Business Potential for Agricultural Biotechnology - Asian Productivity ...
Business Potential for Agricultural Biotechnology - Asian Productivity ...
Business Potential for Agricultural Biotechnology - Asian Productivity ...
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SUMMARY OF FINDINGS<br />
INTRODUCTION<br />
The Multi-Country Study Mission on <strong>Business</strong> <strong>Potential</strong> <strong>for</strong> <strong>Agricultural</strong> <strong>Biotechnology</strong><br />
Products, organized by the <strong>Asian</strong> <strong>Productivity</strong> Organization (APO) and hosted by the Government<br />
of the Republic of China, was held in Taipei from 23–28 May 2005. The Taiwan Agriculture<br />
Research Institute, Taichung, hosted the meeting. Twenty-two participants from twelve<br />
member countries and seven resource persons from the U.S., Singapore, Republic of Korea, and<br />
Republic of China attended this mission.<br />
The objectives of the study mission were to review the business potential of agriculture<br />
biotechnology products and to suggest how private companies, especially SMEs, including the<br />
government corporate sector, could actualize such potential in member countries.<br />
The study mission consisted of presentation and discussion of resource papers as well as<br />
country papers and field visits to selected institutions and private businesses involved in agricultural<br />
biotechnology research and development and commercialization of biotechnology products.<br />
The topics covered by the resource papers were: “Why <strong>Agricultural</strong> <strong>Biotechnology</strong>?,” “Global<br />
Status and Trends of Commercialized <strong>Biotechnology</strong> in Crops,” “Frontiers and Advances in<br />
Transgenic <strong>Biotechnology</strong> of Animals and Fishes,” “Development and Application of Biofertilizers<br />
in Taiwan,” “Current Status of the Transgenic Approach <strong>for</strong> Control of Papaya Ringspot<br />
Virus,” “Commercial-scale Production of Valuable Plant Biomass and Secondary Metabolites<br />
Using a Bioreactor System,” and “Commercialization of <strong>Agricultural</strong> Crop <strong>Biotechnology</strong> Products.”<br />
The following summary presents the highlights of the study mission.<br />
HIGHLIGHTS OF THE RESOURCE PAPERS<br />
The seven resource papers addressed different aspects of the process to commercialize agricultural<br />
biotechnology products. The rationale <strong>for</strong> agricultural biotechnology was made, and<br />
aspects of biotechnology ranging from applied microbiology to applied molecular biology to<br />
genetic engineering were discussed by authors using real-world examples. The overall per<strong>for</strong>mance<br />
of biotech crops was reviewed in the context of market share and market potential by<br />
geography. Issues of biosafety, food/feed safety assessment, and public acceptance were further<br />
discussed as integral components of the commercialization process.<br />
Why <strong>Agricultural</strong> <strong>Biotechnology</strong>?<br />
Crops improved through agricultural biotechnology have provided demonstrable economic,<br />
environmental, and social benefits globally. In the Asia–Pacific region, five countries have<br />
grown biotechnology-derived crops commercially: Australia, China, India, Indonesia, and the<br />
Philippines. Specific examples describe insect-protected cotton in China, Australia, and India,<br />
insect-protected maize in the Philippines, and herbicide-tolerant cotton in Australia. Future uses<br />
in Asia–Pacific include more widespread adoption of herbicide-tolerant crops currently grown<br />
elsewhere, including herbicide-tolerant maize. In addition, China and India are two countries<br />
within the region that have very active crop biotechnology research and development programs<br />
in a diversity of crops (including chickpea, rice, cotton, maize, mustard, and potato) and biotechnology<br />
traits (including insect, disease, and virus resistance, herbicide tolerance, stress tolerance,<br />
oil improvements, and fruit ripening). Other biotech-derived traits will improve food and feed<br />
nutrition, including vitamin and mineral enhancement, increased essential amino acids, and<br />
altered fatty acid composition. However, the successful development and commercialization of<br />
biotech-derived crops will be impacted by the costs of doing so, and the costs of regulatory ap-<br />
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