Abstract
For agricultural industries to capture many environmental and economic benefits that have been demonstrated for precision agriculture (PA) technologies, an understanding of the factors affecting adoption of these technologies is required to adequately inform the development of PA approaches and the programs used to promote their use. A systematic review of the literature was undertaken to explore the processes of adoption of PA technologies, using an innovation diffusion framework to analyse the complex interactions between different factors in the adoption process. A total of 34 relevant publications were extracted from Scopus database following a systematic search and analysis process. PA technologies adoption research has predominantly been undertaken in the United States and Germany, with industrial crops receiving the most research attention. Relative advantage and motivation were the most frequently mentioned factors affecting PA technologies adoption. However, very few studies have examined multiple components of the complex adoption process, and most were narrowly focussed on assessing the impact of a single aspect. The conclusions drawn from the review are that many of the determinants of innovation diffusion that have been examined in other industry contexts were absent in the PA technologies adoption literature, and that the complexity and multidimensional nature of the adoption process was very poorly represented.
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Appendix: details of selected publications
Appendix: details of selected publications
Year | Authors | Publication | Country | PA technologies | Industry |
|---|---|---|---|---|---|
2018 | Kountios, G. Ragkos, A. Bournaris, T. Papadavid, G. Michailidis, A. | Precision Agriculture, vol. 19: 537–554 | Greece | Variable rate technology Remote sensing Geographical information systems | Multiple (Cotton, cereal, vegetables, arboriculture) |
2018 | Tamirat, T. W. Pedersen, S. M. Lind, K. M. | Acta Agriculturae Scandinavica, Section B—Soil & Plant Science, vol. 68: 349–357 | Denmark Germany | Auto guidance | Not mentioned |
2017 | Paustian, M. Theuvsen, L. | Precision agriculture, vol. 18: 701–716 | Germany | Not mentioned | Multiple (Wheat, barley, rye, oilseed, corn, feeding crops) |
2016 | Keskin, M. Sekerli, Y. E. | Agronomy Research, vol. 14: 1307–1320 | Turkey | Geographic information systems Remote sensing | Multiple (Grain, vegetable, industrial crop, fruit) |
2016 | Boyer, C. N. Lambert, D. M. Velandia, M. English, B. C. Roberts, R. K. Larson, J. A. Larkin, S. L. Paudel, K. P. Reeves, J. M | Journal of Agricultural and Resource Economics, vol. 41: 81–96 | US | Variable rate technology Geo-referenced precision soil sampling | Cotton |
2016 | Schimmelpfennig, D. Ebel, R. | Journal of Agricultural and Resource Economics, vol. 41: 97–115 | US | Yield monitor Yield map Variable rate technology | Grain |
2015 | Lambert, D. M. Paudel, K. P. Larson, J. A. | Journal of Agricultural and Resource Economics, vol. 40: 325–345 | US | Bundled of Yield monitors and grid soil sampling Bundle of aerial, satellite imagery, handheld devices with GPS and soil survey maps | Cotton |
2014 | Lambert, D. M. English, B. C. Harper, D. C. Larkin, S. L. Larson, J. A. Mooney, D. F. Roberts, R. K. Velandia, M. Reeves, J. M. | Journal of Agricultural and Resource Economics, vol. 39: 106–123 | US | Geo-referenced soil testing | Cotton |
2014 | Bagheri, N. Bordbar, M. | Agricultural Engineering International: CIGR Journal, vol. 16: 119–123 | Iran | Not mentioned | Not mentioned |
2014 | Lencses, E. Takacs, I. Takacs-Gyorgy, K. | Sustainability, vol. 6: 8452–8465 | Hungary | Auto-guidance | Not mentioned |
2014 | Busse, M. Doernberg, A. Siebert, R. Kuntosch, A. Schwerdtner, W. Konig, B. Bokelmann, W. | Precision Agriculture, vol. 15: 403–426 | Germany | Yield mapping GPS based soil sampling | Not mentioned |
2014 | Watcharaanantapong, P. Roberts, R. K. Lambert, D. M. Larson, J. A. Velandia, M. English, B. C. Rejesus, R. M. Wang, C. | Precision Agriculture, vol. 15: 427–446 | US | Remote sensing Yield monitor Grid soil sampling | Cotton |
2014 | Markley, J. Hughes, J. | International Sugar Journal, vol. 116: 278–285 | Australia | Variable rate technology Satellite imagery | Sugarcane |
2013 | Adekunle, I. O. | Middle East Journal of Scientific Research, vol. 13: 1230–1237 | Nigeria | Yield mapping Remote sensing | Multiple (Grain, vegetable, industrial crop, fruit, grape, oleaginous) |
2012 | Robertson, M. J. Llewellyn, R. S. Mandel, R. Lawes, R. Bramley, R. G. V. Swift, L. Metz, N. O’Callaghan, C. | Precision Agriculture, vol. 13: 181–199 | Australia | Variable rate technology Yield mapping | Grain |
2012 | D’Antoni, J. M. Mishra, A. K. Joo, H. | Computers and Electronics in Agriculture, vol. 87: 121–128 | US | Autosteer | Cotton |
2012 | Aubert, B. A. Schroeder, A. Grimaudo, J. | Decision Support Systems, vol. 54: 510–520 | Canada | Yield monitor Geographic information systems Remote sensing | Multiple (Cereal and oleaginous) |
2011 | Silva, C. B. De Moraes, M. A. F. D. Molin, J. P. | Precision Agriculture, vol. 12: 67–81 | Brazil | Satellite imagery Aerial photography Auto-guidance | Sugarcane |
2011 | Kutter, T. Tiemann, S. Siebert, R. Fountas, S. | Precision Agriculture, vol. 12: 2–17 | Multiple locations (Czech Republic, Denmark and Greece) | Yield mapping Auto-guidance Soil sampling | Grain |
2011 | Paxton, K. W. Mishra, A. K. Chintawar, S. Roberts, R. K. Larson, J. A. English, B. C. Lambert, D. M. Marra, M. C. Larkin, S. L. Reeves, J. M. Martin, S. W. | Agricultural and Resource Economics Review, vol. 40: 133–144 | US | Not mentioned | Cotton |
2011 | Lawson, L. G. Pedersen, S. M. Sorensen, C. G. Pesonen, L. Fountas, S. Werner, A. Oudshoorn, F. W. Herold, L. Chatzinikos, T. Kirketerp, I. M. Blackmore, S. | Computers and Electronics in Agriculture, vol. 77: 7–20 | Multiple locations (Denmark, Finland, Germany and Greece) | Auto-guidance Grid soil sampling | Multiple (Vegetable, industrial crop, cereal, livestock) |
2010 | Walton, J. C. Roberts, R. K. Lambert, D. M. Larson, J. A. English, B. C. Larkin, S. L. Martin, S. W. Marra, M. C. Paxton, K. W. Reeves, J. M. | Precision Agriculture, vol. 11: 135–147 | US | Grid soil sampling Variable rate technology | Cotton |
2009 | Reichardt, M. Jurgens, C. | Precision Agriculture, vol. 10: 73–94 | Germany | GPS based soil sampling Yield mapping Variable rate technology | Not mentioned |
2009 | Reichardt, M. Jurgens, C. Kloble, U. Hüter, J. Moser, K. | Precision Agriculture, vol. 10: 525–545 | Germany | GPS based soil sampling Yield mapping | Not mentioned |
2008 | Torbett, J. C. Roberts, R. K. Larson, J. A. English, B. C. | Computers and Electronics in Agriculture, vol. 64: 140–148 | US | Grid soil sampling Yield monitor Remote sensing | Cotton |
2008 | Larson, J. A. Roberts, R. K. English, B. C. Larkin, S. L., Marra, M. C. Martin, S. W. Paxton, K. W. Reeves, J. M. | Precision Agriculture, vol. 9: 195–208 | US | Remote sensing Variable rate technology | Cotton |
2008 | Isgin, T. Bilgic, A. Forster, D. L. Batte, M. T. | Computers and Electronics in Agriculture, vol. 62: 231–242 | US | Yield monitor Variable rate technology Grid soil sampling | Not mentioned |
2008 | Walton, J. C. Lambert, D. M. Roberts, R. K. Larson, J. A. English, B. C. Larkin, S. L. Martin, S. W. Marra, M. C. Paxton, K. W. Reeves, J. M. | Journal of Agricultural and Resource Economics, vol. 33: 428–448 | US | Variable rate technology Soil sampling | Cotton |
2007 | Jochinke, D. C. Noonon, B. J. Wachsmann, N. G. Norton, R. M. | Field Crops Research, vol. 104: 68–76 | Australia | Yield monitor Autosteer Aerial photography | Not mentioned |
2007 | Nganje, W. E. Friedrichsen, M. S. Gustafson, C. R. McKee, G. | Agricultural finance review, vol. 67: 295–310 | US | Variable rate technology | Multiple (Grain, vegetable, oleaginous) |
2005 | Adrin, A. M. Norwood, S. H. Mask, P. L. | Computers and Electronics in Agriculture, vol. 48: 256–271 | US | Yield monitor Remote sensing Grid soil sampling | Not mentioned |
2004 | Pedersen, S. M. Fountas, S. Blackmore, B. S. Gylling, M. Pedersen, J. L. | Acta Agriculturae Scandinavica Section B: Soil and Plant Science, vol. 54: 2–8 | Denmark | Yield mapping Variable rate technology | Multiple (Grain and oleaginous) |
2003 | Daberkow, S. G. McBride, W. D. | Precision Agriculture, vol. 4: 163–177 | US | Not mentioned | Grain and oilseed |
2003 | Batte, M. T. Arnholt, M. W. | Computers and Electronics in Agriculture, vol. 38: 125–139 | US | Yield monitor Variable rate technology Grid soil sampling | Grain |
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Pathak, H.S., Brown, P. & Best, T. A systematic literature review of the factors affecting the precision agriculture adoption process. Precision Agric 20, 1292–1316 (2019). https://doi.org/10.1007/s11119-019-09653-x
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DOI: https://doi.org/10.1007/s11119-019-09653-x