Agricultural Economics

Agricultural Economics

The Relationship between Sustainable Agriculture and Rural Households Food Security: A Case Study of Bostan Abad County

Document Type : Research Paper

Authors
1 Ph.D. Student in University of Tabriz
2 Professor in Agricultural Economics, University of Tabriz
3 Edith Cowan University, Leibniz Centre for Agricultural Landscape Research
4 M.S. Graduated, Allameh Tabatabaei University
10.22034/iaes.2025.2054057.2111
Abstract
In this research, the household dietary diversity score (HDDS) has been used to calculate the food security status of households. To check the sustainability of agriculture, 20 activities that are known as sustainable agricultural operations in potato cultivation have been identified. Because the dependent variable in this study is count data, therefore, the Poisson model was used to investigate the factors affecting the HDDS and then machine learning algorithms were used to predict HDDS. According to the results, the average score of household dietary diversity is equal to 8.6 and it can be concluded that the farmers in Bostan Abad County have a good situation in terms of food security. Because sustainable agriculture can lead to the improvement of the farmer's income and purchasing power and increases the amount and variety of goods that he can buy. For example, due to the high rate of water evaporation in Iran, irrigation at night can improve the efficiency of water consumption and produce more crops per unit area by preventing water evaporation. Also the use of improved seeds and resistant varieties can reduce the consumption of inputs and production costs by increasing resistance to environmental stresses and bring higher yield to the product. The increase in expenses that the farmer spends on buying food for his family during the last week, increases the IRR of HDDS by 1.026 times. Obviously, the high amount spent on food can also increase the variety of food purchased by agricultural households. In the Multilayer Perceptron Neural Network (ANN-MLP) algorithm, the fourth combination (scenario), i.e., the number of sustainable agricultural operations and expenses spent on food during the last week, with a determination coefficient of 0.56 and a dispersion index of 0.18, is the best possible scenario for predicting the household dietary diversity score of rural households in Bostan Abad County.
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Ahmad M. W, Mourshed M and Rezgui Y. (2017). Trees vs neurons: Comparison between random forest and ANN for high-resolution prediction of building energy consumption. Energy and buildings, 147: 77-89.
Ahn J, Briers G, Baker M, Price E, Sohoulande Djebou D. C, Strong R and Kibriya S. (2022). Food security and agricultural challenges in West-African rural communities: A machine learning analysis. International Journal of Food Properties25(1): 827-844.
Akrasi R. O, Eddico P. N and Adarkwah R. (2020). Income diversification strategies and household food security among rice farmers: pointers to note in the North Tongu District of Ghana. Journal of Food Security8(3): 77-88.
Allahdadi H, Latifmanesh H.A and Moradi A. (2024). The effect of the sustainable agriculture approach from an ecological perspective on food security. Journal of Defense Technology and Research, 6(4): 133-164. (In Persian)
Breiman L. (2001). Random forests. Machine learning45: 5-32.
Breiman L, Culter A, Liaw A and Wiener M. (2002). Classification and regression by random forest. R News2: 18-22.
Carletto C, Zezza A and Banerjee R. (2013). Towards better measurement of household food security: Harmonizing indicators and the role of household surveys. Global food security2(1): 30-40.
Chegere M. J and Stage J. (2020). Agricultural production diversity, dietary diversity and nutritional status: Panel data evidence from Tanzania. World Development129, 104856.
Cordero-Ahiman O. V, Vanegas J. L, Franco-Crespo C, Beltrán-Romero P and Quinde-Lituma M. E. (2021). Factors that determine the dietary diversity score in rural households: The case of the Paute River Basin of Azuay Province, Ecuador. International journal of environmental research and public health, 18(4): 2059.
Dan E. A, Oladejo B. F and Ekong V. E. (2023). A model for predicting food insecurity in Nigeria using deep learning technique. Egyptian Computer Science Journal47(1).
Davodi H and Maghsoudi T. (2011). Analysis of potato growers’ knowledge about sustainable agriculture in Shushtar Township. Iranian Journal of Agricultural Economics and Development Resarch, 2(42): 265-274. (In Persian)
Deaconu A, Mercille G and Batal M. (2019). The agroecological farmer’s pathways from agriculture to nutrition: a practice-based case from Ecuador’s highlands. Ecology of food and nutrition, 58(2): 142-165.
Deléglise H, Interdonato R, Bégué A, d’Hôtel E. M, Teisseire M and Roche M. (2022). Food security prediction from heterogeneous data combining machine and deep learning methods. Expert Systems with Applications190, 116189.
Greene W.H. (2008). Functional form and heterogeneity in models for count data. Found. Trends Econom, 2: 113–218.
Huluka A. T and Wondimagegnhu B. A. (2019). Determinants of household dietary diversity in the Yayo biosphere reserve of Ethiopia: An empirical analysis using sustainable livelihood framework. Cogent Food & Agriculture, 5(1): 1690829.
Jarray N and Farah I. R. (2023). Machine learning for food security: Current status, challenges, and future perspectives. doi.org/10.21203/rs.3.rs-3021390/v1
Karbasi A. R and Mohammadzadeh S. H. (2018). Factors affecting food security with emphasis on the role of agricultural sustainability in Iran. The Third National Student Conference on Agricultural Economics, March 9-10, 2018, University of Gilan, Faculty of Agricultural Sciences, Iran. (In Persian)
Kennedy G, Ballard T and Dop M. C. (2011). Guidelines for measuring household and individual dietary diversity. Food and Agriculture Organization of the United Nations.
Makhija R, Ali S and Jaya Krishna R. (2021). Detecting influencers in social networks through machine learning techniques. In Advanced Machine Learning Technologies and Applications: Proceedings of AMLTA 2020: 255-266. Springer Singapore.
Mgomezulu W. R, Edriss A. K, Machira K and Pangapanga-Phiri I. (2023). Towards sustainability in the adoption of sustainable agricultural practices: Implications on household poverty, food and nutrition security. Innovation and Green Development, 2(3): 100054.
Mgomezulu W. R and Kennedy Machila, A. K. E. (2018). Impact of Gliricidia Fertilizer Tree Technology on Smallholder Farmers Economic Livelihood in Malawi: Case of Kasungu District. Journal of Sustainable Development, 11(6): 162-169.
Miglani A and Kumar N. (2019). Deep learning models for traffic flow prediction in autonomous vehicles: A review, solutions, and challenges. Vehicular Communications20: 100184.
Mishra B, Gyawali B. R, Paudel K. P, Poudyal N. C, Simon M. F, Dasgupta S and Antonious G. (2018). Adoption of sustainable agriculture practices among farmers in Kentucky, USA. Environmental management62: 1060-1072.
Mohsenzadeh Harris M, Karimzadeh H and Aghayarihir M. (2022). Comparison of food security situations of rural households in Heris and Bostanabad with emphasis on agricultural indicators using FGIS. Geography and Environmental Planning33(4). (In Persian)
Ogunniyi A, Omonona B, Abioye O and Olagunju K. (2018). Impact of irrigation technology use on crop yield, crop income and household food security in Nigeria: A treatment effect approach. In AIMS Agriculture and Food, 3(2): 154-171.
Ojo T. O, Ogundeji A. A and Belle J. A. (2021). RETRACTED: Climate change perception and impact of on-farm demonstration on intensity of adoption of adaptation strategies among smallholder farmers in South Africa.
Okori W and Obua J. (2011). Machine learning classification technique for famine prediction. In Proceedings of the world congress on engineering, 2(1): 4-9.
Pinkus A. (1999). Approximation theory of the MLP model in neural networks. Acta numerica8: 143-195.
Razzaq A, Ahmed U. I, Hashim S, Hussain A, Qadri S, Ullah S and Asghar A. (2021). An automatic determining food security status: Machine learning based analysis of household survey data. International Journal of Food Properties24(1): 726-736.
Rezaeifar, M. , Khalilian, S. and Najafi Alamdarlo, H. (2022). Spatial distribution of food insecurity in urban and rural areas of Iran. Agricultural Economics16(1), 99-121. (In Persian)
Rostami F, Shahmoradi M and Baghaei S. (2015). Factorsaffecting on rural housholds food security (Case study: Kamachy village in Kermanshah County). Agricultural Economics and Development, 45(4): 725-737. (In Persian)
Savari M, Shaban Ali Fami H and Daneshvar Ameri J. (2014). Food security and its greater impact on the rural community of Diwandara city. Rural Research, 5(2): 311-332. (In Persian)
Setsoafia E. D, Ma W and Renwick A. (2022). Effects of sustainable agricultural practices on farm income and food security in northern Ghana. Agricultural and Food Economics, 10(1): 1-15.
Smith A, Snapp S, Chikowo R, Thorne P, Bekunda M and Glover J. (2017). Measuring sustainable intensification in smallholder agroecosystems: A review. Global Food Security12: 127-138.
Swindale A and Bilinsky P. (2006). Household dietary diversity score (HDDS) for measurement of household food access: Indicator guide; Version 2; FANTA FHI:Washington, DC, USA.
Tubiello F. N, Soussana J. F and Howden S. M. (2007). Crop and pasture response to climate change. Proceedings of the National Academy of Sciences104(50): 19686-19690.