Precision agriculture using smart technologies has transformed sustainable crop management to solve the problem of rising food security, resource optimization, and environmental sustainability. In precision agriculture, modern hardware, including Internet of Things (IoT) sensors and objects, drones, and artificial intelligence (AI), is used to boost crop production with minimal water, fertilizer, and pesticide use. The paper discusses how such smart technologies have affected sustainable crop management systems, and in particular, how have been able to maximize the use of resources and enhance crop yields. The paper employs quantitative and qualitative research methodologies, and it evaluates the research data gathered at different agricultural locations that have implemented smart technologies. The main statistical observations are that the agricultural lands that utilized the precision method of farming increased crop production by 15 % and reduced the use of resources, especially water and fertilizers, by 20 %. The study also emphasizes the role of smart technologies in assisting farmers to make evidence-based decisions that enhance the effectiveness of agricultural activities, minimize expenses, and ensure environmental sustainability. In addition, the paper talks about the obstacles and difficulties in the implementation of smart technologies in the agricultural sector, including a high initial cost, the need to train those skills, data privacy issues, etc. The results imply that the introduction of smart technologies is associated with great benefits in terms of sustainability, but needs to be planned, invested in, and supported in order to realize the successful implementation. Finally, the paper reinforces the importance of smart technologies in promoting sustainable agriculture and provides suggestions for further research on the elimination of barriers to adoption.
Getahun S, Kefale H, Gelaye Y. Application of precision agriculture technologies for sustainable crop production and environmental sustainability: A systematic review. The Scientific World Journal. 2024;2024(1):2126734.
2.
Padhiary M, Kumar A, Sethi LN. Emerging technologies for smart and sustainable precision agriculture. Discover Robotics. 2025 Jul 11;1(1):6.
3.
Aarif KO M, Alam A, Hotak Y. Smart sensor technologies shaping the future of precision agriculture: Recent advances and future outlooks. Journal of Sensors. 2025;2025(1):2460098.
4.
Shaheb MR, Sarker A, Shearer SA. Precision Agriculture for Sustainable Soil and Crop. Soil Science: Emerging Technologies, Global Perspectives and Applications. 2022 Dec 14:49.
5.
Adewusi AO, Asuzu OF, Olorunsogo T, Iwuanyanwu C, Adaga E, Daraojimba DO. AI in precision agriculture: A review of technologies for sustainable farming practices. World Journal of Advanced Research and Reviews. 2024 Jan;21(1):2276-85.
6.
Khose SB, Dhokale KB, Shekhar S. The role of precision farming in sustainable agriculture: advancements and impacts. Agriculture and Food E-newsletter. 2023;5(9):115-9.
7.
Farid HU, Mustafa B, Khan ZM, Anjum MN, Ahmad I, Mubeen M, Shahzad H. An overview of precision agricultural technologies for crop yield enhancement and environmental sustainability. Climate Change Impacts on Agriculture: Concepts, Issues and Policies for Developing Countries. 2023 Jun 15:239-57.
8.
Zaman QU. Precision agriculture technology: A pathway toward sustainable agriculture. In Precision agriculture 2023 Jan 1 (pp. 1-17). Academic Press.
9.
Karunathilake EM, Le AT, Heo S, Chung YS, Mansoor S. The path to smart farming: Innovations and opportunities in precision agriculture. Agriculture. 2023 Aug 11;13(8):1593.
10.
Kebe AA, Hameed S, Farooq MS, Sufyan A, Malook MB, Awais S, Riaz M, Waseem M, Amjad U, Abbas N. Enhancing crop protection and yield through precision agriculture and integrated pest management: a comprehensive review. Asian Journal of Research in Crop Science. 2023;8(4):443-5.
11.
Mamabolo E, Mashala MJ, Mugari E, Mogale TE, Mathebula N, Mabitsela K, Ayisi KK. Application of precision agriculture technologies for crop protection and soil health. Smart Agricultural Technology. 2025 Jul 31:101270.
12.
Sanyaolu M, Sadowski A. The role of precision agriculture technologies in enhancing sustainable agriculture. Sustainability. 2024 Aug 4;16(15):6668.
13.
Sinha G, Khan O, Pratyusha P, Maruthi B. Precision Agriculture: Innovations and Applications for Sustainable Crop Management. Rajat Yadav. 2023; 63:13.
14.
Yadav N, Sidana N. Precision Agriculture Technologies: Analysing the Use of Advanced Technologies, Such as Drones, Sensors, and GPS, In Precision Agriculture for Optimizing Resource Management, Crop Monitoring, and Yield Prediction. Journal of Advanced Zoology. 2023 Sep 4;44.
15.
SS VC, Hareendran A, Albaaji GF. Precision farming for sustainability: An agricultural intelligence model. Computers and Electronics in Agriculture. 2024 Nov 1; 226:109386.
16.
Mgendi G. Unlocking the potential of precision agriculture for sustainable farming. Discover Agriculture. 2024 Nov 7;2(1):87.
17.
Xing Y, Wang X. Precision agriculture and water conservation strategies for sustainable crop production in arid regions. Plants. 2024 Nov 13;13(22):3184.
18.
Laveglia S, Altieri G, Genovese F, Matera A, Di Renzo GC. Advances in sustainable crop management: integrating precision agriculture and proximal sensing. AgriEngineering. 2024 Sep 2;6(3):3084-120.
19.
Rani S. Precision Agriculture for Sustainable Development: Concepts and Applications. AI and Data Analytics in Precision Agriculture for Sustainable Development. 2025 Jul 3:1-9.
20.
Shukla S, Chaudhary K, Phutela S, Bhutani R, Shukla SK. Smart crop varieties and Precision agriculture: a way ahead for climate-resilient sustainable agriculture. In Climate change and agricultural ecosystems 2025 Jan 1 (pp. 435-466). Woodhead Publishing.
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