Ethical Issues and Potential Stakeholder Priorities Associated with the Application of Genomic Technologies Applied to Animal Production Systems
This study considered the range of ethical issues and potential stakeholder priorities associated with the application of genomic technologies applied to animal production systems, in particular those which utilised genomic technologies in accelerated breeding rather than the application of genetic modification. A literature review was used to inform the development of an ethical matrix, which was used to scope the potential perspectives of different agents regarding the acceptability of genomic technologies, as opposed to genetic modification (GM) techniques applied to animal production systems. There are very few studies carried out on stakeholder (including consumer) attitudes regarding the application of genomics to animal production in the human food chain and it may be that this technology is perceived as no more than an extension of traditional breeding techniques. While this is an area which needs more research, it would appear from this study that genomics, because it avoids many of the disadvantages and consumer perceptions associated with GM, is likely to prove a more publicly acceptable route than is GM for the development of healthier and more productive animals. However, stakeholders also need to have an approach to the moral status of the animals involved that finds credibility and acceptability with civil society.
KeywordsGenomic technology Genetic modification Animal production Ethical matrix Stakeholder
This research was supported by grants from Genome Alberta (Grant No SFR 3374) “Application of genomics to improving swine health and welfare” and (Grant No SFR2374) “Whole genome selection though genome imputation of beef cattle”.
- Blokhuis, H. J., Jones, R. B., Geers, R., Miele, M., & Veissier, I. (2003). Measuring and monitoring animal welfare: Transparency in the food product quality chain. Animal Welfare, 12(4), 445–455.Google Scholar
- Botreau, R., Veissier, I., & Perny, P. (2009). Overall assessment of animal welfare: Strategy adopted in welfare quality. Animal Welfare, 18(4), 363–370.Google Scholar
- Food and Agricultural Organization (FAO). (1996). Rome declaration and World food summit plan of action. Rome: Food and Agricultural Organization. http://www.fao.org/docrep/003/X8346E/x8346e02.htm#P1-10. Accessed 1 Sep 2013.
- Fuller, F., Tuan, F., & Wailes, E. (2002). Rising demand for meat: Who will feed China’s hogs? China’s food and agricultural: Issues for the 21st Century (pp. 17–19). Washington: USDA.Google Scholar
- GO-Science. (2011). Foresight. The future of food and farming. Final project report. The Government Office for Science: London.Google Scholar
- Hubbard, C., & Scott, K. (2011). Do farmers and scientists differ in their understanding and assessment of farm animal welfare? Animal Welfare, 20(1), 79–87.Google Scholar
- Kaiser, M. (2005). Assessing ethics and animal welfare in animal biotechnology for farm production. Revue Scientifique Et Technique-Office International Des Epizooties, 24(1), 75.Google Scholar
- Menozzi, D., Mora, C., & Merigo, A. (2012). Genetically modified salmon for dinner? Transgenic salmon marketing scenarios. AgBioForum, 15(3), 276–293.Google Scholar
- Mora, C., Menozzi, D., Kleter, G., Aramyan, L. H., Valeeva, N. I., & Reddy, G. P. (2012). Factors affecting the adoption of genetically modified animals in the food and pharmaceutical chains. Bio-based and Applied Economics, 1(3), 313–329.Google Scholar
- Oltenacu, P. A., & Broom, D. M. (2010). The impact of genetic selection for increased milk yield on the welfare of dairy cows. Animal Welfare, 19(supplement 1), 39–49.Google Scholar