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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<strong>Business</strong> <strong>Potential</strong> <strong>for</strong> <strong>Agricultural</strong> <strong>Biotechnology</strong> Products<br />
2004). Growers of soybean, cotton, maize, and canola in much of the world enjoy the benefits<br />
brought by herbicide-tolerant traits. So far, adoption of herbicide-tolerant traits in the Asia–Pacific<br />
region lags behind adoption in other areas of the world. Herbicide-tolerant cotton in Australia<br />
is the only such crop being grown commercially in the region. This product has been swiftly<br />
adopted since its introduction in Australia in 2000, and it exceeded 40% of the total cotton area<br />
in the 2003–04 growing season (Crossan and Kennedy, 2004), with 0.18M ha projected plantings<br />
in 2004–05, much of which will be combined with one or two insect-protected traits (James,<br />
2004). Economic benefits result from increases in yield and reductions in costs associated with<br />
the system and explain why the adoption rate is so high (Crossan and Kennedy, 2004; Taylor,<br />
2003). Environmental benefits of the system come from the favorable environmental characteristics<br />
of glyphosate (the active ingredient in the Roundup ® family of herbicides, used in Roundup<br />
Ready ® cotton), fewer applications of residual herbicides, and the ability to use reduced tillage<br />
practices (Crossan and Kennedy, 2004). Recently, the Philippines has approved the production<br />
of Roundup Ready ® maize, and commercial plantings are expected in 2005. Other countries in<br />
the region also are assessing herbicide-tolerant cotton and herbicide-tolerant maize.<br />
WHY AGRICULTURAL BIOTECHNOLOGY FOR THE FUTURE?<br />
Current agricultural biotechnology products are focused on improving agronomic properties<br />
and production systems at the grower level. In the future, traits will be developed to continue<br />
improvements in these areas but also to extend the impact into the food and feed sectors. Future<br />
agronomic traits that are being actively pursued include providing stress tolerances as a means of<br />
preserving yield under diverse environmental conditions (Cheikh et al., 2000; Kasuga et al.,<br />
1999) such as cold (Gilmour, 2000; Thomashow, 2001), heat (Alia et al., 1998), or salinity (Xu<br />
et al., 1996; Zhang et al., 2001). In the future, biotechnology will produce crops with improved<br />
feed or food quality or nutritional enhancements. A number of such products are currently in development<br />
(IFT, 2004; Cockburn, 2004; Falk et al., 2002; Fuchs, 2002; Mackey, 2002). Vitamin<br />
and mineral enhancement are two areas of particular importance to the developing world. One<br />
well-publicized ef<strong>for</strong>t is the initiative to produce rice with increased levels of beta-carotene to<br />
address Vitamin A deficiency (Ye et al., 2000; Potrykus, 2001). Improvement of rice by enhancing<br />
levels of minerals is also in development (Lucca, 2002; Grusak, 2002). Proteins (and their<br />
constituent amino acids) are critical components of mammalian diets, so improvement of crop<br />
plants to generate food and feed that meet the amino acid dietary requirements of humans and<br />
animals is another area of active interest. Lysine and methionine levels are two such essential<br />
amino acids whose levels have been increased using biotechnology (Day, 1996; Falco et al.,<br />
1995; O’Quinn et al., 2000). Modification of oils is another area of active research in the public<br />
and private sector. Plant biotechnology has successfully altered fatty acid compositions of major<br />
oilseed crops to produce oils with improved processing characteristics or oils with enhanced nutritional<br />
characteristics (Budziszewski et al., 1996; Kinney and Knowlton, 1998; Liu et al., 2002).<br />
A number of traits of potential relevance to agriculture and the food and feed sector in Asia<br />
and Oceania are in development. From a research and development perspective, China and India<br />
have been among the most active in the region. In China, <strong>for</strong> example, 16 different crop plants<br />
with biotechnology traits had been approved <strong>for</strong> commercialization or were in trials in 1999<br />
(Huang et al., 2002), and in 2005 China intends to invest USD500 million in crop biotechnology,<br />
making China the second-largest global investor in crop biotechnology after the U.S (James,<br />
2004). India also has very active research ef<strong>for</strong>ts in plant biotechnology in both the public and<br />
the private sectors. Multiple crops (e.g., chickpea, rice, cotton, mustard, and potato) and biotechnology<br />
traits (e.g., insect, disease and virus resistance, herbicide tolerance, stress tolerance, and<br />
® Roundup and Roundup Ready are registered trademarks of Monsanto Technology LLC.<br />
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