Hope Not Hype - Third World Network
Hope Not Hype - Third World Network
Hope Not Hype - Third World Network
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48 <strong>Hope</strong> <strong>Not</strong> <strong>Hype</strong><br />
Whether or not someone knowingly grows a GMO such as a GM crop, they could<br />
become exposed to legal actions, suffer market rejections (GAO, 2008) or be the subject<br />
of recalls causing loss of earnings (Box 4.1). For instance, farmers growing crops with<br />
transgenes may be prosecuted or sued if it can be determined that they did so without<br />
consent of the intellectual property holder (Heinemann, 2007). Farmers often enter into<br />
contracts, such as material transfer agreements (MTAs), with GM seed producers that<br />
may also create obligations. These obligations can even extend beyond territorial limits<br />
(Thomas, 2005).<br />
The industrialization of the gene has benefited from the ability to use powerful enzymatic<br />
and chemical reactions to manipulate, describe and trace DNA. Some of these techniques,<br />
particularly the polymerase chain reaction (PCR), make it possible to identify DNA sequences<br />
protected as IP [intellectual property] at profoundly low concentrations, in a way similar to<br />
their use in forensic police work. Previously, plant traits that enjoyed IP protection were<br />
identified at a phenotypic level. That is, the trait could be observed with the eye or by<br />
monitoring the use of management practices that were unlikely to be used with other varieties<br />
of the same crop. Cross-fertilization in maize, for example, has traditionally been estimated<br />
by xenia, the effect of pollen on endosperm and embryo development. As powerful as xenia<br />
is for observing cross-fertilization, and useful as it has been to develop and maintain individual<br />
lines, it pales in comparison to the ease and sensitivity of PCR which can, in theory, detect<br />
a single transgene in 10,000 genomes in a laboratory exercise taking no more than a few<br />
hours. At least from a legal liability point of view, “what is important for risk assessment of<br />
transgenic crops appears not to be the probability of gene flow itself but the traces of<br />
introduced gene(s) in subsequent generations in recipients” (p. 156 Yamamoto et al., 2006),<br />
especially as these traces do not have to produce noticeable phenotypes to make themselves<br />
noticed (Heinemann, 2007, p. 53).<br />
Crops are segregated to secure price premiums or target goods to particular markets.<br />
In areas where GM and non-GM agriculture attempt to co-exist, GM farmers may be<br />
prosecuted for loss of income to non-GM farmers.<br />
Neighboring certified (e.g., GM free) organic growers in particular represent a litigation<br />
risk for farmers who elect to grow PMP/PMIP [plant-made pharmaceuticals and plant-made<br />
industrial products] food crops in close proximity. Even if certified organic growers are<br />
comparatively scarce – only 73 organic growers are certified in North Carolina – their<br />
livelihood and certification status are under threat from PMP/PMIP crop admixture/<br />
introgression/hybridization events and thus they are likely to be especially vigilant for such<br />
events (Editor, 2007, p. 167).<br />
Transgene flow to non-GM crops may prevent organic certification or blemish<br />
reputation and thus significantly lower income. At risk is the price premium paid for<br />
organic products. This can be 20-50% in the EU, 100-200% in Japan (Zepeda, 2006), 10-<br />
40% in the US (Winter and Davis, 2006) and up to 100% for organic canola oil (Smyth et<br />
al., 2002).