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The world according to Monsanto : pollution, corruption, and

The world according to Monsanto : pollution, corruption, and

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the invention of gmos 133series of individual stepwise reactions. (3) Each single reaction is controlledin a primary fashion by a single gene. . . . <strong>The</strong> underlying hypothesis, whichin a number of cases has been supported by direct experimental evidence, isthat each gene controls the production, function, <strong>and</strong> specificity of a particularenzyme.” 1In other words, every biological reaction that characterizes the functioningof a living organism is governed by one gene that expresses a function bytriggering the production of a specific protein. This exclusive idea, whichsome call “all gene,” is the source of one of the greatest misunderst<strong>and</strong>ingsunderlying the development of biotechnology, one that persists <strong>to</strong>day. “In reality,”as Arnaud Apotheker, holder of a doc<strong>to</strong>rate in biology <strong>and</strong> spokesmanon GMO issues for Greenpeace France, pointed out in 1999, “every dayphenomena turn out <strong>to</strong> be more complex: a single gene may code for proteinshaving very different primary structures <strong>and</strong> biological properties dependingon the tissues of an organism or the organism itself. <strong>The</strong> molecularmachinery of living things is of a complexity that we are barely beginning <strong>to</strong>glimpse.” 2 We now know, for example, that some genes interact with others<strong>and</strong> that it is not a simple matter <strong>to</strong> extract them from one organism <strong>and</strong> introducethem in<strong>to</strong> another in order for them <strong>to</strong> express the protein <strong>and</strong>hence the function that has been selected. Rather, transferring genes thisway may cause unexpected biological reactions in the host organism.Beginning in the early 1960s, molecular biologists set <strong>to</strong> work <strong>to</strong> developtechniques that would enable them <strong>to</strong> manipulate genetic material <strong>to</strong> createchimerical organisms that nature never would have been able <strong>to</strong> produce onits own. To do so, they strove <strong>to</strong> divide <strong>and</strong> put <strong>to</strong>gether fragments of DNA,<strong>to</strong> copy <strong>and</strong> multiply genes with the aim of transferring them from onespecies <strong>to</strong> another. This genetic tinkering was often justified by a generoushumanitarian vision, expressed, for example, in 1962 by Caroll Hochwalt,Monsan<strong>to</strong>’s vice president for research, in a commencement speech atWashing<strong>to</strong>n University in St. Louis: “It is entirely conceivable that, throughthe manipulation of the genetic information at the molecular level, a cropsuch as rice could be ‘taught’ <strong>to</strong> build a high protein content in<strong>to</strong> itself, literallyworking a miracle of alleviating hunger <strong>and</strong> malnutrition.” 3 It shouldbe pointed out that at the time the secrets of DNA were of little concern <strong>to</strong>Monsan<strong>to</strong>, which was busy making its fortune in the jungles of Vietnam.So it was at Stanford University, not in St. Louis, that the first genetic manipulations<strong>to</strong>ok place. In 1972, as Monsan<strong>to</strong> was preparing <strong>to</strong> launch

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