Leveraging modern technologies in agriculture: Recent progress and prospects in Bangladesh
Abstract
Agricultural technologies are crucial for time saving with sustainable agricultural production. However, the progress of conventional methods in agriculture, application of modern agricultural tools and their prospect of using are not well explored in perspective of Bangladesh. Therefore, updated studies on progress and prospects of modern agricultural tools in Bangladeshi agricultural sectors are highly demandable. Application of these modern agricultural tools not only improve productivity through optimizing resource usage but also help to reduce limitation of traditional farming methods. This study focuses the key areas of technological implementation of modern tools in global agricultural, current performance of those tools and their prospects of using in Bangladeshi agriculture. This review updated application of conventional agricultural tools in agricultural, comparison of traditional and modern agricultural tools using in Bangladeshi agricultural sectors, and prospect and progress of several agricultural tools in agriculture. The study discusses the current implication of precision agriculture, Internet of Things (IoT) based monitoring systems, automated irrigation, smart seed selection, and eco-friendly farming techniques. This review further explores the importance of integrating modern technologies and knowledge gaps of traditional farming, suggesting farmer centric approach supported by government policies, capacity-building initiatives, and incentives are required to ensure successful implementation of these modern tools. In this context, data-driven decision-making tools, mobile based advisory services, and renewable energy-driven systems could be useful during agricultural crop production. The extensive updated findings on importance and prospect of using modern agricultural technology opens new avenue for the agriculture policymakers, agronomists, and farmers for sustainable agricultural production in Bangladesh.
References
- [1]Alam MM, Ladha JK, et al. Improvement of cereal-based cropping systems following the principles of conservation agriculture under changing agricultural scenarios in Bangladesh. Field Crops Research 2015; 175: 1–15.
- [2]Dhar AR, Islam MM, et al. Adoption prospects and implication problems of practicing conservation agriculture in Bangladesh: A socioeconomic diagnosis. Soil and Tillage Research 2018; 176: 77–84.
- [3]Haque A, Islam N, et al. Smart Farming through Responsible Leadership in Bangladesh: Possibilities, Opportunities, and Beyond. Sustainability 2021, Vol 13, Page 4511 2021; 13: 4511.
- [4]Rahman MM, Islam A. Adaptation Technologies in Practice and Future Potentials in Bangladesh. 2013; 305–330.
- [5]Mendola M. Agricultural technology adoption and poverty reduction: A propensity-score matching analysis for rural Bangladesh. Food Policy 2007; 32: 372–393.
- [6]Ruane AC, Major DC, et al. Multi-factor impact analysis of agricultural production in Bangladesh with climate change. Global Environmental Change 2013; 23: 338–350.
- [7]Uddin MN, Bokelmann W, et al. Factors Affecting Farmers’ Adaptation Strategies to Environmental Degradation and Climate Change Effects: A Farm Level Study in Bangladesh. Climate 2014, Vol 2, Pages 223-241 2014; 2: 223–241.
- [8]Chen Y, Fu W, Wang J. Evaluation and Influencing Factors of China’s Agricultural Productivity from the Perspective of Environmental Constraints. Sustainability 2022, Vol 14, Page 2807 2022; 14: 2807.
- [9]Quddus A, Kropp JD. Constraints to Agricultural Production and Marketing in the Lagging Regions of Bangladesh. Sustainability 2020, Vol 12, Page 3956 2020; 12: 3956.
- [10]Alauddin M, Tisdell C. New agricultural technology and sustainable food production: Bangladesh’s achievements, predicament and prospects. Technological Change, Development and the Environment: Socio-Economic Perspectives 2018; 49: 35–62.
- [11]Ahmed A, Mahmud MdN, et al. Post-harvest technology and food processing innovations: Prospects and challenges in Bangladesh. International Journal of Chemical Studies 2025; 13: 93–103.
- [12]Alauddin M, Tisdell C. Impact of new agricultural technology on the instability of foodgrain production and yield: Data analysis for Bangladesh and its districts. Journal of Development Economics 1988; 29: 199–227.
- [13]Mottaleb KA. Perception and adoption of a new agricultural technology: Evidence from a developing country. Technology in Society 2018; 55: 126–135.
- [14]Tabassum N, Rezwana F. Bangladesh Agriculture: A Review of Modern Practices and Proposal of a Sustainable Method †. Engineering Proceedings 2021; 11: 12.
- [15]Rayhan SJ, Rahman MS, et al. The Role of Rural Credit in Agricultural Technology Adoption: The Case of Boro Rice Farming in Bangladesh. Agriculture 2023, Vol 13, Page 2179 2023; 13: 2179.
- [16]Misra S, Ghosh A. Agriculture paradigm shift: a journey from traditional to modern agriculture. Biodiversity and Bioeconomy: Status Quo, Challenges, and Opportunities 2024; 113–141.
- [17]Harlander SK. The Evolution of Modern Agriculture and Its Future with Biotechnology. Journal of American College and Nutrition 2002; 21: 161S-165S.
- [18]Ploeg JD we Van der. The Reconstitution of Locality: Technology and Labour in Modern Agriculture. Labour and Locality 2023; 19–43.
- [19]Singh R, Singh GS. Traditional agriculture: a climate-smart approach for sustainable food production. Energy, Ecology and Environment 2017 2:5 2017; 2: 296–316.
- [20]Morante MMS, Ang CR, et al, et al. Advantages and Disadvantages of Implementing Modern Agricultural Technology and Development Initiatives on Climate Change and Financial Support for Small-Scale Farmers in Nueva Ecija. International Journal of Advanced Engineering, Management and Science (IJAEMS) 2023; 9: 59–65.
- [21]Suri T. Selection and Comparative Advantage in Technology Adoption. Econometrica 2011; 79: 159–209.
- [22]Durham TC, Mizik T. Comparative Economics of Conventional, Organic, and Alternative Agricultural Production Systems. Economies 2021, Vol 9, Page 64 2021; 9: 64.
- [23]Hoffmann V, Probst K, et al. Farmers and researchers: How can collaborative advantages be created in participatory research and technology development? Agric Human Values 2007; 24: 355–368.
- [24]Matsuyama K. Agricultural productivity, comparative advantage, and economic growth. Journal of Economic Theory 1992; 58: 317–334.
- [25]Wang Z, Liu J, et al. Factors Affecting New Agricultural Business Entities’ Adoption of Sustainable Intensification Practices in China: Evidence from the Main Apple-Producing Areas in the Loess Plateau. Agronomy 2021, Vol 11, Page 2435 2021; 11: 2435.
- [26]Lains Pedro, Pinilla Vicente. Conceptual issues for the comparative study of agricultural development. 2008; 47–71.
- [27]Şimşek Ö. Harvesting sustainability: Innovations and practices in modern agriculture. Green Technologies and Sustainability 2025; 100192.
- [28]El Jarroudi M, Kouadio L, et al. Leveraging edge artificial intelligence for sustainable agriculture. Nature Sustainability 2024 7:7 2024; 7: 846–854.
- [29]Kulikova E, Molokova E. Leveraging market insights for sustainable agricultural practices. BIO Web Conf 2024; 121: 02011.
- [30]Ngulube P. Leveraging information and communication technologies for sustainable agriculture and environmental protection among smallholder farmers in tropical Africa. Discover Environment 2025; 3: 1–17.
- [31]Tenzin S, Siyang S, et al. Low cost weather station for climate-smart agriculture. 2017 9th International Conference on Knowledge and Smart Technology: Crunching Information of Everything, KST 2017 2017; 172–177.
- [32]Kumar A, Rani M, et al. Drone Technology in Sustainable Agriculture: The Future of Farming Is Precision Agriculture and Mapping. Agriculture, Livestock Production and Aquaculture: Advances for Smallholder Farming Systems: Volume 2 2022; 2: 3–12.
- [33]Shaddad SM. Geostatistics and Proximal Soil Sensing for Sustainable Agriculture. Handbook of Environmental Chemistry 2018; 76: 255–271.
- [34]Kroulik M. Benefits of GPS agricultural guidance for sustainable agriculture. Agrociencia Uruguay 2012; 16: 107–116.
- [35]Nayal K, Raut RD, et al. Antecedents for blockchain technology-enabled sustainable agriculture supply chain. Ann Oper Res 2023; 327: 293–337.
- [36]Zhang Z, Rod M, et al. A Comprehensive Review on Sustainable Industrial Vertical Farming Using Film Farming Technology. Sustainable Agriculture Research 2021; 10: 46–53.
- [37]Szekely I, Jijakli MH. Bioponics as a Promising Approach to Sustainable Agriculture: A Review of the Main Methods for Producing Organic Nutrient Solution for Hydroponics. Water 2022, Vol 14, Page 3975 2022; 14: 3975.
- [38]El-Essawy H, Nasr P, et al. Aquaponics: a sustainable alternative to conventional agriculture in Egypt – a pilot scale investigation. Environmental Science and Pollution Research 2019; 26: 15872–15883.
- [39]Kakarla US, Venkataramana A, Gopinath S, et al. Revolutionizing Agricultural Harvesting with IoT Application. MATEC Web of Conferences 2024; 392: 01014.
- [40]Schöning J, Wachter P, et al. Crop rotation and management tools for every farmer?: The current status on crop rotation and management tools for enabling sustainable agriculture worldwide. Smart Agricultural Technology 2023; 3: 100086.
- [41]Bajwa AA. Sustainable weed management in conservation agriculture. Crop Protection 2014; 65: 105–113.
- [42]Hobbs PR, Sayre K, et al. The role of conservation agriculture in sustainable agriculture. Philosophical Transactions of the Royal Society B: Biological Sciences 2007; 363: 543–555.
- [43]Dang YP, Page KL, et al. No-till Farming Systems for Sustainable Agriculture: An Overview. No-till Farming Systems for Sustainable Agriculture: Challenges and Opportunities 2020; 3–20.
- [44]Rose DC, Sutherland WJ, et al. Integrated farm management for sustainable agriculture: Lessons for knowledge exchange and policy. Land use policy 2019; 81: 834–842.
- [45]Hagras H, Colley M, et al. Online learning and adaptation of autonomous mobile robots for sustainable agriculture. Auton Robots 2002; 13: 37–52.
- [46]Hall DO. Biomass energy. Energy Policy 1991; 19: 711–737.
- [47]Obaideen K, Yousef BAA, et al. An overview of smart irrigation systems using IoT. Energy Nexus 2022; 7: 100124.
- [48]Masseroni D, Arbat G, et al. Editorial—Managing and Planning Water Resources for Irrigation: Smart-Irrigation Systems for Providing Sustainable Agriculture and Maintaining Ecosystem Services. Water 2020, Vol 12, Page 263 2020; 12: 263.
- [49]Paoletti MG, Pimentel D. Genetic engineering in agriculture and the environment. Bioscience 1996; 46: 665–673.
- [50]Vergragt PJ, Brown HS. Genetic engineering in agriculture: New approaches for risk management through sustainability reporting. Technological Forecasting and Social Change 2008; 75: 783–798.
- [51]Ali Q, Yu C, Hussain A, et al. Genome Engineering Technology for Durable Disease Resistance: Recent Progress and Future Outlooks for Sustainable Agriculture. Frontiers in Plant Science 2022; 13: 860281.
- [52]Tabassum N, Rezwana F. Bangladesh Agriculture: A Review of Modern Practices and Proposal of a Sustainable Method †. Engineering Proceedings 2021; 11: 12.
- [53]Wennergren EB, Antholt CH, et al. Agricultural development in Bangladesh. Agricultural Development in Bangladesh 2019; 1–373.
- [54]Alauddin M, Tisdell C. New agricultural technology and sustainable food production: Bangladesh’s achievements, predicament and prospects. Technological Change, Development and the Environment: Socio-Economic Perspectives 2018; 49: 35–62.
- [55]Duncan E, Abdulai AR, et al. Modernizing agriculture through digital technologies: Prospects and challenges. Handbook on the Human Impact of Agriculture 2021; 138–161.
- [56]Rahman MM, Ali MR, et al. Farm mechanization in Bangladesh: A review of the status, roles, policy, and potentials. Journal of Agriculture and Food Research 2021; 6: 100225.
- [57]Tabriz SS, Kader MA, et al. Prospects and challenges of conservation agriculture in Bangladesh for sustainable sugarcane cultivation. Environment Development and Sustainability 2021; 23: 15667–15694.
- [58]Alauddin M, Tisdell C. Poverty, resource distribution and security: The impact of new agricultural technology in rural Bangladesh. The Journal of Developmental Studies 1989; 25: 550–570.
- [59]Quddus A, Kropp JD. Constraints to Agricultural Production and Marketing in the Lagging Regions of Bangladesh. Sustainability 2020, Vol 12, Page 3956 2020; 12: 3956.
- [60]Faroque MAA, Kashem MA, et al. Sustainable Agriculture: A Challenge in Bangladesh. International Journal of Agricultural Research, Innovation and Technology 2011; 1: 1–8.
- [61]Rahman S. Environmental impacts of modern agricultural technology diffusion in Bangladesh: an analysis of farmers’ perceptions and their determinants. Journal of Environmental Management 2003; 68: 183–191.