In the last twenty years, scholars have employed remote sensing techniques for a diverse range of agricultural applications. These include the estimation of crop acreage, discrimination between different crops, assessment of soil moisture and crop condition, estimation of crop yield, implementation of precision agriculture practices, conducting soil surveys, managing agricultural water resources, and providing agro-meteorological and agro advisory services. The improved satellite data accessibility at improved geographical, spectral, and temporal resolutions has facilitated the emergence of novel applications in agriculture and contributed to economic expansion. One notable example is the usage of satellite data in insurance, enabling enhanced risk management strategies in the agricultural sector. Nevertheless, the effective use of satellite data in this perception necessitates a combination of technical proficiency about their limitations and capabilities, as well as a comprehension of their effects on the efficacy of risk mitigation initiatives. Given the potential lack of precision in agronomic terminology within the remote sensing literature, we provide a comprehensive categorization of prevalent agricultural practices, accompanied with detailed elucidations. Two key approaches that were identified are crop rotation and crop succession.
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Prathap Mani
Department of Computer Science and Information Technology, American University of Kurdistan, Unnamed Road, Sumel, Iraq.
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Cite this Article
Prathap Mani, “Understanding Crop Practices and Patterns Using Remote Sensing Technologies”, Journal of Smart and Sustainable Farming, pp. 034-044, 12 March 2025, doi: 10.64026/JSSF/2025004.