Determinants of adoption of automation and robotics technology in the agriculture sector–A mixed methods, narrative, interpretive knowledge synthesis

Automation and robotics technologies in agriculture promise to increase productivity with a smaller environmental footprint. However, adoption of agri-innovations is rarely a simple decision. The decision to adopt is determined by numerous factors. Employing a mixed methods narrative, interpretive knowledge synthesis, we review 72 unique studies between 2017–2021, and conduct a thematic analysis. Noting the innate complexity of agriculture, we identify 13 determinants of adoption of automation and robotic technologies in agriculture: data; farm characteristics and surrounding physical environment; farmer characteristics; policy and regulation; labour’s absorptive capacity; social elements; interoperability; standards; access to information; operational benefits; public infrastructure; technological characteristics; and uncertainty and risk. We conclude with seven observations. First, while automation and robotics are promising agri-innovations, they will not be appropriate or beneficial for all farms. There are other forms of agricultural innovation, and their uptake likely will always vary even within the same commodity and region. Second, taking a reductive approach to understanding adoption of agri-innovations may hinder the transformation to sustainable agriculture production systems; it is important to understand the role of complexity in shaping the dynamic interplay among determinants. Third, public infrastructure is more than just the Internet, yet there was little reference to other forms of public infrastructure in the dataset. Fourth, while many papers argue public policy is important for increasing the adoption of these innovations, few provide concrete policy suggestions or scalable examples. Fifth, trust and transparency are central to adoption. Technology developers need to take farmers concerns and needs seriously. Sixth, technology developers must offer practical solutions to real problems. Seventh, automation and robotics encompasses many technologies, and yet no standard or consistent terminology exists. This makes communication about these innovations more difficult. We propose a typology under the rubric of data-driven agricultural technologies.

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Publication Details

Journal
PLOS Sustainability and Transformation
Published
2024-11-18
DOI
https://doi.org/10.1371/journal.pstr.0000110
Citations
9
Primary Topic
Agricultural Innovations and Practices
Type
article
Field-Weighted Citation Impact
12.08
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article

Determinants of adoption of automation and robotics technology in the agriculture sector–A mixed methods, narrative, interpretive knowledge synthesis

Margaret A. Lemay, Jeff Boggs
9 citations
PLOS Sustainability and Transformation
Agricultural Innovations and Practices
12.08
article

Determinants of adoption of automation and robotics technology in the agriculture sector–A mixed methods, narrative, interpretive knowledge synthesis

Margaret A. Lemay, Jeff Boggs
article en
9 citations

Abstract

Automation and robotics technologies in agriculture promise to increase productivity with a smaller environmental footprint. However, adoption of agri-innovations is rarely a simple decision. The decision to adopt is determined by numerous factors. Employing a mixed methods narrative, interpretive knowledge synthesis, we review 72 unique studies between 2017–2021, and conduct a thematic analysis. Noting the innate complexity of agriculture, we identify 13 determinants of adoption of automation and robotic technologies in agriculture: data; farm characteristics and surrounding physical environment; farmer characteristics; policy and regulation; labour’s absorptive capacity; social elements; interoperability; standards; access to information; operational benefits; public infrastructure; technological characteristics; and uncertainty and risk. We conclude with seven observations. First, while automation and robotics are promising agri-innovations, they will not be appropriate or beneficial for all farms. There are other forms of agricultural innovation, and their uptake likely will always vary even within the same commodity and region. Second, taking a reductive approach to understanding adoption of agri-innovations may hinder the transformation to sustainable agriculture production systems; it is important to understand the role of complexity in shaping the dynamic interplay among determinants. Third, public infrastructure is more than just the Internet, yet there was little reference to other forms of public infrastructure in the dataset. Fourth, while many papers argue public policy is important for increasing the adoption of these innovations, few provide concrete policy suggestions or scalable examples. Fifth, trust and transparency are central to adoption. Technology developers need to take farmers concerns and needs seriously. Sixth, technology developers must offer practical solutions to real problems. Seventh, automation and robotics encompasses many technologies, and yet no standard or consistent terminology exists. This makes communication about these innovations more difficult. We propose a typology under the rubric of data-driven agricultural technologies.

PLOS Sustainability and TransformationVol. 3(11)
Brock University (CA), VISTA Science & Technology (CA)
Zero hunger
Openalex Percentile: Top 2%
Agricultural Innovations and Practices
12.08
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