Ai-Driven Agricultural Practices And Their Contribution To Rural Economic Growth

Abstract Data combining field observations with information from farm sensors, remote sensing, weather services, agricultural machinery, mobile apps, and e-commerce are increasingly underpinning new, intelligent ways of supporting agriculture decisions. This paper reviews the evidence for improvements in farm productivity and efficiency that result from these AI-supported farming practices and discusses how these translate to broader rural economic growth. Employing structured secondary research including peer-reviewed literature, international development agency reports and recent work on digital agriculture and AI, the review explores how the following five major channels are affected: precise crop management; smart irrigation; crop and yield forecasts; pest and disease diagnostics; and data-enabled farm and market decisions. This evidence shows how AI can help enable a better timing of, and a greater precision in the delivery of, agricultural inputs, reducing uneconomic resource use, improving risk management and strengthening farmer access to information and markets. While yield improvements and cost savings, which are frequently reported in the literature, range widely in relation to crop, technology, location, farm size and implementation, we would characterize yield improvements from 12-45% and cost savings up to around 25%, as cited in the initial framework, to be illustrative indications from the literature. Indeed, this paper reveals how the economic benefits of AI extend beyond the level of the farm itself – a better ability to utilize local technical services, advice, equipment maintenance, data services, transportation services, aggregation of product, and other activities throughout rural value chains. These can all potentially be spurring by well-placed AI support. The high initial outlay needed to use the technology, the lack of good connections, the small size of many plots of land, the digital literacy constraints of farmers and local intermediaries, concerns with how data should be managed and the need for access to respected local sources of expertise all constrain widespread adoption. Given these considerations, an approach to implementing AI as a support system rather than a replacement, which focuses on the farmer, includes public-good infrastructure and training, access to cost effective service models, tools designed to suit local circumstances and language, and the correct partnerships, is most apt to unlock inclusive rural economic development.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-30
DOI
https://doi.org/10.5281/zenodo.23009416
Primary Topic
Smart Agriculture and AI
Type
article
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Ai-Driven Agricultural Practices And Their Contribution To Rural Economic Growth

Santosh Prakash Dhawale, Sharad Shivaji Salve
Zenodo (CERN European Organization for Nuclear Research)
Smart Agriculture and AI
article

Ai-Driven Agricultural Practices And Their Contribution To Rural Economic Growth

Santosh Prakash Dhawale, Sharad Shivaji Salve
article en

Abstract

Abstract Data combining field observations with information from farm sensors, remote sensing, weather services, agricultural machinery, mobile apps, and e-commerce are increasingly underpinning new, intelligent ways of supporting agriculture decisions. This paper reviews the evidence for improvements in farm productivity and efficiency that result from these AI-supported farming practices and discusses how these translate to broader rural economic growth. Employing structured secondary research including peer-reviewed literature, international development agency reports and recent work on digital agriculture and AI, the review explores how the following five major channels are affected: precise crop management; smart irrigation; crop and yield forecasts; pest and disease diagnostics; and data-enabled farm and market decisions. This evidence shows how AI can help enable a better timing of, and a greater precision in the delivery of, agricultural inputs, reducing uneconomic resource use, improving risk management and strengthening farmer access to information and markets. While yield improvements and cost savings, which are frequently reported in the literature, range widely in relation to crop, technology, location, farm size and implementation, we would characterize yield improvements from 12-45% and cost savings up to around 25%, as cited in the initial framework, to be illustrative indications from the literature. Indeed, this paper reveals how the economic benefits of AI extend beyond the level of the farm itself – a better ability to utilize local technical services, advice, equipment maintenance, data services, transportation services, aggregation of product, and other activities throughout rural value chains. These can all potentially be spurring by well-placed AI support. The high initial outlay needed to use the technology, the lack of good connections, the small size of many plots of land, the digital literacy constraints of farmers and local intermediaries, concerns with how data should be managed and the need for access to respected local sources of expertise all constrain widespread adoption. Given these considerations, an approach to implementing AI as a support system rather than a replacement, which focuses on the farmer, includes public-good infrastructure and training, access to cost effective service models, tools designed to suit local circumstances and language, and the correct partnerships, is most apt to unlock inclusive rural economic development.

Zenodo (CERN European Organization for Nuclear Research)
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Smart Agriculture and AI
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