15):19259–19271
Emaduddin S, Shahi V, Arkhi S, Agh Atabai M (2022) Determining the amount of land subsidence in the area of Jajroud alluvial cone using the technique of differential radar interferometry. Nat Geogr Res 54(2):169–183
Endo A, Burnett K, Orencio PM et al. (2015) Methods of the water‐energy‐food nexus. Water 7(10):5806–5830
Famiglietti JS (2014) The Global Groundwater Crisis. Nat Clim Change 4(11):945–948
FAO (2021) World Food Situation. FAO, Rome, Italy
Faqih Khorasani A, Ghaffari G (2022) Rethinking ecological renovation based on smart meter technology in Iran’s underground water distribution sector. Local Dev 14(1):255–276. In Persian
Fitton N, Alexander P, Arnell N et al. (2019) The vulnerabilities of agricultural land and food production to future water scarcity. Glob Environ Change 58:101944
Glykas G (2010) Fuzzy Cognitive Maps: Theory, Methodologies, Tools and Applications. Springer, Berlin, Germany
Gray SA, Gray S, Cox L, Henly-Shepard S (2013) Mental modeler: A fuzzy-logic cognitive mapping modeling tool for adaptive environmental management. 46th Hawaii International Conference on System Sciences, pp 965-973
Gray SRJ, Gagnon AS, Gray SA et al. (2014) Are local coastal managers detecting the problem? Assessing stakeholder perception of climate vulnerability using Fuzzy Cognitive Mapping. Ocean Coast Manag 94:74–89
Hajjar R, Kozak RA (2015) Exploring public perceptions of forest adaptation strategies in Western Canada: Implications for policy-makers. For Policy Econ 61:59–69
Henly-Shepard S, Gray SA, Cox LJ (2015) The use of participatory modeling to promote social learning and facilitate community disaster planning. Environ Sci Policy 45:109–122
Heydari H, haghi Y, Jahani D, Moini Nesab M (2023) A passage on the reading of food security from the perspective of stakeholders in the Gardenhousesystem with the right to food approach (Case study: Gardenhousein Zanjan city). Geography and Environmental Sustainability 13(2)
Hobbs RJ (2016) Degraded or just different? Perceptions and value judgments in restoration decisions. Restor Ecol 24:153–158
Hutsul D, Oliskevych M (2022) Production model for agriculture sector in Donetsk and Luhansk region: system dynamic evaluation
Jaaron AA, Backhouse CJ (2017) Operationalising “double-loop” learning in service organisations: a systems approach for creating knowledge. Systemic Pract Action Res 30(4):317–337
Johnson-Laird PN (1983) Mental models: Towards a cognitive science of language, inference, and consciousness (No. 6). Harvard University Press
Jones JL, White DD (2022) Understanding barriers to collaborative governance for the food-energy-water nexus: The case of Phoenix, Arizona. Environ Sci Policy 127:111–119
Jones NA, Ross H, Lynam T, Perez P, Leitch A (2011) Mental models: an interdisciplinary synthesis of theory and methods. Ecology and Society 16(1)
Karamia L, Alimohammadia M, Soleimania H, Askaria M (2019) Assessment of water quality changes during climate change using the GIS software in a plain in the southwest of Tehran province, Iran. Desalination Water Treat 148:119–127
Karimlou N, Hassani A, Rashidi Mehrabadi A, Nazari MR (2020) Developing a model for decision-makers in dynamic modeling of urban water system management. Water Resour Manag 34(2):481–499
Kayranli B, Scholz M, Mustafa A, Hedmark A (2010) Carbon storage and fluxes within freshwater wetlands: a critical review. Wetlands 30:111–124
Keskinen M, Guillaume J, Kattelus M, Porkka M, Räsänen T, Varis O (2016) The Water-Energy-Food Nexus and the Transboundary Context: Insights from Large Asian Rivers. Water 8:193
Khanmohammadi S, Shokoohi A (2018) Using RVA model for defining river ecological regime for determining environmental flow. Iran-Water Resour Res 14(2):224–235. In Persian
Kohi M, Flamarzi Y, Javanshri Z, Malbousi S, Babaeian I (2019) Investigation and analysis of Iran’s annual temperature and precipitation trend (2017-1988). Nivar 43(106-107):36–49. In Persian
Levy MA, Lubell MN, McRoberts N (2018) The structure of mental models of sustainable agriculture. Nat Sustainability 1(8):413–420
Li J, Yu Y, Wang X, Zhou Z (2022) System dynamic relationship between service water and food: Case study at Jinghe River Basin. J Clean Prod 330:129794
Medellín-Azuara J, Harou JJ, Howitt RE (2010) Estimating economic value of agricultural water under changing conditions and the effects of spatial aggregation. Sci Total Environ 408(23):5639–5648
Miller Hesed CD, Paolisso M, Van Dolah ER, Johnson KJ (2022) Using Cultural Consensus Analysis to Measure Diversity in Social–Ecological Knowledge for Inclusive Climate Adaptation Planning. Weather, Clim, Soc 14(1):51–64
Ministry of Energy (2021) Energy balance sheets. Office of Macroeconomic Planning of Electricity and Energy of Iran
Mirzaei A, Saghafian B, Mirchi A, Madani K (2019) The Groundwater‒Energy‒Food Nexus in Iran’s Agricultural Sector: Implications for Water Security. Water 11(9):1835
Nabiafjadi S, Sharifzadeh M, Ahmadvand M (2021) Social network analysis for identifying actors engaged in water governance: An endorheic basin case in the Middle East. J Environ Manag 288:112376
Nhamo L, Ndlela B, Nhemachena C, Mabhaudhi T, Mpandeli S, Matchaya G (2018) The water-energy-food nexus: Climate risks and opportunities in southern Africa. Water 10(5):567
Noorollahi Y, Senani AG, Fadaei A, Simaee M, Moltames R (2022) A framework for GIS-based site selection and technical potential evaluation of PV solar farm using Fuzzy-Boolean logic and AHP multi-criteria decision-making approach. Renew Energy 186:89–104
Nyam YS, Kotir JH, Jordaan A, Ogundeji AA (2022) Identifying behavioural patterns of coupled water‐agriculture systems using system archetypes. Syst Res Behav Sci 39(2):305–323
Ozesmi U, Ozesmi SL (2004) A participatory approach to ecosystem conservation: fuzzy cognitive maps and stakeholder group analysis in Uluabat Lake. Environ Manag 31(4):518–531
Pakmehr S, Yazdanpanah M, Barbadian M (2021) Explaining farmers’ response to climate change-induced water stress through cognitive theory of stress: An Iranian perspective. Environ, Dev Sustainability 23:5776–5793
Patton MQ (2002) Qualitative Research and Evaluation Methods. Sage Publications, Thousand Oaks
Phan JCR, Smart O, Sahin SJ, Capon WL (2018) Hadwen Assessment of the vulnerability of a coastal freshwater system to climatic and non-climatic changes: a system dynamics approach J. Clean Prod 183:940–955
Pournabi N, Janatrostami S, Ashrafzadeh A, Mohammadi K (2021) Resolution of Internal conflicts for conservation of the Hour Al-Azim wetland using AHP-SWOT and game theory approach. Land Use Policy 107:105495
Pretty J, Bharucha ZP (2018) Sustainable intensification in agricultural systems. Ann Bot 114(8):1571–1596
Public Policy Institute of California (PPIC) (2021) Managing California’s Water: From Conflict to Reconciliation. Retrieved from https://www.ppic.org/publication/managing-californias-water-from-conflict-to-reconciliation
Ravar Z, Zahraie B, Sharifinejad A, Gozini H, Jafari S (2020) System dynamics modeling for assessment of water food–energy resources security and nexus in Gavkhuni basin in Iran. Ecol Indic 108:105682
Reed MS, Evely AC, Cundill G, et al. (2010) What is social learning? Ecology and Society 15(4)
Rosenbaum E (2022) Mental models and institutional inertia. J Inst Econ 18(3):361–378
Ruane AC, Goldberg R, Chryssanthacopoulos J (2015) Climate forcing datasets for agricultural modeling: Merged products for gap-filling and historical climate series estimation. Agric For Meteorol 200:233–248
Salimi S, Almuktar SA, Scholz M (2021) Impact of climate change on wetland ecosystems: A critical review of experimental wetlands. J Environ Manag 286:112160
Santo AR, Guillozet K, Sorice MG, Baird TD, Gray S, Donlan CJ, Anderson CB (2017) Examining private landowners’ knowledge systems for an invasive species. Hum Ecol 45:449–462
Shahvari N, Khalilian S, Mosavi SH, Mortazavi SA (2019) Assessing climate change impacts on water resources and crop yield: a case study of Varamin Plain basin, Iran. Environ Monit Assess 191(3):1–12
Smajgl A, Ward J, Pluschke L (2016) The water–food–energy Nexus–Realising a new paradigm. J Hydrol 533:533–540
Sun B, Yang X (2019) Simulation of water resources carrying capacity in Xiong’an New Area based on system dynamics model. Water 11(5):1085
Tagg J (2010) The learning‐paradigm campus: From single‐to double‐loop learning. N. Directions Teach Learn 123:51–61
Thomas BF (2019) Sustainability indices to evaluate groundwater adaptive management: a case study in California (USA) for the Sustainable Groundwater Management Act. Hydrogeol J 27(1):239–248
Turner BL, Menendez HM, Gates R, Tedeschi LO, Atzori AS (2016) System dynamics modeling for agricultural and natural resource management issues: Review of some past cases and forecasting future roles. Resources 5(4):40
Veisi H, Deihimfard R, Shahmohammadi A, Hydarzadeh Y (2022) Application of the analytic hierarchy process (AHP) in a multi-criteria selection of agricultural irrigation systems. Agric Water Manag 267:107619
Wang X, Dong Z, Sušnik J (2023) System dynamics modelling to simulate regional water-energy-food nexus combined with the society-economy-environment system in Hunan Province, China. Sci Total Environ 863:160993
White DD, Jones JL, Maciejewski R, Aggarwal R, Mascaro G (2017) Stakeholder analysis for the food-energy-water nexus in Phoenix, Arizona: Implications for nexus governance. Sustainability 9(12):2204
Zhang D, Sial MS, Ahmad N, Filipe AJ, Thu PA, Zia-Ud-Din M, Caleiro AB (2020) Water scarcity and sustainability in an emerging economy: a management perspective for future. Sustainability 13(1):144
Zhao Q, Li J, Cuan Y, Zhou Z (2020) The evolution response of ecosystem cultural services under different scenarios based on system dynamics. Remote Sens 12(3):418
Acknowledgements
We would like to express our sincere gratitude to the professors from the Shahid Beheshti University and Tehran University for their contributions to fuzzy-logic cognitive mapping and mental modeling. Their efforts and dedication have significantly advanced our understanding of this complex subject and laid the foundation for future research in this field. we would also like to extend my appreciation to the active farmers in Varamin, as well as the managers of the agriculture sector, ABFA, and the Varamin Agricultural Research Center. Their hard work and commitment to improving the agricultural sector have been invaluable and played a crucial role in the success of this research.
Author contributions
This paper is based on research conducted by AS for their PhD thesis on ecological agriculture, under the supervision of KK, MRZ, and HV. All authors contributed to the concept and design of the study. AS and KK performed the literature review, data collection, data analysis, and writing of the first draft of the article. MRZ and HV provided feedback and made revisions to the first draft. All authors contributed to editing and revising subsequent drafts.
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This study has not been funded by any organization or institute in the public, commercial, or not-for-profit sectors.
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Shahmohammadi, A., Khoshbakht, K., Veisi, H. et al. Exploring Dynamics of Water, Energy, and Food Systems in Agricultural Landscapes Using Mental Modeling: A Case of Varamin Plain, Iran. Environmental Management 73, 34–50 (2024). https://doi.org/10.1007/s00267-023-01875-0
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DOI: https://doi.org/10.1007/s00267-023-01875-0